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I didn't like the weirdly angled wings of the 31086 futuristic flyer. I also didn't like that the main build had a bunch of pieces leftover. I thought I'd make my own alternate build that fixed both of those issues.

Lockheed Martin F-16C Fighting Falcon USAF 92-0915 DULUTH 148th Fighter Wing Bulldogs Minnesota USA

Photo taken at EAA Airventure Wittman Regional Airport Oshkosh Wisconsin USA July 2023

GAB_0960

The Zilant was a single-seat fighter aircraft that was used by the Imperial Lego Air Force during the first Lego/Androvakian war. It was designed as a short-range, high-performance interceptor aircraft armed with two 20mm ENA-50 cannons on the wings, two 12,7mm heavy machine guns over the engine and one 30mm ENA-60 engine mounted Auto-cannon.

 

To achieve extreme altitudes as soon as possible, the plane received the most powerful engine available at the time, the V-450, a 2400hp engine equipped with a 3 level turbo-supercharger and a secondary two level high altitude booster, providing an emergency power of 3 900hp for 4 minutes.

Thanks to being light and having extremely thin wings, the fighter could easily get to 8 000meters in less than 6 minutes, a record for the time.

 

About the MOC:

I’ve made a huge number of planes in 2013, which for many reasons I never presented to the world due to the recent “fashion” of using curved slopes, which improve a lot the quality of planes. While I wait for the arrival of new parts to improve those planes, I decided to show some of them and then compare the improvements made with the new parts.

Zilant is a legendary creature, something between a dragon and a wyvern. Since 1730, it has been the official symbol of Kazan.

 

My girlfriend gave me the idea of the plane, therefore I put a female pilot on the plane! ^^

 

Don´t forget to visit my flickr page for many more planes and ships!

www.flickr.com/photos/einon/

 

Eínon

 

Had the opportunity to shoot a martial arts fighter this weekend.

Modelo de Satoshi Kamiya. Diagramas en su libro Origami Works of Satoshi Kamiya 3

The Ligea Class fighter features more conventional aerodynamics, making it better suited for atmospheric engagements. This example is outfitted for scouting, with auxiliary thrusters to enhance airspeed, a radar bar for detecting enemy moment, and linked machine guns for close range dogfighting (WWGYRb)

  

***

 

Built for VitorFaria's "Mobile Frame Zero: Dogfight" custom rules! Check them out here: www.mobileframehangar.com/viewtopic.php?f=33&t=8360

 

Ligea was a Nereid, a kind of nymph from Greek mythology associated with the sea

Quick little Starfighter/Cannon Fodder action...

A swift enemy fighter...

Car: Bristol Fighter.

Year of manufacture: 2006.

Date of first registration in the UK: 22nd September 2006.

Place of registration: Not known.

Date of last MOT: 26th November 2011.

Mileage at last MOT: 42,265.

Date of last V5 issued: 2nd June 2014.

 

Date taken: 8th May 2016.

Location: Queen Square, Bristol, UK.

Album: Avenue Drivers Club May 2016

The de Havilland DH.98 Mosquito was a British multi-role combat aircraft with a two-man crew that served during and after the Second World War. It was one of few operational front-line aircraft of the era constructed almost entirely of wood and was nicknamed "The Wooden Wonder". The Mosquito was also known affectionately as the "Mossie" to its crews. Originally conceived as an unarmed fast bomber, the Mosquito was adapted to roles including low to medium-altitude daytime tactical bomber, high-altitude night bomber, pathfinder, day or night fighter, fighter-bomber, intruder, maritime strike aircraft, and fast photo-reconnaissance aircraft. It was also used by the British Overseas Airways Corporation (BOAC) as a fast transport to carry small high-value cargoes to, and from, neutral countries, through enemy-controlled airspace.

