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+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

The ASTA (Aerospace Technologies of Australia, formerly Government Aircraft Factories) Baza development was started in 1995 when the Royal Australian Air Force was searching for a two-seat training aircraft that would allow the transition from initial training on piston-engined aircraft to jets, and could also be used for weapon training and CAS/reconnaissance duties.

 

ASTA responded with a low-wing two-turboprop-engined all-metal monoplane with retractable landing gear, capable of operating from unprepared strips when operationally required. The aircraft, internally coded “A-31”, was of conventional, all-metal (mainly duralumin) construction. The unswept cantilever wings have 3° of dihedral and are fitted with slotted trailing-edge flaps.

 

The A-31 had a tandem cockpit arrangement; the crew of two was seated under the upward opening clamshell canopy on Martin-Baker Mk 6AP6A zero/zero ejection seats and were provided with dual controls.

 

Armor plating was fitted to protect the crew and engines from hostile ground fire. The aircraft was powered by a pair of Garrett TPE 331 engines, driving sets of three-bladed propellers which were also capable of being used as air brakes.

 

The A-31 was designed for operations from short, rough airstrips.[The retractable tricycle landing gear, with a single nose wheel and twin main wheels retracting into the engine nacelles, is therefore fitted with low pressure tires to suit operations on rough ground, while the undercarriage legs are tall to give good clearance for underslung weapon loads. The undercarriage, flaps and brakes are operated hydraulically, with no pneumatic systems.

 

Two JATO rockets can be fitted under the fuselage to allow extra-short take-off.

Fuel is fed from two fuselage tanks of combined capacity of 800 L (180 imp gal; 210 US gal) and two self-sealing tanks of 460 L (100 imp gal; 120 US gal) in the wings.

 

Fixed armament of the A-31 consisted of two 30mm Aden cannons mounted under the cockpits with 200 rounds each. A total of nine hardpoints were fitted for the carriage of external stores such as bombs, rockets or external fuel tanks, with one of 1,000 kg (2,200 lb) capacity mounted under the fuselage and the remaining two pairs of 500 kg (1,100 lb) capacity beneath the wing roots and wings inside of the engine nacelles, and two more pairs of hardpoints outside of the engines for another 500 kg and 227 kg, respectively. Total external weapons load was limited to 6,800 lb (3,085 kg) of weapons, though.

Onboard armaments were aimed by a simple reflector sight, since no all weather/night capabilities were called for – even though provisions were made that external sensors could be carried (e. g. a TISEO or a PAVE Spike pod).

 

Severe competition arose through the BAe Hawk, though: the Royal Australian Air Force ordered 33 Hawk 127 Lead-in Fighters (LIFs) in June 1997, 12 of which were produced in the UK and 21 in Australia – and this procurement severely hampered the A-31’s progress. The initial plan to build 66 aircraft for domestic use, with prospects for export, e. g. to Sri Lanka, Indonesia or Turkey, was cut down to a mere 32 aircraft which were to be used in conjunction with the Australian Army in the FAC role and against mobile ground targets.

 

This extended role required an upgrade with additional avionics, an optional forward looking infrared (FLIR) sensor and a laser ranger in an extended nose section, which lead to the Mk. II configuration - effectively, only five machines were produced as Mk.I types, and they were updated to Mk. II configuration even before delivery to the RAAF in August 1999.

 

Since then, the ASTA A-31 has been used in concunction with RAAF's Pilatus PC-9 and BAe Hawk Mk. 127 trainers. Beyond educational duties the type is also employed for Fleet support to Navy operations and for close air support to Army operations.

 

The 'Baza' (christened by a small sized bird of prey found in the forests of South Asia and Southeast Asia) has even seen serious military duty and already fired in anger: since August 2007, a detachment of No. 114 Mobile Control and Reporting Unit RAAF has been on active service at Kandahar Airfield in southern Afghanistan, and a constant detachment of six A-31's from RAAF 76 Suqadron has been assigned to armed reconnaissance and protection of approximately 75 personnel deployed with the AN/TPS-77 radar, assigned the responsibility to co-ordinate coalition air operations.

  

General characteristics

Crew: 2

Length (incl. Pitot): 14.69 m (48 ft 1 ½ in)

Wingspan: 14.97 m (49 ft)

Height: 3, 75 m (12 ft 3 in)

Wing area: 30.30 m2 (326.1 sq ft)

Aspect ratio: 6.9:1

Airfoil: NACA 642A215 at root, NACA641 at tip

Empty weight: 4,020 kg (8,863 lb)

Max takeoff weight: 6,800 kg (14,991 lb)

Internal fuel capacity: 1,280 L (280 imp gal; 340 US gal)

 

Powerplant:

2 × Garrett TPE 331-11U-601G turboprop engines, 820 kW (1.100 hp) each

 

Performance

Maximum speed: 515 km/h (311 mph; 270 kn) at 4.570 m (15.000 ft)

Cruising speed: 430 km/h (267 mph; 232 kn) at 2.500 m (8.200 ft)

Stall speed: 143 km/h (89 mph; 77 kn) (flaps and undercarriage down)

Never exceed speed: 750 km/h (466 mph; 405 kn)

Range:1.611 km (1.000 mi; 868 nmi), clean and internal fuel only

Ferry range: 3,710 km (2,305 mi; 2,003 nmi) max internal and external fuel

Service ceiling: 10,000 m (32,808 ft)

g limits: +6/-3 g

Rate of climb: 6.5 m/s (1.276 ft/min)

 

Armament

2× 30 mm ADEN cannons in the lower nose

Up to 6,800 lb (3,085 kg) of weapons on nine external hardpoints

  

The kit and its assembly:

Like many of my whifs, this was spawned by a project at whatifmodelers.com from fellow user silverwindblade that ran under the handle "COIN aircraft from a Hawk" - and in fact, the BAe Hawk's fuselage with its staggered cockpit and good field of view appears as a good basis for a conversion.

 

I liked the idea VERY much, and while silverwindblade's work would rather develop into a futuristic canard layout aircraft, I decided to keep the COIN aircraft rather conservative - the FMA 58 'Pucara' from Argentina would be a proper benchmark.

 

The basis here is the Italeri BAe Hawk Mk. 127 kit which comes with the longer nose and modified wings for the RAAF version, as well as with false decals.

Anyway, I'd only use the fuselage, anything else is implanted, partly from unlikely donation kits! Wings incl. engine nacelles and stablizers come from the vintage box scale (1:166?) Revell Convair R3Y-2 Tradewind flying boat(!), the fin from an Academy OV-10 Bronco.

The landing gear was puzzled together, among other from parts of a 1:200 Concorde, the propellers were scratched.

 

Biggest mod to the fuselage is the dissection of the air intakes (and their blending with the fuselage) as well as a new tail section where the Adour jet engine's exhaust had been.

  

Painting and markings:

This model was agood excuse to finally apply an SIOP color scheme, which was originally carried by USAF's strategic bombers like B-52 or FB-111. But what actually inspired me were Australian C-130s - it took some time to figure out that their scheme were the USAF's SIOP colors (FS 34201, 34159 and 34079). But that made the Baza's potential user's choice (and fictional origin) easy.

 

As a COIN role aircraft I settled on a wraparound scheme. I found a pattern scheme on an USN Aggerssor A-4 Skyhawk that had been painted in SIOP colors, too, and adapted it for the model. Basic colors were Humbrol 31, 84 and 116, good approximations - the result looks odd, but suits the Baza well.

 

Later, panels were emphasized through dry painting with lighter shades and a light black ink wash was applied.

 

The landing gear became classic white, the cockpit interior medium gray - nothing fancy.

 

The markings were improvised - the Italeri Hawk Mk. 127 features RAAF 'roos, but these are printed in black - wrong for the OOB kit, but very welcome on my aircraft. The rest was salvaged from the scrap box, the tactical code A-31-06 created with single letters from TL Modellbau.

I reinforced the back wall with strips of styrene.

Kitbashing for the win (name all the parts if you dare).

 

Was originally assembled as a count as "Tycho" but increased his intelligence level and decided to put a helmet on and lower his profile into "just a sergeant".

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some background:

After World War I, the German aircraft industry had several problems. German airlines were forbidden to operate multi engine aircraft and during a period all manufacturing of aircraft in Germany was banned. By 1921, some of the restrictions was lifted, civilian aircraft could be made after approval of an international control commission if they fulfilled certain requirements. To bypass these rules and to be able to make whatever aircraft they wanted several aircraft manufacturers moved abroad. In 1921, Carl Bücker handled the purchase of a reconnaissance aircraft from Caspar-Werke in Travemünde. Because they expected problems due to the rules in the peace treaty regarding the export of German fighter aircraft, Bücker explored the possibility to smuggle the parts out of Germany and assemble the aircraft in Sweden.

 

To make the purchase easier, Ernst Heinkel and Bücker started Svenska Aero in Lidingö in 1921. The contract on the aircraft was transferred from Caspar to Svenska Aero. Heinkel and some German assembly workers temporarily moved to Lidingö to assemble the aircraft. During 1922 to 1923, the company moved into a former shipyard in Skärsätra on Lidingö since the company had received additional orders from the navy's air force. The parts for those aircraft were made in Sweden by Svenska Aero but assembled by TDS. In 1928, the navy ordered four J 4 (Heinkel HD 19) as a fighter with pontoons. That delivery came to be the last licens- built aircraft by Svenska Aero. In the mid-1920s, Svenska Aero created their own design department to be able to make their own aircraft models. Sven Blomberg, earlier employed by Heinkel Flugzeugwerke, was hired as head of design. In 1930, he was joined by Anders Johan Andersson from Messerschmitt. Despite that, Svenska Aero designed and made several different models on their own.

 

One of them was the model SA-16, a direct response to the Swedish Air Force and Navy’s interest in the new dive bomber tactics, which had become popular in Germany since the mid-Thirties and had spawned several specialized aircraft, the Junkers Ju 87 being the best-known type. The Flygvapnet (Swedish Air Force) had already conducted dive bombing trials with Hawker Hart (B 4) biplanes, but only with mixed results. Diving towards the target simplified the bomb's trajectory and allowed the pilot to keep visual contact throughout the bomb run. This allowed attacks on point targets and ships, which were difficult to attack with conventional level bombers, even en masse. While accuracy was increased through bombing runs at almost vertical dive, the aircraft were not suited for this kind of operations – structurally, and through the way the bombs were dropped.

 

Therefore, Svenska Aero was tasked to develop an indigenous dedicated dive bomber, primarily intended to attack ships, and with a secondary role as reconnaissance aircraft – a mission profile quite similar to American ship-based “SB” aircraft of the time. Having learnt from the tests with the Hawker Harts, the SA-16 was a very robust monoplane, resulting in an almost archaic look. It was a single-engine all-metal cantilever monoplane with a fixed undercarriage and carried a two-person crew. The main construction material was duralumin, and the external coverings were made of duralumin sheeting, bolts and parts that were required to take heavy stress were made of steel. The wings were of so-called “double-wing” construction, which gave the SA-16 considerable advantage on take-off; even at a shallow angle, large lift forces were created through the airfoil, reducing take-off and landing runs. Retractable perforated air brakes were mounted under the wings’ leading edges. The fully closed “greenhouse cabin” offered space for a crew of two in tandem, with the pilot in front and a navigator/radio operator/observer/gunner behind. To provide the rear-facing machine gun with an increased field of fire, the stabilizers were of limited span but deeper to compensate for the loss of surface, what resulted in unusual proportions. As a side benefit, the short stabilizers had, compared with a wider standard layout, increased structural integrity. Power came from an air-cooled Bristol Mercury XII nine-cylinder radial engine with 880 hp (660 kW), built by Nohab in Sweden.

 

Internal armament consisted of two fixed forward-firing 8 mm (0.315 in) Flygplanskulspruta Ksp m/22F (M1919 Browning AN/M2) machine guns in the wings outside of the propeller disc. A third machine gun of the same type was available in the rear cockpit on a flexible mount as defensive weapon. A total of 700 kg (1,500 lb) of bombs could be carried externally. On the fuselage centerline, a swing arm could hold bombs of up to 500 kg (1.100 lb) caliber and deploy them outside of the propeller arc when released in a, additional racks under the outer wings could hold bombs of up to 250 kg (550 lb) caliber each or clusters of smaller bombs, e. g. four 50 (110 lb) or six 12 kg (26 ½ lb) bombs.

 

Flight testing of the first SA-16 prototype began on 14 August 1936. The aircraft could take off in 250 m (820 ft) and climb to 1,875 m (6,152 ft) in eight minutes with a 250 kg (550 lb) bomb load, and its cruising speed was 250 km/h (160 mph). This was less than expected, and pilots also complained that navigation and powerplant instruments were cluttered and not easy to read, especially in combat. To withstand strong forces during a dive, heavy plating, along with brackets riveted to the frame and longeron, was added to the fuselage. Despite this, pilots praised the aircraft's handling qualities and strong airframe. These problems were quickly resolved, but subsequent testing and progress still fell short of the designers’ hopes. With some refinements the machine's speed was increased to 274 km/h (170 mph) at ground level and 319 km/h 319 km/h (198 mph, 172 kn) at 3,650 m (11,980 ft), while maintaining its good handling ability.

 

Since the Swedish Air Force was in dire need for a dive bomber, the SA-16 was accepted into service as the B 9 – even though it was clear that it was only a stopgap solution on the way to a more capable light bomber with dive attack capabilities. This eventually became the Saab 17, which was initiated in 1938 as a request from the Flygvapnet to replace its fleet of dive bombers of American origin, the B 5 (Northrop A-17), the B 6 (Seversky A8V1) and the obsolete Fokker S 6 (C.Ve) sesquiplane, after the deal with Fokker to procure the two-engine twin-boom G.I as a standardized type failed due to the German invasion of the Netherlands. The B 9 dive bomber would subsequently be replaced by the more modern and capable B 17 in the long run, too, which made its first flight on 18 May 1940 and was introduced to frontline units in March 1942. Until then, 93 SA-16s had been produced between 1937 and 1939. When the B 17 became available, the slow B 9 was quickly retired from the attack role. Plans to upgrade the aircraft with a stronger 14 cylinder engine (a Piaggio P.XIbis R.C.40D with 790 kW/1,060 hp) were not carried out, as it was felt that the design lacked further development potential in an offensive role.

Because the airframes were still young and had a lot of service life ahead of them, most SA-16s were from 1941 on relegated to patrol and reconnaissance missions along the Swedish coastlines, observing ship and aircraft traffic in the Baltic Sea and undertaking rescue missions with droppable life rafts. For long-range missions, the forked ventral swing arm was replaced with a fixed plumbed pylon for an external 682 liters (150 Imp. gal.) auxiliary tank that more than doubled the aircraft’s internal fuel capacity of 582 liters, giving it an endurance of around 8 hours. In many cases, the machine guns on these aircraft were removed to save weight. In this configuration the SA-16 was re-designated S 9 (“S” for Spaning) and the machines served in their naval observation and SAR role well into the Fifties, when the last SA-16s were retired.

  

General characteristics:

Crew: two, pilot and observer

Length: 9,58 m (31 ft 11 in)

Wingspan: 10,67 m (34 ft 11 in)

Height: 3,82 m (12 ft 6 in)

Wing area: 30.2 m² (325 sq ft)

Empty weight: 2,905 kg (6,404 lb)

Gross weight: 4,245 kg (9,359 lb)

Max takeoff weight: 4,853 kg (10,700 lb)

 

Powerplant:

1× Bristol Mercury XII nine-cylinder radial engine with 880 hp (660 kW),

driving a three-bladed variable pitch metal propeller

 

u>Performance:

Maximum speed: 319 km/h (198 mph, 172 kn) at 3,650 m (11,980 ft)

274 km/h (170 mph; 148 kn) at sea level

299 km/h (186 mph; 161 kn) at 2,000 m (6,600 ft)

308 km/h (191 mph; 166 kn) at 5,000 m (16,000 ft)

Stall speed: 110 km/h (68 mph, 59 kn)

Range: 1,260 km (780 mi, 680 nmi)

Service ceiling: 7,300 m (24,000 ft)

Time to altitude: 2,000 m (6,600 ft) in 4 minutes 45 seconds

4,000 m (13,000 ft) in 15 minutes 10 seconds

 

Armament:

2× fixed 8 mm (0.315 in) Flygplanskulspruta Ksp m/22F (M1919 Browning AN/M2) machine guns

in the wings outside of the propeller disc (with 600 RPG), plus

1× 8 mm (0.315 in) Ksp m/22F machine gun on a flexible mount in the rear cockpit with 800 rounds

Ventral and underwing hardpoints for a total external bomb load of 700 kg (1,500 lb)

  

The kit and its assembly:

This purely fictional Swedish dive bomber was inspired by reading about Flygvapnet‘s pre-WWII trials with dive bombing tactics and the unsuited aircraft fleet for this task. When I found a Hasegawa SOC Seagull floatplane in The Stash™ and looks at the aircraft’s profile, I thought that it could be converted into a two-seat monoplane – what would require massive changes, though.

 

However, I liked the SOC’s boxy and rustic look, esp. the fuselage, and from this starting point other ingredients/donors were integrated. Work started with the tail. Originally, I wanted to retain the SOCs fin and stabilizer, but eventually found them oversized for a land-based airplane. In the scrap box I found a leftover fin from an Academy P-47, and it turned out to be a very good, smaller alternative, with the benefit that it visually lengthened the rear fuselage. The stabilizers were replaced with leftover parts from a NOVO Supermarine Attacker – an unlikely choice, but their size was good, they blended well into the overall lines of the aircraft, and they helped to stabilize the fin donor. Blending these new parts into to SOC’s hull required massive PSR, though.

 

The wings were also not an easy choice, and initially I planned the aircraft with a retractable landing gear. I eventually settled on the outer wings (just outside of the gullwing kink) from an MPM Ju 87 B, because of their shape and the archaic “double wings” that would complement the SOC’s rustic fuselage. However, at this point I refrained from the retractable landing gear and instead went for a fixed spatted alternative, left over from an Airfix Hs 123, which would round up the aircraft’s somewhat vintage look. Because the wheels were missing, I inserted two Matchbox MiG-21 wheels (which were left over in the spares bin from two different kits, though). The tail wheel came from an Academy Fw 190.

 

Cowling and engine inside (thankfully a 9-cylinder radial that could pose as a Mercury) were taken OOB, just the original two-blade propeller was replaced with a more appropriate three-blade alternative, IIRC from a Hobby Boss Grumman F4F. The cockpit was taken OOB, and I also used the two pilot figures from the kit. The rear crew member just had the head re-positioned to look sideways, and had to have the legs chopped off because there’s hardly and space under the desk with the radio set he’s sitting at.

 

The ventral 500 kg bomb came from a Matchbox Ju 87, the bomb arms are Fw 189 landing gear parts. Additional underwing pylons came from an Intech P-51, outfitted with 50 kg bombs of uncertain origin (they look as if coming from an old Hasegawa kit). The protruding machine gun barrel fairings on the wings were scratched from styrene rod material, with small holes drilled into them.

 

A real Frankenstein creation, but it does not look bad or implausible!

  

Painting and markings:

I gave the B 9 a camouflage that was carried by some Flygvapnet aircraft in the late Thirties, primarily by fighters imported from the United States but also some bombers like the B 3 (Ju 86). The IMHO quite attractive scheme consists on the upper surfaces of greenish-yellow zinc chromate primer (Humbrol 81, FS 33481), on top of which a dense net of fine dark green wriggles (supposed to be FS 34079, but I rather used Humbrol 163, RAF Dark Green, because it is more subdued) was manually applied with a thin brush, so that the primer would still shine through, resulting in a mottled camouflage.

 

On the real aircraft, this was sealed with a protective clear lacquer to which 5% of the dark green had been added, and I copied this procedure on the model, too, using semi-gloss acrylic varnish with a bit of Revell 46 added. The camouflage was wrapped around the wings’ leading edges and the spatted landing gear was painted with the upper camouflage, too.

 

The undersides were painted with Humbrol 87 (Steel Grey), to come close to the original blue-grey tone, which is supposed to be FS 35190 on this type of camouflage. The tone is quite dark, almost like RAF PRU Blue.

The interior was painted – using a Saab J 21 cockpit as benchmark – in a dark greenish grey (RAL 7009).

The model received the usual light black ink washing and some post-panel shading on the lower surfaces, because this effect would hardly be recognizable on the highly fragmented upper surface.

 

The markings are reflecting Flygvapnet’s m/37 regulations, from the direct pre-WWII era when the roundels had turned from black on white to yellow on blue but still lacked the yellow edge around the roundel for more contrast. F6 Västgöta flygflottilj was chosen because it was a dive bomber unit in the late Thirties, and the individual aircraft code (consisting of large white two-digit numbers) was added with the fin and the front of the fuselage. “27” would indicate an aircraft of the unit’s 2nd division, which normally had blue as a standardized color code, incorporated through the blue bands on the spats and the small "2nd div." tag on the rudder (from a contemporary F8 Swedish Gladiator).

 

Roundels and codes came from an SBS Models sheet, even though they belong to various aircraft types. Everything was finally sealed with matt acrylic varnish.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

 

Some background:

The Q-6 program was initiated in the mid-1970s when, during the Battle of the Paracel Islands in 1974, the People's Liberation Army Air Force (PLAAF) and People's Liberation Army Naval Air Force (PLANAF) proved incapable of ground support missions. Due to the lack of modern avionics and ground infrastructure to support a modern air war, Chinese aircraft suffered navigation and other logistics problems that severely limited their performance. The first Chinese aircraft did not actually reach the islands until several hours after the battle was over.

 

In addition to the need to upgrade its logistics capability and infrastructure, China also decided that nothing-in-its-then-aircraft-inventory could fill the requirement for support missions in the South China Sea. Fighters such as the J-5, J-6, J-7, and J-8 lacked a ground attack capability and were hampered by short range. The only Chinese ground attack aircraft atr that time, the Nanchang Q-5 (a MiG-19 derivate with a solid nose, an internal weapon bay and lateral air intakes), was also short ranged and had a relatively low payload. China's bombers such as the Harbin H-5 and Xian H-6 were slow and lacked a sufficient self-defense capability. A new aircraft was therefore seen as desperately needed to fulfill a new naval strike mission in support of the People's Liberation Army Navy (PLAN).

 

Immediately after the battle, both the PLAAF and PLAN submitted their requirements for a new fighter bomber/ground attack aircraft to the 3rd Ministry of PRC. After extensive research, the 3rd Ministry decided that, based on the Chinese aeronautical industrial capability at the time, it was impossible to develop two separate airplanes at the same time. Instead, a decision was made to develop a single airplane when the prime requirements of the PLAAF and PLAN were similar, even though with different versions tailored to meet the different secondary needs of PLAAF and PLAN.

 

In June 1976 representatives from various aircraft factories were summoned to Beijing to discuss the project, and were instructed to come up with designs in the shortest possible time. Shenyang Aircraft Factory (later reorganized into Shenyang Aircraft Corporation) was the first to come up with a design, the JH-8 (FB-8), which was essentially a ground attack version of the large, twin-engined J-8II (F-8II) interceptor. Next came the Q-6, a new design from the Nanchang Aircraft Factory. The Xi'an Aircraft Factory (later reorganized into Xi'an Aircraft Industrial Corporation) was the last one to present a design, the Xian JH-7, also a new design.

 

Initially, the 3rd Ministry favored the JH-8, however because the design of the operational J-8II was still not completed the risk was considered to be too high, so it was eliminated. The projected development of JH-7 was too far out, and so the Q-6 was selected because it was believed to be the one that would be able for service the soonest.

 

The Q-6's distictive feature was its swing wing arrangement, and the project was China's first venture into this direction. Before the Q-6 program started, however, China had already obtained MiG-23BN and MiG-23MS aircraft from Egypt. A few downed F-111 were also provided to China by North Vietnam. Based on the research effort performed on these aircraft, it was suggested that the variable-sweep wing should be adopted for China's new ground attack aircraft.

 

The general designer of Nanchang Q-5, and the future academician of the Chinese Academy of Sciences (elected in 1995), Mr. Lu Xiaopeng, was named as the general designer of Q-6. Lu personally visited PLAAF and PLANAF numerous times to obtain their input, which was the base of the Tactical Technological Requirements of the Q-6 he was in charge of, and by February 1979, the general design of the attack aircraft was finalized, based on the initial requirement of the 3rd Ministry.

 

The original plan was to base the design of Q-6 on the MiG-23BN, the ground attack version of MiG-23. However, both PLAAF and PLAN required a true dogfight capability for self-defense. Due to the need of dogfight capability, a radar was needed, and the ground attack version of the Soviet fighter had no radar. As a result, the plan was changed to base the design on the MiG-23MS instead. But this was not a true solution: Studies revealed that in order to successfully perform the required missions for PLAAF and PLANAF, ground attack radar, as well as terrain-following radar, were needed, too. And for the intended dogfight capability, the RP-22 Sapfir-21 radar (NATO reporting name Jay Bird) of the MiG-23MS lacked the BVR capability.

 

Facing this technological lack the decision was made to use avionics reverse-engineered from the F-111 to makeup the MiG-23 shortcomings. But as with other technological features adopted for the Q-6, they were proven to be way too ambitious for the Chinese industrial, scientific and technological capability at the time, which resulted in prolonged development.

 

Problems did not stop, the airframe itself proved to be troublesome, too. Originally the design was based on the MiG-23MS, and was initially thought to be better than the MiG-23BN, because it provided more room in the nosecone to house the radar.

However, the Chinese microelectronic industry could not provide the solid state electronics needed to miniaturize the intended radar, and as a result, the size of the fuselage had theoretically to be increased from the size of the MiG-23 to that of the Su-24 to fit an appropriate radar dish with the technolgy available at that time. Research furthermore revealed that the side-intakes of the MiG-23 design were not sufficient enough to meet the required dogfight capability, so the side-intakes arrangement was changed into a single chin-intake instead, and the Q-6 is claimed to be the first Chinese aircraft to have a chin-mounted intake.

 

The engine itself was also a problem, since China did not possess a powerful jet fighter engine that would match the intended performance profile of the Q-6. At first there were plans to use 122.4 kN thrust of a WS-6 engine (which was used in the H-6/Tu-16 bomber!), but these were not suited for a fighter and simply too large. To match the targets of an aircraft weight of 14.500 kg, the biggest load of bombs of 4.500 kilograms and a combat radius of 900 km, the Q-6 was finally outfitted with the Wopen WS-9 afterburning turbofan - a license-built Rolls Royce RB.168 Spey Mk. 202 with 91.3 kN of thrust.

 

Chinese considered the greatest achievement of the Q-6 in its fly-by-wire (FBW) control of the variable-sweep wings, both were the first of its kind in China. The original goal of reverse-engineering the FBW of the F-111 proved to be way too ambitious and had to be abandoned, so a much simpler version was adopted. The triplex analog FBW of the Q-6 was effectively just slightly more advanced than the most rudimentary FBW in that the mechanical servo valves were replaced with electrical servo valves, operated by electronic controllers. But contrary to the most rudimentary FBW, where hydraulic actuators still existed, the hydraulic actuators are replaced by electrical actuators on the Q-6. Anyway, this system proved to be the major obstacle in the hardware development of the Q-6 and it took nine years to complete (1980–1988), under the personal leadership of Mr. Lu Xiaopeng.

 

In 1988, three prototypes were built: one for static test, one for avionics tests on the ground, and one for the variable sweep wing research. The serial aircraft for PLAAF and PLANAF would have been separate variants, called Q-6A and Q-6B, which are believed to be offered for export now (see below).

 

Although hailed as a technological breakthrough for the Chinese aviation and providing superior performance to fixed-wing designs (esp. the outdated Q-5), the Chinese system was more than 12% heavier than the simple mechanical-hydraulic controlled variable-sweep wing of the benchmark MiG-23, and the Q-6 avionics were still far from being up-to-date.

Once identified as an indigenous aircraft (the Q-6 was at first deemed to be a variant or straight copy of the MiG-23/27, and therefore premilinarily coded 'Flogger L'), NATO alloted the Code 'Fruitcase' to it, with suffixes for the various export variants (see below).

 

It was not before 1990 that the aircraft was completed and (theoretically) ready for service – but at that time, technology and military strategy had already changed, and China had been developing the more capable (but much bigger) twin-engined Xian JH-7 fighter bomber for PLAAF and PLANAF. But it would still take some years until the JH-7A would enter service with the PLANAF: in early 2004, and with the PLAAF by the end of the year.

 

For China, the most important factor which prevented the Q-6 introduction into PLAAF and PLANAF service, was the 'discovery' of stealth features on the battlefield: variable-sweep wing would enlarge the aircraft's radar cross section multiple times and thus making it impossible to survive on the modern battlefield, because it would be much more likely to be detected and shot down.

 

Anyway, internal politics did not stop China from offering the now completed airframe on the export market as A-6 'Kong Yun' ("Cloud"), as a more capable successor to the Nanchang A-5 (the export version of the MiG-19-based Q-5). From 1992 onwards, several former A-5 users bought the aircraft as A-6 multi-role fighters. It is assumed that these correspond to the Q-6's development lines for PLAAAF an PLANAF.

 

Current users are the Bangladeshi Air Force (8× A-6B), Myanmar Air Force (20× A-6C), Sri Lanka (11× A-6B) Korean People's Air Force (probably less than 50x A-6A) and the Sudanese Air Force (A total of about 20, 3–11 of them servicable, probably all A-6A).

 

A-6A ('Fruitcase A'):

The first version and despite being marketed as a "multi-role combat aircraft" a very simple variant with a small radome, probably containing a Type 226 pulse-Doppler radar (a Chinese copy of the GEC-Marconi Skyranger).

 

A-6B ('Fruitcase B'):

Similar in apperance to the A-6A with a bigger radome. This variant is equipped with a Chinese KLJ-6E pulse-Doppler radar (A Chinese copy of the Italian Pointer-2500 radar, the same as featured on the Chinese Q-5M Fantan attack aircraft), which gives all weather attack capability. These aircraft are also fitted with a HUD, a GPS receiver/inertial navigation system, a 360° radar warning system, a tactical radio navigation system and chaff/flare dispensers on the rear fuselage.

The Sri Lanka aircraft have been seen carrying an external FLIR pod on one of the underfuselage pylons, while the Bangladeshi Air Force aircraft exclusively feature a small fairing under the nose which is believed to contain a LR/MTS, allowing the deployment of PGM.

 

A-6C ('Fruitcase C'):

Dedicated ground attack variant with a solid, more slender nose and full PGM capability. The nose features a fairing with windows for an ALR-1 laser rangefinder/marked target seeker (LR/MTS) in a small ball turret, and possibly LLLTV/FLIR. This optical system offers day/night attack capability. Like the A-6B, these aircraft feature HUD, GPS, tactical radio and optional flare dispensers.

  

General characteristics:

Crew: 1

Length: 56 ft 1 in (17.10 m)

Wingspan: 47 ft 2 in (14.4m) at 16°, 28 ft 6 in (8,7m) at 72°

Height: 15 ft 9.5 in (4.82 m)

Empty weight: 16.520 lb (7.500 kg)

Loaded weight: 28.370 lb (12.880 kg)

Max. take-off weight: 32.820 lb (14.900 kg)

 

Powerplant:

1× Xian WS-9 Qin Ling afterburning turbofan (a license-built Rolls Royce RB.168 Spey Mk. 202), rated at 54,6 kN (5.562kp) dry and at 91,3KN (9.305kp) at full afterburner

 

Performance

Maximum speed: Mach 1.2 at low altitude and in clean configuration, subsonic with external ordnance; 1.055mph (1.700 km/h) at height and in clean configuration

Combat radius: 485 nmi (560 mi, 900 km)

Service ceiling: 49.180 ft (15.000 m)

 

Armament:

2× Type 23-III twin-barreled 23mm cannons in the wing roots with 200 RPG

7× Hardpoints (three under the fuselage, one under each fixed wing root and the mobile outer wings) for a maximum external ordnance of 10.000 lbs (4.540kg), including guided and unguided bombs, missiles, napalm tanks or 800l drop tanks; the two hardpoints under the outer wings are fixed and can only be used when the wings are kept in the most forward position (they are normally only used for drop tanks in ferry configuration).

   

The kit and its assembly:

This is a whif, but the Nanchang Q-6 was actually developed until 1989 – even though it never entered any service. It was over-ambitious and a dead end, overtaken by technological advances and the fact that Chinese development used to take decades rather than years.

 

Anyway, the Q-6 actually looked as if someone had glued the nose and air intake of a F-16 onto a MiG-23/27 fuselage - weird, but cool, so why not try this at home?

 

Like many kitbashing things, what sounds simple turned out to be a bit tricky in detail, even though the surgery was finally easier than expected. The model basis is pretty simple: I took an Academy MiG-27, sawed off the fuselage in the wing roots area (about 1cm, the cockpit section is an extra fuselage section), and did the same with an Italeri F-16 nose section, right behind the cockpit, where the front wheel well ends. The top insert for the single seater was left a bit longer, so that it would overlap with the MiG-23/27 spine.

When you fit these parts together, height is almost perfect, even the wing root/LERX angles match, but there are gaps left on the flanks where the original MiG-27 air intakes would be. These have to be covered, what creates lines reminiscent of the respective area on a MRCA Tornado. Furthermore, the spine behind the cockpit has to be sculpted, too.

 

Furthermore, the wing root levels of the MiG-23/27 and the F-16 did not match - they have a difference in height of about 4mm on the model, and this was the biggest challenge.

In order to compensate for this problem on my model, any LERX sign was removed from the F-16 nose. Inside of the F-16 section, a column was added that supports the rear upper half of the front fuselage, since the flanks had to go almost completely.

On the outside, the necessary intersections/extensions sculpted new with 2C putty, extending the MiG-23/27 lines forward. The final surface finish was done with NC putty. This major surgery was less complicated than expected - lots of work, though, but feasible.

 

The new front section with its blended fuselage/LERX area around the cockpit reminds surprisingly much of the MiG-29? As a side note: when you look at CG simulations of this aircraft, this area is a frequent field of trial and error. You find unconclusive, if not impossible designs.

 

Other changes include a less modern canopy from a MiG-21 (I think it comes from an Academy MiG-21F kit), which was more tricky to fit onto the original F-16 canopy than the LERX stuff. The F-16 canopy looked just too modern for my taste. An old Airfix pilot figure was added, too.

 

Another new feature is a new jet pipe, a J-79 nozzle from an Italeri Kfir that fits perfectly into the rear fuselage, and the fin. The latter was taken as a leftover part from my recent CF-151A project and comes from a 1:144 scale Tu-22M bomber (Dragon). It's higher, but less deep, and I thought that a slightly different shape and more area would be suitable for an attack aircraft. For the same reason the single, foldable stabilizer fin under the rear fuselage was replaced by two fixed strakes (from the F-16). Small details, but they change the look and make the aircraft appear more simple.

 

The landing gear was taken from the MiG-27, the front wheel strut had to be slightly shortened due to the reduced wheelbase on the Q-6.

 

The ordnance was puzzled together – according to current BAF weapons in use. I went for unguided missiles (taken from the Academy MiG-27 donation kit) and some 100kg iron bombs, leftover from a Trumpeter Il-28 bomber kit. These were arranged under the wing roots on improvised tandem MERs.

 

I did not even try to engrave new panel lines on the new front section - actually, almost the whole upper surface is featureless since it was made with putty. But bot 2C and NC putty are pretty touchy to drilling or engraving (as the rather fruitless attempt to drill open cavities for the two guns proved...), so I decided to just use paint effects.

  

Painting and markings:

I had been wanting to build a Bangladeshi Air Force aircraft for quite a long time, and the Q-6 was finally a great opportunity. As a ground attack aircraft, the livery was to reflect that role, and among modern BAF aircraft I found C-130 transporters carrying a wrap-around ‘Lizard’/’European One’ scheme, in the traditional tones of FS34102, FS34097 and FS 36081 (Humbrol 117, 149 and 32). Maybe the BAF C-130s are ex USAF aircraft? It seems to be common BAF practice to keep former users' liveries and even bort numbers! Anyway, I find the Lizard cammo on a swing wing aircraft like this rather disturbing, but overall the whole thing looks pretty cool, probably also because of the exotic roundels.