 

When the Mosquito began production in 1941, it was one of the fastest operational aircraft in the world. Entering widespread service in 1942, the Mosquito was a high-speed, high-altitude photo-reconnaissance aircraft, continuing in this role throughout the war. From mid-1942 to mid-1943 Mosquito bombers flew high-speed, medium or low-altitude missions against factories, railways and other pinpoint targets in Germany and German-occupied Europe. From late 1943, Mosquito bombers were formed into the Light Night Strike Force and used as pathfinders for RAF Bomber Command's heavy-bomber raids. They were also used as "nuisance" bombers, often dropping Blockbuster bombs - 4,000 lb (1,812 kg) "cookies" - in high-altitude, high-speed raids that German night fighters were almost powerless to intercept.

 

As a night fighter, from mid-1942, the Mosquito intercepted Luftwaffe raids on the United Kingdom, notably defeating Operation Steinbock in 1944. Starting in July 1942, Mosquito night-fighter units raided Luftwaffe airfields. As part of 100 Group, it was a night fighter and intruder supporting RAF Bomber Command's heavy bombers and reduced bomber losses during 1944 and 1945. As a fighter-bomber in the Second Tactical Air Force, the Mosquito took part in "special raids", such as the attack on Amiens Prison in early 1944, and in precision attacks against Gestapo or German intelligence and security forces. Second Tactical Air Force Mosquitos supported the British Army during the 1944 Normandy Campaign. From 1943 Mosquitos with RAF Coastal Command strike squadrons attacked Kriegsmarine U-boats (particularly in the 1943 Bay of Biscay, where significant numbers were sunk or damaged) and intercepting transport ship concentrations.

 

The Mosquito flew with the Royal Air Force (RAF) and other air forces in the European theatre, and the Mediterranean and Italian theatres. The Mosquito was also used by the RAF in the South East Asian theatre, and by the Royal Australian Air Force (RAAF) based in the Halmaheras and Borneo during the Pacific War.

 

By the early-mid-1930s, de Havilland had a reputation for innovative high-speed aircraft with the DH.88 Comet racer. The later DH.91 Albatross airliner pioneered the composite wood construction that the Mosquito used. The 22-passenger Albatross could cruise at 210 miles per hour (340 km/h) at 11,000 feet (3,400 m), better than the 100 miles per hour (160 km/h) Handley Page H.P.42 and other biplanes it was replacing. The wooden monocoque construction not only saved weight and compensated for the low power of the de Havilland Gipsy Twelve engines used by this aircraft, but simplified production and reduced construction time.

 

Air Ministry bomber requirements and concepts:

 

On 8 September 1936, the British Air Ministry issued Specification P.13/36 which called for a twin-engined medium bomber capable of carrying a bomb load of 3,000 pounds (1,400 kg) for 3,000 miles (4,800 km) with a maximum speed of 275 miles per hour (443 km/h) at 15,000 feet (4,600 m); a maximum bomb load of 8,000 pounds (3,600 kg) which could be carried over shorter ranges was also specified. Aviation firms entered heavy designs with new high-powered engines and multiple defensive turrets, leading to the production of the Avro Manchester and Handley Page Halifax.

 

In May 1937, as a comparison to P.13/36, George Volkert, the chief designer of Handley Page, put forward the concept of a fast unarmed bomber. In 20 pages, Volkert planned an aerodynamically clean medium bomber to carry 3,000 pounds (1,400 kg) of bombs at a cruising speed of 300 miles per hour (480 km/h). There was support in the RAF and Air Ministry; Captain R N Liptrot, Research Director Aircraft 3 (RDA3), appraised Volkert's design, calculating that its top speed would exceed the new Supermarine Spitfire. There were, however, counter-arguments that, although such a design had merit, it would not necessarily be faster than enemy fighters for long. The ministry was also considering using non-strategic materials for aircraft production, which, in 1938, had led to specification B.9/38 and the Armstrong Whitworth Albemarle medium bomber, largely constructed from spruce and plywood attached to a steel-tube frame. The idea of a small, fast bomber gained support at a much earlier stage than sometimes acknowledged though it was unlikely that the Air Ministry envisaged it not using light alloy components.

  

Project Mosquito:

 

Once design of the DH.98 had started, de Havilland built mock-ups, the most detailed at Salisbury Hall, in the hangar where E0234 was being built. Initially, this was designed with the crew enclosed in the fuselage behind a transparent nose (similar to the Bristol Blenheim or Heinkel He 111H), but this was quickly altered to a more solid nose with a more conventional canopy.

 

The construction of the prototype began in March 1940, but work was cancelled again after the Battle of Dunkirk, when Lord Beaverbrook, as Minister of Aircraft Production, decided there was no production capacity for aircraft like the DH.98, which was not expected to be in service until early 1941. Although Lord Beaverbrook told Air Vice-Marshal Freeman that work on the project had better stop, he did not issue a specific instruction, and Freeman ignored the request. In June 1940, however, Lord Beaverbrook and the Air Staff ordered that production was to focus on five existing types, namely the Supermarine Spitfire, Hawker Hurricane, Vickers Wellington, Armstrong-Whitworth Whitley and the Bristol Blenheim. Work on the DH.98 prototype stopped, and it seemed that the project would be shut down when the design team were denied the materials with which to build their prototype.

 

The Mosquito was only reinstated as a priority in July 1940, after de Havilland's General Manager L.C.L Murray, promised Lord Beaverbrook 50 Mosquitoes by December 1941, and this, only after Beaverbrook was satisfied that Mosquito production would not hinder de Havilland's primary work of producing Tiger Moth and Oxford trainers and repairing Hurricanes as well as the licence manufacture of Merlin engines. In promising Beaverbrook 50 Mosquitoes by the end of 1941, de Havilland was taking a gamble, because it was unlikely that 50 Mosquitos could be built in such a limited time; as it transpired only 20 Mosquitos were built in 1941, but the other 30 were delivered by mid-March 1942.

 

During the Battle of Britain, nearly a third of de Havilland's factory time was lost because the workers took cover in the factory's bomb shelters. Nevertheless, work on the prototype went quickly, such that E0234 was rolled out on 19 November 1940.

 

In the aftermath of the Battle of Britain, the original order was changed to 20 bomber variants and 30 fighters. It was still uncertain whether the fighter version should have dual or single controls, or should carry a turret, so three prototypes were eventually built: W4052, W4053 and W4073. The latter, both turret armed, were later disarmed, to become the prototypes for the T.III trainer. This caused some delays as half-built wing components had to be strengthened for the expected higher combat load requirements. The nose sections also had to be altered, omitting the clear perspex bomb-aimer's position, to solid noses designed to house four .303 machine guns and their ammunition.

 

Overview:

 

The Mosquito was a fast, twin-engined aircraft with shoulder-mounted wings. The most-produced variant, designated the FB Mk VI (Fighter-bomber Mark 6), was powered by two Merlin Mk 23 or Mk 25 engines driving three-bladed de Havilland hydromatic propellers. The typical fixed armament for an FB Mk VI was four Browning .303 machine guns and four 20 mm Hispano cannon while the offensive load consisted of up to 2,000 pounds (910 kg) of bombs, or eight RP-3 unguided rockets.

 

Construction:

 

The oval-section fuselage was a frameless monocoque shell built in two halves being formed to shape by band clamps over a mahogany or concrete mould, each holding one half of the fuselage, split vertically. The shell halves were made of sheets of Ecuadorean balsawood sandwiched between sheets of Canadian birch, but in areas needing extra strength— such as along cut-outs— stronger woods replaced the balsa filler; the overall thickness of the birch and balsa sandwich skin was only 7⁄16 inch (11 mm). This sandwich skin was so stiff that no internal reinforcement was necessary from the wing's rear spar to the tail bearing bulkhead. The join was along the vertical centre line. This split construction greatly aided the assembly of the internal equipment as it allowed the technicians easy access to the fuselage interior. While the glue in the plywood skin dried, carpenters cut a sawtooth joint into the edges of the fuselage shells, while other workers installed the controls and cabling on the inside wall. When the glue completely dried, the two halves were glued and screwed together. The fuselage was strengthened internally by seven bulkheads made up of two plywood skins parted by spruce blocks, which formed the basis on each half for the outer shell. Each bulkhead was a repeat of the spruce design for the fuselage halves; a balsa sheet sandwich between two plywood sheets/skins. Bulkhead number seven carried the fittings and loads for the tailplane and rudder, The type of glue originally used was Casein, which was later replaced by "Aerolite", a synthetic urea-formaldehyde, which was more durable. Many other types of screws and flanges (made of various woods) also held the structure together.