 

Another option would have been a two-tone green camouflage (seen on BAF An-32 transports) or a three-tone pattern of pale sand, dark brown and dark green with light blue undersides, seen on BAF A-5 fighters. The garish, blue livery of BAF MiG-29s, as well as the blue and grey patterns on BAF F-7 fighters, were ruled out, since they’d rather suggest an air superiority role.

 

The camouflage pattern is based on USAF A-10 aircraft, and the aircraft’s upper sides were thoroughly weathered with a black ink wash and dry-brushing in lighter shades of the basic tones. After all, my kit is to represent a Q-6 after more than 15 years of service, so that the grey would become much lighter, the dark green get a greyish-blue hue and the light green tone adapt an almost olive drab look. As a result, the aircraft does not look too dark and murky, and the missile ordnance does not stand out too much.

 

The roundels were improvised – Bangladeshi aircraft kits/decals are rare. AFAIK, only one 1:72 Fujimi MiG-21 offers a BAF markings option, otherwise I could not find anything else, even among aftermarket offerings. Scratching is more fun, though, so “my” markings are actually Pakistani roundels (from a TL Modellbau aftermarket sheet) with red decal discs covering the original white central disc.

The flag on the fin was cut from generic green decal sheet, the red disc was punched out from red decal sheet, just like the roundel additions. Straightforward – and highly effective! Other markings were puzzled together from the scrap box, since the Q-6 never got beyond prototype stage, anything was possible concerning stencils etc.

 

The bort numbers are guesstimates - typically, BAF (and also PAF) carry a full registration on the tail fin and only a three-digit code on the nose. Squadron emblems are only small and carried either on the nose or the fin, so the model is rather simple in appearance.

 

The cockpit interior was painted in "Russian Interior Blue-Green" (Testors 2135, a stuff also in use in China, as far as I can tell), the landing gear and its wells were kept in Aluminum (Humbrol 56). The air intake was painted in light grey from the inside, the radome became black.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

Under the Treaty of Trianon (1920), Hungary was forbidden from owning military aircraft. However, a secret air arm was gradually established under the cover of civilian flying clubs. During 1938, as a result of the Bled agreement, the existence of the Royal Hungarian Air Force (Hungarian: Magyar Királyi Honvéd Légierő (MKHL)), was made known. The army's aviation service was reorganized and expanded.

 

Late 1938 the army aviation was once again reorganized. Admiral Horthy, the head of state, ordered that the army aviation should become an independent service with effect of 01.09.1939. It subsequently participated in clashes with the newly established Slovak Republic and in the border confrontation with the Kingdom of Romania.

 

In 1940, the decision was made to unite the Air Force, the anti-aircraft forces, and the civilian air defense organizations under one central headquarters. In April 1941, operations were conducted in support of the German invasion of Yugoslavia and, on 27 June 1941, Hungary declared war on the Soviet Union.

On 01.06.1941, the Air Defense Corps was established, and Lieutenant General Béla Rákosi became Commander of Army Aviation. In effect the Air Force had once again become part of the Army. In the summer of 1942, an air brigade was attached to the Luftwaffe's VIII. Fliegerkorps at the Eastern Front.

 

At that time, most of the Hungarian Air Force's fighter equipment was of German origin, consisting of types like Bf 109 F and G, Fw 190 A/F, Me 210. But some indigenous designs were under development, too, e. g. at the RMI, Repülo Muszaki Intézet, or Aviation Technical Institute. Its aircraft were primarily (but not exclusively) by László Varga, and as a result, RMI designs were often given the Varga name (in some cases, even when he was not the major designer). But the RMI designation was used in parallel, too.

 

One of the domestic developments was the RMI-11 'Sólyom' (= Falcon) fighter. This single engine aircraft drew heavily upon the Bf 109 design, but featured some changes and improvements like an inward-retracting landing gear or a bubble canopy. It also incorporated elements from the heavy RMI-8 fighter, a push/pull design with twin tail booms, but the RMI-8’s sole prototype was destroyed by Allied air raids before a serious test program could be launched.

 

In contrast to the complex RMI-8 the RMI-11 was a small and light aircraft, a conventional but clean design, based on simple shapes for easy, modular production. Most of its structure was made from wood, saving sparse metal whenever possible. Empty weight was, for instance, about 200 kg less than a contemporary Bf- 109 G.

 

The RMI-11 was driven by a liquid-cooled DB 605 inverted V12 engine, rated at 1.475 hp. Thanks to the low weight of the airframe, the machine achieved a high top speed and an exceptional high rate of climb.

 

Originally designed as a fast and agile interceptor in the early stages of WWII, the RMI was only armed with two 13mm MG 131 with 300 RPG and two 7.92 mm MG 17 in the outer wings. Two underwing hardpoints could carry up to 100 kg each.

 

The RMI-11 prototype made its maiden flight in late 1943 and after a basic but successful test program immediately ordered into production – in a hurry, though, and beginning March 1944, Allied bomber raids began on Hungary and progressively increased in intensity.

 

Production of the RMI-11 gained only slowly momentum, due to material shortages, because the RMI-11was primarily of plywood bonded with a special phenolic resin adhesive that was supplied from German sources. Due to Allied bombing raids on the glue’s original production sites the plywood glue had to be replaced by one that was not as strong, and was later found to react chemically, apparently in a corrosive manner, with the wood in RMI-11’s structure. In November 1944, several RMI-11s crashed with wing and tail failures due to plywood delamination. This same problem also critically affected the German Focke Wulf Ta 154 and Heinkel He 162 programs.

 

Late in 1944 all efforts were redirected towards countering the advancing Red Army. Soon it was clear that the type needed long range cannons with higher caliber in order to encounter heavy Allied bombers, so plans were made to add heavier German armament. This was realized through an extra pair of MG 151/20 20 mm cannons with 150 RPG, which were added in fairings under the wings instead of the original bomb hardpoints (which were hardly ever used in service at all). During the same refit, the rather ineffective MG 17s were deleted, saving weight and leaving more room inside of the wings for the MG 131s’ ammunition supply (now with 400 RPG)

 

At that time only about 60 production aircraft had been completed and modified, and production was halted due to the severe structural problems. These machines were nevertheless thrown into service, with repairs and upgrades done at the Hungarian airfields – but the glue problem was a constant operational danger.

 

Still, all these efforts were to no avail: All fighting in Hungary ended on 16 April 1945, and all RMI-11’s were scrapped after hostilities ended.

  

General characteristics

Crew: 1

Length: 8.82 m (28 ft 10 ½ in)

Wingspan: 10.58 m (34 ft 8 in)

Height: 4.10 m (13 ft 5 in)

Wing area: 16.82 m² (181.00 ft²)

Empty weight: 1,964 kg (4,330 lb)

Loaded weight: 2,200 kg (4,840 lb)

Max. take-off weight: 2,395 kg (5,280 lb)

 

Powerplant:

1× Daimler-Benz DB 605A-1 liquid-cooled inverted V12, 1,475 PS (1,085 kW)

 

Performance:

Maximum speed: 640 km/h (398 mph) at 6,300 m (20,669 ft)

Cruise speed: 590 km/h (365 mph) at 6.000 m (19.680 ft)

Range: 850 km (528 mi)

Service ceiling: 12.000 m (39.370 ft)

Rate of climb: 17.0 m/s (3.345 ft/min)

Wing loading: 196 kg/m² (40 lb/ft²)

Power/mass: 344 W/kg (0.21 hp/lb)

 

Armament:

2× 13mm MG 131 (.51 in) machine guns in the wings,400 RPG, plus 2× 20mm MG 151/20 (.51 in) machine cannons, 150 RPG, in external underwing fairings.With the cannons deleted up to 8× 15 kg (33 lb) or 2× 50, 100, or 150 kg (110, 220, or 330 lb) bombs under the wings

  

The kit and its assembly:

This is a serious kitbash and a totally fictional aircraft - and you are IMHO an expert modeler if you recognize what basically went into it!

 

This build was inspired when I recently bought an RS Models Nakajima Kikka jet fighter, the double seater kit. As a bonus it comes with two fuselages: effectively, it is the single seater kit with an extra sprue and a different canopy. Looking at the Kikka's profile I found that it HAD to be converted into a piston engine aircraft, with a liquid-cooled engine. Wings and anything else would come from the scrap box, but it should become a sleek fighter aircraft, a late WWII design.

 

From that, things went straightforward:

● Fuselage from a RS Models Nakajima N9J1 "Kikka", front end cut away

● Wings from an Revell Macchi C.200 Saetta

● Stabilizers from an Art Model MiG I-210 fighter

● Canopy from a late Supermarine Spitfire (Special Hobby, IIRC)

● Nose/engine and radiators from an RS Models Ki-78

● The propeller was scratched from single pieces/blades and the Ki-78 spinner

● The landing gear is a Ki-78/C.200 parts mix.

I settled for the Ki-78's radiator installment on the rear flanks because it is a unique feature and simply does not hamper the sleek side profile. I also thought that this might have been a smart solution for modular production - fuselage and wings could be completed separately.

 

The Ki-78 engine had to be widened considerably to match the Kikka’s trapezoidal fuselage diameter, putty and major sculpting resulted in a relatively smooth and subtle intersection. As per usual, an axis construction for the propeller was added, too, so that it can spin freely. Mating wings and fuselage necessitated a new cockpit floor (which acts at the same time as landing gear well interior), and a 3mm bridge at the wing roots had to filled – but that was easy.

The cockpit interior was outfitted with spares, the Spitfire canopy needed some small styrene wedges under the windshield to make it fit onto the Kikka fuselage.

 

Things went rather smoothly until I fixed the wings to the completed fuselage. However I placed them, it looked odd – too far back, and the nose stood out; too far forward, and the tail was too long. Somehow, proportions did not match – only slightly, but it bugged me. So far that I eventually decided to shorten the fuselage – after having completed it, radiators already in place and everything sanded even. I made a vertical cut behind the cockpit and removed ~7mm of length – and suddenly the aircraft looked good! Needed some extra body work, but the aircraft looks much more balanced now.

 

The underwing fairings for the cannons were late additions, too. I wanted to keep the fuselage clean, with no nose guns, but adding heavier armament turned out to be tricky. The fairing solution was inspired by a real-world Fw 190 Rüstsatz which featured two MG 151/20 apiece. I had appropriate parts from an Academy Fw 190 left over, so I sliced these up and narrowed them for a single cannon each, and this was the right size for the slender aircraft. All gun barrels were created through heated and pulled-out styrene tubes.

  

Painting and markings:

Deciding what this aircraft was to become was tougher than building it! With its clearly German origin it had to be a WWII Axis type, but I did neither want a German nor a Japanese aircraft, even Italy was ruled out – all too obvious. With Hungary and its RMI designs I eventually found a good potential origin, and this also allowed a rather "colorful" livery. With the Hungarian background this kitbash became the RMI-11.

 

The paint scheme was inspired by an experimental Hungarian camouflage in Green, Gray and Brown, seen on a Bf 109G. I could not find color indications, but in the end I settled for three RLM tones for the upper sides, RLM 71, 75 and 79, coupled with RLM 76 for the lower sides. All tones are enamels from Modelmaster's Authentic range, panels and leading edges were slightly emphasized with lighter shades. As a small design twist I added a wavy, medium waterline on the fuselage sides.

 

Interior surfaces were, lacking any reference, kept in RLM 02. In order not to be too fanciful, the spinner became black with a green tip (RLM 62), and the blades were painted with a mix of RLM 70 (Black Green) and Black, for a very dark and dull green tone, Luftwaffe style.

 

The yellow markings correspond to German Luftwaffe markings of the late WWII era, the yellow 45° “V” under the lower left wing was introduced in the Balkan region in 1944, it was also carried by Luftwaffe aircraft in this conflict theatre.

The flashy decoration on all tail surfaces disappeared at that time on real aircraft (only small Hungarian flags were carried on the tail rudder), but I still incorporated the full national insignia because it's unique and a colorful contrast to the rest of the aircraft.

 

Most markings belong to a real Hungarian Bf 109G (from a Print Scale aftermarket sheet), I just scratched the national markings on the fuselage and the yellow markings (all cut from stock decal material) and parts of the Hungarian flag insignia on the tail: the tips were painted with red, the white and green bands were cut to measure from a Frecce Tricolori sheet.

 

A light black ink wash was applied and some dry painting added with gray and black (for soot and exhaust stains), for a lightly weathered effect. As final step, everything was sealed under matt acrylic varnish (Revell).

  

A quickie, done in just a week, but with a very convincing look. One might recognize Bf 109 F/G, Ki-78 and even He 100 features, but none of these aircraft really matches up with the RMI-11 at second glance, there are too many individual differences. If it gets you wondering – mission accomplished! ;)

1/6 female kitbash using a Phicen body and other various other pieces .

Jiaou Doll wheat skin big bust figure .

I had to make this billboard as when I was weathering the building I knocked out a panel of windows that I couldn't retrieve.

Putting the other half of that Calth characters sprue to use. This was a pretty simple kitbash, even if making room for the Terminator Lord head took a bit of creative cutting.

 

Really happy with the end result of this conversion, and the base - a mini diorama of sorts, I suppose - was quite the striking success, in my opinion. Certainly not bad for a spare bloodletter head, some hot glue and a paperclip. :)

 

If I could choose to improve on one thing, it would be the glow of the staff head - I've tried blue glows a few times, without any great success. Might be that I simply don't have the right colours - I may have to pick up some electric blue layers if I keep making psykers.

 

All in all though, proud of this project and somewhat self-satisfied to be able to say I now have a fully converted representation of each Chaos Marine HQ. I may have to add alternative versions as time goes on - a Jump Pack Lord, a Sorcerer on a Disc of Tzeentch, etc - but for now, I'd say this is quite an achievement in of itself. :)

 

C&C appreciated as always!

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

 

Some background:

The British occupation of the Faroe Islands in World War II, also known as Operation Valentine, was implemented immediately following the German invasion of Denmark and Norway.In April 1940, the United Kingdom occupied the strategically important Faroe Islands to preempt a German invasion.

 

At the time of the occupation, the Faroe Islands had the status of an amt (county) of Denmark.

On 12 April, two destroyers of the British Royal Navy arrived in Tórshavn harbour, the Faroe capital. Following a meeting with Carl Aage Hilbert (the Danish Prefect of the Islands) and Kristian Djurhuus (President of the Løgting, the Faroese Parliament), an emergency meeting of the Løgting was convened the same afternoon.

 

Pro-independence members tried to declare the independence of the Faroe Islands from the Kingdom of Denmark but were outvoted. An official announcement was made later, announcing the occupation and ordering a nighttime blackout in Tórshavn and neighboring Argir, the censorship of post and telegraphy and the prohibition of the use of motor vehicles during the night without a permit.

 

On 13 April, the Royal Navy cruiser HMS Suffolk arrived at Tórshavn. Colonel T B W Sandall (the British military commander) and Frederick Mason (the new British Consul to the Faroe Islands) then met with the Danish Prefect. The Prefect responded with what Sandall took to be a formal protest, although Hilbert maintained that owing to the occupation of Denmark he was unable to formally represent the Danish government. He duly accepted the British terms on the basis that the UK would not seek to interfere with the internal affairs of the islands. A formal protest was made by the Løgting, albeit expressing the wish for friendly relations. 250 Royal Marines were disembarked, later to be replaced by other British troops.

 

In practice, cordial relations were maintained between the British forces and the Faroese authorities.

On 25 April 1940 the British authorities recognized the Faroese flag — Merkið — as the civil ensign of the Faroe Islands. The traditional Faroese coat of arms was, however, not reintroduced until the formal introduction of home rule on 23 March 1948. As a consequence and sign of respect, Faroese ships were allowed (and actually had) to hoist the Faroese flag and paint FAROES / FØROYAR on the ships' sides, thus allowing the Royal Navy to identify them as "friendly".

 

This principle was also adopted for other British equipment under Operation Valentine, underlining the defensive nature of the task and the islands’ special status.

 

In May 1940, the Royal Marines were replaced by soldiers of the Lovat Scouts, a Scottish Regiment, and more military equipment was deployed to the islands, including ships and aircraft. Since it was not before 1943 that an operational airfield on the island of Vágar by the Royal Engineers was established, all aircraft had to be waterborne. The small air force with Faroese markings included three Fairey Seafox reconnaissance aircraft, two Supermarine Walrus flying boats and five Blackburn Bonxie floatplanes (a torpedo bomber based on the Blackburn Skua dive bomber), which were later replaced and augmented by several Fairey Swordfish and Supermarine Spitfire Mk. V on floats.

 

All these aircraft were allocated to the newly established RAF 362 Squadron and piloted by Danish and Norwegian crews in British exile, purely dedicated to the Faroe Islands Defense. The machines kept their original British serial numbers and tactical codes, but the RAF roundels were replaced by Merkið banners on the wings and the fin rudder.

 

On 20 June 1940, five Swedish naval vessels arrived in the Faroe Islands. Four were destroyers bought from Italy, one with civilian passengers; the fifth was a tanker converted to military status. Britain seized all the ships under armed threat, and moved them to the Shetland Islands. Although Sweden was a neutral country and not at war with Britain, the British were afraid that Germany would seize them if they continued to Sweden. After political negotiations, Sweden secured their return. The British Navy had stripped equipment and caused damage to the ships, for which Britain later gave compensation.

 

The Faroe Islands suffered occasional attacks by German Luftwaffe aircraft in the course of the war, but a full-scale invasion was never attempted. Frequently, German long-range reconnaissance aircraft were intercepted and a single Fw 200 Condor was shot down by a Spitfire floatplane of 362 Squadron. Drifting sea mines proved to be a bigger problem and resulted in the loss of numerous fishing boats and their crews.

 

Once the Vágar airfield became operational in early 1943, 362 Squadron exchanged many of its water-based aircraft for more modern, land-based aircraft, even though the Supermarine Walrus floatplanes were kept for SAR duties. From 1944 onwards the British Faroe garrison was considerably reduced, and British troops left shortly after the end of the war.

  

Specifications:

Crew: 2

Length (fuselage only): 35 ft 7 in (10.85 m)

Length (over floats): 38 ft (11.60 m)

Wingspan: 46 ft (14.02 m)

Height: 12 ft 1 in (3.68 m)

Wing area: 310 ft² (28.8 m²)

Empty weight: 6,121 lb (2,782 kg)

Loaded weight: 7,950 lb (3,614 kg)

 

Powerplant:

1 × Bristol Perseus XII radial engine, 890 hp (664 kW)

 

Performance:

Maximum speed: 194 kn (223 mph, 359 km/h) at 10,000 ft (3,050 m)

Cruise speed: 117 knots (135 mph, 217 km/h) [20]

Range: 704 nmi (810 mi, 1,304 km) with 70 imp gal (320 l; 84 US gal) long-range tank

Service ceiling: 18,000 ft (5,500 m)

Rate of climb: 1,500 ft/min (7.6 m/s)

Wing loading: 25.6 lb/ft² (125 kg/m²)

Power/mass: 0.11 hp/lb (0.18 kW/kg)

 

Armament:

2× 0.303 in (7.7 mm) forward-firing Browning machine guns in the outer wings

1× 0.303 in (7.7 mm) Lewis or Vickers K machine gun on flexible mount in rear cockpit

1 × 1,500 lb (680 kg) torpedo under the fuselage, or a single 1.000 lb (454 kg) bomb

alternatively 4× 100 lb (45kg) bombs or 8× 30 lb (14 kg) practice bombs under the wings

  

The kit and its assembly:

Well, this is rather an alternative history whif than a whiffy aircraft – even though it’s a kitbash: a Novo/Frog/Eastern Express Blackburn Skua, slightly modified and mated with floats and a torpedo from a Blackburn Shark from the same moulds.

 

This combo was never realized, but four Blackburn Roc turret fighters were modified this way for trials – and the big floats deteriorated the type’s rather mediocre performance even more… But with the Skua as basis, the result could have been an decent multi-purpose aircraft?

 

Building the thing was rather straightforward, aircraft and floats were taken pretty much OOB.

The only changes are:

- a fuel tank added between the two seats, filling the OOB void

- a light blocker (foamed plastic) between the engine and the cockpit – the kit features no bulkhead

- the outer wing machine guns were deleted

- the landing gear wells were filled, as well as the tail wheel space on the ventral tail fin

- struts for the floats were taken OOB, but tailored to the Skua’s underside and re-arranged so that a torpedo could be carried and dropped

- a new exhaust with flame dampers was installed

 

Painting and markings:

That’s where the original inspiration for this build came from: while researching for the German invasion of Norway in 1940 I came across Operation Valentine on the remote Faroer islands. When I saw the Faroese flag I knew I had to incorporate it somehow in a whif – and the design of choice fell upon a layout similar to the Norwegian solution of the era, just with adapted colors.

 

As a fictional ex RAF aircraft, the Bonxie received a typical Coastal Command/Royal Navy livery in Dark Slate Grey and Dark Sea Grey on the upper surfaces, coupled with Sky Grey undersides and a low waterline. Rather conservative, and suits the aircraft well. Basic colors are Humbrol 224, 164 and 166, respectively, later weathered through a thin black ink wash and panel-shaded with lighter mixed of the basic tones – the latter was direly necessary, because the massive putty work (NO part of the Skua kit would match another one, plus flash, sinkholes, anything you can ask for) rendered almost any of the risen panel line details invisible.

 

The code letters “NY”, as well as 362 Squadron, are fictional – both never existed or were used in WWII.

 

Where the original RAF roundels would have been placed, blotches of slightly different tones were applied, as if the original operator markings had been hastily painted over. Later, the Faroese markings were created with plain-colored decal sheet in white, red and blue from TL Modellbau. The Medium Sea Grey code letters come from a PrintScale sheet, the serials were done with single black letters and numbers, also from TL Modellbau.

Phicen kitbash using the blonde Kimi headsculpt .

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

The Fouga CM.170 Magister was a 1950s French two-seat jet trainer aircraft, developed and manufactured by aircraft company Fouga. Due to industrial mergers, the aircraft has been variously known as the Fouga CM.170 Magister, Potez (Fouga) CM.170 Magister, Sud Aviation (Fouga) CM.170 Magister and Aérospatiale (Fouga) CM.170 Magister, depending on where and when they were built.

 

In 1948, development commenced at Fouga on a new primary trainer aircraft design that harnessed newly developed jet propulsion technology. The initial design was evaluated by the French Air Force and, in response to its determination that the aircraft lacked sufficient power for its requirements, was enlarged and adopted a pair of Turbomeca Marboré turbojet engines. First flying on 23 July 1952, the first production order for the type was received on 13 January 1954. Export orders for the Magister were received, which included arrangements to produce the type under license in Germany, Finland, and Israel. In addition, the related CM.175 Zéphyr was a carrier-capable version developed and produced for the French Navy.

 

While primarily operated as a trainer aircraft, the Magister was also frequently used in combat as a close air support platform by various operators. In the latter capacity, it saw action during the Six-Day War, the Salvadoran Civil War, the Western Sahara War, and the Congo Crisis. In French service, the Magister was eventually replaced by the Dassault/Dornier Alpha Jet, and a navalized variant (the CM.175 “Zéphyr”) was procured and operated from 1959 onwards by the Aéronavale.

 

Beyond that, the basic 1950 design was considered for several upgrades or specialized variants – including a high altitude trainer or a dedicated single-seat attack aircraft. In 1957 even a supersonic variant was proposed: the CM.174, which featured swept wings and tail surfaces. However, this initial aircraft never made it to the hardware stage because wind tunnel tests revealed serious compressibility issues at speeds beyond Mach 0.65, and that the potential gain in performance through the new wings could not be tapped.

 

However, this was not the end of the Magister’s potential; in 1957 Fouga presented a model of the CM 194 at the Paris Air Show – a much updated aircraft, powered by a pair of stronger Gabizo engines and capable of supersonic speed, even though only in a dive. French officials and some potential foreign customers (e.g. Israel) were interested enough to convince Fouga to build a demonstrator, even though as a private venture. The first prototype left the Toulouse factory in May 1958, the first type to bear the Potez designation after Fouga had just been purchased by the firm.

 

The CM.194 differed in some details from the model that had been presented – primarily in order to save development time and costs. The basic fuselage structure from the original CM.170 was retained, but the CM.194 introduced completely new wings and tail surfaces, a modified landing gear, a pointed nose and an elongated spine fairing that helped improve the aircraft’s aerodynamics for the flight in the Mach 1 region. Power came from a pair of Turbomeca Gabizo, but in order to improve the aircraft’s performance and make it suitable for the advanced jet fighter trainer role, the relatively small engines even received afterburners (an arrangement originally developed for the stillborn Breguet Br 1001 “Taon” tactical fighter). With this extra power, the CM.194 was now able to break the sound barrier in level flight and attain a top speed of Mach 1.18, and the type could carry a considerably higher payload than the original CM.170.

 

Flight tests started in late 1958 and revealed good handling characteristics, even though longitudinal stability near Mach 1 was considered as unsatisfactory, and the air intakes had to be modified because of airflow problems and engine surges at supersonic. It took until mid 1959 until an enlarged butterfly tail with crescent shape, together with an extended spine fairing, eventually solved the stability problem. The engine surge problem was solved through the introduction of movable shock cones in the air intakes, similar to the “souris” (mice) arrangement on Dassault’s Mirage III and IV.

Two more prototypes had been built at that time, being marketed as the “Magister Supersonique”, or “Magister SS” for short, and a demonstration tour around the globe in many countries of Magister operators was conducted from October 1959 until April 1960.

However, the CM.194 did not meet much interest. Even though many air forces, also smaller ones, were about to enter the supersonic age and were looking for advanced trainers, the market had been conquered by politically endorsed alternatives in the meantime, namely the Northrop T-38/F-5B and the MiG-21U, and these contenders were much more capable than the relatively light CM.194.

 

Nevertheless, the French air force procured 42 CM.194 trainers, the first operational aircraft being delivered in early 1963, and some other countries ordered the type, too, including Austria, Belgium, Lebanon and Morocco. Israel even secured license production rights of the aircraft as the IAI T-270 “Drowr” (Swallow). A total of 132 aircraft were built until 1974, and the last CM.194 was retired by El Salvador in 1995.

  

General characteristics:

Crew: Two

Length: 10.36 m (34 ft 0 in)

Wingspan: 8.92 m (29 ft 3 in)

Height: 2.45 m (8 ft)

Wing area: 16.4 m² (177 ft²)

Empty weight: 3,100 kg (6,830 lb)

Loaded weight: 5,440 kg (11,990 lb)

Max. takeoff weight: 5,500 kg (12,100 lb)

 

Powerplant:

2× Turbomeca Gabizo axial flow turbojets, with 11.87 kN (2,668 lbf) dry thrust each

and 14.71 kN (3,307 lbf) with afterburner

 

Performance:

Maximum speed: 1,194 km/h (742 mph; 645 kn) at 9,000 m (30,000 ft)

Range: 1,150 km (621 nmi, 715 mi)

Service ceiling: 13,100 m (43,000 ft)

Rate of climb: 30 m/s (6,000 ft/min)

Wing loading: 331 kg/m² (67.8 lb/ft²)

Thrust/weight: 0.42

 

Armament:

Normally no internal gun, but provision for a ventral, conformal gun pod with a single 0.5” (12.7 mm)

machine gun and 180 RPG

4x underwing hardpoints for up to 1.000kg of ordnance, incl. drop tanks, bombs of up to 250kg caliber,

unguided missiles or gun pods

  

The kit and its assembly:

This little what-if model is actually based on a real world design – the potentially supersonic Fouga CM 194 was actually presented in model form in 1957, but it never made it to the hardware stage. I found this aircraft in a book about French aircraft projects and had this build on my long project list for a while. When a fellow modeler at whatifmodelers.com (Weaver) presented a very nice swept wing Magister (an Airfix CM 170 with G.91 wings and F-86 stabilizers), I took it as a motivation and prepared a build of my own.

 

My build differs from Weaver’s approach, though, even though the G.91 wings are a very natural option for the slender Magister. In my case, the fuselage was taken from a Heller CM 170, including the cockpit except for the bucket seats, which were replaced by more appropriate ejection seats. I also used G.91 wings for my build, but these came from the Revell kit. And even though I had a pair of F-86 stabilizers at hand (which are a very good addition to the G.91 wings), I did not use them because I found them to be too small for a butterfly tail on a Magister. After all, two aerodynamic surfaces have to do the job of three on a conservative tail, so that the sum of the surfaces’ areas have to be similar. The best alternative I could find in my donor bank was a pair of stabilizers from a Matchbox Harrier; while their shape looks a little odd, their sweep angle is fine and their size works well.

 

Beyond these obvious changes, some other modifications ensued. The nose tip was changed into a pointed shape, and the area behind the cockpit (the canopy is OOB, just cut into pieces for open display) was raised through the integration of a drop tank half and some serious PSR – inspired by the look of Fouga’s first attempt to make the Magister supersonic, the CM 174. Since the G.91 wings came with different landing gear wells, I decided to change the landing gear itself and use the G.91’s main struts and covers, while the Magister’s OOB main wheels were kept. The front leg was changed in so far that I attached it to the rear end of its well, and I used a slightly bigger wheel (IIRC from an 1:144 B-1B). All in all the aircraft’s stance was raised, it looks much more mature now. And in order to keep its lines clean I did not add any external weapons or even pylons. After all, it’s a flight trainer.

 

Another modification concerns the engines – for a supersonic aircraft I added small shock cones in the air intakes (scratched from styrene profile) and I changed the exhaust section, so that bigger/stronger engines would be plausible. I implanted a pair of modified lift engines from a Kangnam Yak-38 kit – I thought they’d be small enough, but on the compact Magister they still appear big! Luckily I found the Br 1001 “Taon” and its afterburner Gabizo engines in literature, so that the arrangement on the model can at least be explained through historical facts. ;-)

  

Painting and markings:

I was tempted to finish the model in Israeli markings, like Weaver’s, but then rather opted for a different route: I wanted to present the CM 194 in very normal operational colors, nothing exotic. After considering several options (Morocco, El Salvador, France) I eventually settled upon Belgium, and I went for the tactical three-tone scheme that was carried by the F-104 or Mirage V fighter bombers.

 

The pattern was adapted from an Alpha Jet export scheme and the colors were approximated from photo benchmarks. Many sources claim that the colors are the standard US SEA scheme, consisting of FS 34079, 34102 and 30219. However, the Dark Green is simply wrong (it’s a tone called FS 34064, and it’s a very dark olive drab), and the other colors come out much brighter than on typical US aircraft.

 

Consequently, FS 34102 was replaced by RAL 6003 (later even post-shaded with Humbrol 80, Grass Green!), while the tan tone is a mix of FS 30219 with Humbrol 94 (Desert Yellow). FS 34064 was created with a 1:1 mix of Humbrol 108 and 91 (later post-shaded with 75). The undersides were painted in FS 36495.

 

The cockpit interior became dark grey (Revell 77), while the landing struts and the wells were painted in aluminum; the covers’ inside received a finish in Chromate Yellow (Humbrol 81).

 

The dayglow markings on the tips of wings and the butterfly tail were created with decals sheet material, on top of which some paint (Humbrol 209) was added for a slight shading effect.

Generic decals in silver were also used to create the wing leading edges. National markings and warning stencils come from the scrap box.

Finally, the kit received a coat of matt acrylic varnish (Italeri).

  

Well, basically a simple conversion stunt, but it’s actually a complete kitbashing with – in my case – some considerable PSR work. However, the result is a very plausible, if not pretty, aircraft. From certain angles, the swept-wing Magister reminds me of the Alpha Jet (esp. the nose section, probably due to the pointed nose?), and the whole thing appears somehow bigger as it actually is. And I like the paint scheme: even though it’s camouflage, the dayglow markings and the bright insignia and stencils create a lively look.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

Under the Treaty of Trianon (1920), Hungary was forbidden from owning military aircraft. However, a secret air arm was gradually established under the cover of civilian flying clubs. During 1938, as a result of the Bled agreement, the existence of the Royal Hungarian Air Force (Hungarian: Magyar Királyi Honvéd Légierő (MKHL)), was made known. The army's aviation service was reorganized and expanded.

 

Late 1938 the army aviation was once again reorganized. Admiral Horthy, the head of state, ordered that the army aviation should become an independent service with effect of 01.09.1939. It subsequently participated in clashes with the newly established Slovak Republic and in the border confrontation with the Kingdom of Romania.

 

In 1940, the decision was made to unite the Air Force, the anti-aircraft forces, and the civilian air defense organizations under one central headquarters. In April 1941, operations were conducted in support of the German invasion of Yugoslavia and, on 27 June 1941, Hungary declared war on the Soviet Union.

On 01.06.1941, the Air Defense Corps was established, and Lieutenant General Béla Rákosi became Commander of Army Aviation. In effect the Air Force had once again become part of the Army. In the summer of 1942, an air brigade was attached to the Luftwaffe's VIII. Fliegerkorps at the Eastern Front.

 

At that time, most of the Hungarian Air Force's fighter equipment was of German origin, consisting of types like Bf 109 F and G, Fw 190 A/F, Me 210. But some indigenous designs were under development, too, e. g. at the RMI, Repülo Muszaki Intézet, or Aviation Technical Institute. Its aircraft were primarily (but not exclusively) by László Varga, and as a result, RMI designs were often given the Varga name (in some cases, even when he was not the major designer). But the RMI designation was used in parallel, too.

 

One of the domestic developments was the RMI-11 'Sólyom' (= Falcon) fighter. This single engine aircraft drew heavily upon the Bf 109 design, but featured some changes and improvements like an inward-retracting landing gear or a bubble canopy. It also incorporated elements from the heavy RMI-8 fighter, a push/pull design with twin tail booms, but the RMI-8’s sole prototype was destroyed by Allied air raids before a serious test program could be launched.

 

In contrast to the complex RMI-8 the RMI-11 was a small and light aircraft, a conventional but clean design, based on simple shapes for easy, modular production. Most of its structure was made from wood, saving sparse metal whenever possible. Empty weight was, for instance, about 200 kg less than a contemporary Bf- 109 G.

 

The RMI-11 was driven by a liquid-cooled DB 605 inverted V12 engine, rated at 1.475 hp. Thanks to the low weight of the airframe, the machine achieved a high top speed and an exceptional high rate of climb.

 

Originally designed as a fast and agile interceptor in the early stages of WWII, the RMI was only armed with two 13mm MG 131 with 300 RPG and two 7.92 mm MG 17 in the outer wings. Two underwing hardpoints could carry up to 100 kg each.

 

The RMI-11 prototype made its maiden flight in late 1943 and after a basic but successful test program immediately ordered into production – in a hurry, though, and beginning March 1944, Allied bomber raids began on Hungary and progressively increased in intensity.

 

Production of the RMI-11 gained only slowly momentum, due to material shortages, because the RMI-11was primarily of plywood bonded with a special phenolic resin adhesive that was supplied from German sources. Due to Allied bombing raids on the glue’s original production sites the plywood glue had to be replaced by one that was not as strong, and was later found to react chemically, apparently in a corrosive manner, with the wood in RMI-11’s structure. In November 1944, several RMI-11s crashed with wing and tail failures due to plywood delamination. This same problem also critically affected the German Focke Wulf Ta 154 and Heinkel He 162 programs.

 

Late in 1944 all efforts were redirected towards countering the advancing Red Army. Soon it was clear that the type needed long range cannons with higher caliber in order to encounter heavy Allied bombers, so plans were made to add heavier German armament. This was realized through an extra pair of MG 151/20 20 mm cannons with 150 RPG, which were added in fairings under the wings instead of the original bomb hardpoints (which were hardly ever used in service at all). During the same refit, the rather ineffective MG 17s were deleted, saving weight and leaving more room inside of the wings for the MG 131s’ ammunition supply (now with 400 RPG)

 

At that time only about 60 production aircraft had been completed and modified, and production was halted due to the severe structural problems. These machines were nevertheless thrown into service, with repairs and upgrades done at the Hungarian airfields – but the glue problem was a constant operational danger.

 

Still, all these efforts were to no avail: All fighting in Hungary ended on 16 April 1945, and all RMI-11’s were scrapped after hostilities ended.