 

The fuselage construction joints were made from balsa wood and plywood strips with the spruce multi-ply being connected by a balsa V joint, along with the interior frame. The spruce would be reinforced by plywood strips at the point where the two halves joined to form the V-joint. Located on top of the joint the plywood formed the outer skin. During the joining of the two halves ("boxing up"), two laminated wooden clamps would be used in the after portion of the fuselage to act as support. A covering of doped Madapolam (a fine plain woven cotton) fabric was stretched tightly over the shell and a coat of silver dope was applied, after which the exterior camouflage was applied. The fuselage had a large ventral section cut-out, which was braced during construction, to allow it to be lowered onto the wing centre-section. Once the wing was secured the lower panels were replaced, and the bomb bay or armament doors fitted.

 

The all-wood wing was built as a one-piece structure and was not divided into separate construction sections. It was made up of two main spars, spruce and plywood compression ribs, stringers, and a plywood covering. The outer plywood skin was covered and doped like the fuselage. The wing was installed into the roots by means of four large attachment points. The engine radiators were fitted in the inner wing, just outboard of the fuselage on either side. These gave less drag. The radiators themselves were split into three sections: an oil cooler section outboard, the middle section forming the coolant radiator and the inboard section serving the cabin heater. The wing contained metal framed and skinned ailerons, but the flaps were made of wood and were hydraulically controlled. The nacelles were mostly wood, although, for strength, the engine mounts were all metal as were the undercarriage parts. Engine mounts of welded steel tube were added, along with simple landing gear oleos filled with rubber blocks. Wood was used to carry only in-plane loads, with metal fittings used for all triaxially loaded components such as landing gear, engine mounts, control surface mounting brackets, and the wing-to-fuselage junction. The outer leading wing edge had to be brought 22 inches (56 cm) further forward to accommodate this design. The main tail unit was all wood built. The control surfaces, the rudder and elevator, were aluminium framed and fabric covered. The total weight of metal castings and forgings used in the aircraft was only 280 lb (130 kg).

 

In November 1944, several crashes occurred in the Far East. At first, it was thought these were as a result of wing structure failures. The casein glue, it was said, cracked when exposed to extreme heat and/or monsoon conditions. This caused the upper surfaces to "lift" from the main spar. An investigating team led by Major Hereward de Havilland travelled to India and produced a report in early December 1944 stating that "the accidents were not caused by the deterioration of the glue but by shrinkage of the airframe during the wet monsoon season". However a later inquiry by Cabot & Myers definitely attributed the accidents to faulty manufacture and this was confirmed by a further investigation team by the Ministry of Aircraft Production at Defford which found faults in six different Marks of Mosquito (all built at de Havilland's Hatfield and Leavesden plants) which showed similar defects, and none of the aircraft had been exposed to monsoon conditions or termite attack; thus it was concluded that there were construction defects found at the two plants. It was found that the "Standard of glueing...left much to be desired”. Records at the time showed that accidents caused by "loss of control" were three times more frequent on Mosquitoes than on any other type of aircraft. The Air Ministry forestalled any loss of confidence in the Mosquito by holding to Major de Havilland's initial investigation in India that the accidents were caused "largely by climate" To solve the problem, a sheet of plywood was set along the span of the wing to seal the entire length of the skin joint along the main spar.

 

Information regarding the de Havilland DH98 Mosquito has been taken from excerpts contained on Wikipedia

 

Aston Martin Ulster Roadster (1936)

 

In 1927 Aston Martin was taken over by race driver A. C. Bertelli. He designed a 1.5-litre, SOHC engine which would eventually power the LeMans-racing Ulster. Thoughout the years the engine was devloped to include dry sump lubrication.