  

General characteristics

Crew: 1

Length: 8.82 m (28 ft 10 ½ in)

Wingspan: 10.58 m (34 ft 8 in)

Height: 4.10 m (13 ft 5 in)

Wing area: 16.82 m² (181.00 ft²)

Empty weight: 1,964 kg (4,330 lb)

Loaded weight: 2,200 kg (4,840 lb)

Max. take-off weight: 2,395 kg (5,280 lb)

 

Powerplant:

1× Daimler-Benz DB 605A-1 liquid-cooled inverted V12, 1,475 PS (1,085 kW)

 

Performance:

Maximum speed: 640 km/h (398 mph) at 6,300 m (20,669 ft)

Cruise speed: 590 km/h (365 mph) at 6.000 m (19.680 ft)

Range: 850 km (528 mi)

Service ceiling: 12.000 m (39.370 ft)

Rate of climb: 17.0 m/s (3.345 ft/min)

Wing loading: 196 kg/m² (40 lb/ft²)

Power/mass: 344 W/kg (0.21 hp/lb)

 

Armament:

2× 13mm MG 131 (.51 in) machine guns in the wings,400 RPG, plus 2× 20mm MG 151/20 (.51 in) machine cannons, 150 RPG, in external underwing fairings.With the cannons deleted up to 8× 15 kg (33 lb) or 2× 50, 100, or 150 kg (110, 220, or 330 lb) bombs under the wings

  

The kit and its assembly:

This is a serious kitbash and a totally fictional aircraft - and you are IMHO an expert modeler if you recognize what basically went into it!

 

This build was inspired when I recently bought an RS Models Nakajima Kikka jet fighter, the double seater kit. As a bonus it comes with two fuselages: effectively, it is the single seater kit with an extra sprue and a different canopy. Looking at the Kikka's profile I found that it HAD to be converted into a piston engine aircraft, with a liquid-cooled engine. Wings and anything else would come from the scrap box, but it should become a sleek fighter aircraft, a late WWII design.

 

From that, things went straightforward:

● Fuselage from a RS Models Nakajima N9J1 "Kikka", front end cut away

● Wings from an Revell Macchi C.200 Saetta

● Stabilizers from an Art Model MiG I-210 fighter

● Canopy from a late Supermarine Spitfire (Special Hobby, IIRC)

● Nose/engine and radiators from an RS Models Ki-78

● The propeller was scratched from single pieces/blades and the Ki-78 spinner

● The landing gear is a Ki-78/C.200 parts mix.

I settled for the Ki-78's radiator installment on the rear flanks because it is a unique feature and simply does not hamper the sleek side profile. I also thought that this might have been a smart solution for modular production - fuselage and wings could be completed separately.

 

The Ki-78 engine had to be widened considerably to match the Kikka’s trapezoidal fuselage diameter, putty and major sculpting resulted in a relatively smooth and subtle intersection. As per usual, an axis construction for the propeller was added, too, so that it can spin freely. Mating wings and fuselage necessitated a new cockpit floor (which acts at the same time as landing gear well interior), and a 3mm bridge at the wing roots had to filled – but that was easy.

The cockpit interior was outfitted with spares, the Spitfire canopy needed some small styrene wedges under the windshield to make it fit onto the Kikka fuselage.

 

Things went rather smoothly until I fixed the wings to the completed fuselage. However I placed them, it looked odd – too far back, and the nose stood out; too far forward, and the tail was too long. Somehow, proportions did not match – only slightly, but it bugged me. So far that I eventually decided to shorten the fuselage – after having completed it, radiators already in place and everything sanded even. I made a vertical cut behind the cockpit and removed ~7mm of length – and suddenly the aircraft looked good! Needed some extra body work, but the aircraft looks much more balanced now.

 

The underwing fairings for the cannons were late additions, too. I wanted to keep the fuselage clean, with no nose guns, but adding heavier armament turned out to be tricky. The fairing solution was inspired by a real-world Fw 190 Rüstsatz which featured two MG 151/20 apiece. I had appropriate parts from an Academy Fw 190 left over, so I sliced these up and narrowed them for a single cannon each, and this was the right size for the slender aircraft. All gun barrels were created through heated and pulled-out styrene tubes.

  

Painting and markings:

Deciding what this aircraft was to become was tougher than building it! With its clearly German origin it had to be a WWII Axis type, but I did neither want a German nor a Japanese aircraft, even Italy was ruled out – all too obvious. With Hungary and its RMI designs I eventually found a good potential origin, and this also allowed a rather "colorful" livery. With the Hungarian background this kitbash became the RMI-11.

 

The paint scheme was inspired by an experimental Hungarian camouflage in Green, Gray and Brown, seen on a Bf 109G. I could not find color indications, but in the end I settled for three RLM tones for the upper sides, RLM 71, 75 and 79, coupled with RLM 76 for the lower sides. All tones are enamels from Modelmaster's Authentic range, panels and leading edges were slightly emphasized with lighter shades. As a small design twist I added a wavy, medium waterline on the fuselage sides.

 

Interior surfaces were, lacking any reference, kept in RLM 02. In order not to be too fanciful, the spinner became black with a green tip (RLM 62), and the blades were painted with a mix of RLM 70 (Black Green) and Black, for a very dark and dull green tone, Luftwaffe style.

 

The yellow markings correspond to German Luftwaffe markings of the late WWII era, the yellow 45° “V” under the lower left wing was introduced in the Balkan region in 1944, it was also carried by Luftwaffe aircraft in this conflict theatre.

The flashy decoration on all tail surfaces disappeared at that time on real aircraft (only small Hungarian flags were carried on the tail rudder), but I still incorporated the full national insignia because it's unique and a colorful contrast to the rest of the aircraft.

 

Most markings belong to a real Hungarian Bf 109G (from a Print Scale aftermarket sheet), I just scratched the national markings on the fuselage and the yellow markings (all cut from stock decal material) and parts of the Hungarian flag insignia on the tail: the tips were painted with red, the white and green bands were cut to measure from a Frecce Tricolori sheet.

 

A light black ink wash was applied and some dry painting added with gray and black (for soot and exhaust stains), for a lightly weathered effect. As final step, everything was sealed under matt acrylic varnish (Revell).

  

A quickie, done in just a week, but with a very convincing look. One might recognize Bf 109 F/G, Ki-78 and even He 100 features, but none of these aircraft really matches up with the RMI-11 at second glance, there are too many individual differences. If it gets you wondering – mission accomplished! ;)

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

Under the Treaty of Trianon (1920), Hungary was forbidden from owning military aircraft. However, a secret air arm was gradually established under the cover of civilian flying clubs. During 1938, as a result of the Bled agreement, the existence of the Royal Hungarian Air Force (Hungarian: Magyar Királyi Honvéd Légierő (MKHL)), was made known. The army's aviation service was reorganized and expanded.

 

Late 1938 the army aviation was once again reorganized. Admiral Horthy, the head of state, ordered that the army aviation should become an independent service with effect of 01.09.1939. It subsequently participated in clashes with the newly established Slovak Republic and in the border confrontation with the Kingdom of Romania.

 

In 1940, the decision was made to unite the Air Force, the anti-aircraft forces, and the civilian air defense organizations under one central headquarters. In April 1941, operations were conducted in support of the German invasion of Yugoslavia and, on 27 June 1941, Hungary declared war on the Soviet Union.

On 01.06.1941, the Air Defense Corps was established, and Lieutenant General Béla Rákosi became Commander of Army Aviation. In effect the Air Force had once again become part of the Army. In the summer of 1942, an air brigade was attached to the Luftwaffe's VIII. Fliegerkorps at the Eastern Front.

 

At that time, most of the Hungarian Air Force's fighter equipment was of German origin, consisting of types like Bf 109 F and G, Fw 190 A/F, Me 210. But some indigenous designs were under development, too, e. g. at the RMI, Repülo Muszaki Intézet, or Aviation Technical Institute. Its aircraft were primarily (but not exclusively) by László Varga, and as a result, RMI designs were often given the Varga name (in some cases, even when he was not the major designer). But the RMI designation was used in parallel, too.

 

One of the domestic developments was the RMI-11 'Sólyom' (= Falcon) fighter. This single engine aircraft drew heavily upon the Bf 109 design, but featured some changes and improvements like an inward-retracting landing gear or a bubble canopy. It also incorporated elements from the heavy RMI-8 fighter, a push/pull design with twin tail booms, but the RMI-8’s sole prototype was destroyed by Allied air raids before a serious test program could be launched.

 

In contrast to the complex RMI-8 the RMI-11 was a small and light aircraft, a conventional but clean design, based on simple shapes for easy, modular production. Most of its structure was made from wood, saving sparse metal whenever possible. Empty weight was, for instance, about 200 kg less than a contemporary Bf- 109 G.

 

The RMI-11 was driven by a liquid-cooled DB 605 inverted V12 engine, rated at 1.475 hp. Thanks to the low weight of the airframe, the machine achieved a high top speed and an exceptional high rate of climb.

 

Originally designed as a fast and agile interceptor in the early stages of WWII, the RMI was only armed with two 13mm MG 131 with 300 RPG and two 7.92 mm MG 17 in the outer wings. Two underwing hardpoints could carry up to 100 kg each.

 

The RMI-11 prototype made its maiden flight in late 1943 and after a basic but successful test program immediately ordered into production – in a hurry, though, and beginning March 1944, Allied bomber raids began on Hungary and progressively increased in intensity.

 

Production of the RMI-11 gained only slowly momentum, due to material shortages, because the RMI-11was primarily of plywood bonded with a special phenolic resin adhesive that was supplied from German sources. Due to Allied bombing raids on the glue’s original production sites the plywood glue had to be replaced by one that was not as strong, and was later found to react chemically, apparently in a corrosive manner, with the wood in RMI-11’s structure. In November 1944, several RMI-11s crashed with wing and tail failures due to plywood delamination. This same problem also critically affected the German Focke Wulf Ta 154 and Heinkel He 162 programs.

 

Late in 1944 all efforts were redirected towards countering the advancing Red Army. Soon it was clear that the type needed long range cannons with higher caliber in order to encounter heavy Allied bombers, so plans were made to add heavier German armament. This was realized through an extra pair of MG 151/20 20 mm cannons with 150 RPG, which were added in fairings under the wings instead of the original bomb hardpoints (which were hardly ever used in service at all). During the same refit, the rather ineffective MG 17s were deleted, saving weight and leaving more room inside of the wings for the MG 131s’ ammunition supply (now with 400 RPG)

 

At that time only about 60 production aircraft had been completed and modified, and production was halted due to the severe structural problems. These machines were nevertheless thrown into service, with repairs and upgrades done at the Hungarian airfields – but the glue problem was a constant operational danger.

 

Still, all these efforts were to no avail: All fighting in Hungary ended on 16 April 1945, and all RMI-11’s were scrapped after hostilities ended.

  

General characteristics

Crew: 1

Length: 8.82 m (28 ft 10 ½ in)

Wingspan: 10.58 m (34 ft 8 in)

Height: 4.10 m (13 ft 5 in)

Wing area: 16.82 m² (181.00 ft²)

Empty weight: 1,964 kg (4,330 lb)

Loaded weight: 2,200 kg (4,840 lb)

Max. take-off weight: 2,395 kg (5,280 lb)

 

Powerplant:

1× Daimler-Benz DB 605A-1 liquid-cooled inverted V12, 1,475 PS (1,085 kW)

 

Performance:

Maximum speed: 640 km/h (398 mph) at 6,300 m (20,669 ft)

Cruise speed: 590 km/h (365 mph) at 6.000 m (19.680 ft)

Range: 850 km (528 mi)

Service ceiling: 12.000 m (39.370 ft)

Rate of climb: 17.0 m/s (3.345 ft/min)

Wing loading: 196 kg/m² (40 lb/ft²)

Power/mass: 344 W/kg (0.21 hp/lb)

 

Armament:

2× 13mm MG 131 (.51 in) machine guns in the wings,400 RPG, plus 2× 20mm MG 151/20 (.51 in) machine cannons, 150 RPG, in external underwing fairings.With the cannons deleted up to 8× 15 kg (33 lb) or 2× 50, 100, or 150 kg (110, 220, or 330 lb) bombs under the wings

  

The kit and its assembly:

This is a serious kitbash and a totally fictional aircraft - and you are IMHO an expert modeler if you recognize what basically went into it!

 

This build was inspired when I recently bought an RS Models Nakajima Kikka jet fighter, the double seater kit. As a bonus it comes with two fuselages: effectively, it is the single seater kit with an extra sprue and a different canopy. Looking at the Kikka's profile I found that it HAD to be converted into a piston engine aircraft, with a liquid-cooled engine. Wings and anything else would come from the scrap box, but it should become a sleek fighter aircraft, a late WWII design.

 

From that, things went straightforward:

● Fuselage from a RS Models Nakajima N9J1 "Kikka", front end cut away

● Wings from an Revell Macchi C.200 Saetta

● Stabilizers from an Art Model MiG I-210 fighter

● Canopy from a late Supermarine Spitfire (Special Hobby, IIRC)

● Nose/engine and radiators from an RS Models Ki-78

● The propeller was scratched from single pieces/blades and the Ki-78 spinner

● The landing gear is a Ki-78/C.200 parts mix.

I settled for the Ki-78's radiator installment on the rear flanks because it is a unique feature and simply does not hamper the sleek side profile. I also thought that this might have been a smart solution for modular production - fuselage and wings could be completed separately.

 

The Ki-78 engine had to be widened considerably to match the Kikka’s trapezoidal fuselage diameter, putty and major sculpting resulted in a relatively smooth and subtle intersection. As per usual, an axis construction for the propeller was added, too, so that it can spin freely. Mating wings and fuselage necessitated a new cockpit floor (which acts at the same time as landing gear well interior), and a 3mm bridge at the wing roots had to filled – but that was easy.

The cockpit interior was outfitted with spares, the Spitfire canopy needed some small styrene wedges under the windshield to make it fit onto the Kikka fuselage.

 

Things went rather smoothly until I fixed the wings to the completed fuselage. However I placed them, it looked odd – too far back, and the nose stood out; too far forward, and the tail was too long. Somehow, proportions did not match – only slightly, but it bugged me. So far that I eventually decided to shorten the fuselage – after having completed it, radiators already in place and everything sanded even. I made a vertical cut behind the cockpit and removed ~7mm of length – and suddenly the aircraft looked good! Needed some extra body work, but the aircraft looks much more balanced now.

 

The underwing fairings for the cannons were late additions, too. I wanted to keep the fuselage clean, with no nose guns, but adding heavier armament turned out to be tricky. The fairing solution was inspired by a real-world Fw 190 Rüstsatz which featured two MG 151/20 apiece. I had appropriate parts from an Academy Fw 190 left over, so I sliced these up and narrowed them for a single cannon each, and this was the right size for the slender aircraft. All gun barrels were created through heated and pulled-out styrene tubes.

  

Painting and markings:

Deciding what this aircraft was to become was tougher than building it! With its clearly German origin it had to be a WWII Axis type, but I did neither want a German nor a Japanese aircraft, even Italy was ruled out – all too obvious. With Hungary and its RMI designs I eventually found a good potential origin, and this also allowed a rather "colorful" livery. With the Hungarian background this kitbash became the RMI-11.

 

The paint scheme was inspired by an experimental Hungarian camouflage in Green, Gray and Brown, seen on a Bf 109G. I could not find color indications, but in the end I settled for three RLM tones for the upper sides, RLM 71, 75 and 79, coupled with RLM 76 for the lower sides. All tones are enamels from Modelmaster's Authentic range, panels and leading edges were slightly emphasized with lighter shades. As a small design twist I added a wavy, medium waterline on the fuselage sides.

 

Interior surfaces were, lacking any reference, kept in RLM 02. In order not to be too fanciful, the spinner became black with a green tip (RLM 62), and the blades were painted with a mix of RLM 70 (Black Green) and Black, for a very dark and dull green tone, Luftwaffe style.

 

The yellow markings correspond to German Luftwaffe markings of the late WWII era, the yellow 45° “V” under the lower left wing was introduced in the Balkan region in 1944, it was also carried by Luftwaffe aircraft in this conflict theatre.

The flashy decoration on all tail surfaces disappeared at that time on real aircraft (only small Hungarian flags were carried on the tail rudder), but I still incorporated the full national insignia because it's unique and a colorful contrast to the rest of the aircraft.

 

Most markings belong to a real Hungarian Bf 109G (from a Print Scale aftermarket sheet), I just scratched the national markings on the fuselage and the yellow markings (all cut from stock decal material) and parts of the Hungarian flag insignia on the tail: the tips were painted with red, the white and green bands were cut to measure from a Frecce Tricolori sheet.

 

A light black ink wash was applied and some dry painting added with gray and black (for soot and exhaust stains), for a lightly weathered effect. As final step, everything was sealed under matt acrylic varnish (Revell).

  

A quickie, done in just a week, but with a very convincing look. One might recognize Bf 109 F/G, Ki-78 and even He 100 features, but none of these aircraft really matches up with the RMI-11 at second glance, there are too many individual differences. If it gets you wondering – mission accomplished! ;)

Some background:

A vanship is a type of flying machine from the animated series Last Exile. It is often referred to as a "flying boat" in that it does not fly by means of aerodynamics like planes do, but rather by floating on the air and propelling itself through the use of a substance known as "Claudia" (see below).

 

Vanships in general were couriers prior to the events of Last Exile, traveling long distances to deliver cargoes (usually messages). Some Vanships thus include tools for towing solid objects.

 

The design of several vanships throughout the series bears great resemblance to various famed 1930s racecars than any aircraft, most notably the Anatoray millitary vanships which bear great resemblance to the 1933 Napier Railton. The resemblance is found in the grill shape of the cowl vents and the shape of the tail cone, as well as the aerodynamic bulges on the car which cover the valve covers and exaust on the car, which are also found on the Anatoray vanships.

Other Vanships bear striking design elements from Junkers aircraft in the pre-WWII era, e. g. from the A 35 monoplane.

 

"Spirit of Grand Stream" is a courier-type vanship (see below) owned by Claus Valca and Lavie Head, and its design is very similar to that of Hayao Miyazaki's gunship from Nausicaa of the Valley of the Wind. The matches are really focused on the two seated open cockpit, and the navigator section which has matching interface panels of small glass cylinders.

Courier vanships, also known as racing vanships, are one of the main types of vanship featured in Last Exile. Courier vanships are small and narrow with a single, high-powered thruster. Like any vanship intended to achieve high speeds, they have stub wings, far too small themselves to provide lift. They simply act as mounts for ailerons to provide better steering, as pivoting the thruster would put undue stress on the assembly at high speeds.

 

Over the course of Last Exile, Vanships were adapted for combat. The process resembles the evolving roles that aircraft held during WW1; originally developed for scouting and surveillance, but eventually equipped with bombs and machine guns to become potent fightercraft.

 

Claudia is a fluorescent blue ore mined on the floating world of Prester. It is the foundation of Prester's technology, fueling steam engines and is a key element of the claudia units that allow vanships to fly. Claudia is also the primary currency of Prester. It is well suited for the purpose, as it is constantly generated by Prester and is not possible to counterfeit.

Claudia, when dissolved in water, serves as the primary drive fluid in a claudia unit. When Claudia fluid is heated and compressed, it generates lift. A vanship engine has a distinctive claudia circulation pipe loop, where the supercritical fluid generates both lift and thrust.

 

Dissolving Claudia in alcohol dramatically increases the energy density of the fuel. This is why steam engines are the predominant technology of Last Exile, instead of the internal combustion engine. Technology design documents from the production of the show indicate that the steam engines of Last Exile have a power to weight ratio exceeding that of a modern gasoline fueled internal combustion engine.

 

All vanships in the series were rendered as 3D images, a hallmark of Japanese animation studio Gonzo, makers of such series as Vandread and Blue Submarine No. 6.

  

The kit and its assembly:

I love the Vanships from Last Exile - even though I have never seen the series.

While these vehicles appear as retro stuff, they are very original and unique in look and feel - a modeler's dream if you are into scratchbuilding and kitbashing. There's also a 1:72 Vanship kit available (actually, in two versions) from Hasegawa, but it is IMHO overpriced. And there are so many different Vanships in the series that it is a shame that not more of them have been kitted, scratched, or at least used as a source of modelling inspiration.

 

The latter's the case here. I had a scratched Vanship on the agenda for a long time and also a basic idea with what I'd start, but it took a SF racing GB at phoxim.de ( a German SF model building forum) to make a move.

 

I wanted a small and fast single seater, and this evolved through the GB into a Racer with a more prominent engine unit and a rather purposeful livery instead of bright colors. But the basic concept was retained: originally, the plan was to use a 1:72 F4U as fuselage basis, and I had the idea to integrate some parts of a 1:43 Citroen 11CV from Heller, e. g. its grill and bonnet.

 

The F4U is the SMER kit, and it has the benefit of having separate wings for a folded display. The fin was cut off and the landing gear wells covered.

The cockpit opening was slightly enlarged in order to take a 1:48 Japanese WWII resin pilot and a seat from the 1:43 11CV - pretty cramped, but it worked and looks good. Only the wind screen of the OOB F4U canopy was used, as well as the original dashboard.

 

Most work was done on the outside, though. The first problem turned up when I realized that the 11CV bonnet could hardly be mated with the F4U. As a plan B I found a cover for the brush head of a Philipps electric toothbrush in my donor bank - a bit too high and narrow, but overall a unique addition and characteristic nose for my creation!

 

The landing gear comes from an Amodel Ju-87A - together with the drooped F4U inner wings the result looked a bit stalky at first, but the Vanship still needed its engines.

 

As a racer, I went for double power, and the long pods that carry the propulsion system were scratched from several non-model-kit parts:

- Front comes from a Revell 1:32 AH-64 Apache, its engines

- The intakes come from a Matchbox Gloster Meteor NF.14

- The "ring" consists of wheel parts from the Heller 11CV

- The conic isolators are ball pen grips, cut to size and closed with tank wheels on both ends

- The fins are plastic knives, primarily the blades and parts of the handles

 

In between these engine pods, which are only held under the wings and stabilized internally through steel wire, a generator pod from a 1:72 Matchbox EA-6B fills the void. It also holds a characteristic "knife" under the front grill - again carved from the handle of the plastic knives.

 

In order to blend the changes in fuselage shape and diameter and create a kind of Cord-style grill I added three styrene strips which were wrapped around the nose, the upper line reaching back to the cockpit - a kind of 3D rally stripe that also streches the shape.

 

Some air scoops and surface details were added, made from styrene, and stiff cable was used under the front fuselage to create hoses between the bonnet with the Claudia reactor and the engines.

 

I was frequently tempted to add more things and details or decoration, but found that a rather clean look would better suit a dedicated racer Vanship - the Stutz Blackhawk land speed record car was a vague benchmark.

  

Painting and markings:

I wanted to keep things simple and dry. Before this turned into a racer I considered several colors like pale blue, a greyish-green, British Racing Green or Crimson, with ivory trim. Anyway, I rejected this in favir of a pure, bare metal finish. I even did not add colorful stripes - the only "color" comes from the mechanical parts (ivory and dark brown on the engine pods, the idea was to add an isolator impression) and the small sponsor decals.

 

The kit initially received a basic coat of Revell's acrylic Aluminum, and onto that panels/field with several Metallizer tones (Steel, Magnesium, Titanium, polished Aluminum) were added. On top of that, the whole thing received a rubbing with grinded graphite - intensifying the metal shine and also weathering the vehicle.

 

The pilot received a rather conservatie outfit, with a brown leather jacket - matching the overall style of the Vanship. Some engine parts (e. g. the blades and the knife under the nose) were painted with a mix of Steel Metallizer and Gold. The cockpit interior was painted in RLM 02.

 

The markings were puzzled together. The start number '24' in that nice retro type comes from an 1:72 Airfix Il-2, the black disc below is from a slot car aftermarket sheet. The many sponsor stickers come mostly from an 1:72 Su-27 demonstrator aircraft sheet from Begemot - with their cyrillic typo they blend well into the Last Exile look and feel (where Greek/Cyrillic typo pops up).

 

Finally, the kit received a coat with acrylic gloss varnish, while the anti glare panel in front of the windscreen became matt.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

 

The F-112 started life as a privately funded light fighter program by Republic under the handle AP-95 in the mid-1950s, aiming at export markets which were about to replace their 1st generation jet fighters like the F-86 or F-84 and air forces which could not afford or simply want the heavy supersonic fighters under development at that time. In the USA, it was also aimed at the replacement of these Korean War era types in the Air National Guards.

 

The AP-95 was inspired by both Lockheed's CL-246 (the later F-104 Starfighter) and Northrop's N-156 Light Fighter concept (which eventually developed into the highly successful F-5 fighter family, aiming at the same niches. In size and performance the aircraft fell more or less in between these two design – it was heavier and larger than Northrop’s project, and a less radical alternative to the CL-246. Republic's design team started the development in 1955 and relied heavily on the huge F-105 fighter bomber that had been under development at the time, but the AP-95 was to be a pure interceptor. The basic idea was "to build a relatively small and highly aerodynamic fighter around the same engine that drives the F-100, but focusing on high performance and low cost of maintenance, as well as good field performance."

 

Actually, the AP-95, called "Thunderdart",was revealed to USAF officials for the first time as a full-sized mock-up in early 1957, and it looked much like a scaled-down F-105. It combined a slender, area-ruled fuselage with highly swept wings and a conventional, low tail.

The nose offered space for a relatively large radar dish. The air intakes were placed in the wing roots, with Ferri-style, forward-swept leading edges that had also been used on the F-105 and other Republic designs like the AP-75 interceptor.

From the F-105 the landing gear concept had been borrowed, too. The long main legs retracted inwards into the wings, leaving only the outer wings free for ordnance loads, but allowed much space in the fuselage for fuel and avionics. The aircraft was to be powered by a Pratt & Whitney J57-P-21 turbojet, with a dry thrust of 10,200 lbf (45 kN) and 16,000 lbf (71 kN) with afterburner.

 

The basic armament of the AP-95 was an internal 20 mm (.79 in) M61 Vulcan Gatling gun, which had a rate of fire of 6,000 rounds per minute. The cannon, mounted in the lower part of the port fuselage, was fed by a 725-round drum behind the pilot's seat. Additionally, the AP-95 was able to carry up to four AIM-9 Sidewinder AAMs under its wings. Total external payload was 6.000 lb (2.727 kg) on five hardpoints, a centerline pylon under the fuselage was "wet" in order to take a single drop tank. Alternatively, iron bombs or napalm tanks could be carried in a secondary ground support role.

 

The AP-95 was an attractive design but faced a strong competition, if not opposition. Among USAF officials it was not popular, because it was - despite its basically good performance and low development risks - regarded as an inferior aircraft. It did not reach Mach 2 (what the F-104 promised, despite many other weaknesses), and adding a complex radar system (which would have allowed longer range AAMs like the AIM-7 Sparrow) with an additional operator would further reduce performance.

The aircraft shared a "bad image" fate with the later F-5, which became nevertheless very popular in oversea markets due to its simplicity, versatility and efficacy. On the other side, Europe was already in Lockheed's strong grip, as the F-104G had been selected as NATO's standard fighter bomber - under dubious circumstances, though, but it successfully blocked the market.

 

Anyway, the AP-95 was nevertheless a capable aircraft which was more cost-effective than the thirsty and short-legged F-104, or the larger F-102 and F-106 which formed the air defense backbone at that era. While the US Air Force did not want another type in its arsenal, it was decided to buy and build the aircraft as a state-of-the-art replacement for the ageing ANG Sabres and Thunderstreaks, with the prospect of delivery of the type to NATO partners all over the world, too.

 

The original design was quickly approved and the AP-95 prototype made its maiden flight on October 10th, 1960, only equipped with a basic AN/ASG-14T ranging radar. After completing trials and further development with two further YF-112 pre-production aircraft, the Thunderdart was officially introduced as F-112A in March 1962 to the USAF. These production aircraft now featured an AN/APQ-83 radar for night and all-weather interceptions. Additionally, one of the YF-112 was modified in late 1962 to carry a second crew member under a lengthened canopy and with reduced internal fuel - it was planned as a F-112B trainer, but did not find interest since the T-38 already offered supersonic performance at much lower cost, and the Thunderdart's range suffered considerably. The F-112B remained a one-off.

 

In 1964 the F-112A was also introduced to the US ANG forces and attained some interest from other countries, including Spain, Italy, Turkey, Greece, South Korea and Japan. Most of these foreign countries settled for the Starfighter in the 60ies, and the door for the F-112 was closing: As a result of winning the International Fighter Aircraft competition in 1970, a program aimed at providing effective low cost fighters to American allies, Northrop introduced the second-generation F-5E Tiger II in 1972. This upgrade included more powerful engines, higher fuel capacity, greater wing area and improved leading edge extensions for better turn rate, optional air to air refueling, and improved avionics including air-to-air radar. It became a great success and made the F-112 obsolete, which lacked further development potential and was too limited to its interceptor role to be a versatile option for smaller air forces.

 

From 1962 until 1965, a total of 145 F-112As were built. Compared with the 1.400 Tiger II versions until 1987 only a very small number, and further orders from the USA did not materialize, even though the Thunderdart showed good flight characteristics.

 

As a final attempt to improve the Thunderdart's potential, 80 F-112A aircraft were modernized from 1969 on, all of them ANG aircraft. These machines received a more powerful J57-P-20 engine, rated at 18.040lbf (8.200kN) thrust at full afterburner – which finally allowed to break the Mach 2 barrier.

On the avionics side, a new AN/APQ-124 radar was fitted – which still did not allow the guidance of medium range missiles, though, the AIM-9 remained the Thunderdart’s primary weapon. Further enhancements included a more modern firing system and an AAS-15 infrared sensor. These updated aircraft received the designation F-112C, and the MLU phase lasted until 1972. Externally these modified aircraft could easily be identified by the bigger radome and the added IR sensor pod under the nose.

 

No F-112 was ever used in combat, despite the raging Vietnam War. The original F-112As remained with the USAF, but these were only used for training purposes or as instructional airframes on the ground. These F-112As were quickly phased out during the 70ies, the last one in September 1977. The modernized F-112C soldiered on with several ANG forces until 1985, being replaced by F-4 and F-16 as interceptors and multi-role combat aircraft.

  

F-112A general characteristics

Crew: 1

Length: 56 ft 9 ¼ in (17.02 m)

Wingspan: 25 ft 7 in (7.81 m)

Height: 15 ft 9 ¼ in (4.82 m)

Wing area: 277 ft² (25.75 m²)

Empty weight: 14.000 lb (6.350 kg)

Loaded weight: 20.640 lb (9.365 kg)

Max. take-off weight: 29.027 lb (13.170 kg)

 

Powerplant

1× Pratt & Whitney J57-P-21 turbojet with 10.200 lbf (45 kN) dry thrust and 16.000 lbf (71 kN) with afterburner:

 

Performance

Maximum speed: Mach 1.86 (1.225 mph, 1.975 km/h) at 36,000 ft (11.000 m)

Combat radius: 450 mi (730 km)

Ferry range: 1.735 mi (2.795 km) with external fuel

Service ceiling: 58.000 ft (17.700 m)

Rate of climb: 31.950 ft/min (162.3 m/s)

 

Armament

1× 20 mm (0.787 in) M61 Vulcan gatling cannon with 725 RPG

5 hardpoints for 6.000 lb of ordnance (2.727 kg); typically 2× or 4× AIM-9 Sidewinder under the wings, plus an optional drop tank under the fuselage.

  

The kit and its assembly:

This is a totally fictional aircraft with no real paradigm. The initial idea was that I wondered if one could not make something from an early MiG-21F with its small diameter air intake, when this would be replaced by a radome?

 

That the project eventually evolved into a kind of anti-Starfighter came through the wings: there was the problem of placing the air intakes somewhere. To solve that problem I remembered the Tamiya 1:100 F-105 kit, I built one years ago and it’s still available, even though I had to import a NIB kit from Hong Kong for this occasion. Calculations had indicated that the wing size and span would match a 1:72 MiG-21 well, and so the F-112 was born*. The Thunderchief’s air intakes are SO characteristic that anything else than a Republic design was out of question, the rest was spun around this basic idea.

 

But back to the model itself: the whole thing is a true Frankenstein job, puzzled together from a lot of bits and pieces. The most important ingredients:

 

● Fuselage from a 1:72 Academy MiG-21F, incl. canopy

● Radome from a 1:72 Hasegawa F-4E

● Wings, pylons and main landing gear from a 1:100 Tamiya F-105

● Stabilizer fins from a 1:72 Revell F-16, shortened

● Main wheels from a 1:72 Hobby Boss F-86F

● Fin from a 1:100 Il-28(!)

● Horizontal stabilizers from a 1:72 Matchbox A-7E w. reduced span

● Front wheel from an 1:72 Italeri A-4M

● Engine nozzle from a 1:72 Matchbox F-104G

● The afterburner inside is actually a sprocket wheel from an 1:72 ESCI M1A1 Abrams

● Cockpit tub and dashboard come from a 1:72 Heller Alpha Jet

● Seat and pilot from Matchbox (unknown origin)

 

The MiG-21 lost any characteristic detail (blow-in doors, 30mm cannons, slots for wings and stabilizers, even its fin and spine), and the landing gear wells were covered. The F-105 wings were placed slightly lower on the fuselage side. The fin was simply replaced, the tail a bit shortened and the new/bigger nozzle attached. The new nose had almost the same diameter as the original air intake piece from the Academy MiG-21F. For the Corsair II stabilizers, ‘consoles’ were added on the lower rear fuselage, so that they could also be placed in a lower position.

 

My plan/wish was to make the thing look as little MiG-21ish as possible, and IMHO I succeeded well. Actually, the Thunderdart reminds a LOT of the much bigger F-105, and there is also a lot of F-101 in it, too, despite its ADC livery? You take at least two looks, since proportions are different from the F-105, yet the thing looks VERY familiar… “Could it have been…?”

 

External loads were limited to just two AIM-9 training rounds with launch rails under the outer pylons, even though all wing pylons were fitted (the Tamiya kit has large slots to hold them, I was too lazy to fill them).

 

The cannon bulges, the IR sensor as well as some air scoops and antennae were sculpted from simple pieces of sprue or styrene.

  

Painting and markings:

As an USAF/ADC interceptor, an overall Aircraft Grey (FS 36473, used ModelMaster 1731) was clear from the start – and it’s actually a fine option, as the F-105 as lookalike benchmark was basically only operated in bare metal or SEA camouflage. An ADC aircraft would be deceiving, too, and provoke third looks.

 

The cockpit interior was painted medium grey, the landing gear wells in interior green and the air intakes in white with red trim.

 

Anyway, making an ANG aircraft from this base was more tricky. At first I wanted to create an Oklahoma ANG aircraft (had some nice markings for the fin, but they turned out to me too large since they belong to a modern F-16…), but finally settled on a D.C. Air Guard aircraft since I had such fuselage markings from a F-86H at hand.

 

Basic tone is an overall FS 16473 ADC Grey (Testors 1731), some panels on the upper side and the flanks were highlighted with a slightly lighter grey (FS 16515). The cockpit front area received a flat black anti-glare panel, to which a black trim was added - F-106 style, and this turned out to be VERY characteristic, if not deceiving! Around the rear fuselage some heat marks – reminiscent of the F-100 – were added through metallizer (Steel and Titanium, partly mixed with Humbrol 113, Rust) and some dry-painting. The kit was then lightly weathered through a thin wash with black ink and very light dry-painting with pale grey.

 

The colorful fin markings were designed by myself – inspired by a 2008 postal stamp from the ‘Flags of our Nation’series. My fin decoration is purely fictional, though, and incorporates the D.C. flag (two red horizontal bars on a white ground, with three red stars above) as well as some iconic cherry blossoms, as these seem to be a local identity symbol? Additionally the fin features on one side the District of Columbia Sign, on the other side the Eastern Air Defence Sector badge. The fin decoration was created on a PC with Corel Draw and printed on Experts' Choice white decal paper with an inkjet printer at 600dpi - even though the touchy decals suffered under the soaking process... A lot of cosmetic correction had to be done by hand/brush, it's far from perfect, just the result of my first large scale self-.made decal experiment. The rest of the markings were puzzled together from the scrap box.