 

The Aston Martin Ulster stands as one of the most respected pre-war racecars. It was largely based on the Mark II which came before it.

 

The Ulster had a breif two year race program. During this time they dominated the British Tourist Trophy at Goodwood. In 1934, Ulsters took first, second and third place. The best LeMans result was achieved in 1935. Chassis LM20 raced to third overall which put it first in the 1101 to 1500cc class.

 

After the race efforts, Aston Martin readied a production version of the LeMans cars. Twenty-One of these cars were built of which all are accounted for today.

 

Aston Martin Ulster information used from:

 

www.supercars.net/cars/2084.html

 

In the 1980's a small number (7) replicas of the Aston Martin Ulster Roadster were manufactured as a kit car:

 

Fergus Mosquito (Aston Martin Ulster replica)

 

Kop Hill Climb - 25th September 2011

 

Fergus Mosquito - an Aston Martin Ulster replica.

 

Only seven were made in Kingsbridge, Devon, in the 1980s, using donor Morris Marina B-series engines and other parts.

 

UIJ233 is the best of the 7 replicas.

 

These two models, the de Havilland DH98 Mosquito aircraft and the Aston Martin Ulster Roadster of 1936 have been created in Lego miniland scale for Flickr LUGNuts' 79th Build Challenge, - 'LUGNuts goes Wingnuts" - featuring automotive vehicles named after, inspired by or related to aircraft.

DESCRIPTION

 

The main role of the Starwolf Tactical Fighter is 'First Attack Wave Suppression (FAWS)'. An attacking force will typically launch multiple fighters to engage the capital ships offensive and defensive weapon systems. Starwolves are launched to prevent this 'first wave' of attacking fighters to reach the capital ships by greatly reducing their numbers before coming into in range. The remaining enemy fighters are more easily handled by the capital ships defense network.

 

As a secondary, attack role, the Starwolf can use it's Hedgehog system to overwhelm the shields of enemy capital class ships with a single burst of 16 missiles with a synchronized impact on a specific point. Only when friendly capital ships have trouble engaging enemy capital ships will Starwolves be deployed for this role. The problem with this tactic is that Starwolves will need to be heavily supported by fighters when attacking enemy ships head on.

 

Starwolves have atmospheric flight capabilities, however this uses considerably more fuel than spaceflight. A Starwolf is incapable of landing on a planet surface.

  

STANDARD OFFENSIVE WEAPON SYSTEMS LOADOUT

 

Two 'Muger MK7' 20 mm caliber chain guns

The guns fire a mix of armor piercing incendiary tracers and high explosive rounds at a rate of 2400 rounds per minute with a spool-up time of 0.5 seconds.

 

Two 'Kurstroski-S30' 30 mm caliber cannons

The cannons fire High Explosive Dual Purpose rounds at a rate of 350 rounds per minute.

 

Four 'Spagin HE5' High Explosive Missiles

Standard multi purpose fire-and-forget missiles with proximity detection systems.

 

HAAM16 'Hedgehog' Multimissile System

Multiple 'SPIKE' missiles fired simultaneously at up to 16 targets. The missiles are guided by the Hedgehog radar system. The high maneuverability of the missiles makes them capable of evading most countermeasures while guided by the Hedgehog. The system can also be used to overwhelm the shields of capital-class vessels.

  

DEFENSIVE SYSTEMS

 

Electronic warfare pod

The pod integrated in the lower wing is outfitted with many types of electronic warfare capabilities that include field jamming (producing a stealth bubble around the ship), ghosting (projecting false data) and tactical hacking (taking control of enemy ship systems, as well as some reconnaissance abilities.

 

Starburst

The starburst system ejects multiple decoys in different directions to confuse enemy guided weapon systems.

  

--

  

NOTES

 

This was originally planned as a more standard shaped fighter. But once I started work on the engines the ship grew more in width than it did in length. Also, the placeholder dual wings looked kind of cool, so I build on that. The problem was getting it to be stable enough to be handled, and sturdy enough to hold up the cockpit section. I had a blast building it because it turned out so different than I had initially planned. Please check out the other views in the Starwolf set as they explain more than I can tell you (especially the front view).

A WW2-era P-51 Mustang and a F-22 Raptor fly in formation along the clouds over Andrews AFB.

Thanks for your visit

  

وەک کێو .. لە ناو دڵی میللەتەکەت

وەک کێو .. بەرامبەر دوژمنانی میللەتەکەت

بــە کـــەرکـــوکــدا زانــیــم،

خـــیـــانـــەت ، چـــی لـــە دڵــــی مـــرۆڤ دەکــــا..

خاک و نیشتیمان وەکو دایک وایە

ئەوەی خاک و نیشتیمانەکەی بفروشیت

وەک ئەوە وایە دایکی خوی فروشتووە

 

Today is the time for my second US Navy fighter jet, which underwent some minor changes: an F-14A Tomcat in the colors of VF-31 Tomcatters. The F-14 is one of the most demanding aircraft to build with Lego, and shortly after completing it in March 2022, I started noticing flaws that needed improvement.

 

Firstly, I changed the black nose cone of the aircraft from pointed to more rounded. Additionally, the Tomcat received new wings that are slightly smaller and more swept back, giving it a less glider-like appearance. The Phoenix missiles have been moved under the fuselage, and I also replaced the wing pylons with less bulky ones that now carry Sidewinders. Other minor changes include the front landing gear, a more rearward-sloping cockpit profile, and new decals.

Omaka Aviation Heritage Centre Focke-Wulf 190A .

Some Shmup cannon fodder... Blast away!

Dannelly Field Alabama

 

© Jason Grant - All Rights Reserved unauthorized use is strictly prohibited.

I recently received my first Brickforge order! Naturally, the first thing I did was build a steampunk tie fighter out of a gladiator visor and two shields :)

For me, boxing is a reflection on how we handle ourselves in everyday life. A fighter can only advance by scoring points if he has faith in himself. At any point when a boxer attacks he leaves himself open to a counter-attack. He can stand with a rock solid defense and be safe or he can attack and risk an opening for a counter attack.

As in the ring, we must have faith, take a risk, trust our training/instinct and believe in ourselves.

Easy quick MOC - free instructions on my YouTube

Rockets: Nuclear powered pulse rockets capable of rotating forward, backwards, and out to the sides.

 

Gyroscopes: Mounted on the sides and bottom of the Dragonfly, these can either be used to stabilize the fighter (for example, to counteract the force of the rocket's rotating) or to quickly spin the fighter to face a target.

 

Autocannon: The Dragonfly is equipped with a twin-linked pair of 20mm recoilless autocannons fed from helical magazines mounted below. ("Helix Magazine" redirects to here.)

 

Ordinance Chute: It's a chute, along with an ignition system and magnetic clamps to operate the mass torpedo.

 

Mass Torpedo: A rod of high density metal with a simple rocket system. The Mass torpedo is scored to break up on impact to impart as much force upon its target as possible- a concept similar to hollow-point bullets. The mass torpedo is also resistant to point defense, as a hit will usually break it into a number of high velocity projectiles rather than deflecting away.

 

Hangar Crane Hardpoint: The Dragonfly has a major hardpoint on the rear as well as a number of docking lugs along its undercarriage to allow it to be housed in a zero-g hangar. It could also be equipped with landing gear if appropriate for its mission.

 

Retrieval Hook: For catching a brake tether when docking.

 

Compression Harness: A pneumatic system that interlinks with the pilot's space suit, the harness is designed to reduce the physical strain of high-g maneuvers on the pilot. The air system can feed directly into the space suit to provide emergency atmosphere.

 

Reactor: A muon catalyzed fission reactor that is pre-charged before launch. The low start temperature and self limiting nature of the muon reaction proved to be ideal for small craft that could rely on a larger power source to provide catalyzing agents between missions.