 

After painting and decals, the kit received an overall coat of semi-gloss Humbrol varnish, since I wanted a slight shine but not a hi-gloss finish. The anti-glare panel was covered with matt varnish - which did not dry up properly, leaving a milky film. Nevertheless, it looks like sun-bleached black paint, so I kept it. Undesired side effect... The radome was painted with gloss varnish, so that three shades of black meet at the Thunderdart's nose.

  

A major kitbash. The Thunderdart looks unspectacular, but it is IMHO very deceiving. It combines characteristic elements of various Century fighters in shape and color, and it should keep some folks wondering what's actually wrong about it... Sleek aircraft - behold what's in a simple 1st generation MiG-21!

*As a side note: This what-if kit originally bore the designation “F-109”, which was originally allocated to a Bell VTOL aircraft that never made it beyond a mock-up stage. “F-109”, however, has recently found a common use for a fictional fighter which is more or less a crossbreed of an F-104 with F-100 wings and a low tail, so I switched to “F-112” for my own Thunderdart creation. “F-112” had NEVER been used, even though Douglas had used the F-112 code for an F-101 development, but only for internal purposes. Offially it has AFAIK never been used.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

 

The F-112 started life as a privately funded light fighter program by Republic under the handle AP-95 in the mid-1950s, aiming at export markets which were about to replace their 1st generation jet fighters like the F-86 or F-84 and air forces which could not afford or simply want the heavy supersonic fighters under development at that time. In the USA, it was also aimed at the replacement of these Korean War era types in the Air National Guards.

 

The AP-95 was inspired by both Lockheed's CL-246 (the later F-104 Starfighter) and Northrop's N-156 Light Fighter concept (which eventually developed into the highly successful F-5 fighter family, aiming at the same niches. In size and performance the aircraft fell more or less in between these two design – it was heavier and larger than Northrop’s project, and a less radical alternative to the CL-246. Republic's design team started the development in 1955 and relied heavily on the huge F-105 fighter bomber that had been under development at the time, but the AP-95 was to be a pure interceptor. The basic idea was "to build a relatively small and highly aerodynamic fighter around the same engine that drives the F-100, but focusing on high performance and low cost of maintenance, as well as good field performance."

 

Actually, the AP-95, called "Thunderdart",was revealed to USAF officials for the first time as a full-sized mock-up in early 1957, and it looked much like a scaled-down F-105. It combined a slender, area-ruled fuselage with highly swept wings and a conventional, low tail.

The nose offered space for a relatively large radar dish. The air intakes were placed in the wing roots, with Ferri-style, forward-swept leading edges that had also been used on the F-105 and other Republic designs like the AP-75 interceptor.

From the F-105 the landing gear concept had been borrowed, too. The long main legs retracted inwards into the wings, leaving only the outer wings free for ordnance loads, but allowed much space in the fuselage for fuel and avionics. The aircraft was to be powered by a Pratt & Whitney J57-P-21 turbojet, with a dry thrust of 10,200 lbf (45 kN) and 16,000 lbf (71 kN) with afterburner.

 

The basic armament of the AP-95 was an internal 20 mm (.79 in) M61 Vulcan Gatling gun, which had a rate of fire of 6,000 rounds per minute. The cannon, mounted in the lower part of the port fuselage, was fed by a 725-round drum behind the pilot's seat. Additionally, the AP-95 was able to carry up to four AIM-9 Sidewinder AAMs under its wings. Total external payload was 6.000 lb (2.727 kg) on five hardpoints, a centerline pylon under the fuselage was "wet" in order to take a single drop tank. Alternatively, iron bombs or napalm tanks could be carried in a secondary ground support role.

 

The AP-95 was an attractive design but faced a strong competition, if not opposition. Among USAF officials it was not popular, because it was - despite its basically good performance and low development risks - regarded as an inferior aircraft. It did not reach Mach 2 (what the F-104 promised, despite many other weaknesses), and adding a complex radar system (which would have allowed longer range AAMs like the AIM-7 Sparrow) with an additional operator would further reduce performance.

The aircraft shared a "bad image" fate with the later F-5, which became nevertheless very popular in oversea markets due to its simplicity, versatility and efficacy. On the other side, Europe was already in Lockheed's strong grip, as the F-104G had been selected as NATO's standard fighter bomber - under dubious circumstances, though, but it successfully blocked the market.

 

Anyway, the AP-95 was nevertheless a capable aircraft which was more cost-effective than the thirsty and short-legged F-104, or the larger F-102 and F-106 which formed the air defense backbone at that era. While the US Air Force did not want another type in its arsenal, it was decided to buy and build the aircraft as a state-of-the-art replacement for the ageing ANG Sabres and Thunderstreaks, with the prospect of delivery of the type to NATO partners all over the world, too.

 

The original design was quickly approved and the AP-95 prototype made its maiden flight on October 10th, 1960, only equipped with a basic AN/ASG-14T ranging radar. After completing trials and further development with two further YF-112 pre-production aircraft, the Thunderdart was officially introduced as F-112A in March 1962 to the USAF. These production aircraft now featured an AN/APQ-83 radar for night and all-weather interceptions. Additionally, one of the YF-112 was modified in late 1962 to carry a second crew member under a lengthened canopy and with reduced internal fuel - it was planned as a F-112B trainer, but did not find interest since the T-38 already offered supersonic performance at much lower cost, and the Thunderdart's range suffered considerably. The F-112B remained a one-off.

 

In 1964 the F-112A was also introduced to the US ANG forces and attained some interest from other countries, including Spain, Italy, Turkey, Greece, South Korea and Japan. Most of these foreign countries settled for the Starfighter in the 60ies, and the door for the F-112 was closing: As a result of winning the International Fighter Aircraft competition in 1970, a program aimed at providing effective low cost fighters to American allies, Northrop introduced the second-generation F-5E Tiger II in 1972. This upgrade included more powerful engines, higher fuel capacity, greater wing area and improved leading edge extensions for better turn rate, optional air to air refueling, and improved avionics including air-to-air radar. It became a great success and made the F-112 obsolete, which lacked further development potential and was too limited to its interceptor role to be a versatile option for smaller air forces.

 

From 1962 until 1965, a total of 145 F-112As were built. Compared with the 1.400 Tiger II versions until 1987 only a very small number, and further orders from the USA did not materialize, even though the Thunderdart showed good flight characteristics.

 

As a final attempt to improve the Thunderdart's potential, 80 F-112A aircraft were modernized from 1969 on, all of them ANG aircraft. These machines received a more powerful J57-P-20 engine, rated at 18.040lbf (8.200kN) thrust at full afterburner – which finally allowed to break the Mach 2 barrier.

On the avionics side, a new AN/APQ-124 radar was fitted – which still did not allow the guidance of medium range missiles, though, the AIM-9 remained the Thunderdart’s primary weapon. Further enhancements included a more modern firing system and an AAS-15 infrared sensor. These updated aircraft received the designation F-112C, and the MLU phase lasted until 1972. Externally these modified aircraft could easily be identified by the bigger radome and the added IR sensor pod under the nose.

 

No F-112 was ever used in combat, despite the raging Vietnam War. The original F-112As remained with the USAF, but these were only used for training purposes or as instructional airframes on the ground. These F-112As were quickly phased out during the 70ies, the last one in September 1977. The modernized F-112C soldiered on with several ANG forces until 1985, being replaced by F-4 and F-16 as interceptors and multi-role combat aircraft.

  

F-112A general characteristics

Crew: 1

Length: 56 ft 9 ¼ in (17.02 m)

Wingspan: 25 ft 7 in (7.81 m)

Height: 15 ft 9 ¼ in (4.82 m)

Wing area: 277 ft² (25.75 m²)

Empty weight: 14.000 lb (6.350 kg)

Loaded weight: 20.640 lb (9.365 kg)

Max. take-off weight: 29.027 lb (13.170 kg)

 

Powerplant

1× Pratt & Whitney J57-P-21 turbojet with 10.200 lbf (45 kN) dry thrust and 16.000 lbf (71 kN) with afterburner:

 

Performance

Maximum speed: Mach 1.86 (1.225 mph, 1.975 km/h) at 36,000 ft (11.000 m)

Combat radius: 450 mi (730 km)

Ferry range: 1.735 mi (2.795 km) with external fuel

Service ceiling: 58.000 ft (17.700 m)

Rate of climb: 31.950 ft/min (162.3 m/s)

 

Armament

1× 20 mm (0.787 in) M61 Vulcan gatling cannon with 725 RPG

5 hardpoints for 6.000 lb of ordnance (2.727 kg); typically 2× or 4× AIM-9 Sidewinder under the wings, plus an optional drop tank under the fuselage.

  

The kit and its assembly:

This is a totally fictional aircraft with no real paradigm. The initial idea was that I wondered if one could not make something from an early MiG-21F with its small diameter air intake, when this would be replaced by a radome?

 

That the project eventually evolved into a kind of anti-Starfighter came through the wings: there was the problem of placing the air intakes somewhere. To solve that problem I remembered the Tamiya 1:100 F-105 kit, I built one years ago and it’s still available, even though I had to import a NIB kit from Hong Kong for this occasion. Calculations had indicated that the wing size and span would match a 1:72 MiG-21 well, and so the F-112 was born*. The Thunderchief’s air intakes are SO characteristic that anything else than a Republic design was out of question, the rest was spun around this basic idea.

 

But back to the model itself: the whole thing is a true Frankenstein job, puzzled together from a lot of bits and pieces. The most important ingredients:

 

● Fuselage from a 1:72 Academy MiG-21F, incl. canopy

● Radome from a 1:72 Hasegawa F-4E

● Wings, pylons and main landing gear from a 1:100 Tamiya F-105

● Stabilizer fins from a 1:72 Revell F-16, shortened

● Main wheels from a 1:72 Hobby Boss F-86F

● Fin from a 1:100 Il-28(!)

● Horizontal stabilizers from a 1:72 Matchbox A-7E w. reduced span

● Front wheel from an 1:72 Italeri A-4M

● Engine nozzle from a 1:72 Matchbox F-104G

● The afterburner inside is actually a sprocket wheel from an 1:72 ESCI M1A1 Abrams

● Cockpit tub and dashboard come from a 1:72 Heller Alpha Jet

● Seat and pilot from Matchbox (unknown origin)

 

The MiG-21 lost any characteristic detail (blow-in doors, 30mm cannons, slots for wings and stabilizers, even its fin and spine), and the landing gear wells were covered. The F-105 wings were placed slightly lower on the fuselage side. The fin was simply replaced, the tail a bit shortened and the new/bigger nozzle attached. The new nose had almost the same diameter as the original air intake piece from the Academy MiG-21F. For the Corsair II stabilizers, ‘consoles’ were added on the lower rear fuselage, so that they could also be placed in a lower position.

 

My plan/wish was to make the thing look as little MiG-21ish as possible, and IMHO I succeeded well. Actually, the Thunderdart reminds a LOT of the much bigger F-105, and there is also a lot of F-101 in it, too, despite its ADC livery? You take at least two looks, since proportions are different from the F-105, yet the thing looks VERY familiar… “Could it have been…?”

 

External loads were limited to just two AIM-9 training rounds with launch rails under the outer pylons, even though all wing pylons were fitted (the Tamiya kit has large slots to hold them, I was too lazy to fill them).

 

The cannon bulges, the IR sensor as well as some air scoops and antennae were sculpted from simple pieces of sprue or styrene.

  

Painting and markings:

As an USAF/ADC interceptor, an overall Aircraft Grey (FS 36473, used ModelMaster 1731) was clear from the start – and it’s actually a fine option, as the F-105 as lookalike benchmark was basically only operated in bare metal or SEA camouflage. An ADC aircraft would be deceiving, too, and provoke third looks.

 

The cockpit interior was painted medium grey, the landing gear wells in interior green and the air intakes in white with red trim.

 

Anyway, making an ANG aircraft from this base was more tricky. At first I wanted to create an Oklahoma ANG aircraft (had some nice markings for the fin, but they turned out to me too large since they belong to a modern F-16…), but finally settled on a D.C. Air Guard aircraft since I had such fuselage markings from a F-86H at hand.

 

Basic tone is an overall FS 16473 ADC Grey (Testors 1731), some panels on the upper side and the flanks were highlighted with a slightly lighter grey (FS 16515). The cockpit front area received a flat black anti-glare panel, to which a black trim was added - F-106 style, and this turned out to be VERY characteristic, if not deceiving! Around the rear fuselage some heat marks – reminiscent of the F-100 – were added through metallizer (Steel and Titanium, partly mixed with Humbrol 113, Rust) and some dry-painting. The kit was then lightly weathered through a thin wash with black ink and very light dry-painting with pale grey.

 

The colorful fin markings were designed by myself – inspired by a 2008 postal stamp from the ‘Flags of our Nation’series. My fin decoration is purely fictional, though, and incorporates the D.C. flag (two red horizontal bars on a white ground, with three red stars above) as well as some iconic cherry blossoms, as these seem to be a local identity symbol? Additionally the fin features on one side the District of Columbia Sign, on the other side the Eastern Air Defence Sector badge. The fin decoration was created on a PC with Corel Draw and printed on Experts' Choice white decal paper with an inkjet printer at 600dpi - even though the touchy decals suffered under the soaking process... A lot of cosmetic correction had to be done by hand/brush, it's far from perfect, just the result of my first large scale self-.made decal experiment. The rest of the markings were puzzled together from the scrap box.

 

After painting and decals, the kit received an overall coat of semi-gloss Humbrol varnish, since I wanted a slight shine but not a hi-gloss finish. The anti-glare panel was covered with matt varnish - which did not dry up properly, leaving a milky film. Nevertheless, it looks like sun-bleached black paint, so I kept it. Undesired side effect... The radome was painted with gloss varnish, so that three shades of black meet at the Thunderdart's nose.

  

A major kitbash. The Thunderdart looks unspectacular, but it is IMHO very deceiving. It combines characteristic elements of various Century fighters in shape and color, and it should keep some folks wondering what's actually wrong about it... Sleek aircraft - behold what's in a simple 1st generation MiG-21!

*As a side note: This what-if kit originally bore the designation “F-109”, which was originally allocated to a Bell VTOL aircraft that never made it beyond a mock-up stage. “F-109”, however, has recently found a common use for a fictional fighter which is more or less a crossbreed of an F-104 with F-100 wings and a low tail, so I switched to “F-112” for my own Thunderdart creation. “F-112” had NEVER been used, even though Douglas had used the F-112 code for an F-101 development, but only for internal purposes. Offially it has AFAIK never been used.

Made using a Super Fumina, and Frame Arms Durga model kit.

How it came to be:

This model was initially inspired by a "what if" illustration of a Westland Wyvern in Russian markings (which looked disturbingly realistic...). I have always been fascinated by this brutal construction on the thin line between the prop and jet age, and building one had been a vague plan for a long time. But instead trying to get my hands on a Trumpeter Wyvern in 1:72 I thought: well, if I was going "what if", then I could also build the plane from scratch.

 

While browsing sources and older Hobby Japan issues, I came across the Sanka and Skyly fighters from Bandai - and things fell together. Why not build a fighter in the post-WWII look of "The Sky Crawlers"?

  

The construction:

The kit was constructed as a kitbashing, with some scratch elements added. Design benchmark was the Westland Wyvern, but the Skyly J2 also had some influence, as well as various turboprop prototype of the US Navy, esp. the Ryan "Darkshark".

 

What went into this model:

North American F-86 Sabre (1:72, Hobby Boss):

- Fuselage

- Cockpit interior

- Canopy

Vought F4U-5 Corsair (1:72; Revell):

- Wings

- Landing gear & wheels

- Antennae

Mitsubishi A6M Zero (1:72 , Hasegawa)

- Engine cowl

Gloster Meteor NF.11 (1:72, Xtrakit/Matchbox):

- Vertical fin & horizontal stabilizers

 

Other smaller donations:(

- McDonnell Douglas F-18A Hornet (1:72, Italieri):

Turboprop spinners (= drop tank halves)

- Martin B-26 Marauder (1x Matchbox, 1x Airfix): Propeller blades

- McDonnell Douglas F-4 Phantom (1:72, Matchbox):

RAF reconnaissance pod

- Grumman F9 Panther: underwing hardpoints

- Kamov Ka-34 "Hokum" (1:72, ESCI): jet exhaust bulges

- WWII pilot figure from an unknown Airfix kit

 

Building the thing went pretty straightforward. F-86 hull and the Mitsubishi Zero engine cowl were glued together and four coats of NC putty melted the into one. Only a small slit between fuselage and propeller was left open as an air intake for the turboprop engine.

The Corsair wings were taken right out fo the box and could be merged with only minor modifications. On the upper side of the wing/body intersection, bulges for the jet exhaust pipes were added on the fuselage flanks (they were intended to end behind the wings' trailing edge), they consist of parts of the engine pods of a Kamov Ka-34 "Hokum" kit from ESCI. Later, the fuselage was drilled open at their ends and sunk exhaust funnels added - simple polystyrene pipes of 6mm diameter.

A similar pipe was vertically fitted into the fuselage at the plane's CG, for in-flight display (photography purposes).

 

The cruciform tail comes from an Xtrakit Gloster Meteor NF.11. Originally I planned just to replace the Sabre tail with the complete Meteor tail cone, but the latter turned out to be too slim! As an emergency remedy, I only used the the Meteor's fin and cut away the original jet exhaust of the Sabre - replacing it with a new, fatter tail cone which was built with parts from an RAF F-4 reconnaissance pod from a Matchbox kit (and lots of putty, though). The result is a rather massive tail which reminds of a Mitsubishi Zero's shape, but overall the lines blend well.

 

The contraprops were built from scratch, and for photography purposes I built tweo specimen: one with propeller blades for static display, and the other one with two clear plastic discs, as if the propellers were running full speed. The base for both is a drop tank from an Italieri F-18 Hornet kit. For the static contraprop, this base was even cut in two and an axis fitted - the propeller is actually fully functional! Its propeller blades come from B-26 Marauder kits and were fitted with reversed pitches, so that the contra-rotating construction would be realistic. Inside of the fuselage, a plastic pipe was used as an adapter for both propellers, making the easily interchangeable.

 

Even though weapon hardpoints were added, the remained empty - even though my construction looks rather like an attack plane, I wanted to keep a clean air-to-air look and leave a clear view onto the very good Corsair landing gear. The latter was taken 1.1 from the donation kit, just the rear wheel was modified (w/o arresting hook) and a respective compartment cut out of the tail cone.

  

Livery and markings:

Another subject which was rather difficult. With "whif" planes, you easily end up with prominent markings and camouflage schemes - many such kits bear a Luft'46 look. While this would have been a nice option, I also considered Russian markings (on a pure Aluminum livery or a simple green/light blue cammo scheme). Even painting the whole thing dark blue and adding some white stars would have been a plausible option.

 

But for a special twist, I wanted to "catch" the retro but subtly colourful spirit of The Sky Crawlers, avoiding a retro-Luftwaffe look. First idea was something that would have looked like an USAF Mustang in late WWII: lower side bare metal, upper sides olive drab and some flashy colours on the spinner, wings and tail. But then I remembered "something different".

 

The final paint scheme was heavily derived from a rather weird livery which the P-47M "Thunderbolts" from the 63rd fighter squadron, 56th fighter group, 8th Air Force, based in the UK in the final WWII months. Those machines wore a bluish-grey two-tone camouflage on the upper sides, with bare metal undersides. The wings leading edges would be bare metal, too, the engine adorned with a red band and the vertical rudder would be blue. Pretty unique - and AFAIK there's even an airworthy P-47 in this guise around in the USA, flown/kept up by the Confederate Air Force historic flight. This specific machine was actually the benchmark for my paint scheme, because its colours are rather bright.

 

I more or less sticked to the P-47 paint scheme, just raised the bare metal undersides on the flanks and used brighter colors. These are:

- Testors #1562 "Flat Light Blue"

- Testors #2074 "RLM24 Dunkelblau"

- Testors #1401 "Aluminum Plate" Metallizer

 

All interior surfaces were painted with RLM02 from Testors, the spinner is plain Testors #1103 "Red". The white stripes were cut from a plain white decal sheet from TL Modellbau, the red insignia are actually French WWII squadron markings in 1:48 scale - also aftermarket pieces from Peddinghaus Decals. Stencelling and bort numbers come from the scrap box.

With the overall exotic shape and cammo scheme, I decided to leave other markings simple and rather neutral – no shark mouth or nose art, even though there would have been plenty of space for such a detail. But I think it would distract too much, and AFAIK no plane in The Sky Crawlers bears such flashy decoration.

 

The kit was lightly weathered with thinned black paint and some dry painting with shades of grey, plus gun smoke and exhaust fumes with dry-painted black. Everything was sealed under a thin coat of semi-matte varnish.

  

Final words:

This thing looks disturbingly realistic and plausible, even in its bright livery! While the finish is not perfect (hey, it is scratchbuilt!), the Fafnir (named after a German mythical dragon) really looks like a project from the late 40ies, one of the final high end fighters with a propeller. I am rather surprised how good the result became, and it is exciting to see how such a project evolves step by step, only with a vague idea as a basis. Won't be the last kitbashing!

I lined up the first side walls to be glued together.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

 

Beauty pic.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Development studies at Grumman for jet-powered fighter aircraft began near the end of World War II as the first jet engines emerged. In a competition for a jet-powered night fighter for the United States Navy, on 3 April 1946 the Douglas F3D Skyknight was selected over Grumman's G-75, a two-seater powered by four Westinghouse J30s. The Navy's Bureau of Aeronautics (BuAer) also issued a contract to Grumman for two G-75 prototype aircraft on 11 April 1946, in case the Skyknight ran into problems.

However, Grumman soon realized that the G-75 was a dead end. But the company had been working on a completely different day fighter, the G-79, which offered a higher potential. In order to keep Grumman in the US Navy’s procurement loop, BuAer, in a bureaucratic maneuver, did not cancel the G-75 contract, but changed the wording to include prototypes of the entirely different G-79, too.

 

The G-79 project comprised a total of four different layouts and engine arrangements for a single seat fighter aircraft. G-79A and B were traditional tail sitters, but both featured mixed propulsion for an enhanced performance: G-79A was powered by an R-2800 radial engine and a Rolls Royce Derwent VI jet booster in the tail, fed by a pair of dorsal air intakes behind the cockpit. The G-79B was a similar aircraft, but its primary engine was a General Electric TG-100 turboprop in a more slender nose section. Even though both designs were big aircraft, initial calculations indicated a performance that would be superior to the Grumman F8F Bearcat, which had been designed as a thoroughbred interceptor.

 

The other two designs were pure jet fighters, both with a tricycle landing gear. G-79C had a layout reminiscent of the Gloster Meteor and was powered by two Derwent VI engines in bulky wing nacelles, and G-79D was finally an overall smaller and lighter aircraft, similar in its outlines to the early Vought F6U Pirate, and powered by a single Nene in the rear fuselage, fed by air intakes in the wing roots.

 

Since the operation of jet-powered aircraft from carriers was terra incognita for the US Navy, and early turbojets thirsty and slow to react to throttle input, BuAer decided to develop two of Grumman's G-79 designs into prototypes for real life evaluation: one of the conservative designs, as a kind of safe route, and one of the more modern jets.

From the mixed propulsion designs, the turboprop-powered G-79B was chosen (becoming the XF9F-1 'JetCat'), since it was expected to offer a higher performance and development potential than the radial-powered 'A'. From the pure jet designs the G-79D was chosen, because of its simplicity and compact size, and designated XF9F-2 'Panther'.

 

The first JetCat prototype made its maiden flight on 26 October 1947, but it was only a short airfield circuit since the TG-100 turpoprop failed to deliver full power and the jet booster had not been installed yet. The prototype Panther, piloted by test pilot Corky Meyer, first flew on 21 November 1947 without major problems.

 

In the wake of the two aircrafts' test program, several modifications and improvements were made. This included an equal armament of four 20mm guns (mounted in the outer, foldable wings on the JetCat and, respectively, in the Panther’s nose). Furthermore, both aircraft were soon armed with underwing HVAR air-to-ground rockets and bombs, and the JetCat even received an underfuselage pylon for the potential carriage of an airborne torpedo. Since there was insufficient space within the foldable wings and the fuselage in both aircraft for the thirsty jet’s fuel, permanently mounted wingtip fuel tanks were added on both aircraft, which incidentally improved the fighters' rate of roll. Both F9F types were cleared for flight from aircraft carriers in September 1949.

 

The F9F-1 was soon re-engined with an Allison T38 turboprop, which was much more reliable than the TF-100 (in the meantime re-designated XT31) and delivered a slightly higher power output. Another change was made for the booster: the bulky Derwent VI engine from the prototype stage was replaced by a much more compact Westinghouse J34 turbojet, which not only delivered slightly more thrust, it also used up much less internal space which was used for radio and navigation equipment, a life raft and a relocated oil tank. Due to a resulting CG shift towards the nose, the fuselage fuel cell layout had to be revised. As a consequence, the cockpit was moved 3’ backwards, slightly impairing the pilot’s field of view, but it was still superior to the contemporary Vought F4U.

 

Despite the engine improvements, though, the F9F-1 attained markedly less top speed than the F9F-2. On the other side, it had a better rate of climb and slow speed handling characteristics, could carry more ordnance and offered a considerably bigger range and extended loiter time. The F9F-2 was more agile, though, and more of the nimble dogfighter the US Navy was originally looking for. Its simplicity with just a single engine was appealing, too.

 

The Panther was eventually favored as the USN's first operational jet day fighter and put into production, but the F9F-1 showed much potential as a fast fighter bomber. Through pressure from the USMC, who was looking for a replacement for its F7F heavy Tigercat fighters, a production order for 50 JetCats was eventually placed, later augmented to 82 aircraft because the US Navy also recognized the type’s potential as a fast, ship-borne multi-role fighter. Further interest came in 1949 from Australia, when the country’s government was looking for a - possibly locally-built in license - replacement for the outdated Mustang Mk 23 and De Havilland Vampire then operated by the Royal Australian Air Force (RAAF). Both Grumman designs were potential contenders, rivalling with the domestic CAC CA-23 fighter development.

 

The Grumman Panther became the most widely used U.S. Navy jet fighter of the Korean War, flying 78,000 sorties and scoring the first air-to-air kill by the U.S. Navy in the war, the downing of a North Korean Yakovlev Yak-9 fighter. Being rugged aircraft, F9F-2s, -3s and -5s were able to sustain operations, even in the face of intense anti-aircraft fire. The pilots also appreciated the Panther’s air conditioned cockpit, which was a welcome change from the humid environment of piston-powered aircraft.

 

The F9F-1 did fare less glamorous. Compared with the prototypes, the T38 turboprop's power output could be enhanced on service aircraft, but not on a significant level. The aircraft's original, rather sluggish response to throttle input and its low-speed handling were improved through an eight-blade contraprop, which, as a side benefit, countered torque problems during starts and landings on carriers.

The JetCat’s mixed powerplant installation remained capricious, though, and the second engine and its fuel meant a permanent weight penalty. The aircraft's complexity turned out to be a real weak point during the type's deployment to front line airfields in the Korean War, overall readiness was – compared with conservative types like the F4U and also the F9F-2, low. Despite the turboprop improvements, the jet booster remained necessary for carrier starts and vital in order to take on the MiG-15 or post-war piston engine types of Soviet origin like the Lavochkin La-9 and -11 or the Yakowlev Yak-9.

 

Frequent encounters with these opponents over Korea confirmed that the F9F-1 was not a “naturally born” dogfighter, but rather fell into the escort fighter or attack aircraft class. In order to broaden the type's duty spectrum, a small number of USMC and USN F9F-1s was modified in field workshops with an APS-6 type radar equipment from F4U-4N night fighters. Similar to the Corsair, the radar dish was carried in a streamlined pod under the outer starboard wing. The guns received flame dampers, and these converted machines, re-designated F9F-1N, were used with mild success as night and all-weather fighters.

 

However, the JetCat remained unpopular among its flight and ground crews and, after its less-than-satisfactory performance against MiGs, quickly retired. After the end of the Korean War in July 1953, all machines were grounded and by 1954 all had been scrapped. However, the turboprop-powered fighter bomber lived on with the USMC, which ordered the Vought A3U SeaScorpion as successor.

  

General characteristics:

Crew: 1

Length: 40 ft 5 in (12,31 m)

Wingspan: 43 ft 5 in (13,25 m)

Height: 15 ft 6 3/4 in (4,75 m)

Wing area: 250 ft² (23 m²)

Empty weight: 12,979 lb (5,887 kg)

Gross weight: 24,650 lb (11,181 kg)

Powerplant:

1× Allison T38E turboprop, rated at 2,500 shp (1,863 kW) plus 600 lbf (2.7 kN) residual thrust

1× Westinghouse J34-WE-13 turbojet booster with 3,000 lbf (13.35 kN)

 

Performance:

Maximum speed: 507 mph (441 kn; 816 km/h) at 30,000 ft (9,100 m)

497 mph (432 kn, 800 km/h) at sea level

Cruise speed: 275 mph (443 km/h; 239 kn) at 30,000 ft (9,100 m)

Stall speed: 74 mph (119 km/h; 64 kn) with flaps

Range: 2,500 mi (2,172 nmi; 4,023 km)

Service ceiling: 47,000 ft (14,000 m)

Rate of climb: 5,300 ft/min (27 m/s)

Wing loading: 71 lb/ft² (350 kg/m²)

Thrust/weight: 0.42

Armament:

4× 20 mm (0.79 in) AN/M3 cannon in the outer, foldable wings with 220 RPG

Underwing hardpoints and provisions to carry combinations of up to 6× 5 " (127 mm) HVAR

missiles and/or bombs on underwing hardpoints, for a total ordnance of 3,000 lb (1,362 kg)

  

The kit and its assembly:

This is another submission to the Cold War GB at whatifmodelers in early 2018, and rather a spontaneous idea. It was actually spawned after I finished my fictional Gudkov Gu-1 mixed propulsion fighter - while building (using the engine front from an F6F Hellcat) I had the impression that it could also have ended up as a post-war USN fighter design.

 

A couple of days later, while browsing literature for inspiration, I came across Grumman's G-79 series of designs that eventually led to the F9F Panther - and I was amazed that the 'A' design almost looked like my kitbashed Soviet fighter!

 

So I considered a repeated build of a P-47D/Supermarine Attacker kitbash, just in American colors. But with the F9F relationship, I planned the integration of Panther parts, so that the new creation would look different from the Gu-1, but also show some (more) similarity to the Panther.

 

The plan appeared feasible. Again, the aircraft's core is an Academy P-47D, with its outer wings cut off. Cockpit and landing gear were retained. However, instead of Supermarine Attacker wings from a Novo kit, I attached F9F-2 wings from a Hasegawa kit. Shape-wise this worked fine, but the Panther wings are much thinner than the Thunderbolt’s, so that I had to integrate spacers inside of the intersections which deepen the Hasegawa parts. Not perfect, but since the type would feature folding wings, the difference and improvisation is not too obvious.

 

On the fuselage, the Thunderbolt’s air outlets on its flanks were faired over and most of the tail section cut away. In the lower part of the tail, a jet pipe (from a Heller F-84G) was added and blended with PSR into the Thunderbolt fuselage, similar to the Gu-1. A completely new fin was scratched from an outer wing section from a Heinkel He 189, in an attempt to copy the G-79B's shape according to the drawing I used as benchmark for the build. I also used the F9F's stabilizers. With clipped tips they match well in size and shape, and add to the intended Grumman family look. The original tail wheel well was retained, but the tail wheel was placed as far back as possible and replaced by the twin wheel from a Hasegawa F5U. The Panther’s OOB tail hook was integrated under the jet pipe, too.

 

The front section is completely different and new, and my choice fell on the turboprop-powered G-79B because I did not want to copy the Gu-1 with its radial engine. However, the new turboprop nose was not less complicated to build. Its basis is a 1:100 engine and contraprop from a VEB Plasticart Tu-20/95 bomber, a frequent ingredient in my builds because it works so well in 1:72 scale. This slender core was attached to the Thunderbolt's fuselage, and around this basis a new cowling was built up with 2C putty, once more in an attempt to mimic the original G-79B design as good as possible.

 

In order to blend the new engine with the fuselage and come close to the G-79B’s vaguely triangular fuselage diameter, the P-47's deep belly was cut away, faired over with styrene sheet, and everything blended into each other with more PSR work. As a final step, two exhaust pipes were mounted to the lower fuselage in front of the wings’ leading edge.

 

The air intakes for the jet booster are actually segments from a Sopwith Triplane fuselage (Revell) – an unlikely source, but the shape of the parts was just perfect. More PSR was necessary to blend them into the aircraft’s flanks, though.

  

Painting and markings:

As per usual, I'd rather go with conservative markings on a fictional aircraft. Matching the Korean War era, the aircraft became all-over FS 35042 (Modelmaster). A black ink wash emphasized the partly re-engraved panel lines, and some post shading highlighted panels.

 

The wings’ leading edges and the turboprop’s intake were painted with aluminum, similar edges on fin and stabilizers were created with silver decal material. The interior of cockpit and landing gear was painted with green chromate primer.

 

The markings were puzzled together. “Stars and Bars” and VF-53 markings were taken from a Hobby Boss F4U-4 kit. The blue fin tip is the marking for the 3rd squadron, so that the “307” tactical code is plausible, too (the latter comes from a Hobby Boss F9F-2). In order to keep things subtle and more business-like (after all, the aircraft is supposed to be operated during the ongoing Korean War), I did not carry the bright squadron color to any other position like the spinner or the wing tips.

 

After some final detail work and gun and exhaust soot stains, the kit was sealed with semi-gloss acrylic varnish (Italeri). Matt acrylic varnish was used for weathering effects, so that the aircraft would not look too clean and shiny.

  

While it is not a prefect recreation of the Grumman G-79B, I am quite happy with the result. The differences between the model and the original design sketch can be explained through serial production adaptations, and overall the whole thing looks pretty conclusive. In fact, the model appears from certain angles like a naval P-51 on steroids, even though the G-79B was a much bigger aircraft than the Mustang.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

The Fouga CM.170 Magister was a 1950s French two-seat jet trainer aircraft, developed and manufactured by aircraft company Fouga. Due to industrial mergers, the aircraft has been variously known as the Fouga CM.170 Magister, Potez (Fouga) CM.170 Magister, Sud Aviation (Fouga) CM.170 Magister and Aérospatiale (Fouga) CM.170 Magister, depending on where and when they were built.

 

In 1948, development commenced at Fouga on a new primary trainer aircraft design that harnessed newly developed jet propulsion technology. The initial design was evaluated by the French Air Force and, in response to its determination that the aircraft lacked sufficient power for its requirements, was enlarged and adopted a pair of Turbomeca Marboré turbojet engines. First flying on 23 July 1952, the first production order for the type was received on 13 January 1954. Export orders for the Magister were received, which included arrangements to produce the type under license in Germany, Finland, and Israel. In addition, the related CM.175 Zéphyr was a carrier-capable version developed and produced for the French Navy.

 

While primarily operated as a trainer aircraft, the Magister was also frequently used in combat as a close air support platform by various operators. In the latter capacity, it saw action during the Six-Day War, the Salvadoran Civil War, the Western Sahara War, and the Congo Crisis. In French service, the Magister was eventually replaced by the Dassault/Dornier Alpha Jet, and a navalized variant (the CM.175 “Zéphyr”) was procured and operated from 1959 onwards by the Aéronavale.

 

Beyond that, the basic 1950 design was considered for several upgrades or specialized variants – including a high altitude trainer or a dedicated single-seat attack aircraft. In 1957 even a supersonic variant was proposed: the CM.174, which featured swept wings and tail surfaces. However, this initial aircraft never made it to the hardware stage because wind tunnel tests revealed serious compressibility issues at speeds beyond Mach 0.65, and that the potential gain in performance through the new wings could not be tapped.

 

However, this was not the end of the Magister’s potential; in 1957 Fouga presented a model of the CM 194 at the Paris Air Show – a much updated aircraft, powered by a pair of stronger Gabizo engines and capable of supersonic speed, even though only in a dive. French officials and some potential foreign customers (e.g. Israel) were interested enough to convince Fouga to build a demonstrator, even though as a private venture. The first prototype left the Toulouse factory in May 1958, the first type to bear the Potez designation after Fouga had just been purchased by the firm.

 

The CM.194 differed in some details from the model that had been presented – primarily in order to save development time and costs. The basic fuselage structure from the original CM.170 was retained, but the CM.194 introduced completely new wings and tail surfaces, a modified landing gear, a pointed nose and an elongated spine fairing that helped improve the aircraft’s aerodynamics for the flight in the Mach 1 region. Power came from a pair of Turbomeca Gabizo, but in order to improve the aircraft’s performance and make it suitable for the advanced jet fighter trainer role, the relatively small engines even received afterburners (an arrangement originally developed for the stillborn Breguet Br 1001 “Taon” tactical fighter). With this extra power, the CM.194 was now able to break the sound barrier in level flight and attain a top speed of Mach 1.18, and the type could carry a considerably higher payload than the original CM.170.

 

Flight tests started in late 1958 and revealed good handling characteristics, even though longitudinal stability near Mach 1 was considered as unsatisfactory, and the air intakes had to be modified because of airflow problems and engine surges at supersonic. It took until mid 1959 until an enlarged butterfly tail with crescent shape, together with an extended spine fairing, eventually solved the stability problem. The engine surge problem was solved through the introduction of movable shock cones in the air intakes, similar to the “souris” (mice) arrangement on Dassault’s Mirage III and IV.

Two more prototypes had been built at that time, being marketed as the “Magister Supersonique”, or “Magister SS” for short, and a demonstration tour around the globe in many countries of Magister operators was conducted from October 1959 until April 1960.

However, the CM.194 did not meet much interest. Even though many air forces, also smaller ones, were about to enter the supersonic age and were looking for advanced trainers, the market had been conquered by politically endorsed alternatives in the meantime, namely the Northrop T-38/F-5B and the MiG-21U, and these contenders were much more capable than the relatively light CM.194.

 

Nevertheless, the French air force procured 42 CM.194 trainers, the first operational aircraft being delivered in early 1963, and some other countries ordered the type, too, including Austria, Belgium, Lebanon and Morocco. Israel even secured license production rights of the aircraft as the IAI T-270 “Drowr” (Swallow). A total of 132 aircraft were built until 1974, and the last CM.194 was retired by El Salvador in 1995.

  

General characteristics:

Crew: Two

Length: 10.36 m (34 ft 0 in)

Wingspan: 8.92 m (29 ft 3 in)

Height: 2.45 m (8 ft)

Wing area: 16.4 m² (177 ft²)

Empty weight: 3,100 kg (6,830 lb)

Loaded weight: 5,440 kg (11,990 lb)

Max. takeoff weight: 5,500 kg (12,100 lb)

 

Powerplant:

2× Turbomeca Gabizo axial flow turbojets, with 11.87 kN (2,668 lbf) dry thrust each

and 14.71 kN (3,307 lbf) with afterburner

 

Performance:

Maximum speed: 1,194 km/h (742 mph; 645 kn) at 9,000 m (30,000 ft)

Range: 1,150 km (621 nmi, 715 mi)

Service ceiling: 13,100 m (43,000 ft)

Rate of climb: 30 m/s (6,000 ft/min)

Wing loading: 331 kg/m² (67.8 lb/ft²)

Thrust/weight: 0.42

 

Armament:

Normally no internal gun, but provision for a ventral, conformal gun pod with a single 0.5” (12.7 mm)

machine gun and 180 RPG

4x underwing hardpoints for up to 1.000kg of ordnance, incl. drop tanks, bombs of up to 250kg caliber,

unguided missiles or gun pods

  

The kit and its assembly:

This little what-if model is actually based on a real world design – the potentially supersonic Fouga CM 194 was actually presented in model form in 1957, but it never made it to the hardware stage. I found this aircraft in a book about French aircraft projects and had this build on my long project list for a while. When a fellow modeler at whatifmodelers.com (Weaver) presented a very nice swept wing Magister (an Airfix CM 170 with G.91 wings and F-86 stabilizers), I took it as a motivation and prepared a build of my own.

 

My build differs from Weaver’s approach, though, even though the G.91 wings are a very natural option for the slender Magister. In my case, the fuselage was taken from a Heller CM 170, including the cockpit except for the bucket seats, which were replaced by more appropriate ejection seats. I also used G.91 wings for my build, but these came from the Revell kit. And even though I had a pair of F-86 stabilizers at hand (which are a very good addition to the G.91 wings), I did not use them because I found them to be too small for a butterfly tail on a Magister. After all, two aerodynamic surfaces have to do the job of three on a conservative tail, so that the sum of the surfaces’ areas have to be similar. The best alternative I could find in my donor bank was a pair of stabilizers from a Matchbox Harrier; while their shape looks a little odd, their sweep angle is fine and their size works well.

 

Beyond these obvious changes, some other modifications ensued. The nose tip was changed into a pointed shape, and the area behind the cockpit (the canopy is OOB, just cut into pieces for open display) was raised through the integration of a drop tank half and some serious PSR – inspired by the look of Fouga’s first attempt to make the Magister supersonic, the CM 174. Since the G.91 wings came with different landing gear wells, I decided to change the landing gear itself and use the G.91’s main struts and covers, while the Magister’s OOB main wheels were kept. The front leg was changed in so far that I attached it to the rear end of its well, and I used a slightly bigger wheel (IIRC from an 1:144 B-1B). All in all the aircraft’s stance was raised, it looks much more mature now. And in order to keep its lines clean I did not add any external weapons or even pylons. After all, it’s a flight trainer.

 

Another modification concerns the engines – for a supersonic aircraft I added small shock cones in the air intakes (scratched from styrene profile) and I changed the exhaust section, so that bigger/stronger engines would be plausible. I implanted a pair of modified lift engines from a Kangnam Yak-38 kit – I thought they’d be small enough, but on the compact Magister they still appear big! Luckily I found the Br 1001 “Taon” and its afterburner Gabizo engines in literature, so that the arrangement on the model can at least be explained through historical facts. ;-)

  

Painting and markings:

I was tempted to finish the model in Israeli markings, like Weaver’s, but then rather opted for a different route: I wanted to present the CM 194 in very normal operational colors, nothing exotic. After considering several options (Morocco, El Salvador, France) I eventually settled upon Belgium, and I went for the tactical three-tone scheme that was carried by the F-104 or Mirage V fighter bombers.

 

The pattern was adapted from an Alpha Jet export scheme and the colors were approximated from photo benchmarks. Many sources claim that the colors are the standard US SEA scheme, consisting of FS 34079, 34102 and 30219. However, the Dark Green is simply wrong (it’s a tone called FS 34064, and it’s a very dark olive drab), and the other colors come out much brighter than on typical US aircraft.

 

Consequently, FS 34102 was replaced by RAL 6003 (later even post-shaded with Humbrol 80, Grass Green!), while the tan tone is a mix of FS 30219 with Humbrol 94 (Desert Yellow). FS 34064 was created with a 1:1 mix of Humbrol 108 and 91 (later post-shaded with 75). The undersides were painted in FS 36495.

 

The cockpit interior became dark grey (Revell 77), while the landing struts and the wells were painted in aluminum; the covers’ inside received a finish in Chromate Yellow (Humbrol 81).

 

The dayglow markings on the tips of wings and the butterfly tail were created with decals sheet material, on top of which some paint (Humbrol 209) was added for a slight shading effect.

Generic decals in silver were also used to create the wing leading edges. National markings and warning stencils come from the scrap box.

Finally, the kit received a coat of matt acrylic varnish (Italeri).

  

Well, basically a simple conversion stunt, but it’s actually a complete kitbashing with – in my case – some considerable PSR work. However, the result is a very plausible, if not pretty, aircraft. From certain angles, the swept-wing Magister reminds me of the Alpha Jet (esp. the nose section, probably due to the pointed nose?), and the whole thing appears somehow bigger as it actually is. And I like the paint scheme: even though it’s camouflage, the dayglow markings and the bright insignia and stencils create a lively look.

Jiaou Doll wheat skin big bust figure .

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

The Fiat Macchi C.170 Brezza ("Gust of wind") was a single-seat biplane fighter which served primarily in Italy's Regia Aeronautica before and in the early stages of World War II. The aircraft was produced by the Varese firm, and entered service, in smaller numbers, with the air forces of Italy, Austria and Hungary.

 

In spite of the biplane configuration, the C.170 was a modern, 'sleek-looking' design based around a strong steel and alloy frame incorporating a NACA cowling housing the radial engine, with fairings for the fixed main landing gear. The C.170's upper wing was slightly larger than its lower wing, carried only by six struts and a few bracing wires. Only the upper wing featured ailerons while the lower wing carried large flaps. Although it looked slightly outdated, the aircraft proved exceptionally agile thanks to its very low wing loading and a powerful, responsive engine.

 

Power was provided by a 650 kW (870 hp) Fiat A.74 14 cylinder radial engine, which also drove the contemporary Fiat CR.32 fighter. With the "direttiva" (Air Ministry Specific) of 1932, Italian industrial leaders had been instructed to concentrate solely on radial engines for fighters, due to their better reliability. The A.74 was actually a re-design of the American Pratt & Whitney R-1830 SC-4 Twin Wasp made by engineers Tranquillo Zerbi and Antonio Fessia, and in the C.170 it was geared to drive a metal three-blade Fiat-Hamilton Standard 3D.41-1 propeller of 2.9 m (9.5 ft) diameter. This allowed an impressive top speed of 441 km/h (272 mph) at 6.500 m (20.000 ft), and 342 km/h (213 mph) at ground level.

 

The first C.170 prototype flew on 24 December 1934 in Lonate Pozzolo, Varese, with Macchi Chief Test Pilot Giuseppe Burei at the controls. It was followed by the second prototype early the next year, which flew with an armored headrest and fairing in place (the C.170 lacked any further armor!) and other minor changes that were incorporated for serial production.

Despite Macchi’s proposal for a closed cockpit canopy the cockpit remained open – Italian pilots were rather conservative. Additional protection was introduced through armored side panels, though, which would protect the pilot’s shoulders. Radio equipment was also not included, as in many other Italian fighter aircraft.

 

During evaluation in early 1935 the C.170 was tested against the Fiat CR.42 and the Caproni Ca.165 biplane fighters, and was judged to be on par with the CR.42, although the Ca.165 was a more modern design which boasted a higher speed at the cost of maneuverability. An initial order of 99 C.170 for Italy's Regia Aeronautica was placed to Macchi factory in summer 1935, followed by foreign interest and order options from Austria, Belgium and Spain.

 

Anyway, what looked like a prosperous design was soon rendered obsolete: Following the end of Italy's campaigns in East Africa, a program was started to completely re-equip the Regia Aeronautica with a new interceptor aircraft of modern design. The 10 February 1936 specifications called for an aircraft powered by a single radial engine, with a top speed of 500 km/h, climb rate at 6,000 meters of 5 minutes, with a flight endurance of two hours, and armed with a single (later increased to two) 12.7 mm (0.5 in) machine gun. That was more or less the premature end for the C.170, as Macchi and other manufacturers quickly turned to more modern monoplane designs.

 

Therefore, orders and production of the Macchi Brezza remained limited. Beyond the original 99 aircraft for the Regia Aeronautica only 24 further C.170s were delivered. These aircraft went in spring 1936 to Austria to equip Jagdgeschwader II at Wiener Neustadt. Immediately after their delivery the Brezza fighters were retro-fitted with radio equipment, recognizable through the antenna installation on the headrest fairing. The potential orders from Belgium and Spain were soon cancelled, due to political tensions.

 

As a side note, the Austrian C.170s fighters were the first aircraft to sport the new national emblem, which had been the result of a competition and won by flight engineer Rosner from the Graz-Thalerhof base. The white, equilateral triangle with the point facing downwards in a red disc was a completely new design and had (other than the flag or coats of arms) no prior basis.

 

The C.170s' career in Austrian service was short, though: in March 1938 the Austrian units were absorbed into the Luftwaffe, and after a brief period the aircraft were handed over to Hungary where they were used for training purposes.

 

Although an obsolete design, it proved to be robust, durable and effective especially in severe conditions. In spring 1943, surviving C.170s were rounded up from training schools and delivered to night ground attack units operating on the Eastern Front. The C.170 was used to conduct night harassment sorties on the Eastern Front until September 1944, when the units were disbanded, due to a lack of serviceable airframes and spare parts.

  

General characteristics

Crew: 1

Length: 8.25 m (27 ft 1 in)

Wingspan: 32 ft 3 in (9.83 m)

Height: 11 ft 9 in (3.58 m)

Wing area: 323 ft² (30.0 m²)

Empty weight: 3,217 lb (1,462 kg)

Loaded weight: 4,594 lb (2,088 kg)

 

Powerplant

1× Fiat A.74 R.C.38 14-cylinder air-cooled radial engine, 650 kW (870 hp) at 2,520 rpm for take-off

 

Performance

Maximum speed: 441 km/h (238 kn, 274 mph) at 20,000 ft

Cruise speed: 338 km/h (187 kn, 210 mph)

Range: 780 km (420 nmi, 485 mi)

Service ceiling: 10,210 m (33,500 ft)

Rate of climb: 11.8 m/s (2,340 ft/min)

Climb to 10,000 ft (3,050 m): 4.75 min

Wing loading: 69,6 kg/m² (15,3 lb/ft²)

Power/mass: 311 W/kg (0.19 hp/lb)

 

Armament

2× 12.7 mm (0.5 in) Breda-SAFAT synchronized machine guns above the engine, 370 rpg

Some aircraft were field-modified to carry up to 8× 15 kg (33 lb) or 2× 50 or 100 kg (110/220 lb) bombs under the wings

  

The kit and its assembly

Inspiration for this little, whiffy biplane came when I posted a pic of an Austrian Ju 86 bomber as a reply/ suggestion to a fellow modeler's (NARSES2) search at whatifmodelers.com for “something” to make from a Gloster Gladiator.

When I looked at the paint scheme a second time I remembered that I still had some Austrian roundels in stock, as well some very old biplane spare parts... hmmm.

 

Biplanes are tricky to build, even OOB, and kitbashing this kind of whif would not make things easier. Anyway, I love such challenges, and the potential outcome would surely look nice, if not exotic, so I decided to tackle the project.

 

Basically, the following donation ingredients went into it:

● Fuselage, engine, cockpit/pilot and tail from a Revell Macchi C.200 "Saetta"

● Upper wing from a Matchbox Gloster "Gladiator"

● Lower wings from a Matchbox SBC "Helldiver"

● Wheels from a Matchbox Hs 126 (shortened)

 

Pretty straightforward, but even though it would be a small aircraft model, it would come with two big challenges: mounting the lower wings and shaping the resulting, gaping belly, and the custom-made struts and wirings for the upper wing.

 

Work started with the Macchi C.200’s fuselage, which was built OOB - just without the wing, which is a single part, different pilot (the included one is a pygmy!) and with a free spinning metal axis for the propeller.

 

The wing installation started with the lower wings. I glued the Helldiver wings onto the C.200 fuselage, so that the wings' trailing edge would match the C.200's wing root ends. From that, a floor plate was fitted under the fuselage and any excessive material removed, the gaps filled with lumps of 2C putty. That moved the lower wing's roots backwards, creating space at the lower forward fuselage for the new landing gear.

 

The latter was taken from a vintage Matchbox Hs 126 reconnaissance aircraft - probably 25, if 30 years old... Size was O.K., but the struts had to shortened by about 5mm, as thge HS 126 is a much bigger/longer aircraft than the C.200. A cut was made just above the wheel spats, material taken out, and the separate parts were glued back together again.

 

With the lower wings in place I started building strut supports for the upper wing from styrene strips - tricky and needs patience, but effective. I started with the outer supports, carving something SBC-style from styrene. These were glued into place, slightly canted outwards, and their length/height adapted to the upper wing’s position.

When this was settled, the upper Gladiator wing was glued into place. After a thorough drying period the short fuselage supports in front of the cockpit – again, styrene strips – were inserted into the gap. This allowed an individual lengthening, and was easier than expected, with a stable result.

After having the upper wing glued in place I added some wiring, made from heated and pulled-out styrene sprues. This not only enhances the kit's look, it also (just like in real life) improves rigidity of the model. Also a tedious task, but IMHO worth the effort. I tried thin wire, nylon strings and sewing yarn for this job, but finally the styrene solution is what worked best for me.

The exhaust installation had also to be modified: the new Hs 126 struts with spats would have been where the original C.200’s hot exhaust gases would have gone, so I added new exhaust pipes that would go between the new legs.

Other small added details included, among others, a pitot on a wing strut, a visor in front of the cockpit, a radio antenna, a ladder made from wire.

  

Painting and markings:

I would not call the Austrian 3+1-tone pre-WWII-scheme spectacular, but the colors are unique. My scheme is based on an Austrian Ju 86 bomber from 1938, so it fits into the intended time frame.

 

The colors were puzzled together from various sources and are subjective guesstimates:

● A pale, yellow-ish beige (Humbrol 74, ‘Linen’, out of production)

● A rather brownish green (Testors 1711, ‘Olive Drab’, FS 34087)

● A dark green with a yellow-ish hue (Humbrol 116, ‘US Dark Green’ FS 34079)

● Light blue for the undersides (Humbrol 65, ‘Aircraft Blue’, RLM 65)

 

In order to add some details I painted the area behind the engine cowling in aluminum. The respective part under the fuselage, where the exhaust gases would pass, was painted in Steel – both Testors Metallizers.

The interior surfaces were painted in a neutral Grey – but with the engine and the pilot in place you cannot see anything of that at all.

Markings are minimal: the Austrian roundels come from a TL Decals aftermarket sheet, the flag on the rudder was laid out with red paint (a mix of Humbrol 19 and 60), the white bar is a decal. The tactical code is fictional, puzzled together from single digits in various sizes (also from TL Modellbau sheets). The original documents how purely black fuselage codes, but I found these hard to read. So I chose digits with a white rim (actually, these belong to modern German Luftwaffe tactical codes in 1:32), which improve contrast a little.

The kit received a thin black ink wash and some shading/dry-painting with lighter basic tones (Humbrol 103, 155, Model Master 2138,‘Israeli Armor Sand Grey’, and Humbrol 122). After decal application, another turn with overall Hemp and Light Grey was done in order to fade contrast and to emphasize the surface structure. The wires were also painted, but only with thinned black ink and a VERY soft brush.

 

Finally, everything was sealed under a spray coat of matt acrylic varnish.

Voilà, and done in just about a week!

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

1/6 female kitbash using a Phicen body and other various other pieces .

Phicen kitbash using the blonde Kimi headsculpt .

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Development studies at Grumman for jet-powered fighter aircraft began near the end of World War II as the first jet engines emerged. In a competition for a jet-powered night fighter for the United States Navy, on 3 April 1946 the Douglas F3D Skyknight was selected over Grumman's G-75, a two-seater powered by four Westinghouse J30s. The Navy's Bureau of Aeronautics (BuAer) also issued a contract to Grumman for two G-75 prototype aircraft on 11 April 1946, in case the Skyknight ran into problems.

However, Grumman soon realized that the G-75 was a dead end. But the company had been working on a completely different day fighter, the G-79, which offered a higher potential. In order to keep Grumman in the US Navy’s procurement loop, BuAer, in a bureaucratic maneuver, did not cancel the G-75 contract, but changed the wording to include prototypes of the entirely different G-79, too.

 

The G-79 project comprised a total of four different layouts and engine arrangements for a single seat fighter aircraft. G-79A and B were traditional tail sitters, but both featured mixed propulsion for an enhanced performance: G-79A was powered by an R-2800 radial engine and a Rolls Royce Derwent VI jet booster in the tail, fed by a pair of dorsal air intakes behind the cockpit. The G-79B was a similar aircraft, but its primary engine was a General Electric TG-100 turboprop in a more slender nose section. Even though both designs were big aircraft, initial calculations indicated a performance that would be superior to the Grumman F8F Bearcat, which had been designed as a thoroughbred interceptor.

 

The other two designs were pure jet fighters, both with a tricycle landing gear. G-79C had a layout reminiscent of the Gloster Meteor and was powered by two Derwent VI engines in bulky wing nacelles, and G-79D was finally an overall smaller and lighter aircraft, similar in its outlines to the early Vought F6U Pirate, and powered by a single Nene in the rear fuselage, fed by air intakes in the wing roots.

 

Since the operation of jet-powered aircraft from carriers was terra incognita for the US Navy, and early turbojets thirsty and slow to react to throttle input, BuAer decided to develop two of Grumman's G-79 designs into prototypes for real life evaluation: one of the conservative designs, as a kind of safe route, and one of the more modern jets.

From the mixed propulsion designs, the turboprop-powered G-79B was chosen (becoming the XF9F-1 'JetCat'), since it was expected to offer a higher performance and development potential than the radial-powered 'A'. From the pure jet designs the G-79D was chosen, because of its simplicity and compact size, and designated XF9F-2 'Panther'.

 

The first JetCat prototype made its maiden flight on 26 October 1947, but it was only a short airfield circuit since the TG-100 turpoprop failed to deliver full power and the jet booster had not been installed yet. The prototype Panther, piloted by test pilot Corky Meyer, first flew on 21 November 1947 without major problems.

 

In the wake of the two aircrafts' test program, several modifications and improvements were made. This included an equal armament of four 20mm guns (mounted in the outer, foldable wings on the JetCat and, respectively, in the Panther’s nose). Furthermore, both aircraft were soon armed with underwing HVAR air-to-ground rockets and bombs, and the JetCat even received an underfuselage pylon for the potential carriage of an airborne torpedo. Since there was insufficient space within the foldable wings and the fuselage in both aircraft for the thirsty jet’s fuel, permanently mounted wingtip fuel tanks were added on both aircraft, which incidentally improved the fighters' rate of roll. Both F9F types were cleared for flight from aircraft carriers in September 1949.

 

The F9F-1 was soon re-engined with an Allison T38 turboprop, which was much more reliable than the TF-100 (in the meantime re-designated XT31) and delivered a slightly higher power output. Another change was made for the booster: the bulky Derwent VI engine from the prototype stage was replaced by a much more compact Westinghouse J34 turbojet, which not only delivered slightly more thrust, it also used up much less internal space which was used for radio and navigation equipment, a life raft and a relocated oil tank. Due to a resulting CG shift towards the nose, the fuselage fuel cell layout had to be revised. As a consequence, the cockpit was moved 3’ backwards, slightly impairing the pilot’s field of view, but it was still superior to the contemporary Vought F4U.

 

Despite the engine improvements, though, the F9F-1 attained markedly less top speed than the F9F-2. On the other side, it had a better rate of climb and slow speed handling characteristics, could carry more ordnance and offered a considerably bigger range and extended loiter time. The F9F-2 was more agile, though, and more of the nimble dogfighter the US Navy was originally looking for. Its simplicity with just a single engine was appealing, too.

 

The Panther was eventually favored as the USN's first operational jet day fighter and put into production, but the F9F-1 showed much potential as a fast fighter bomber. Through pressure from the USMC, who was looking for a replacement for its F7F heavy Tigercat fighters, a production order for 50 JetCats was eventually placed, later augmented to 82 aircraft because the US Navy also recognized the type’s potential as a fast, ship-borne multi-role fighter. Further interest came in 1949 from Australia, when the country’s government was looking for a - possibly locally-built in license - replacement for the outdated Mustang Mk 23 and De Havilland Vampire then operated by the Royal Australian Air Force (RAAF). Both Grumman designs were potential contenders, rivalling with the domestic CAC CA-23 fighter development.

 

The Grumman Panther became the most widely used U.S. Navy jet fighter of the Korean War, flying 78,000 sorties and scoring the first air-to-air kill by the U.S. Navy in the war, the downing of a North Korean Yakovlev Yak-9 fighter. Being rugged aircraft, F9F-2s, -3s and -5s were able to sustain operations, even in the face of intense anti-aircraft fire. The pilots also appreciated the Panther’s air conditioned cockpit, which was a welcome change from the humid environment of piston-powered aircraft.

 

The F9F-1 did fare less glamorous. Compared with the prototypes, the T38 turboprop's power output could be enhanced on service aircraft, but not on a significant level. The aircraft's original, rather sluggish response to throttle input and its low-speed handling were improved through an eight-blade contraprop, which, as a side benefit, countered torque problems during starts and landings on carriers.

The JetCat’s mixed powerplant installation remained capricious, though, and the second engine and its fuel meant a permanent weight penalty. The aircraft's complexity turned out to be a real weak point during the type's deployment to front line airfields in the Korean War, overall readiness was – compared with conservative types like the F4U and also the F9F-2, low. Despite the turboprop improvements, the jet booster remained necessary for carrier starts and vital in order to take on the MiG-15 or post-war piston engine types of Soviet origin like the Lavochkin La-9 and -11 or the Yakowlev Yak-9.

 

Frequent encounters with these opponents over Korea confirmed that the F9F-1 was not a “naturally born” dogfighter, but rather fell into the escort fighter or attack aircraft class. In order to broaden the type's duty spectrum, a small number of USMC and USN F9F-1s was modified in field workshops with an APS-6 type radar equipment from F4U-4N night fighters. Similar to the Corsair, the radar dish was carried in a streamlined pod under the outer starboard wing. The guns received flame dampers, and these converted machines, re-designated F9F-1N, were used with mild success as night and all-weather fighters.

 

However, the JetCat remained unpopular among its flight and ground crews and, after its less-than-satisfactory performance against MiGs, quickly retired. After the end of the Korean War in July 1953, all machines were grounded and by 1954 all had been scrapped. However, the turboprop-powered fighter bomber lived on with the USMC, which ordered the Vought A3U SeaScorpion as successor.

  

General characteristics:

Crew: 1

Length: 40 ft 5 in (12,31 m)

Wingspan: 43 ft 5 in (13,25 m)

Height: 15 ft 6 3/4 in (4,75 m)

Wing area: 250 ft² (23 m²)

Empty weight: 12,979 lb (5,887 kg)

Gross weight: 24,650 lb (11,181 kg)

Powerplant:

1× Allison T38E turboprop, rated at 2,500 shp (1,863 kW) plus 600 lbf (2.7 kN) residual thrust

1× Westinghouse J34-WE-13 turbojet booster with 3,000 lbf (13.35 kN)

 

Performance:

Maximum speed: 507 mph (441 kn; 816 km/h) at 30,000 ft (9,100 m)

497 mph (432 kn, 800 km/h) at sea level

Cruise speed: 275 mph (443 km/h; 239 kn) at 30,000 ft (9,100 m)

Stall speed: 74 mph (119 km/h; 64 kn) with flaps

Range: 2,500 mi (2,172 nmi; 4,023 km)

Service ceiling: 47,000 ft (14,000 m)

Rate of climb: 5,300 ft/min (27 m/s)

Wing loading: 71 lb/ft² (350 kg/m²)

Thrust/weight: 0.42

Armament:

4× 20 mm (0.79 in) AN/M3 cannon in the outer, foldable wings with 220 RPG

Underwing hardpoints and provisions to carry combinations of up to 6× 5 " (127 mm) HVAR

missiles and/or bombs on underwing hardpoints, for a total ordnance of 3,000 lb (1,362 kg)

  

The kit and its assembly:

This is another submission to the Cold War GB at whatifmodelers in early 2018, and rather a spontaneous idea. It was actually spawned after I finished my fictional Gudkov Gu-1 mixed propulsion fighter - while building (using the engine front from an F6F Hellcat) I had the impression that it could also have ended up as a post-war USN fighter design.

 

A couple of days later, while browsing literature for inspiration, I came across Grumman's G-79 series of designs that eventually led to the F9F Panther - and I was amazed that the 'A' design almost looked like my kitbashed Soviet fighter!

 

So I considered a repeated build of a P-47D/Supermarine Attacker kitbash, just in American colors. But with the F9F relationship, I planned the integration of Panther parts, so that the new creation would look different from the Gu-1, but also show some (more) similarity to the Panther.

 

The plan appeared feasible. Again, the aircraft's core is an Academy P-47D, with its outer wings cut off. Cockpit and landing gear were retained. However, instead of Supermarine Attacker wings from a Novo kit, I attached F9F-2 wings from a Hasegawa kit. Shape-wise this worked fine, but the Panther wings are much thinner than the Thunderbolt’s, so that I had to integrate spacers inside of the intersections which deepen the Hasegawa parts. Not perfect, but since the type would feature folding wings, the difference and improvisation is not too obvious.

 

On the fuselage, the Thunderbolt’s air outlets on its flanks were faired over and most of the tail section cut away. In the lower part of the tail, a jet pipe (from a Heller F-84G) was added and blended with PSR into the Thunderbolt fuselage, similar to the Gu-1. A completely new fin was scratched from an outer wing section from a Heinkel He 189, in an attempt to copy the G-79B's shape according to the drawing I used as benchmark for the build. I also used the F9F's stabilizers. With clipped tips they match well in size and shape, and add to the intended Grumman family look. The original tail wheel well was retained, but the tail wheel was placed as far back as possible and replaced by the twin wheel from a Hasegawa F5U. The Panther’s OOB tail hook was integrated under the jet pipe, too.

 

The front section is completely different and new, and my choice fell on the turboprop-powered G-79B because I did not want to copy the Gu-1 with its radial engine. However, the new turboprop nose was not less complicated to build. Its basis is a 1:100 engine and contraprop from a VEB Plasticart Tu-20/95 bomber, a frequent ingredient in my builds because it works so well in 1:72 scale. This slender core was attached to the Thunderbolt's fuselage, and around this basis a new cowling was built up with 2C putty, once more in an attempt to mimic the original G-79B design as good as possible.

 

In order to blend the new engine with the fuselage and come close to the G-79B’s vaguely triangular fuselage diameter, the P-47's deep belly was cut away, faired over with styrene sheet, and everything blended into each other with more PSR work. As a final step, two exhaust pipes were mounted to the lower fuselage in front of the wings’ leading edge.

 

The air intakes for the jet booster are actually segments from a Sopwith Triplane fuselage (Revell) – an unlikely source, but the shape of the parts was just perfect. More PSR was necessary to blend them into the aircraft’s flanks, though.

  

Painting and markings:

As per usual, I'd rather go with conservative markings on a fictional aircraft. Matching the Korean War era, the aircraft became all-over FS 35042 (Modelmaster). A black ink wash emphasized the partly re-engraved panel lines, and some post shading highlighted panels.

 

The wings’ leading edges and the turboprop’s intake were painted with aluminum, similar edges on fin and stabilizers were created with silver decal material. The interior of cockpit and landing gear was painted with green chromate primer.

 

The markings were puzzled together. “Stars and Bars” and VF-53 markings were taken from a Hobby Boss F4U-4 kit. The blue fin tip is the marking for the 3rd squadron, so that the “307” tactical code is plausible, too (the latter comes from a Hobby Boss F9F-2). In order to keep things subtle and more business-like (after all, the aircraft is supposed to be operated during the ongoing Korean War), I did not carry the bright squadron color to any other position like the spinner or the wing tips.

 

After some final detail work and gun and exhaust soot stains, the kit was sealed with semi-gloss acrylic varnish (Italeri). Matt acrylic varnish was used for weathering effects, so that the aircraft would not look too clean and shiny.

  

While it is not a prefect recreation of the Grumman G-79B, I am quite happy with the result. The differences between the model and the original design sketch can be explained through serial production adaptations, and overall the whole thing looks pretty conclusive. In fact, the model appears from certain angles like a naval P-51 on steroids, even though the G-79B was a much bigger aircraft than the Mustang.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

The TIE/LN starfighter, or TIE/line starfighter, simply known as the TIE Fighter or T/F, was the standard Imperial starfighter seen in massive numbers throughout most of the Galactic Civil War and onward.

The TIE Fighter was manufactured by Sienar Fleet Systems and led to several upgraded TIE models such as TIE/sa bomber, TIE/IN interceptor, TIE/D Defender, TIE/D automated starfighter, and many more.

 

The original TIEs were designed to attack in large numbers, overwhelming the enemy craft. The Imperials used so many that they came to be considered symbols of the Empire and its might. They were also very cheap to produce, reflecting the Imperial philosophy of quantity over quality.

 

However, a disadvantage of the fighter was its lack of deflector shields. In combat, pilots had to rely on the TIE/LN's maneuverability to avoid damage. The cockpit did incorporate crash webbing, a repulsorlift antigravity field, and a high-g shock seat to help protect the pilot, however these did next to nothing to help protect against enemy blaster fire.

 

Due to the lack of life-support systems, each TIE pilot had a fully sealed flight suit superior to their Rebel counterparts. The absence of a hyperdrive also rendered the light fighter totally dependent on carrier ships when deployed in enemy systems. TIE/LNs also lacked landing gear, another mass-reducing measure. While the ships were structurally capable of "sitting" on their wings, they were not designed to land or disembark their pilots without special support. On Imperial ships, TIEs were launched from racks in the hangar bays.

 

The high success rate of more advanced Rebel starfighters against standard Imperial TIE Fighters resulted in a mounting cost of replacing destroyed fighters and their pilots. That, combined with the realization that the inclusion of a hyperdrive would allow the fleet to be more flexible, caused the Imperial Navy to rethink its doctrine of using swarms of cheap craft instead of fewer high-quality ones, leading to the introduction of the TIE Advanced x1 and its successor, the TIE Avenger. The following TIE/D Defender as well as the heavy TIE Escort Fighter (or TIE/E) were touted as the next "logical advance" of the TIE Series—representing a shift in starfighter design from previous, expendable TIE models towards fast, well armed and protected designs, capable of hyperspace travel and long-term crew teams which gained experience and capabilities over time.

 

The TIE/E Escort, was a high-performance TIE Series starfighter developed for the Imperial Navy by Sienar Fleet Systems and it was introduced into service shortly before the Battle of Endor. It was a much heavier counterpart to the agile and TIE/D fighter, and more of an attack ship or even a light bomber than a true dogfighter. Its role were independent long range operations, and in order to reduce the work load and boost morale a crew of two was introduced (a pilot and a dedicated weapon systems officer/WSO). The primary duty profile included attack and escort task, but also reconnoiter missions. The TIE/E shared the general layout with the contemporary TIE/D fighter, but the cockpit section as well as the central power unit were much bigger, and the ship was considerably heavier.

 

The crew enjoyed – compared with previous TIE fighter designs – a spacious and now fully pressurized cockpit, so that no pressurized suits had to be worn anymore. The crew members sat in tandem under a large, clear canopy. The pilot in front had a very good field of view, while the WSO sat behind him, in a higher, staggered position with only a limited field of view. Both work stations had separate entries, though, and places could not be switched in flight: the pilot mounted the cockpit through a hatch on port side, while the WSO entered the rear compartment through a roof hatch.

 

In a departure from the design of previous TIE models, instead of two parallel wings to either side of the pilot module, the TIE Escort had three quadanium steel solar array wings mounted symmetrically around an aft section, which contained an I-s4d solar ionization reactor to store and convert solar energy collected from the wing panels. The inclusion of a third wing provided additional solar power to increase the ship's range and the ship's energy management system was designed to allow weapons and shields to be charged with minimum loss of power to the propulsion system.

 

Although it was based on the standard twin ion engine design, the TIE/E’s propulsion system was upgraded to the entirely new, powerful P-sz9.8 triple ion engine. This allowed the TIE/E a maximum acceleration of 4,220 G or 21 MGLT/s and a top speed of 144 MGLT, or 1,680 km/h in an atmosphere — almost 40 percent faster than a former standard TIE Fighter. With tractor beam recharge power (see below) redirected to the engines, the top speed could be increased to 180 MGLT in a dash.

In addition to the main thrusters located in the aft section, the TIE Escort's triple wing design allowed for three arrays of maneuvering jets and it featured an advanced F-s5x flight avionics system to process the pilot's instructions. Production models received a class 2, ND9 hyperdrive motivator, modified from the version developed for the TIE Avenger. The TIE/E also carried a Sienar N-s6 Navcon navigation computer with a ten-jump memory.

 

Special equipment included a small tractor beam projector, originally developed for the TIE Avenger, which could be easily fitted to the voluminous TIE Escort. Models produced by Ysanne Isard's production facility regularly carried such tractor beams and the technology found other uses, such as towing other damaged starfighters until they could achieve the required velocity to enter hyperspace. The tractor beam had limited range and could only be used for a short time before stopping to recharge, but it added new tactics, too. For instance, the beam allowed the TIE/E crews to temporarily inhibit the mobility of enemy fighters, making it easier to target them with the ship's other weapon systems, or prevent enemies from clear shots.

 

The TIE Escort’s weapons systems were primarily designed to engage bigger ships and armored or shielded targets, like armed freighters frequently used by the Alliance. Thanks to its complex weapon and sensor suite, it could also engage multiple enemy fighters at once. The sensors also allowed an effective attack of ground targets, so that atmospheric bombing was a potential mission for the TIE/E, too.

.

The TIE Escort Fighter carried a formidable array of weaponry in two modular weapon bays that were mounted alongside the lower cabin. In standard configuration, the TIE/E had two L-s9.3 laser cannons and two NK-3 ion cannons. The laser and ion cannons could be set to fire separately or, if concentrated power was required, to fire-linked in either pairs or as a quartet.

The ship also featured two M-g-2 general-purpose warhead launchers, each of which could be equipped with a standard load of three proton torpedoes or four concussion missiles. Depending on the mission profile, the ship could be fitted with alternative warheads such as proton rockets, proton bombs, or magnetic pulse warheads.

Additionally, external stores could be carried under the fuselage, which included a conformal sensor pallet for reconnaissance missions or a cargo bay with a capacity for 500 kg (1.100 lb).

 

The ship's defenses were provided by a pair of forward and rear projecting Novaldex deflector shield generators—another advantage over former standard TIE models. The shields were designed to recharge more rapidly than in previous Imperial fighters and were nearly as powerful as those found on capital ships, so that the TIE/E could engage other ships head-on with a very high survivability. The fighters were not equipped with particle shields, though, relying on the reinforced titanium hull to absorb impacts from matter. Its hull and wings were among the strongest of any TIE series Starfighter yet.

 

The advanced starfighter attracted the attention of several other factions, and the Empire struggled to prevent the spread of the technology. The ship's high cost, together with political factors, kept it from achieving widespread use in the Empire, though, and units were assigned only to the most elite crews.

 

The TIE/E played a central role in the Empire's campaign against rogue Grand Admiral Demetrius Zaarin, and mixed Defender and Escort units participated in several other battles, including the Battle of Endor. The TIE Escort continued to see limited use by the Imperial Remnant up to at least 44 ABY, and was involved in numerous conflicts, including the Yuuzhan Vong War..

  

The kit and its assembly:

Another group build contribution, this time to the Science Fiction GB at whatifmodelers.com during summer 2017. Originally, this one started as an attempt to build a vintage MPC TIE Interceptor kit which I had bought and half-heartedly started to build probably 20 years ago. But I did not have the right mojo (probably, The Force was not strong enough…?), so the kit ended up in a dark corner and some parts were donated to other projects.

 

The sun collectors were still intact, though, and in the meantime I had the idea of reviving the kit’s remains, and convert it into (what I thought was) a fictional TIE Fighter variant with three solar panels. For this plan I got myself another TIE Interceptor kit, and stashed it away, too. Mojo was still missing, though.

 

Well, then came the SF GB and I took it as an occasion to finally tackle the build. But when I prepared for the build I found out that my intended design (over the years) more or less actually existed in the Star Wars universe: the TIE/D Defender! I could have built it with the parts and hand and some improvisation, but the design similarity bugged me. Well, instead of a poor copy of something that was more or less clearly defined, I rather decided to create something more individual, yet plausible, from the parts at hand.

 

The model was to stay a TIE design, though, in order to use as much donor material from the MPC kits as possible. Doing some legwork, I settled for a heavy fighter – bigger than the TIE Interceptor and the TIE/D fighter, a two-seater.

Working out the basic concept and layout took some time and evolved gradually. The creative spark for the TIE/E eventually came through a Revell “Obi Wan’s Jedi Starfighter” snap fit kit in my pile – actually a prize from a former GB participation at phoxim.de (Thanks a lot, Wolfgang!), and rather a toy than a true model kit.

 

The Jedi Fighter was in so far handy as it carries some TIE Fighter design traits, like the pilot capsule and the characteristic spider web windscreen. Anyway, it’s 1:32, much bigger than the TIE Interceptor’s roundabout 1:50 scale – but knowing that I’d never build the Jedi Starfighter OOB I used it as a donor bank, and from this starting point things started to evolve gradually.

 

Work started with the cockpit section, taken from the Jedi Starfighter kit. The two TIE Interceptor cockpit tubs were then mounted inside, staggered, and the gaps to the walls filled with putty. A pretty messy task, and once the shapes had been carved out some triangular tiles were added to the surfaces – a detail I found depicted in SW screenshots and some TIE Fighter models.

 

Another issue became the crew – even though I had two MPC TIE Interceptors and, theorectically, two pilot figures, only one of them could be found and the second crewman had to be improvised. I normally do not build 1:48 scale things, but I was lucky (and happy) to find an SF driver figure, left over from a small Dougram hoovercraft kit (from Takara, as a Revell “Robotech” reboxing). This driver is a tad bigger than the 1:50 TIE pilot, but I went with it because I did not want to invest money and time in alternatives. In order to justify the size difference I decided to paint the Dougram driver as a Chiss, based on the expanded SW universe (with blue skin and hair, and glowing red eyes). Not certain if this makes sense during the Battle of Endor timeframe, but it adds some color to the project – and the cockpit would not be visible in much detail since it would be finished fully closed.

 

Reason behind the closed canopy is basically the poor fit of the clear part. OOB, this is intended as an action toy – but also the canopy’s considerable size in 1:50 would prevent its original opening mechanism.

Additional braces on the rel. large window panels were created with self-adhesive tape and later painted over.

 

The rear fuselage section and the solar panel pylons were scratched. The reactor behind the cockpit section is actually a plastic adapter for water hoses, found in a local DIY market. It was slightly modified, attached to the cockpit “egg” and both parts blended with putty. The tail opening was closed with a hatch from the OOB TIE Interceptor – an incidental but perfect match in size and style.

 

The three pylons are also lucky finds: actually, these are SF wargaming/tabletop props and would normally be low walls or barriers, made from resin. For my build, they were more or less halved and trimmed. Tilted by 90°, they are attached to the hull with iron wire stabilizers, and later blended to the hull with putty, too.

 

Once the cockpit was done, things moved more swiftly. The surface of the hull was decorated with many small bits and pieces, including thin styrene sheet and profiles, steel and iron wire in various strengths, and there are even 1:72 tank tracks hidden somewhere, as well as protective caps from syringes (main guns and under the rear fuselage). It’s amazing how much stuff you can add to such a model – but IMHO it’s vital in order to create some structure and to emulate the (early) Star Wars look.

  

Painting and markings:

The less spectacular part of the project, even though still a lot of work because of the sheer size of the model’s surface. Since the whole thing is fictional, I tried to stay true to the Imperial designs from Episode IV-VI and gave the TIE/E a simple, all-light grey livery. All basic painting was done with rattle cans.

Work started with a basic coat of grey primer. On top of that, an initial coat of RAL 7036 Platingrau was added, esp. to the lower surfaces and recesses, for a rough shading effect. Then, the actual overall tone, RAL 7047, called “Telegrau 4”, one of Deutsche Telekom’s corporate tones, was added - mostly sprayed from abone and the sides onto the model. Fuselage and panels were painted separately, overall assembly was one of the final steps.

 

The solar panels were to stand out from the grey rest of the model, and I painted them with Revell Acrylic “Iron Metallic” (91) first, and later applied a rather rich wash with black ink , making sure the color settled well into the many small cells. The effect is pretty good, and the contrast was slightly enhanced through a dry-brushing treatment.

 

Only a few legible stencils were added all around the hull (most from the scrap box or from mecha sheets), the Galactic Empire Seal were inkjet-printed at home, as well as some tactical markings on the flanks, puzzled together from single digits in "Aurebash", one of the Imperial SW languages/fonts.

For some variety and color highlights, dozens of small, round and colorful markings were die-punched from silver, yellow, orange, red and blue decal sheet and were placed all over the hull - together with the large panels they blur into the the overall appearance, though. The hatches received thin red linings, also made from generic decals strips.

 

The cockpit interior was a bit challenging, though. Good TIE Fighter cockpit interior pictures are hard to find, but they suggest a dark grey tone. More confusingly, the MPC instructions call for a “Dark Green” cockpit? Well, I did not like the all-grey option, since the spaceship is already monochrome grey on the outside.

 

As a compromise I eventually used Tamiya XF-65 "Field Grey". The interior recieved a black ink in and dry-brushing treatment, and some instruments ansd screens were created with black decal material and glossy black paint; some neon paint was used for sci-fi-esque conmtraol lamps everywhere - I did not pay too much intention on the interior, since the cockpit would stay closed, and the thick clear material blurs everything inside.

Following this rationale, the crew was also painted in arather minimal fashion - both wear a dark grey uniform, only the Chiss pilot stands aout with his light blue skin and the flourescent red eyes.

 

After an overall black ink wash the model received a dry brusing treatment with FS 36492 and FS 36495, for a weathered and battle-worn look. After all, the "Vehement" would not survive the Ballte of Endor, but who knows what became of TIE/E "801"'s mixed crew...?

Finally, the kit was sealed with matt acrylic varnish, and some final cosmetic corrections made.

 

The display is a DIY creation, too, made from a 6x6" piece of wood, it's edges covered with edgebonder, a steel wire as holder, and finally the display was paited with semi-matt black acrylic paint from the rattle can.

  

A complex build, and the TIE/E more or less evolved along the way, with only the overall layout in mind. Work took a month, but I think it was worth the effort. This fantasy creation looks pretty plausible and blends well into the vast canonical TIE Fighter family - and I am happy that I finally could finish this mummy project, including the surplus Jedi Starfighter kit which now also find a very good use!

 

An epic one, and far outside my standard comfort zone. But a wothwhile build!

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

 

Some background:

The Hawker Cyclone was an evolutionary successor to the successful Hawker Typhoon and Tempest fighters and fighter-bombers of the Second World War. The Cyclone's design process was initiated in September 1942 by Sydney Camm, one of Hawker's foremost aircraft designers, to meet the Royal Air Force’s requirement for a lightweight Tempest Mk.II and V replacement.

The project, tentatively designated Tempest Mk. VIII, was formalised in January 1943 when the Air Ministry issued Specification F.2/42 around the "Tempest Light Fighter".This was followed up by Specification F.2/43, issued in May 1943, which required a high rate of climb of not less than 4,500 ft/min (23 m/s) from ground level to 20,000 feet (6,096 m), good fighting manoeu rability and a maximum speed of at least 450 mph (724 km/h) at 22,000 feet (6,705 m). The armament was to be four 20mm Hispano V cannon with a total capacity of 600 rounds, plus the capability of carrying two bombs each up to 1,000 pounds (454 kg). In April 1943, Hawker had also received Specification N.7/43 from the Admiralty, who sought a navalized version of the developing aircraft, what eventually led to the Hawker Sea Fury, which was a completely new aircraft, which only shared the general outlines of the Tempest.

 

The Royal Air Force was looking for a quicker solution, and Camm started working on a new laminar flow wing, which would further improve the Tempest’s speed. Further refinements were done to other aerodynamic components, too, like the radiator, since the Tempest V’s liquid-cooled Napier Sabre engine was to be used. After some experiments with new arrangements, an annular radiator directly behind the propeller was chosen – certainly inspired by fast German aircraft like the Fw 190D and developed by Napier.

 

A total of three prototypes were ordered; the first one was powered by a Napier Sabre IIA liquid-cooled H-24 sleeve-valve engine, generating 2,180 hp (1,625 kW), but the second and any following aircraft carried the more powerful Sabre V with 2,340 hp, driving a Rotol four-blade propeller. Later aircraft were even to carry the Napier Sabre VII, which was capable of developing 3,400–4,000 hp (2,535–2,983 kW) and pushing the top speed to 485 mph (780 km/h) and more. The third airframe was just a static test structure. However, since the differences between the Tempest and the new aircraft had become almost as big as to its predecessor, the Typhoon, the new type received its own name Cyclone.

 

The first Cyclone Mk. I to fly, on 30 August 1944, was NV950, and it became clear soon that the modifications would improve the Cyclone’s top speed vs. the Tempest by almost 30 mph (50 km/h), but the new components would also require a longer testing period than expected. The annular radiator frequently failed and overheated, and the new, slender wings caused directional stability problems so that the complete tail section had to be re-designed. This troubling phase took more than 6 months, so that eventual service aircraft would only be ready in mid-1945 – too late for any serious impact in the conflict.

 

However, since the Hawker Fury, the land-based variant of the Sea Fury, which had been developed from the Tempest for the Royal Navy in parallel, had been cancelled, the Royal Air Force still ordered 150 Cyclone fighters (F Mk. I), of which one third would also carry cameras and other reconnaissance equipment (as Cyclone FR Mk.II). Due to the end of hostilities in late 1945, this order immediately lost priority. Consequently, the first production Cyclone fighters were delivered in summer 1946 – and in the meantime, jet fighters had rendered the piston-powered fighters obsolete, at least in RAF service. As a consequence, all Cyclones were handed over to friendly Commonwealth nations and their nascent air forces, e. g. India, Thailand or Burma. India received its first Cyclones in late 1947, just when the Kashmir conflict with Pakistan entered a hot phase. The machines became quickly involved in this conflict from early 1948 onwards.

 

Cyclones played an important role in the strikes against hostiles at Pir Badesar and the dominating Pir Kalewa. The taking of Ramgarh fort and Pt. 6944 on the west flank of Bhimbar Gali was to be a classic close support action with Indian forces carrying out a final bayonet charge against the enemy trenches whilst RIAF Cyclones and Tempests strafed and rocketed the trenches at close quarters. On a chance reconnaissance, enemy airfields were located at Gilgit and 40 NMs south, at Chilas. Cyclones flew several strikes against the landing strips in Oct and Nov 48, cratering & damaging both and destroying several hangars, barracks and radio installations. This attack destroyed Pakistani plans to build an offensive air capability in the North. Already, with Tempests and Cyclones prowling the valleys, Pakistani re-supply by Dakotas had been limited to hazardous night flying through the valleys.

 

After the end of hostilities in late 1948 and the ensuing independence, the Cyclone squadrons settled into their peace time stations. However, constant engine troubles (particularly the radiator) continued to claim aircraft and lives and the skill required to land the Cyclone because of its high approach speed continued to cause several write offs. The arrival of the jet-engined Vampire were the first signs of the Cyclone’s demise. As the IAF began a rapid expansion to an all jet force, several Tempest and Cyclone squadrons began converting to Vampires, 7 Squadron being the first in Dec 49. By this time it had already been decided that the piston-engine fighters would be relegated to the fighter lead-in role to train pilots for the new jet fighters. A conversion training flight was set up at Ambala in Sep 49 with Spitfire T Mk IXs, XVIIIs and Tempests to provide 16 hrs/six weeks of supervised Tempest training. This unit eventually moved to Hakimpet two years later and operated till the end of 1952. Some Cyclone FR Mk. IIs remained in front line service until 1954, though.

  

General characteristics:

Crew: One

Length: 35 ft 5 3/4 in (10.83 m)

Wingspan: 42 ft 5 1/2 in (12.96 m)

Height (tail down): 15 ft 6 3/4 in (4.75 m)

Wing area: 302 ft² (28 m²)

Empty weight: 9,250 lb (4,195 kg)

Loaded weight: 11,400 lb (5,176 kg)

Max. takeoff weight: 13,640 lb (6,190 kg)

Powerplant:

1× Napier Sabre V liquid-cooled H-24 sleeve-valve engine with 2,340 hp (1,683 kW)

 

Performance:

Maximum speed: 460 mph (740 km/h) 18,400 ft (5,608 m),

Range: 740 mi (1,190 km)

1,530 mi (2,462 km) with two 90 gal (409 l) drop tanks

Service ceiling: 36,500 ft (11,125 m)

Rate of climb: 4,700 ft/min (23.9 m/s)

Wing loading: 37.75 lb/ft² (184.86 kg/m²)

Power/mass: 0.21 hp/lb (0.31 kW/kg)

 

Armament:

4× 20 mm (.79 in) Mark V Hispano cannons, 200 RPG

2× underwing hardpoints for 500 lb (227 kg) or 1,000 lb (454 kg) bombs

or 2 × 45 gal (205 l) or 2 × 90 gal (409 l) drop tanks

plus 6× 3” (76.2 mm) RP-3 rockets

  

The kit and its assembly:

Another episode in the series “Things to make and do with Supermarine Attacker wings”. And what started as a simple switch of wings eventually turned into a major kitbashing, since the model evolved from a modded Tempest into something more complex and conclusive.

 

The initial spark was the idea of a Hawker alternative to Supermarine’s Spiteful and Seafang developments – especially with their slender laminar flow wings. Wouldn’t a Hawker alternative make sense?

 

Said and done, I dug out a NOVO Attacker kit and a Matchbox Tempest, and started measuring – and the wing transplantation appeared feasible! I made the cut on the Tempest wing just outside of the oil cooler, and the Attacker wings were then attached to these stubs – after some gaps for the landing gear wells had been cut into the massive lower wing halves. The stunt went more smoothly than expected, the only cosmetic flaw is that the guns went pretty far outboard, but that’s negligible.

 

But the different wings were not enough. I had recently seen in a book a picture of a Tempest (NV 768) with an experimental annular radiator for the Sabre engine (looking like a streamlined Tempest II), and wondered if this arrangement would have been the aerodynamically more efficient solution than the bulbous chin radiator of the Tempest V and VI? I decided to integrate this feature into my build, too, even though not as a copy of the real-world arrangement. The whole nose section, even though based on the OOB Mk. V nose, was scratched and re-sculpted with lots of putty. The radiator intake comes from a FROG He 219, with the front end opened and a fan from a Matchbox Fw 190 placed inside, as well as a styrene tube for the new propeller. The latter was scratched, too, from a Matchbox He 70 spinner and single blades from an Italeri F4U, plus a metal axis. The exhaust stubs were taken OOB, but their attachment slits had to be re-engraved into the new and almost massive nose section.

 

Once the wings and the nose became more concrete, I found that the Tempest’s original rounded tail surfaces would not match with the new, square wings. Therefore I replaced the stabilizers with donations from a Heller F-84G and modified the fin with a new, square tip (from an Intech Fw 190D) and got rid of the fin fillet – both just small modifications, but they change the Tempest’s profile thoroughly.

 

In order to underline the aircraft’s new, sleek lines, I left away any ordnance – but instead I added some camera fairings: one under the rear fuselage or a pair of vertical/oblique cameras, and another camera window portside for a horizontal camera. The openings were drilled, and, after painting, the kit the camera windows were created with Humbrol Clearfix.

  

Painting and markings:

Somehow I thought that this aircraft had to carry Indian markings – and I had a set of standard Chakra Wheels from the late Forties period in my stash. The camouflage is, typical for early IAF machines of British origin, RAF standard, with Dark Green and Ocean Grey from above and Medium Sea Grey from below. I just used the more brownish pst-war RAF Dark Green tone (Humbrol 163), coupled with the rather light Ocean Grey from Modelmaster (2057). The underside became Humbrol 165. All interior surfaces were painted with RAF Interior Green, nothing fancy. The only colorful addition is the saffron-colored spinner, in an attempt to match the fin flash’s tone.

 

As a standard measure, the kit received a black ink wash and some panel post-shading with lighter tones – only subtly, since the machine was not to look too weathered and beaten, just used from its Kashmir involvements.

 

The national markings come from a Printscale Airspeed Oxford sheet, the tactical code with alternating white and black letters, depending on the underground (the sky fuselage band comes from a Matchbox Brewster Buffalo), was puzzled together from single letters from TL Modellbau – both seen on different contemporary RIAF aircraft.

As another, small individual detail I gave the machine a tactical code letter on the fuselage, and the small tiger emblems under the cockpit were home-printed from the official IAF No. 1 Squadron badge.

  

Despite the massive modifications this one is a relatively subtle result, all the changes become only visible at a second glance. A sleek aircraft, and from certain angley the Cyclone looks like an A-1 Skyraider on a diet?

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

The Fiat Macchi C.170 Brezza ("Gust of wind") was a single-seat biplane fighter which served primarily in Italy's Regia Aeronautica before and in the early stages of World War II. The aircraft was produced by the Varese firm, and entered service, in smaller numbers, with the air forces of Italy, Austria and Hungary.

 

In spite of the biplane configuration, the C.170 was a modern, 'sleek-looking' design based around a strong steel and alloy frame incorporating a NACA cowling housing the radial engine, with fairings for the fixed main landing gear. The C.170's upper wing was slightly larger than its lower wing, carried only by six struts and a few bracing wires. Only the upper wing featured ailerons while the lower wing carried large flaps. Although it looked slightly outdated, the aircraft proved exceptionally agile thanks to its very low wing loading and a powerful, responsive engine.

 

Power was provided by a 650 kW (870 hp) Fiat A.74 14 cylinder radial engine, which also drove the contemporary Fiat CR.32 fighter. With the "direttiva" (Air Ministry Specific) of 1932, Italian industrial leaders had been instructed to concentrate solely on radial engines for fighters, due to their better reliability. The A.74 was actually a re-design of the American Pratt & Whitney R-1830 SC-4 Twin Wasp made by engineers Tranquillo Zerbi and Antonio Fessia, and in the C.170 it was geared to drive a metal three-blade Fiat-Hamilton Standard 3D.41-1 propeller of 2.9 m (9.5 ft) diameter. This allowed an impressive top speed of 441 km/h (272 mph) at 6.500 m (20.000 ft), and 342 km/h (213 mph) at ground level.

 

The first C.170 prototype flew on 24 December 1934 in Lonate Pozzolo, Varese, with Macchi Chief Test Pilot Giuseppe Burei at the controls. It was followed by the second prototype early the next year, which flew with an armored headrest and fairing in place (the C.170 lacked any further armor!) and other minor changes that were incorporated for serial production.

Despite Macchi’s proposal for a closed cockpit canopy the cockpit remained open – Italian pilots were rather conservative. Additional protection was introduced through armored side panels, though, which would protect the pilot’s shoulders. Radio equipment was also not included, as in many other Italian fighter aircraft.

 

During evaluation in early 1935 the C.170 was tested against the Fiat CR.42 and the Caproni Ca.165 biplane fighters, and was judged to be on par with the CR.42, although the Ca.165 was a more modern design which boasted a higher speed at the cost of maneuverability. An initial order of 99 C.170 for Italy's Regia Aeronautica was placed to Macchi factory in summer 1935, followed by foreign interest and order options from Austria, Belgium and Spain.

 

Anyway, what looked like a prosperous design was soon rendered obsolete: Following the end of Italy's campaigns in East Africa, a program was started to completely re-equip the Regia Aeronautica with a new interceptor aircraft of modern design. The 10 February 1936 specifications called for an aircraft powered by a single radial engine, with a top speed of 500 km/h, climb rate at 6,000 meters of 5 minutes, with a flight endurance of two hours, and armed with a single (later increased to two) 12.7 mm (0.5 in) machine gun. That was more or less the premature end for the C.170, as Macchi and other manufacturers quickly turned to more modern monoplane designs.

 

Therefore, orders and production of the Macchi Brezza remained limited. Beyond the original 99 aircraft for the Regia Aeronautica only 24 further C.170s were delivered. These aircraft went in spring 1936 to Austria to equip Jagdgeschwader II at Wiener Neustadt. Immediately after their delivery the Brezza fighters were retro-fitted with radio equipment, recognizable through the antenna installation on the headrest fairing. The potential orders from Belgium and Spain were soon cancelled, due to political tensions.

 

As a side note, the Austrian C.170s fighters were the first aircraft to sport the new national emblem, which had been the result of a competition and won by flight engineer Rosner from the Graz-Thalerhof base. The white, equilateral triangle with the point facing downwards in a red disc was a completely new design and had (other than the flag or coats of arms) no prior basis.

 

The C.170s' career in Austrian service was short, though: in March 1938 the Austrian units were absorbed into the Luftwaffe, and after a brief period the aircraft were handed over to Hungary where they were used for training purposes.

 

Although an obsolete design, it proved to be robust, durable and effective especially in severe conditions. In spring 1943, surviving C.170s were rounded up from training schools and delivered to night ground attack units operating on the Eastern Front. The C.170 was used to conduct night harassment sorties on the Eastern Front until September 1944, when the units were disbanded, due to a lack of serviceable airframes and spare parts.

  

General characteristics

Crew: 1

Length: 8.25 m (27 ft 1 in)

Wingspan: 32 ft 3 in (9.83 m)

Height: 11 ft 9 in (3.58 m)

Wing area: 323 ft² (30.0 m²)

Empty weight: 3,217 lb (1,462 kg)

Loaded weight: 4,594 lb (2,088 kg)

 

Powerplant

1× Fiat A.74 R.C.38 14-cylinder air-cooled radial engine, 650 kW (870 hp) at 2,520 rpm for take-off

 

Performance

Maximum speed: 441 km/h (238 kn, 274 mph) at 20,000 ft

Cruise speed: 338 km/h (187 kn, 210 mph)

Range: 780 km (420 nmi, 485 mi)

Service ceiling: 10,210 m (33,500 ft)

Rate of climb: 11.8 m/s (2,340 ft/min)

Climb to 10,000 ft (3,050 m): 4.75 min

Wing loading: 69,6 kg/m² (15,3 lb/ft²)

Power/mass: 311 W/kg (0.19 hp/lb)

 

Armament

2× 12.7 mm (0.5 in) Breda-SAFAT synchronized machine guns above the engine, 370 rpg

Some aircraft were field-modified to carry up to 8× 15 kg (33 lb) or 2× 50 or 100 kg (110/220 lb) bombs under the wings

  

The kit and its assembly

Inspiration for this little, whiffy biplane came when I posted a pic of an Austrian Ju 86 bomber as a reply/ suggestion to a fellow modeler's (NARSES2) search at whatifmodelers.com for “something” to make from a Gloster Gladiator.

When I looked at the paint scheme a second time I remembered that I still had some Austrian roundels in stock, as well some very old biplane spare parts... hmmm.

 

Biplanes are tricky to build, even OOB, and kitbashing this kind of whif would not make things easier. Anyway, I love such challenges, and the potential outcome would surely look nice, if not exotic, so I decided to tackle the project.

 

Basically, the following donation ingredients went into it:

● Fuselage, engine, cockpit/pilot and tail from a Revell Macchi C.200 "Saetta"

● Upper wing from a Matchbox Gloster "Gladiator"

● Lower wings from a Matchbox SBC "Helldiver"

● Wheels from a Matchbox Hs 126 (shortened)

 

Pretty straightforward, but even though it would be a small aircraft model, it would come with two big challenges: mounting the lower wings and shaping the resulting, gaping belly, and the custom-made struts and wirings for the upper wing.

 

Work started with the Macchi C.200’s fuselage, which was built OOB - just without the wing, which is a single part, different pilot (the included one is a pygmy!) and with a free spinning metal axis for the propeller.

 

The wing installation started with the lower wings. I glued the Helldiver wings onto the C.200 fuselage, so that the wings' trailing edge would match the C.200's wing root ends. From that, a floor plate was fitted under the fuselage and any excessive material removed, the gaps filled with lumps of 2C putty. That moved the lower wing's roots backwards, creating space at the lower forward fuselage for the new landing gear.

 

The latter was taken from a vintage Matchbox Hs 126 reconnaissance aircraft - probably 25, if 30 years old... Size was O.K., but the struts had to shortened by about 5mm, as thge HS 126 is a much bigger/longer aircraft than the C.200. A cut was made just above the wheel spats, material taken out, and the separate parts were glued back together again.

 

With the lower wings in place I started building strut supports for the upper wing from styrene strips - tricky and needs patience, but effective. I started with the outer supports, carving something SBC-style from styrene. These were glued into place, slightly canted outwards, and their length/height adapted to the upper wing’s position.

When this was settled, the upper Gladiator wing was glued into place. After a thorough drying period the short fuselage supports in front of the cockpit – again, styrene strips – were inserted into the gap. This allowed an individual lengthening, and was easier than expected, with a stable result.

After having the upper wing glued in place I added some wiring, made from heated and pulled-out styrene sprues. This not only enhances the kit's look, it also (just like in real life) improves rigidity of the model. Also a tedious task, but IMHO worth the effort. I tried thin wire, nylon strings and sewing yarn for this job, but finally the styrene solution is what worked best for me.

The exhaust installation had also to be modified: the new Hs 126 struts with spats would have been where the original C.200’s hot exhaust gases would have gone, so I added new exhaust pipes that would go between the new legs.

Other small added details included, among others, a pitot on a wing strut, a visor in front of the cockpit, a radio antenna, a ladder made from wire.

  

Painting and markings:

I would not call the Austrian 3+1-tone pre-WWII-scheme spectacular, but the colors are unique. My scheme is based on an Austrian Ju 86 bomber from 1938, so it fits into the intended time frame.

 

The colors were puzzled together from various sources and are subjective guesstimates:

● A pale, yellow-ish beige (Humbrol 74, ‘Linen’, out of production)

● A rather brownish green (Testors 1711, ‘Olive Drab’, FS 34087)

● A dark green with a yellow-ish hue (Humbrol 116, ‘US Dark Green’ FS 34079)

● Light blue for the undersides (Humbrol 65, ‘Aircraft Blue’, RLM 65)

 

In order to add some details I painted the area behind the engine cowling in aluminum. The respective part under the fuselage, where the exhaust gases would pass, was painted in Steel – both Testors Metallizers.

The interior surfaces were painted in a neutral Grey – but with the engine and the pilot in place you cannot see anything of that at all.

Markings are minimal: the Austrian roundels come from a TL Decals aftermarket sheet, the flag on the rudder was laid out with red paint (a mix of Humbrol 19 and 60), the white bar is a decal. The tactical code is fictional, puzzled together from single digits in various sizes (also from TL Modellbau sheets). The original documents how purely black fuselage codes, but I found these hard to read. So I chose digits with a white rim (actually, these belong to modern German Luftwaffe tactical codes in 1:32), which improve contrast a little.

The kit received a thin black ink wash and some shading/dry-painting with lighter basic tones (Humbrol 103, 155, Model Master 2138,‘Israeli Armor Sand Grey’, and Humbrol 122). After decal application, another turn with overall Hemp and Light Grey was done in order to fade contrast and to emphasize the surface structure. The wires were also painted, but only with thinned black ink and a VERY soft brush.

 

Finally, everything was sealed under a spray coat of matt acrylic varnish.

Voilà, and done in just about a week!

Some background:

Instead of a story compiled/edited by myself, a very good “real” source: an article about the “American Spirit” project from 1996, scanned from a magazine and posted elsewhere:

hanksnet.com/images/as_p1.jpg

hanksnet.com/images/as_p2.jpg

hanksnet.com/images/as_p3.jpg

hanksnet.com/images/as_p4.jpg

 

This and some more information, including a drawing of the (apparently never) finished aircraft and a photo of the semi-finished airframe on airliners.net were the basis for my build.

  

The kit and its assembly:

This is my third and last entry to the “Racing” group build at whatifmodelers.com that ended in Feb. 2019. It is nothing less than the attempt to re-create the potentially fastest piston engine aircraft in the world as a model, based on the sparse information I was able to gather (see above). The aircraft’s design is quite odd, and it is worth reading the design background in the article, because it was a true “garage build” with the intention to use as many existing components in order to save costs and development time.

 

This was, more or less, mirrored during the building process, and like the real “American Spirit” the model consists at its core of a Matchbox T-2 “Buckeye” jet trainer! The T-2 fuselage lost its nose section, the ventral engine bay and the original cockpit fairing. This left a lot of fuselage surface to be re-constructed. The fin was clipped, too, just like in real life. At the fin’s base I added a cockpit opening and implanted a cockpit tub, taken from a Revell G.91. A new bucket seat (probably from an Academy Fw 190) was installed, and a new, tight canopy – I think it originally came from a Revell Go 229, but it was trimmed down considerably to match the T-2’s fuselage lines. The canopy was blended into the fin root with massive 2C putty sculpting, and the area in front of the windscreen was created with 2C putty, too. Both a tedious PSR process.

 

Once the upper fuselage shape was finished I started searching for a cowling and a matching propeller. After several attempts with bigger engines (e. g. from a Super Constellation) I eventually settled upon a rather narrow (but bleak) cowling from an Pioneer2/Airfix Hawker Sea Fury, which turned out to have just the right diameter for the re-constructed T-2 fuselage and matched the “American Spirit” drawing’s well.

It also had at the front end the right diameter for the propeller: it comes, just like in real life, from a C-130 Hercules, even though I used a late variant with six blades, a resin aftermarket piece, taken from an Attack Squadron engine nacelle set. Unfortunately, the spinners were molded onto the engines, so that I had to cut my donor part away. Three of the six propeller blade attachment points were faired over. While the original “American Spirit” carried clipped blades from an Electra airliner, I used parts from a P-3 Orion – the come very close in shape and size, and were easy to install. Finally, the propeller received a metal axis and a matching styrene tube adapter in the Sea Fury cowling.

 

Once the engine was in place, the cowling was filled with as much lead as possible, since the model would be built with an extended landing gear.

However, a large ventral section was still missing, and it was created with a leftover underwater section from a model ship hull, and lots of more putty, of course. A small tail bumper was added under the fin.

 

Once the fuselage was more or less finished, I turned my attention to the wings and stabilizers. The latter were supposed to be “un-swept F-86H stabilizers”, but unfortunately I could not find visual evidence of what this would have looked like. I tried some donor parts, including stabilizers from an F-86A and D, as well as from a MiG-15, and eventually decided to use individual parts, because nothing looked convincing to me, either swept or straight. Actually the MiG-15 parts looked the best, but they were too small, so I used the wings from an 1:144 Panavia Tornado (Dragon) and tailored them into a sweep angle similar to the MiG-15 parts, but with more depth and span. Not certain how “realistic” this is, but it looks good and compliments the swept T-2 fin well.

 

The T-2 wings saw only minor modifications: the wing tip tanks were cut off and the tips as well as the flaps faired over, since the “American Spirit” did not feature the latter anymore. The small LERXs were cut away, too, and instead I added small air intakes – the “American Spirit” probably did not feature them, but I wondered where the aircraft’s engine would feed its carburetor or an oil cooler? The respective gaps on the fuselage flanks were filled accordingly.

 

Some more work waited on the fuselage, too. The aircraft’s drawing showed shallow openings on the forward fuselage’s flanks, but their function was not clear – I assume that the exhausts from the 18 cylinder engine were collected there, 9 on each side, so I carved the openings into the massive plastic and putty fuselage with a mini drill tool and added exhaust stubs as well as deflector plates.

Another issue was the well for the front landing gear – this came, together with the complete front leg, from an Italeri F-100, just like in real life. The good thing about the Italeri kit is that it comes with a separate well tub, which made the installation quite easy. I just cut a square section out of the lower fuselage behind the engine and the landing gear well snuggly fell into place, with only little PSR effort. And, to my surprise, the end result seems to be a very good match to the real life design – even though I was not able to confirm this with picture material.

 

The main landing gear was taken OOB from the Matchbox T-2 – and it is really a weird sight, since the T-2’s track is very wide while the wheelbase is unusually short. But the source article indicates that this must have been the designers’ plans!

  

Painting and markings:

While the model’s hardware came quite close to the real thing, the livery of the “American Spirit” was totally open, so I created my own. I felt that two design directions would be appropriate: either a relatively dry and clean design, e. g. in overall silver or white with a little trim, or something patriotic, reflecting the aircraft’s name.

I eventually settled for the latter, and considered several approaches in white, red and blue, and eventually settled for one of my first ideas, a kind of “flying American flag” in an asymmetrical design, somewhat inspired by a Bicentennial F-106A from 1976: this machine carried a white fuselage with some red trim stripes and a blue nose section that featured lots of tiny white stars. I took this layout a little further and gave the “American Spirit” a dark blue engine cowling and front fuselage section, as well as a single blue wing. From that, wide red and white stripes stream backwards across the other wing, the fuselage and the tail. The design was mirrored on the undersides.

The stripes were painted with a wide brush with Humbrol 19 and 22, after the kit had been primed with white and had received an overall white basic coat with acrylic paint from the rattle can, too. The blue section was painted with Revell 350 (RAL 5013/Lufthansa Blue). I tried to add some “wavy flag texture” effect to the basic paints with slightly different tones, added wet-in-wet to the basic paints, but the visual effect turned out to be minimal, so I left it like that.

 

The stars are all individual waterslide decals, coming from an 1:87 Allied WWII markings sheet from TL Modellbau. The big white stars that are the background for the starting numbers on top and below the blue wing come from an 1:72 F4U. The red and blue starting numbers themselves were taken from a TL Modellbau sheet for firefighting vehicles: they are actually parts of German emergency telephone numbers…

 

Some stencils and leading edges on all wings, created with generic silver decal material, completed the outside, and finally I painted some fake panel lines onto the hull with a soft pencil. The T-2 air brakes, which were retained for the “American Spirit”, were re-created with fine black decal lines. Similar material in silver was used to simulate panel lines for the cooling air outlet flaps on the cowling. Unfortunately, the T-2 kit itself did not come with much surface detail, and any leftover rest (like the air brakes) disappeared during the extensive PSR sessions and under the primer and paint coats. Finally, the kit was sealed with a coat of semi-gloss acrylic varnish (Italeri).

  

A massive scratch-build. While challenging the work on this model was fun because it followed in its creation a similar process as the real “American Spirit”, which was, AFAIK, sold and never completed. In the end, I am positively surprised how close the overall outlines seem to come to the real (and odd-looking) aircraft, even though the garish livery is purely speculative, so that this model is, despite its roots in the real world and the attempt to stay true to the original, a fictional/whif piece. The finish is a bit rough, though, but that’s probably the price to pay when you create things from scratch.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some background:

In the aftermath of the Second World War, Britain identified a threat posed by the jet-powered strategic bomber and atomic weaponry and thus placed a great emphasis on developing aerial supremacy through continuing to advance its fighter technology, even following the end of conflict. Blackburn Aircraft responded to a 1947 Air Ministry requirement for a high-performance night fighter under Air Ministry specification F.44/46. The specification called for a two-seat night fighter that would intercept enemy aircraft at heights of up to at least 40,000 feet. It would also have to reach a maximum speed of no less than 525 kn at this height, be able to perform rapid ascents and attain an altitude of 45,000 feet within ten minutes of engine ignition.

 

Additional criteria given in the requirement included a minimum flight endurance of two hours, a takeoff distance of 1,500 yards, structural strength to support up to 4g manoeuvers at high speed and for the aircraft to incorporate airborne interception radar, multi-channel VHF radio and various navigational aids. The aircraft would also be required to be economical to produce, at a rate of ten per month for an estimated total of 150 aircraft.

 

Blackburn produced several design proposals in the hope of satisfying the requirement. B.47, drawn up in 1946, was essentially a two-seat Meteor with slightly swept wings. A similar design was also offered to the Royal Navy as the B.49. The later-issued B.76 and B.77 of early 1947 had adopted many of the features that would be distinctive of the later Barghest, including the large, swept wings and the engine nacelles moved to the wing roots, integrated into the fuselage. The two projects differed primarily in role: P.76 was a single-seat day fighter with a V-tail, while P.77 was a two-seat night fighter with a radar and a mid-mounted tail plane.

 

The RAF requirements were subject to some changes, mainly in regards to radar equipment and armaments. Blackburn also initiated some changes, as further research was conducted into the aerodynamic properties of the new swept wings and tail surfaces. For propulsion, the new Armstrong Siddeley Sapphire turbojet engine was chosen and the airframe adapted accordingly.

 

On 13 April 1949 the Ministry of Supply issued instructions to three aircraft manufacturers, Blackburn, Gloster and de Havilland, to each construct four airworthy prototypes of their competing designs to meet the requirement, as well as one airframe each for structural testing. These prototype aircraft were the Gloster GA.5, designed by Richard Walker, the de Havilland DH.110, which held the advantage of also being under consideration for the Royal Navy (and became the Sea Vixen), and the Blackburn B.87, which was a refined B.77 with a slimmed-down fuselage and a swept T-tail.

 

The development of all of these designs was considerably delayed through political cost-cutting measures, the number of prototypes being trimmed down to an unworkable level of two each before the decision was entirely reversed! The B.87 was soon christened Barghest and first prototype was structurally completed in 1951. Following a month of ground testing the first prototype conducted its first flight on 26 November 1951 and the second prototype followed in February 1952 (and was in 1953 used for aerodynamic tests that led to the improved Mk. 3, see below). The third prototype, and the first to be fitted with operational equipment including radar and weapons, first flew on 7 March 1953. The fourth airframe was passed to the Aeroplane and Armament Experimental Establishment (A&AEE) in August 1953 for trials.

 

The original Barghest all-weather fighter was equipped with a British AI.17 radar and powered by two Sapphire Sa.5 engines without afterburner, delivering 6,500 lbf (28.91 kN) thrust each. The aircraft did not have built-in weapons, but could carry various weapon packages in a spacious, ventral weapon bay. Options included a tray with four 30 mm ADEN cannon, three retractable pods with a total of 70 unguided Microcell 2 in (51mm) missiles, or a recoilless 4.5 in gun with 7 rounds in a drum magazine, even though this huge weapon, intended against incoming bomber formations at high altitude, never made it beyond the prototype stage and ground tests. Furthermore, four underwing hardpoints could carry drop tanks (on the inner pair of pylons only), bombs or unguided SNEB rocket pods for a total load of 4.000 lb (1.814 kg).

 

The official production order for the Barghest was issued in mid-1953, together with the Gloster GA.5, which became the Javelin – an unusual decision, but the need for an operational all-weather fighter was so dire that two types were procured at the same time in order to fill the defense gaps as quickly as possible and to have a fall back option at hand immediately. While some delays were incurred, the Barghest's status as a "super priority" for production helped to minimize the time involved in producing each aircraft. Production was assisted by a large order placed by the United States Air Force, purchasing aircraft for the RAF as part of the Mutual Defense Aid Program.

 

On 22 July 1954 the first production aircraft took flight at Leeds, and the Barghest F(AW).1 entered service with the RAF in 1956 with 46 Squadron based at RAF Odiham, England. The Barghests were immediately put to use in an intensive flying program, to rapidly familiarize crews with the type. In order to assist conversion training, twelve machines from the initial production batch were converted into dual control trainers. They lacked the radar equipment and were designated T.2.

 

The introduction of the Barghest allowed the RAF to expand its night-fighter activity considerably. During RAF trials, the type proved readily capable of intercepting jet bombers such as the English Electric Canberra and modern jet fighters, over a hundred miles out to sea, and the Barghest turned out to be quite an agile aircraft with good flying characteristics, despite its size. By the end of July 1959, all remaining Meteor squadrons had been converted to the Barghest and the Javelin.

 

After an initial production batch of 48 F(AW).1 fighters and a dozen T.2 trainers, the upgraded F(AW).3 was introduced in October 1956, which featured several changes and improvements. The biggest external change was the introduction of a modified wing with a dog tooth (tested on the 2nd prototype from 1953 onwards), which enhanced airflow and handling at high speed. Furthermore, the tailplane was modified so that either the rudders could be operated at slow speed or, alternatively, the whole stabilizer at high speed. A bulbous aerodynamic fairing on the fin’s top held the more complicated mechanism.

The Barghest F(AW).3 was furthermore equipped with a more capable AI.22 radar (actually a U.S.-made Westinghouse AN/APQ-43 radar) and it was able to carry up to four IR-guided Firestreak AAMs on pylons under the wings, what significantly improved the aircraft's interceptor capabilities. The aircraft now featured a total of six hardpoints, even though the new, outermost pylons could only carry a single Firestreak missile each. The ventral weapon bay was retained, but, typically, only the pack of four Aden cannon was carried.

 

In order to cope with a higher all-up weight and improve overall performance, the F(AW).3 was powered by Sapphire Sa.6 engines, which delivered 23% more thrust and were recognizable by enlarged air intakes of oval shape instead of the original, circular orifices. Stronger engines with afterburners could not be mounted, though – their addition would have required a severe structural change to the aircraft’s rear fuselage, and this lack of development potential eventually favored the Barghest’s rival, the Gloster Javelin.

 

Beyond newly produced F(AW).3 airframes, most F(AW).1s were eventually upgraded to this standard, and a further twelve F(AW).1s were modified into trainers. All T.2 aircraft received the wing and tail upgrade, but retained the weaker Sapphire Sa.5s, and their designation was eventually changed into T.4.

 

Due to its higher development potential, the Gloster Javelin overshadowed the Barghest during its relatively short career. The last Barghest fighter was already withdrawn from service in 1966, with a total of 125 airframes having been produced, while the Javelin, produced in more than 420 units, kept on serving until 1968. Both types were replaced by the Mach 2-capable BAC Lightning interceptor.

However, the experience gathered from the Barghest's early development was successfully used by Blackburn during the Buccaneer development process for the Royal Navy in the mid-Fifties.

  

General characteristics:

Crew: two

Length: 54 ft in (16,49 m)

Wingspan: 40 ft 7 in (12.38 m)

Wing area: 514.7 ft² (47.82 m²)

Height: 14 ft 9 in (4,50 m)

Empty weight: 19,295 lb (8,760 kg)

Gross weight: 29,017 lb (13,174 kg)

Max takeoff weight: 34,257 lb (15,553 kg)

 

Powerplant:

2× Armstrong Siddeley Sapphire Sa.6 engines with 8,000 lbf (35.6 kN) thrust each

 

Performance:

Maximum speed: 606 kn (697 mph; 1,122 km/h) at sea level

Range: 954 mi (1,530 km)

Service ceiling: 52,800 ft (15,865 m)

Rate of climb: 7,000 ft/min (35.6 m/s)

Wing loading: 66 lb/ft² (325 kg/m²)

Thrust/weight: 0.56

 

Armament:

Ventral weapon bay, typically carrying 4× 30 mm (0.79 in) ADEN revolver cannon with 180 RPG;

alternatively, three retractable packs with a total of 70 unguided Microcell 2 in (51mm) missiles

could be carried;

Six underwing hardpoints (The outer pair of pylons could only carry Firestreak AAMs) for a total

ordnance of 4.000 lb (1.814 kg), including up to 4× Firestreak IR-guided AAMs, drop tanks on the

inner pair of pylons, or unguided bombs and SNEB missile pods.

   

The kit and its assembly:

This kitbash model originally started as an early Fifties all-weather fighter for the Royal Navy, and the idea was a Gloster Meteor night fighter fuselage mated with the engines and swept wings from a Blackburn Buccaneer. However, things change and evolve as ideas turn into hardware (for another submission to the 2018 “RAF Centenary” Group Build at whatifmodelers.com), and so this project gradually transformed into an all-weather fighter for the Royal Air Force, as a rival to the Gloster Javelin, and some other fundamental changes to the original plan as things evolved on the work bench.

 

Work started with a Matchbox Gloster Meteor, from which the fuselage (incl. the NF.14 cockpit with its bubble canopy) and tail cone (w/o fin, though) were taken OOB. Then a Matchbox Buccaneer donated its nose cone and the engine pods, together with the inner wing sections. An initial attempt to use the Buccaneer’s fin and stabilizer was made, but it did not work at all (looked horrible and totally unbalanced!). Instead, I used a leftover fin from a Revell 1:200 Concorde because of its retro shape and depth, and waited for the stabilizers until the wings were mounted, so that size, position and proportions would become clearer.

The nose cone had to be squashed, because its OOB oval diameter would not go onto the circular Meteor front end without problems and major PSR. With some force from a vice and internal stabilization through 2C putty the shape could be successfully modified, though, and blended into the fuselage contours. Looks pretty good and fast!

 

Once the engine nacelles were in place, I initially tried the Buccaneer’s OOB outer wings, but I was not really happy with the look. Their shape did not look “right”, they were a bit too large and just very Buccaneer-esque. After a donor bank safari I found a leftover sprue with wings and stabilizers from a Matchbox Hawker Hunter, and after some measurements and trials I found that they could be quite easily adapted to the Buccaneer’s inner wing stubs, even though this called for more serious surgery and PSR work. The latter was also necessary in order to blend the engine nacelles into the slender Meteor fuselage – messy, but feasible.

 

Alas, one challenge leads to the next one: Once in place, the massive engines created a ventral gap, due to the Meteor’s slender tail section. This was eventually filled with the Matchbox Buccaneer’s extra fuel bomb bay door, simply cut away from the kit, trimmed down and transplanted between the engine nacelles. As a side benefit, its bulged shape would now simulate a fairing for a ventral gun pack, somewhat similar to the CF-100’s arrangement. More PSR ensued, though, and between and around the jet exhausts the fuselage had to be fully re-sculpted.

 

The stabilizers also caused some headaches. With the new Hunter swept wings tips, I also needed new, matching stabilizers. I eventually used the Hunter stabilizers from the surplus Matchbox kit sprue. At first I tried to mate them with a shortened central fairing from the Buccaneer, but this did work even less than the whole Bucc tail, and so I scratched a more slender central fairing for the T-tail on top of the Concorde fin from a piece of sprue. Even though the Hunter stabilizers turned out to look a bit diminutive, I stuck with them since they complement the wing shape so well.

 

The benefit of the Buccaneer engine nacelles is that they come with proper landing gear wells, so that only the landing gear had to be improvises and adapted to the new aircraft and its proportions. I wanted to use the Meteor landing gear, but this turned out to be much too short! So I replaced the front wheel with a respective part from a Matchbox Buccaneer. The main wheels from the Meteor kit were retained, but they had to be extended - with a 5mm styrene tube “plug”, which is, thankfully, well hidden behind the covers.

 

Others small changes/additions are ejection seats in the cockpit instead of the Meteor bucket seats, the jet exhausts were drilled open and an interior was added, and some antennae were placed on the aircraft’s hull.

 

The ordnance was to reflect a typical late Fifties RAF fighter, and so the Barghest received a pair of drop tanks (from a Heller SEPECAT Jaguar, with simplified fins) and a pair of Firestreak AAMs (from a Matchbox BAC Lightning) on a pair of launch rails from an Academy MiG-23.

  

Colors and markings:

As per usual, I rather keep complicated whiffs visually simple, so I used the standard RAF scheme of Dark Green/Dark Sea Grey/Light Aircraft Grey on the Barghest, with the Buccaneer’s typical pattern as benchmark. Humbrol enamels (163, 164 and 166) were used for basic painting.

The cockpit interior became Tar Black (Revell 06), while the landing gear and its respective wells were painted in Aluminum (Humbrol 56). The kit received a light black ink washing and mild post-shading – more for a dramatic than a weathering effect, since RAF machines in the Fifties looked very tidy and clean.

The drop tanks received camouflage and the Firestreaks became white, while their clear seeker cones were painted with a mix of silver and translucent blue. The IR sensors were created with thin decal stripes.

 

The decals come primarily from an Xtradecal BAC Lightning sheet (roundels and 19 Sq. markings – the squadron badges are unfortunately quite large, since they belong to a NMF aircraft), most stencils and the tactical code come from an Airfix Venom trainer and an Italeri Tornado.

 

Finally, the kit was sealed with a matt acrylic varnish, a mix of matt and little semi-gloss Italeri varnish, for a sheen finish.

  

A true kitbashing, made from many well-known RAF ingredients and a disturbing look between odd and familiar! A Buccaneer? No, it’s too scrawny. A Javelin? No, it does not have delta wings, and it’s got a tail sting. A de-navalized Sea Vixen? Well, no twin tail, and anything else does not match either... Despite the puzzling details (or because of them?), the Barghest looks disturbingly British and Fifties, as if it had been created from a profound RAF DNA pool – and it actually is! And with lots of putty. ;-)

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some background:

After the Second World War, France’s armored force consisted, almost entirely, of US-built vehicles, such as the M4 Sherman, M26 Pershing, and M24 Chaffee (among others). France received these vehicles as aid as part of the Marshall Plan and the Mutual Defense Assistance Act (MDAA). These aid pacts also financed the reconstruction of France’s economy and armed forces from 1948 until the late 1950s. In April 1949, the North Atlantic Treaty was signed, and NATO was born, resulting in the United States extending the MDAA. This resulted in France receiving newer vehicles, such as the M47 Patton II tank.

 

In total, France would operate around 1,250 M24s which were identical to their US counterparts. It was a small tank at 5.45 meters (16 ft 4 in) long, 2.84 meters (9ft 4in) wide, and 2.61 meters (9ft 3in) tall. It weighed 16.6 tonnes (18.37 tons), utilized a torsion bar suspension, and was armed with a 75 mm gun. The tank had a 5-men crew: Commander, Gunner, Loader, Driver, Bow Gunner. The ‘Chaffee’ was named after WWI US Army General, Adna R. Chaffee Jr.

 

In 1956, the French Army and the Direction des Etudes et Fabrications d’Armements (Directorate of Studies and Manufacture of Armaments, DEFA, an institution within the French Military) were looking into affordable methods of modernizing their fleet of aging M24 Chaffee light tanks, which had been operated since WWII. One method was to somehow combine France’s new domestic light tank, the AMX-13, with the M24.

 

Initially, this led to the mating of the AMX-13’s FL-10 oscillating turret to the hull of the Chaffee, as the most logical step to improve the M24s. While cheap and feasible, this configuration never went further than trials. This was largely due to a perceived safety issue with the High-Explosive (HE) rounds fired by the CN 75-50 cannon. Inside the FL-10 turret, the CN 75-50 gun was fed via an automatic loading system, which was reloaded externally. If an alternate shell-type needed to be fired, HE, for example, it had to be loaded into the breach manually by the Commander. This was a tricky task in the tight confines of the turret on the standard AMX, made worse by the notoriously sensitive fuze of the HE rounds. This process would be even more dangerous on the smaller hull of the Chaffee. As a result, the inverse of this mounting was decided upon, mounting the Chaffee’s turret on the AMX-13’s hull.

 

The officially designated AMX-US was a result of this, even though there were many other unofficial names, including ‘AMX-13 Chaffee’ – as it was known by troops – or ‘AMX-13 Avec Tourelle Chaffee (with Chaffee Turret)’. By 1957, work on the inverse of mounting the Chaffee turret to the AMX hull had begun, what was regarded as a safer and easier alternative, and it was also a convenient way of recycling useful Chaffee turrets by separating them from their worn hulls. It also created a vehicle lighter than the regular Chaffee, meaning it was easier to transport.

 

The M24 turrets went through very little modification for their installation, retaining all the same main features. The only modification necessary was the introduction of an adapter or ‘collar’ to the AMX hull’s turret ring. This was needed as the Chaffee turret had quite a deep basket. The collar granted the basket clearance from the hull floor for uninterrupted, full 360-degree rotation.

The Chaffee turret was a standard design with a typical 3-man crew of the time: Gunner, Loader, and Commander. The Commander sat at the left rear of the turret under a vision-cupola, the gunner sat in front of him. The loader was located at the right-rear of the turret under his own hatch. Armor on the turret was 25 mm (.98 in) thick on all sides, with the gun mantlet being 38 mm (1.49 in) thick.

 

The AMX-US was operated by a four-man crew, as opposed to the three-man crew of the standard Mle 51, due to the three-man turret of the Chaffee. Armament consisted of the 75 mm Lightweight Tank Gun M6 which had a concentric recoil system (this was a hollow tube around the barrel, a space-saving alternative to traditional recoil cylinders). Variants of this gun were also used on the B-25H Mitchell Bomber, and the T33 Flame Thrower Tank prototype. The shell velocity was 619 m/s (2,031 ft/s) and had a maximum penetration of 109 mm. The elevation range of the gun was around -10 to +13 degrees. Secondary weapons were also retained. This included the coaxial .30 Cal (7.62 mm) Browning M1919 Machine Gun, and the .50 Caliber (12.7 mm) M2 Browning Heavy Machine gun which was mounted on the rear of the turret roof.

Apart from the adaptor or ‘collar’, the AMX hull went through no alterations. It retained the same dimensions, and forward-mounted engine and transmission. The tank was powered by a SOFAM Model 8Gxb 8-cylinder, water-cooled petrol engine developing 250 hp, propelling the tank to a top speed of around 60 km/h (37 mph). The vehicle ran on a torsion bar suspension with five road-wheels, two return rollers, a rear-mounted idler, and a forward-mounted drive-sprocket. The driver was positioned at the front left of the hull, behind the transmission and next to the engine.

 

Trials with what would be designated the ‘AMX-US’ were undertaken between December 1959 and January 1960. The vehicle was well received, with an order for 150 conversions being placed by the French military in March 1960. Conversion work was carried out at a plant in Gien, North-Central France.

The AMX-US saw brief service in the War in Algeria – otherwise known as the Algerian War of Independence or Algerian Revolution. One known operator was the 9e Régiment de Hussards (9th Hussar Regiment) based in Oran. They served well, but a few were lost in combat, but there is no evidence to suggest they served in any other location with the French military, such as in France or West Germany based regiments.

 

After the conflict in Algeria, the vehicles were returned to France, but they did not last long in active service after this. Many vehicles were being repurposed into driver trainers. For this, the vehicles were disarmed, with the 75 mm gun and mantlet removed from the turret face and a large plexiglass windscreen was installed in its place.

About fifty surplus AMX-US were sold as scout tanks to Israel, because the AMX-13, which had been procured and operated by the IDF since 1956 in great numbers, was used as a battle tank, so that no IDF reconnaissance unit used the AMX 13. The AMX-US was a perfect and cheap alternative to fill this operational gap, and the vehicles, delivered in 1963, took actively part in the 1967 Six-Day-War.

During these battles, the IDF soon realized that the AMX-13 tank in general was too lightly armored and lacked firepower, and this was even more true for the AMX-US with its vintage WWII gun. Losses were heavy at places like Rafah Junction and Jiradi Pass with many tanks destroyed by heavier Arab-fielded Soviet armor, such as T-55 MBTs and IS-3 heavy tanks. After that, both the AMX-13 and the AMX-US were gradually phased out by the IDF, either sold to other nations (e. g. Thailand), broken up for spares or preserved and stored in depots.

 

In 1975, a handful of these mothballed AMX-US were, together with other outdated Six-Day-War M50 Sherman veterans, re-activated and handed over to the South Lebanese Army (SLA). The SLA was a Christian militia during the Lebanese Civil War, opposing Muslim militias supported by Syria. The SLA received a total of 15 AMX-US, plus 35 M50s, and all these tanks were painted in a characteristic light blue-grey color. The SLA kept these tanks operational and active for a surprisingly long period, the last confirmed appearance of an SLA AMX-US in battle was in 1988. Even after the retirement of the last operational specimen, the SLA still used the AMX-US for training and security duties.

In 2000, nearly ten years after the end of the civil war, the SLA disbanded, and the surviving former IDF tanks were returned to Israel to prevent them from falling into the wrong hands – spelling the end to the AMX-US long career, of which four were returned and subsequently scrapped.

  

Specifications:

Crew: Four (Commander, Loader, Gunner, Driver)

Weight: 15 tons

Length: 4.88 m (16 ft) overall

Width: 2.51 m (8 ft 2 in)

Height: 2.30 m (7 ft 5 in)

Suspension: Torsion arms; Tracked chassis, 5 roadwheels, drive sprocket front, idler rear,

3.00 m length, 0.35 width, 2.16 m track

Ground clearance: 0.37 m (1 ft 2½ in)

Fording depth: 2 ft (0.6 m) unprepared, 6.9 ft (2.1 m) with snorkel

Grade: 60%

Side slope: 60%

Trench crossing: 1.6 m (5 ft 3 in)

Vertical wall climb: 0.65 m (2 ft 1½ ft)

Fuel capacity: 480 l (127 gal)

 

Engine:

1× water-cooled Renault SOFAM Model 8Gxb 8-cylinder gasoline with 250 hp

 

Transmission:

Hydramatic automatic transmission; 8 speeds forward, 4 reverse

 

Armor:

Hull: 10 - 40 mm (1.57 in)

Turret: max. 38 mm (1.49 in)

 

Performance:

Speed: 60 km/h (40 mph) maximum, road

Operational range: 350 km (217 mi) on streets with internal fuel only

Power/weight: 17 hp/t

 

Armament:

1× 75 mm Lightweight Tank Gun M6 in Mount M64 with 48 rounds

1× co-axial 0.30 Cal. (7.62 mm) Browning M1919 machine gun, 2.200 rounds

1× 0.50 Caliber (12.7 mm) M2 Browning anti-aircraft heavy machine gun, 440 rounds

  

The kit and its assembly:

This fictional tank model is the result of recycling: After a T-34 conversion, which used an AMX-13 turret, I was left with the chassis of a 1:72 Heller kit. The latter is a rather simple and primitive affair, with many wrong details and a very weak running gear. From another, even older conversion project I also had an almost complete turret from a Hasegawa M24 Chaffee left over. When I stumbled in literature over the French AMX-US hybrid I decided to use these leftover bits to create one!

 

The AMX-13 chassis was taken OOB, because I did want to invest too much energy into this build, despite its many flaws. Its running gear is rubbish, the vinyl tracks featureless, and overall the detail level is rather soft. From a distance it looks like an AMX-13, but any closer inspection reveals the model's simplicity and toy-likeness. The Chaffee turret was also built with the original parts – but I had to replace the gun barrel and find a replacement for the gunner’s hatch.

 

Nevertheless, some scratch work had to be done. The biggest challenge was the AMX-US’ characteristic turret adapter ring, which markedly raises the M24 turret above the AMX-13 hull. My solution became a manually bent a piece of soft styrene profile - it’s not perfectly circular, but that’s not obvious when the turret is in place, and it looks the part. Furthermore, some small bits were added to hide flaws and distract. These include vertical bars in the exhaust opening, shallow storage boxes on the fenders (hiding the wacky distance ring) and tarpaulin/cammo net packs (created from paper tissue and nylon stockings drenched with white glue). The commander cupola’s hatch was left open and a figure (an ESCI German WWII tank commander) added, to make the model appear livelier. Since the M24’s AA machine gun had been gone, I had to replace it with one from an ESCI Merkava, its mount was moved in front of the cupola.

  

Painting and markings:

Initially, I just had the French army as potential operator for the AMX-US but found that rather boring due to the very limited livery options: any French tank from the era would have carried a dark olive-green livery, even those operated in North Africa! Some French M24s had been operated in South-East Asia in a sand/green/brown/green jungle scheme, but the time frame would not match well. So, I checked other AMX-13 operators and took liking in an IDF vehicle. However, while looking for potential liveries I came upon the SLA. The AMX-US, had it been handed over to the IDF, could have been among these donor tanks, and their unique (if not spectacular) light blue livery made them outstanding. I am not certain whether the blue tone was intended as serious camouflage or just as an IFF measure? However, among typical light rocks and mountains of the Lebenon and in dusty/hazy air, the bluish tone actually works quite fine, better than expected.

 

While a uniform livery is not complex, finding a suitable tone for the model took a while. Real life color pictures (of dubious quality) show a wide range of light blue and/or grey tones, ranging from a bright sky blue over pale grey (like FS 36375) to a medium bluish grey (FS 35237), frequently with severe signs of weathering/sun-bleaching which makes some tanks appear almost white. Some M50s also had olive drab or dark grey patches or patterns added on top as additional camouflage.

 

After testing several options I chose RLM78 (Modelmaster 2088) as basic tone. Odd choice, but it turned out to be light enough, is a rather blue tone (with a slight hint of green), but still dull enough to look like a military tone. An overall washing with a mix of grey, black and red brown followed, and then the model received a thorough, overall dry brushing treatment with various shades of light blue grey, including Modelmaster RLM76, FS 36320 and Revell 75, for a worn and bleached appearance.

 

The markings had to be completely improvised, though, and were created with Corel Draw on an ink jet printer and with white and clear decal paper. They include the SLA’s cedar tree emblem and the Arabic tactical codes. The white “X” markings were created with generic decal stripes.

After the model had been sealed with matt acrylic varnish, sand and dust residues were created with watercolors, and some beige mineral pigments were dusted into the running gear and over the upper surfaces.

  

A quick build and a good use of leftover parts from other projects, melded into a plausible result. The SLA livery adds a weird twist to this model, even though it is – in the end – just a mix of real-world elements: the AMX-US existed, and the SLA operated light blue tanks! Life is sometimes stranger than fiction.

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

The "Entwicklung" tank series (= "development"), more commonly known as the E-Series, was a late-World War II attempt by Germany to produce a standardized series of tank designs. There were to be six standard designs in different weight classes, from which several specialized variants were to be developed. This intended to reverse the trend of extremely complex tank designs that had resulted in poor production rates and mechanical unreliability.

 

The E-series designs were simpler, cheaper to produce and more efficient than their predecessors; however, their design offered only modest improvements in armor and firepower over the designs they were intended to replace, such as the Jagdpanzer 38(t), Panther Ausf.G or Tiger II. However, the resulting high degree of standardization of German armored vehicles would also have made logistics and maintenance easier. Indeed, nearly all of the E-series vehicles — up through and including the E-75 — were intended to use what were essentially the Tiger II's eighty centimeter diameter, steel-rimmed road wheels for their suspension, meant to overlap each other (as on the later production Tiger I-E and Panther designs that also used them), even though in a much simplified fashion.

 

Focus of initial chassis and combat vehicle development was the E-50/75 Standardpanzer, designed by Adler, both being mostly identical and only differing in armor thickness, overall weight and running gear design to cope with the different weights.

 

The E-50 Standardpanzer was intended as a medium tank, replacing the Panther and Tiger I battle tanks and the conversions based on these older vehicles. The E-50 hull was to be longer than the Panther, and in fact it was practically identical to the Königstiger (Tiger II) in overall dimensions except for the glacis plate layout. Compared with the earlier designs, however, the amount of drilling and machining involved in producing the Standardpanzer designs was reduced drastically, which would have made them quicker, easier and cheaper to produce, as would the proposed conical spring system, replacing their predecessors' torsion bar system which required a special steel alloy.

 

The basis development, the combat tank, was to carry the narrow-mantlet 'Schmalturm' turret (designed for the Panther Ausf. F), coupled with a variant of the powerful 88 mm L/71 gun.

In service the vehicle received the inventory ordnance number "SdKfZ. 304" and was officially called "Einheitspanzer 50" (Standard tank), retaining its E-50 abbreviation. The weight of the E-50 vehicle family would fall between 50 and 75 tons. The engine was an improved Maybach HL234 with up to 900 hp output. Maximum speed was supposed to be up to 60 km/h.

 

The E-75 Standardpanzer (SdKfz. 305), based on the same hull, was intended to be the standard heavy tank and as a replacement of the heavy Tiger II and Jagdtiger tanks. The E-75 would have been built on the same production lines as the E-50 for ease of manufacture, and the two vehicles were to share many components, including the same Maybach HL 234 engine.

As its name indicates, the resulting vehicle would have weighed in at over 75 tons, reducing its speed to around 40 km/h. To offset the increased weight, the bogies were spaced differently from on the E-50, with an extra pair added on each side and eight instead of six wheels plus a slightly wider track, giving the E-75 a slightly improved track to ground contact length.

 

The basic combat tank version was to be equipped with the same turret and 8.8 cm KwK 43 L/71 as the E-50 battle tank, but along with an optical rangefinder for increased long range accuracy. Anyway, heavier guns (10,5 cm and 12,8 cm caliber) in bigger turrets were under development.

 

The E-50/E-75 chassis would also become the basis for a family special purpose vehicles like anti-aircraft tanks, assault guns or tank destroyers. One of the earliest developments for the latter class of vehicles was the SdKfz. 191/2, a self-propelled gun carrier for the powerful 12.8 cm KwK L/61 gun, a proven weapon with immense range and firepower, based on the 12.8 cm FlaK 40 anti-aircraft cannon.

The SdKfz. 191/2 was to be much more mobile and lighter than its predecessors, the Jagdtiger and Keiler tank hunters, which had suffered from being overweight and - consequently - underpowered. The new tank hunter was not to exceed 55 tons and offer a field performance similar to the highly effective Jagdpanther, which was only armed with an 88mm cannon, though.

 

As an appropriate vehicle basis the new E-50 chassis was chosen, but the internal layout was radically modified in order to accept the large and heavy weapon, the crew of six and a decent load of ammunition (which consisted of two parts) in a fully closed combat compartment.

In order to simplify the tank and save weight, the engine section was, together with the gearbox, moved to the hull's front. The complete crew section, including the driver’s position, was placed behind the engine. This was a radically new layout approach, and this form of the standard chassis was called E-50(F) (“F” standing for “Front”; there was also an “M” (= Mitte) for a mid-engine layout, with a separate driver compartment in front of the engine; the standard layout with a rear engine did not receive a dedicated suffix).

 

The driver’s position behind a long ‘bonnet’ considerably impaired the field of view, and both driver and radio operator, placed on the other side of the hull, had sit in separate "cabins" in front of the casemate-style box main structure. These positions were separated by parts of the engine and the gearbox between them, and accessible from the main combat room.

Despite some inherent weaknesses, this arrangement was regarded as an acceptable price to pay for space and weight savings through only a single major internal fire bulkhead, no need for a long power shaft running all through the hull and an improved crew survivability behind the massive engine against frontal attacks.

 

The large 12.8 cm cannon was completely covered under a box-shaped superstructure, which had almost vertical side walls. The gun could traverse 7° to each side, elevate 15° and depress -10°. 32 rounds were carried inside of the hull, including armor piercing and explosive shells.

In order to keep the SdKfz. 191/2 within a 60 tons overall weight limit, the vehicle’s front armor was limited to 70mm. This was deemed satisfactory, since the SdKfz. 191/2 was primarily intended for long-range combat only (the weapon had an effective range of 3,500 m (2.2 mi) and more even against heavily armored targets), primarily against heavy Soviet combat tanks and assault guns.

Having learned painful lessons with the Sturmgeschütz IV "Brummbär" and its vulnerability to close range attacks of infantry soldiers, the SdKfz. 191/2 was from the start outfitted with a ball mount for a MG 34 machine gun in the front plate of the superstructure. Another MG 34 on board could be mounted on the commander's cupola for anti-aircraft defense. Smoke dischargers were also available.

 

A small batch of the SdKfz. 304/2 was built at Deutsche Eisenwerke in mid-1945, to be tested under field conditions. Due to the lack of 12.8cm anti tank guns, around half of the 40 vehicles (production numbers are unclear, since the vehicles were manually converted from initial, unfinished E-50 chassis') were outfitted with the lighter 8,8cm Pak. Both variants were distinguished by "A" and "B" suffixes, respectively, and officially called “Jagdpanzer 12.8cm auf Fahrwerk E-50(F)”, frequently shortened to "Jagdpanzer E-50 (F) A or B".

In service, the relatively agile vehicles were dubbed "Uhlan" (after German light lancer groups in WWI) by their crews, and the more simple name quickly caught on. Another unofficial nickname, based on the separated driver/radio operator compartment and the boxy shape of the tank, was “Beichtstuhl” (“Confessional Box”), but this name was soon forbidden.

 

The new tank hunters only saw limited use, though, since they suffered from many early production flaws, and general technical reliability was also low. Other weaknesses were soon revealed, too. The SdKfz. 191/2's high casemate design made the vehicle hard to camouflage. With its almost vertical front and side armor, as well as the separate and edgy driver and radio operator compartments, it proved to be very vulnerable, too, so that - on the same chassis - an improved hull (similar to the Jagdpanther, but with the engine in front of the crew section and armed with a new 105 mm cannon) for the newly developed SdKfz 195 hull (a.k.a. "Jagdpanther II") was quickly developed, offering a much improved ballistic protection from any angle.

  

Specifications:

Crew: Six (commander, gunner, 2x loader, radio operator, driver)

Weight: 54 tonnes (60 short tons)

Length: 7.27 metres (23 ft 8 in) (hull only)

9.36 metres (30 ft 8 in) incl. gun

Width: 3.88 metres (12 ft 9 in)

Height 3.35 metres (11 ft)

Ground clearance: 495 to 510 mm (1 ft 7.5 in to 1 ft 8.1 in)

Suspension: Conical spring

Fuel capacity: 720 litres (160 imp gal; 190 US gal)

 

Armor:

10–70 mm (0.4 – 2.75 in)

 

Performance:

Speed

- Maximum, road: 46 km/h (28.6 mph)

- Sustained, road: 38 km/h (24 mph)

- Cross country: 15 to 20 km/h (9.3 to 12.4 mph)

Operational range: 160 km (99 miles)

Power/weight: 16,67 PS/tonne (14,75 hp/ton)

 

Engine:

V-12 Maybach HL 234 gasoline engine with 900 PS (885 hp/650 kW)

 

Transmission:

ZF AK 7-200 with 7 forward 1 reverse gears

 

Armament:

1× 12.8 cm KwK L/61 with 32 rounds

2× 7.92 mm Maschinengewehr 34 with a total of 5.200 rounds (one in the casemate front

and an optional AA gun on the commander's cupola)

  

The kit and its assembly:

This build was spawned from the question: with the German Experimental-Panzer designs becoming available, what would have been an initial solution for the large 12,8cm PaK, and a kind or predecessor of the more effective designs that were to follow (like the Jagdpanther II on E-50/75 basis or the heavy ‘Krokodil’ from the E-100 chassis)? Creations like the Jagdtiger or the Elefant/Ferdinand had failed due to their weight, and roofless self-propelled designs like the Nashorn or the lighter Marder family had also not been very effective designs.

 

Consequently I tried my luck with a kitbash: the standard E-50 chassis (from a Model Collect combat tank variant), combined with the superstructure of the “Sturer Emil” SPG prototype (Trumpeter kit).

 

Work started with the lower hull, which was more or less taken OOB – just the upper side was completely re-arranged and the engine roof cut out, together with the attachment ring for the original Schmalturm turret, and transplanted to the front. In this step, the original driver hatches on top of the hull were deleted, too.

 

On the hull’s gaping rear end I tried to integrate the (originally roofless) weapon compartment from the “Sturer Emil” SPG. The latter comes as a single piece and turned out to be a little too narrow. I could have taken it OOB, but then a small step in the hull’s side walls had to be accepted. So I cut the box structure into pieces and tried to blend them as smoothly into the lower hull’s lines as possible – with the benefit of slightly more angled side walls. The resulting gaps at all four corners were filled with styrene sheet and putty, and the rear wall called for some major adjustments because it has a convex shape with an entry hatch. A bit messy, but the flanking exhaust pipes cover most of the mess.

 

On the new roof (cut from styrene sheet using a pattern made from adhesive tape and graphite rubbed along the edges), a commander cupola from a Panzer IV and some details like rangefinder optics or air vents were added. Since the interior would not be visible anymore, I only added a primitive console that would hold the OOB cannon bearing and allow slight movement with the barrel in place.

 

The kit would receive new tracks – vinyl pieces instead of the single styrene pieces from the Model Collect kit. And for a more lively look, the mud guards and side skirts (integral part of the upper hull half) were dented – using a candle flame to warm and warp the material.

  

Painting and markings:

The rather massive and tall tank was to look simple, yet a bit improvised, so I decided to mimic a primer finish with some thin camouflage paint added on top, so that much of the primer would still shine through.

In an initial step, the hull and still separate parts like the barrel and the wheels received a uniform coat of RAL 3009 Oxidrot – a rich, rust-red tone that comes close to the German primer used on late-war tank hulls. This basic tone was considerably lightened, through dry-brushing and shading with Humbrol 70, 113 and 119 (Brick Red, Rust and Red Brown, respectively), since paint was sparse in Germany in late WWII and colors frequently stretched and thinned with added pigments like white lead, resulting in an almost pinkish tone.

 

Once dry, the kit received an overall cover with thinned acrylic Sand and Beige (Revell 16 and 314) – almost a custard-colored wash - so that a good amount of the light paint would cling to details and run down the vertical surfaces, leaving an uneven, partly translucent coat on top the red primer that shines through everywhere. This finish was later tailored with brass brush, steel wool and sand paper treatments. No further camouflage (e. g. with Olivgrün) was added, for a simple look.

 

On top of the basic paint, a dark brown washing was added and the edges further emphasized through dry-brushing with light grey and pale sand tones, plus some acrylic silver. Once the wheels and tracks were fitted into place and the few decals applied, a coat of matt acrylic varnish was added. Finally, dust and dry mud were simulated with mixed pigments, applied with a soft brush onto wet stains of varnish.

  

An impressive whif tank, and the complex superstructure was quite challenging. Even though it’s a kitbashing, the whole thing looks pretty plausible and “German”, so the original objective was accomplished.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based on historical facts. BEWARE!

  

Some Background:

Antanas Gustaitis (March 26, 1898 – October 16, 1941) was an officer in the Lithuanian Armed Forces who modernized the Lithuanian Air Force, which at that time was part of the Lithuanian Army. He was the architect or aeronautical engineer who undertook the task to design and construct several military aircraft before WWII broke out.

 

Gustaitis was born in the village of Obelinė, in Javaravas county, in the Marijampolė district. He attended high school in Yaroslavl, and from there studied at the Institute of Engineering and School of Artillery in Petrograd. After joining the Lithuanian Army in 1919, he graduated from the School of Military Aviation as a Junior Lieutenant in 1920. Later that year, he saw action in the Polish-Lithuanian War. By 1922 he began to train pilots, and later became the head of the training squadron. He also oversaw the construction of aircraft for Lithuania in Italy and Czechoslovakia. Gustaitis was one of the founding members of the Aero Club of Lithuania, and later its Vice-President. He did much to promote aviation among the young people in Lithuania, especially concerning the sport of gliding. He also won the Lithuanian Chess Championship in 1922.

 

Between 1925 and 1928, Gustaitis studied aeronautical engineering in Paris. After his graduation he returned to Lithuania and was promoted to deputy Commander-in-Chief of Military Aviation and made chief of the Aviation Workshop (Karo Aviacijos Tiekimo Skyrius) in Kaunas. During this time, he reorganized the workshop and expanded its capability to repair aircraft as well. The aircraft he designed were named ANBO, an acronym for "Antanas Nori Būti Ore", which literally means “Antanas wants to be in the air” in Lithuanian.

 

Between 1925 and 1939, the ANBO design bureau developed, built and flew several trainers, reconnaissance and even fighter aircraft for the Lithuanian air force. The last projects, the ANBO VIII, a light single-engine reconnaissance bomber, and the ANBO IX, a single-seat fighter, were the most ambitious.

The ANBO IX started in 1935 as a light low-wing design with spatted, fixed landing gear and an open cockpit, powered by a British Bristol Mercury 830 hp (619 kW) 9-cylinder radial engine – a very clean all-metal design, outwardly not unlike the contemporary Japanese Nakajima Ki-27 or the Dutch Fokker D.XXI, but a much more modern construction.

A first prototype had been completed in summer 1936 and it flew for the first time on 1st of August, with good flight characteristics, but Gustaitis was not satisfied with the aircraft anymore. More powerful and aerodynamically more efficient engines had become available, and a retractable landing gear would improve the performance of the ANBO IX even more, so that the aircraft was heavily modified during the rest of the year.

 

The large Mercury was replaced with a Pratt & Whitney R-1535 Twin Wasp Junior, a two-row 14-cylinder radial engine with 825 hp and a much smaller frontal area that allowed the ANBO IX’s cowling to be wrapped much tighter around the engine than the Mercury’s former Townend ring, leading to a very aerodynamic overall shape. The oil cooler, formerly mounted starboard flank in front of the cockpit, was moved into a mutual fairing with the carburetor intake under the fuselage behind the engine.

The wings had to be modified to accommodate a retractable main landing gear: to make space for suitable wells, the inner wing section in front of the main spar was deepened, resulting in a kinked leading edge of the wing. The landing gear retracted inwards and was initially completely covered. The tail remained fixed, though, even though the former simple tailskid was replaced with a pressurized rubber wheel for better handling on paved runways.

 

These measures alone improved the ANBO IX’s top speed by 25 mph (40 km/h), and to improve the pilot’s working conditions the originally open cockpit with just a windscreen and a small headrest fairing was covered with a fully closed clear canopy and an enlarged aerodynamic spinal fairing that ended at the fin’s base. This additional space was used to introduce another contemporary novel feature on board: a radio set.

Together with some other refinements on a second prototype (e. g. a smaller diameter of the front fuselage section, an even more streamlined cowling that now also covered two synchronized machine guns above the engine and a recontoured wing/fuselage intersection), which flew in September 1937, top speed rose by another 6 mph (10 km/h) from 460 km/h (285 mph) of the original aircraft to a competitive 510 km/h (317 mph) that put the ANBO IX on a par with many other contemporary European fighter aircraft.

 

In this form the ANBO IX was cleared for production in early 1938, even though the desired R-1535 Twin Wasp Junior was not cleared for export or license production. With the Manfréd Weiss WM K.14 engine from Hungary, a derivative of the French Gnôme-Rhône 14 K with 900 hp, a similar, even slightly more powerful replacement could be quickly found, even though the adaptation of the airframe to the different powerplant delayed production by four months. Beyond a new engine mount, the machine guns in the fuselage and its synchronization gearbox had to be deleted, but the weapons could be moved into the outer wings, so that a total of four machine guns as main armament was retained. Additionally, a single ventral hardpoint was added that could either carry a single bomb with its respective shackles or – more frequently – a drop tank that extended the fighter’s rather limited range.

 

The Lithuanian air force ordered fifty of these machines, primarily to replace its Fiat CR.20 biplane fighters, and several regional export customers like Finland, Estonia and Bulgaria showed interest in the modern ANBO IX, too. Due to the complex all-metal airframe and limited workshop capacities, however, production started only slowly.

The first batch of six ANBO IXs arrived at Lithuanian frontline units in November 1939, more were in the ANBO workshops in Kaunas at that time in various stages of assembly. In 1940, the Lithuanian Air Force consisted of eight Air Squadrons, including reconnaissance, fighter, bomber and training units. However, only the 5th fighter squadron had by the time enough ANBO IXs and trained pilots to be fully operational with the new type. Air Force bases had been established in the cities and towns of Kaunas/Žagariškės, Šiauliai /Zokniai (Zokniai airfield), Panevėžys /Pajuostis. In the summertime, airports in the cities of Palanga and Rukla were also used. A total of 117 aircraft and 230 pilots and observers were listed in the books at that time, but less than ten of them were modern ANBO IX fighters, and probably only half of them were actually operational.

 

Following the Soviet occupation of Lithuania, however, the Lithuanian Air Force was formally disbanded on October 23, 1940. Part of Lithuanian Air Force (77 senior officers, 72 junior officers, 59 privates, 20 aircraft) was reorganized into Red Army's 29th Territorial Rifle Corps Aviation, also referred to as National Squadron (Tautinė eskadrilė). Other planes and equipment were taken over by Red Army's Air Force Bases No. 13 and 213. About third of Tautinė eskadrilė's personnel latter suffered repressions by Soviet authorities, significant share joined June uprising, after the start of German invasion into Soviet Union several pilots of Tautinė eskadrilė and fewer than six planes withdrew with the Soviet army.

  

General characteristics:

Crew: 1

Length: 7.71 m (25 ft 2¾ in)

Wingspan: 10.22 m (33 ft 5¾ in)

Wing area: 16 m2 (170 sq ft)

Height: 2.62 m (8 ft 7 in)

Empty weight: 2,070 kg (4,564 lb)

Gross weight: 2,520 kg (5,556 lb)

 

Powerplant:

1× Manfred Weiss WM K.14 (Gnome-Rhône 14Kfrs Mistral-Major) 14-cyinder air-cooled radial

piston engine with 647 kW (900 hp), driving a 3-bladed constant-speed metal propeller

 

Performance:

Maximum speed: 510 km/h (320 mph, 280 kn)

Minimum control speed: 113 km/h (70 mph, 61 kn)

Range: 730 km (450 mi, 390 nmi) on internal fuel

1.000 km (621 mi, 543 nmi) with 300 l drop tank

Service ceiling: 10.000 m (33,000 ft)

Time to altitude: 4'41" to 5,000 meters

Wing loading: 157,5 kg/m² (32.7 lb/sq ft)

Power/mass: 3.89 kg/kW (6.17 lb/hp)

Take-off run to 8 m (26 ft): 270 m (886 ft)

Landing run from 8 m (26 ft): 340 m (1,115 ft)

 

Armament:

4x 7.7 mm (0.303 in) fixed forward-firing M1919 Browning machine guns with 500 rpg

in the outer wings

1x ventral hardpoint for a single 250 kg (550 lb) bomb or a 300 l (66 imp gal) drop tank

  

The kit and its assembly:

This small aircraft model is the result of a spontaneous kitbashing flash, when I dug through the sprue piles and the spares box. It started with a leftover fuselage from a Mistercraft PZL P-7 fighter, and further searches revealed the wings from a PM Model Fokker D.XXI and the sawn-off wings from a Hobby Boss MS.406. The sprue stash came up with other useful parts like small stabilizers and a landing gear – and it turned out to be the rest of the MS.406, which had originally been butchered to be mated with the P-7 wings to become my fictional Polish RWD-24 fighter prototype. So, as a serious recycling project, I decided to accept the challenge and use the remains of the P-7 and the MS.406 to create a “counterpart” to the RWD-24, and it became the fictional ANBO IX.

 

While the ingredients for a basic airframe were now available, some parts were still missing. Most important: an engine. One option was an early Merlin, left over from a Spitfire, but due to the circular P-7 fuselage I preferred a radial engine. With the cowling from a Japanese Mitsubishi Ha-102 two-row radial (from an Airfix Ki-46 “Dinah”) I found a suitable and very streamlined donor, which received a small three-blade propeller with a scratched spinner on a metal axis inside.

 

The cockpit and the canopy caused more headaches, because the P-7 has an open cockpit with a rather wide opening. For a fighter with a retractable landing gear this would hardly work anymore and finding a solution as well as a suitable donor piece took a while. I initially wanted to use a kind of bubble canopy (with struts, so that it would not look too modern), but eventually rejected this because the proportions would have looked odd – and the overall style would have been too modern.

So I switched to an early Spitfire canopy, which had a good size for the small aircraft, even though it called for a spinal fairing – the latter became the half from a drop tank (IIRC from an Airfix P-61?).

 

Lots of PSR was necessary everywhere to blend the disparate parts together. The cockpit opening had to be partly filled and reshaped, blending both canopy and spine into the hull took several layers.

The area in front of the cockpit (originally holding the P-7’s shoulder-mounted wings) had to be re-sculpted and blended into the Ki-46 cowling.

The ventral area between the wings had also to be fully sculpted with putty, and huge gaps along the wing roots on the wings’ upper surfaces had to be filled and formed, too. No wonder that many surface details disappeared along the way… Nevertheless, the effort was worthwhile, because the resulting airframe, esp. the sleek fuselage, looks very aerodynamic, almost like a Thirties air speed record contender?

  

Painting and markings:

This is where the real trouble came to play. It took a while to find a suitable/authentic paint scheme for a pre-WWII Lithuanian aircraft, and I took inspiration from mid-Thirties Letov S.20 biplane fighters and the real ANBO VIII light bomber prototype. Apparently, a two-tone camouflage in two shades of green were an option, even though the tones appear debatable. The only real-life reference was a b/w picture of an S.20, and it showed a good contrast between the greens, so that my first choice were Humbrol 120 (FS 34227) and 172 (Satin Dark Green). However: 120 turned out to be much too pale, and the 172 had a somewhat grainy consistency. Leaving a horrible finish on the already less-than-perfect PSR mess of the model.

 

With a heavy heart I eventually decided to remove the initial coat of enamel paint with a two-day bath in foamed oven cleaner, which did the job but also worked on the putty. Disaster struck when one wing came loose while cleaning the model, and the canopy came off, too…

Repairs were possible, but did not improve the model’s surface finish – but I eventually pulled a second coat of paint through, this time with slightly different green tones: a mix of Humbrol 80 (Grass Green) and Revell 360 (fern Green), resulting in a rich but rather yellow-ish tone, and Humbrol 245 (RLM 75, Graugrün), as a subdued contrast. The result, though, reminded a lot of Finnish WWII aircraft, so that I gave the aircraft an NMF cowling (again inspired by the ANBO VIII prototype) and a very light grey (Modelmaster 2077, RLM 63) underside with a low waterline. This gave the model a somewhat Italian touch?

 

The national markings came from two different Blue Rider decal sheets for modern Lithuanian aircraft, the tactical code and the knight helmet as squadron emblem came from a French Dewoitine D.520 (PrintScale sheet).

 

After a black ink washing the kit received light panel post-shading to virtually restore some of the missing surface details, some weathering with Tamiya Smoke and silver was done and the model received a final overall coat of matt acrylic varnish.

  

Well, I am not happy with the outcome – mostly because of the painting mishaps and the resulting collateral damage overall. However, the kitbashed aircraft looks pretty conclusive and plays the role of one of the many European pre-WWII monoplane fighters with modern features like a retractable landing gear and a closed canopy well, it’s a very subtle result.

 

The model and its assembly:

My second attempt to create a functional H0 scale what-if locomotive – and after I “only” did a color variant with some cosmetic changes on the basis of a Märklin V160/BR 216 diesel locomotive, I wanted something more special and challenging. However, kitbashing model locomotives with a metal chassis that includes a functional motor, respective drivetrain/gearing and electronics is not as easy as gluing some plastic parts together. And finding “matching” donor parts for such a stunt is also not as easy as it may seem. But what would life be without attempts to widen its boundaries?

 

This time I wanted an electric locomotive. Inspiration (and occasion) somewhat struck when I stumbled upon a running/functional chassis of a Märklin E 10/BR 110 (#3039), just without light and naturally missing the whole upper hull. Due to its incompleteness, I got it for a reasonable price, though. With this basis I started to watch out for eventual (and affordable) donor parts for a new superstructure, and remembered the collectible, non-powered all-plastic locomotive models from Atlas/IXO.

 

The good thing about the Märklin 3039 chassis was that it was just a solid and flat piece of metal without integrated outer hull elements, headstock or side skirts, so that a new hull could (theoretically) be simply tailored to fit over this motorized platform. Finding something with the exact length would be impossible, so I settled upon an Atlas H0 scale Nederlands Spoorwegen Series 1200 locomotive model, which is markedly longer than the German BR 110, due to its six axles vs. the E 10/BR 110’s four. Another selling point: the NS 1200’s body is virtually blank in its middle section, ideal for shortening it to match the different chassis. Detail of the Atlas plastic models is also quite good, so there was the potential for something quite convincing.

 

Work started with the disassembly of the static Atlas NS Class 1200 model. It's all-styrene, just with a metal plate as a chassis. Against my expectations the model's hull was only held on the chassis by two tiny screws under the "noses", so that I did not have to use force to separate it. The body's walls were also relatively thin, good for the upcoming modifications. The model also featured two nice driver's stations, which could be removed easily, too. Unfortunately; they had to go to make enough room for the electronics of the Märklin 3039 all-metal chassis.

 

Dry-fitting the chassis under the Class 1200 hull revealed that the stunt would basically work - the chassis turned out to be only marginally too wide. I just had to grind a little of the chassis' front edges away to reduce pressure on the styrene body, and I had to bend the end sections of the chassis’ stabilizing side walls.

To make the Class 1200 hull fit over the shorter BR 110 chassis a section of about 3 cm had to be taken out of the body’s middle section. The Class 1200 lent itself to this measure because the body is rather bare and uniform along its mid-section, so that re-combining two shortened halves should not pose too many problems.

 

To make the hull sit properly on the chassis I added styrene profiles inside of it - easy to glue them into place, thanks to the material. At this time, the original fixed pantographs and some wiring on the roof had gone, brake hoses on the nose were removed to make space for the BR 110 couplers, and the clear windows were removed after a little fight (they were glued into their places, but thankfully each side has three separate parts instead of just one that would easily break). PSR on the seam between the hull halves followed, plus some grey primer to check the surface quality.

 

Even though the new body now had a proper position on the metal chassis, a solution had to be found to securely hold it in place. My solution: an adapter for a screw in the chassis’ underside, scratched. I found a small area next to the central direction switch where I could place a screw and a respective receiver that could attached to the body’s roof. A 3 mm hole was drilled into the chassis’ floor and a long Spax screw with a small diameter was mated with a hollow square styrene profile, roughly trimmed down in length to almost reach the roof internally. Then a big lump of 2C putty was put into the hull, and the styrene adapter pressed into it, so that it would held well in place. Fiddly, but it worked!

 

Unfortunately, the pantographs of the Atlas/IXO model were static and not flexible at all. One was displayed raised while the other one was retracted. Due to the raised pantograph’s stiffness the model might lose contact to or even damage the model railroad catenary, even when not pulling power through it – not a satisfactory condition. Since the chassis could be powered either from below or through the pantographs (the Märklin 3039 chassis offers an analogue switch underneath to change between power sources) I decided to pimp my build further and improve looks and functionality. I organized a pair of aftermarket diamond pantographs, made from metal, fully functional and held in place on the model’s roof with (very short and) small screws from the inside.

I was not certain if the screws were conductive, and I had to somehow connect them with the switch in the chassis. I eventually soldered thin wire to the pantographs’ bases, led them through additional small holes in the roof inside and soldered them to the switch input, with an insulating screw joint in-between to allow a later detachment/disassembly without damage to the body. There might have been more elegant solutions, but my limited resources and skills did not allow more. It works, though, and I am happy with it, since the cables won’t be visible from the outside. This layout allows to draw power through them, I just had to create a flexible and detachable connection internally. Some plugs, wire and soldering created a solution – rough (electronics is not my strength!), but it worked! Another investment of money, time and effort into this project, but I think that the new pantographs significantly improve the overall look and the functionality of this model.

 

Internally, the missing light bulbs were retrofitted with OEM parts. A late external addition were PE brass ladders for the shunting platforms and under the doors for the driver’s cabins. They were rather delicate, but the model would not see much handling or railroading action, anyway, and the improve the overall impression IMHO a lot. On the roof, some details like cooling fans and tailored conduits (from the Atlas Series 1200) were added, they partly obscure the seam all around the body.

 

Unfortunately, due to the necessary space for the chassis, its motor and the electronics, the driver stations’ interiors could not be re-mounted – but this is not too obvious, despite the clear windows.

 

+++ DISCLAIMER +++

Nothing you see here is real, even though the conversion or the presented background story might be based historical facts. BEWARE!

  

Some background:

The "Entwicklung" tank series (= "development"), more commonly known as the E-Series, was a late-World War II attempt by Germany to produce a standardized series of tank designs. There were to be six standard designs in different weight classes, from which several specialized variants were to be developed. This intended to reverse the trend of extremely complex tank designs that had resulted in poor production rates and mechanical unreliability.

 

The E-series designs were simpler, cheaper to produce and more efficient than their predecessors. But, on the other side, their design offered only modest improvements in armor and firepower over the designs they were intended to replace, such as the Jagdpanzer 38(t), Panther Ausf.G or Tiger II. However, the resulting high degree of standardization of German armored vehicles would also have made production, logistics and maintenance easier. Indeed, nearly all of the E-series vehicles — up through and including the E-75 — were intended to use what were essentially the Tiger II's eighty centimeter diameter, steel-rimmed road wheels for their suspension, meant to overlap each other. An innovative conical spring system, replacing their predecessors' torsion bar system which required a special steel alloy, simplified production and required less internal space.

 

Focus of initial chassis and combat vehicle development was the E-50/75 Standardpanzer, designed by Adler, both being mostly identical and only differing in armor thickness, overall weight and running gear design to cope with the different weights. But there were lighter chassis variants, too, including the light E-5 and E-10 for armored, tracked reconnaissance vehicles, and the medium E-25.

 

The E-25 designs, in the 25-50 tonnes weight class, were to be replacements for all Panzer III and Panzer IV based designs still in service, as well as for the early variants of the Panzer V (the Panther). This chassis' main designers were Alkett, Argus and Adler, with the involvement of Porsche. The proposed vehicle family would include medium reconnaissance vehicles, a medium Jagdpanzer and a heavy Waffenträger, but the chassis was also considered for other armed vehicles.

 

The original E-25 chassis used five Tiger II style road wheels per side, combined with "slack-track" design. Track propulsion was switched to a rear drive sprocket, as a consequence of mating the engine and the gearbox into a single tail-mounted, very compact power pack that made the voluminous and heavy power train all through the hull obsolete. This allowed the tank’s body to be lowered, and the gained space offered more room for the crew’s operations, heavier guns and ammunition storage.

The first member of the E-25 family that entered production was the medium tank hunter. It received highest priority and the project was called “Jagdpanzer E-25/88”, running under the inventory ordnance number "SdKfZ. 194". However, at the time of its introduction the E-25 chassis was also considered for a medium battle tank in the 35 ton class, since it had become clear that the E-50/75 battle tanks were rather large and resource-consuming. A lighter, more agile vehicle was needed, and it was to be armed with either the highly effective 75mm L/70 cannon (used in the Panther and the late Jagdpanzer IV) or the more powerful 8.8 cm L/56 gun, used in the Tiger I and the Jagdpanther.

 

Porsche was tasked with the adaptation of the E-25 chassis for a turret for both heavy guns. The work was in close collaboration with Henschel and the Oberschlesische Gusswerke Beuthen who were both working on a new, unified cast steel turret for the 88mm gun for a wide range of medium tanks like the Panther, the E-50/75 family and the heavy Tiger II. Alternatively, the new E-25 battle tank was to accept the so-called Schmalturm, which could carry both cannon types, too.

 

After the Allied invasion in the Normandy in 1944 and with ever-rising pressure through the Red Army from the East, the E-25 MBT project eventually gained more and more priority and momentum. As a consequence, Porsche was assigned by the Heeresleitung to build a running prototype as quickly as possible, ideally until early 1945.

 

Porsche was certain that the original E-25 chassis was too short and light for the adaptation of the cast turret. In order to keep the tight timeline, Porsche decided to develop a new welded steel hull while using as many Einheitspanzer components as possible. The resulting vehicle had little in common with the original Adler E-25 chassis and rather resembled the bigger and heavier E-50/75 family. Overall dimensions ended up close to the Panther hull, as a result of a certain minimum width that was necessary to mount the new turret’s bearings and balance its weight. However, the new tank's overall silhouette was considerably lower than the Panther’s or the E-50/75 family MBT’s.

The Porsche design also made full use of several new technical solutions for the engine and the new, space-saving E-50/75 suspension. For instance, thanks to the rear-mounted power unit with the gearbox and the driving sprocket wheels, the front armor could be optimized to offer very good ballistic protection (achieving a very shallow 30°angle) despite a maximum thickness of only 70 mm. The thickest armor, the cast steel gun mantlet, was 80 mm.

 

The tank’s running gear consisted of six steel-rimmed wheels per side, mounted in three staggered pairs, similar to the heavier E-50 tank. Thanks to the lower overall weight, a new Niresit track with less width could be used. The so-called “Beuthen Turm” offered excellent ballistic protection, a very low profile and featured a commander cupola with a full 360° view through periscopes as well as a 200cm width stereoscopic optical rangefinder for the gunner. A few vehicles were additionally equipped with FG1250/1251 infrared illuminators, too, allowing night operations in coordination with special versions of the Sd.Kfz.251 with long-range infrared illuminators, and complemented by assault troops using Vampir-modified Sturmgewehr guns.

 

Savings in material and complexity were achieved through simplified shapes and the use of stock components from other or older tanks, as well as the reduction of the crew to only four: the traditional radio operator in the hull, next to the driver, as well as a hull-mounted machine gun, were completely omitted. The driver was furthermore moved to the right side, a result of the secondary ammunition bunker in the hull being placed in front of the loader in the turret for easy access.

 

In this form, the tank was tested in early 1945 and hastily pushed into production, receiving the designation Sonderkraftfahrzeug 194 and officially christened ”Fuchs”. In order to reflect Porsche's involvement in this new tank's design and to differentiate it from the standard E-25 tank, the vehicle and its chassis variant was called E-25(P).

The resulting medium battle tank received, depending on its main weapon, the suffix 'A' for the 75mm cannon (SdKfz. 194/1) and 'B' for the 88mm gun (SdKfz. 194/1). The Schmalturm did not find its way on the production vehicles, and both variants had an operational weight of roundabout 38 tons. This was considerably less than any German contemporary MBT from the E-50/75 family, and even lighter than the late Panther variants. For its weight, the powerful main weapons made the vehicle a highly mobile and deadly enemy, enabling the crews to execute “hit and run” tactics which were impossible with the bigger and slower tanks.

 

The first production vehicles were deployed to independent units at the Western front line along the lower Rhine in May 1945, but due to the lack of thorough tests, sufficient crew training and lack of combat experience with the new vehicle, the initial results were poor. The majority of tank losses was not through enemy fire, though - many tanks had to be abandoned and were destroyed by their crews after technical failures.

 

The Fuchs MBT was popular among the crews, though, since it offered a much higher mobility than its heavier Einheitspanzer brethren. The relatively large and spacious turret was another point that found much appraise – but its poor technical reliability was its biggest Achilles heel.

Due to the ever-worsening situation, less than 100 E-25(P) hulls were completed and probably less than 50 combat-worthy vehicles arrived at front line units and were involved in battle until the end of hostilities. But the design work, with many radical and innovative ideas, did not get lost – many of the Fuchs’ design features like its hull layout and armor design or the Beuthen turret found their way into the highly successful German Leopard I MBT in the early 1960ies, which entered service with the German Bundeswehr in 1965 and still serves with several armies until today.

  

Specifications:

Crew: Five (commander, gunner, loader, radio operator, driver)

Weight: 38 tonnes (41.9 short tons)

Length: 7,02 metres (23 ft), hull only

9.77 metres (32 ft) overall, with the gun forward

Width: 3.96 metres (12 ft 11 1/2 in)

Height: 2.34 metres (7 ft 8 in)

Ground clearance: 495 to 510 mm (1 ft 7.5 in to 1 ft 8.1 in)

Suspension: Conical spring

Fuel capacity: 450 litres (120 US gal)

 

Armor:

10–80 mm (0.4 – 3.15 in)

 

Performance:

Speed

- Maximum, road: 52 km/h (32 mph)

- Sustained, road: 42 km/h (26 mph)

- Cross country: 16 to 25 km/h (9.5 to 15.5 mph)

Operational range: 210 km (130 mi)

Power/weight: 14,47 PS/tonne (12,86 hp/ton)

 

Engine:

V12 Maybach HL 101 gasoline engine with 550 PS (539 hp, 341 kW)

 

Transmission:

ZF AK 7-200 with 7 forward 1 reverse gears

 

Armament:

1× 8.8 cm KwK 43/4 L/56 with 48 rounds

2× 7.92 mm MG 34 machine guns with a total of 5.200 rounds

(one co-axial with the main weapon, one manually operated on the commander's cupola)

  

The kit and its assembly:

This fictional Heer '46 is based on the fact that the famous German post-WWII MBT Leopard 1 – at least the Porsche prototype – was based on designs from the WWII era. So, why not spin this story further and retro-grade a Leopard 1 into a Heer ’46 tank, as a kind of grandfather design with then-state-of-the-art technologies…?

 

Well, that job could be easily done with a Leopard 1 kit built more or less OOB and just painted in typical WWII colors – I have actually seen such things in simulation games like World of Tanks, and it did not look bad at all. But for the ambitious modelers, this would be a bit too simple, wouldn’t it?

For instance, there are some features like the running gear on the Leopard that are very modern and would IMHO not fit into the late WWII timeframe. The general lack of high quality materials and design simplifications everywhere would certainly also take their toll. As a consequence the starting basis for this whiffy tank model actually became an 1:72 Leopard 1 (to be exact, it’s Revell’s Leopard 1A5 kit), but from this basis only a few parts were actually taken over.

 

Work started with the upper hull, which received the transplantation of the complete upper rear deck from a leftover Hasegawa Panther, including the turret’s attachment ring. Internally the whole affair was reinforced with styrene profiles along the seams. The basic idea behind this move was to get rid of the rather modernistic, raised engine cover of the Leopard, and the Panther’s armored cooling fan covers would add a very familiar, German touch. Furthermore, the Panther turret is set relatively further back than on the Leopard, resulting IMHO in a positive side effect for the vehicle’s proportions. The front with the driver’s hatch and the side walls of the Leopard hull were taken over, just the glacis plate was cleaned from the moulded snow claws for the modern Leopard track.

 

While I could have used the original, casted Leopard 1 turret without any extra armor, I rather reverted to a donor part: an aftermarket resin turret from the German short run producer Modell Trans. What spoke for this aftermarket piece is that this Heer ’46 turret piece was exactly that kind of add-on this kit would need: a retrograded Leopard 1 turret, with a simplified shape, a simple commander cupola, typical bulges for a late-war optical rangefinder in the turret sides and even a 8.8cm KwK barrel! The resin turret, which also comes with an AA machine gun, was taken OOB. Only the original resin gun barrel came slightly bent – this could have been corrected easily, but I replaced it with a more delicate white metal and brass piece, anyway. Additionally, an adapter for the hull opening had to be scratched.

 

So far, so good - but the running gear became the biggest challenge. The Leopard 1’s advanced torsion bar running gear with rubber-rimmed wheels would not make sense anymore, due to the special high quality materials needed for its construction. Since the Einheitspanzer family was to share as many components as possible, I decided to implant an E-50-style running gear with its typical cast standard wheels.

This sounds easy, but scratching a running gear is a real stunt! Work started with the attachment points for the driving and guide wheels at the hull’s ends, which were cut off of the Revell kit’s parts and glued into their respective places. The drive wheel was taken over from the Leopard, but the guide wheel at the front end was replaced by a simpler and smaller pair of wheels from a Russian IS-3 tank.

Using the E-50 as benchmark for the running wheels, I gathered twelve of them from the scrap box and from several Modellcollect kits in the stash (The 1:72 E-50 kits from Modelcollect and Trumpeter all come with the option to build an E-75, too, so that each kit offers two pairs of excess parts). Mounting these wheels to the hull, in a staggered fashion, became the kit’s true challenge, though, because I did not have a sufficient number of original wheel carriers/suspension packs. Improvisation resulted in the adaptation of twelve leftover suspension arms from a Modelcollect E-100 kit, even though they had to be tailored in depth and length to fit under the Leopard’s hull. It took some trial and error to find a proper position that would produce a plausible stance, but I think the effort of this transplantation really changes the tank’s look into something Heer ’46-ish?

 

The track was taken OOB from the Leopard 1 kit, and it is of the segmented IP type. It was mounted after most painting was done, starting with single track segments on the drive and guiding wheels, and then the gaps were filled with other track elements. A bit of a gamble, but the theory, that the track parts should match, was confirmed. Phew…

  

Painting and markings:

For some subtlety, the model received a classic German paint scheme with “Hinterhalt” colors (Dunkelgelb, Olivgrün and Rotbraun). Once the kit’s components were finished (hull, turret and the separate wheels), everything received an overall coat with matt RAL 7028 (Modelmaster Authentics).

On top of that, a dense pattern of red brown (Humbrol 160) and finally green (RAL 6003 from Modelmaster Authentics) mottles in 1 1:2 ratio was applied with a flat, narrow brush, for a somewhat square shape of the blotches. Pretty straightforward, seen on a late war Panther - and suitable for a summertime scenario as well as in line with common field practice, even though at the time where the model is placed, tanks might have looked more extraordinary or improvised due to the general material shortages.

 

Once the basic painting was done, the kit received a thin, water-based wash with dark brown, carefully swabbed with a soft cotton cloth in order to leave just a thin and cloudy film on the surfaces and more of the wash in recesses and corners. There were only a few decals to apply, namely three small German crosses and the tactical code on the turret’s flanks. Later some dry-brushing with light grey and hemp was done, emphasizing the edges and highlighting surface details.

 

The track segments were primed with a mix of acrylic iron, black and dark brown and received a final paint treatment after mounting them onto the wheels, hiding some glue stains and other blemishes.

 

Artist pigments (a mix of ochre, grey and brown) were dusted with a soft brush onto the lower kit areas, after having sealed the model with matt acrylic varnish beforehand.

  

Well, what could have been a simple paint job in order to achieve a time-warped Leopard 1 became a massive kitbashing project. However, I think this extra effort, esp. the adaptation of the E-50 running gear, and all the potential risks of mixing parts from different kits, was worthwhile? The paint scheme certainly suggest the WWII era, too. The resulting “new” tank looks IMHO pretty plausible, and both hull and turret shape remind of the Leopard 1 without looking like the real thing behind this build. In fact, from certain angles this one appears like the missing link between the Panther and the Leopard 1, and a lot like an inspiration for the Soviet T-54/55 or even the T-72?

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