 

Cockpit Canopy: The door in and out, of course, it also uses windows made of lab-grown sheets of aluminum crystals. The view ports are very small, and largely intended to be used in certain emergency scenarios, as the pilot's helmet has an internal monitor that provides the necessary visual inputs (as well as anti-nausea display lag during fast maneuvers). Similarly there is a redundant computer display in the front dashboard.

Sony a7rii 135mm F1.8 gm.

Why is this starfighter docked at a remote outpost in the barren wastes of a forgotten planet in a lost galaxy? Simple - bathroom break. Wonder how the airlock system for that type of thing works.

 

Well I wanted to try to build an r-type fighter while still maintaining an original design. It does not have the bird neck, or the droopy nose, or even the front bubble canopy, but I think the r-type vibe still hopefully comes through with the large rear end and underslung wave cannon. As always there is room for improvement.

 

This shot is almost the same angle as the last, but I believe the quality is a bit better. Also, I have added a rear bottom fin and a couple stickers for character.

    

I wanted to build a WW2 style fighter plane for my Alternate World Nation, Esthia. The result was the Barugon!

 

The Barugon was a single seat fighter armed with two 20mm auto-cannons on the wings and a powerful 37mm engine mounted gun. Equipped with a 2700hp engine, it was extremely fast and agile. It could also carry ground attack rockets and bombs.

 

About the MOC:

I wanted to build a plane that somehow resembled the Yak-3 or the Mig-3 but with a better view for the pilot. The model has retractable landing gear as usual.

The name of the plane came from one of the Monsters of the Gamera franchise. :D

 

For more pictures, please visit my Flickr page:

www.flickr.com/photos/einon/

 

Eínon

The third and the last one in the series...

Anzac Day Parade 2015 Sydney

This is not a new MOC sadly just a quick updated and revisit my old Fighter plane the FB12 FOXBAT FIGHTER Mark II. Found some old pictures and yet unpublished here.

 

Build way back in the late 2013 after I decided to upgraded the Foxbat Mark I which i thought could do better in term of design. Fold out gun cannon, landing gear, flap wing, hidden missiles below bay and LED light on the cockpit. One of the first MOC plane i did attempt to make with LED light!

 

This Foxbat was finally upgraded in2014. Another MOC version of it? Mark III? Maybe ;) Let me know what do you think?

 

FUN FACTS: Oh I did uploaded this Foxbat MOC in LEGOIdeas but couldn’t even make it to a thousand but i got a lot of good feedbacks and i do appreciated it. My MOC is one of kind.

 

LEGO MOC of Sukhoi Su-34 fighter-bomber in scale of 1:34

 

The Sukhoi Su-34 (Russian: Сухой Су-34; NATO reporting name: Fullback) is a Soviet-origin Russian twin-engine, twin-seat, all-weather supersonic medium-range fighter-bomber/strike aircraft. It first flew in 1990, intended for the Soviet Air Forces, and it entered service in 2014 with the Russian Air Force.

K.Marinović - The Fighter

  

Hello, everyone! Here is a new shot from me. I´ve been into that "film look" lately, so this is the result. Shot with Tokina 12-24 and edited in GIMP.

  

Have a great evening!

happy new year to all my muslim frens and lovely tuesday to all.....

A bit insprired by yesteryear fighters.

8.2.2015. Cockpit detail of a Mikoyan - Gurevich Mig 27K 'Flogger'.

Newark Air Museum.

This is not a new MOC sadly just a quick updated and revisit my old Fighter plane the FB12 FOXBAT FIGHTER Mark II. Found some old pictures and yet unpublished here.

 

Build way back in the late 2013 after I decided to upgraded the Foxbat Mark I which i thought could do better in term of design. Fold out gun cannon, landing gear, flap wing, hidden missiles below bay and LED light on the cockpit. One of the first MOC plane i did attempt to make with LED light!

 

This Foxbat was finally upgraded in2014. Another MOC version of it? Mark III? Maybe ;) Let me know what do you think?

 

FUN FACTS: Oh I did uploaded this Foxbat MOC in LEGOIdeas but couldn’t even make it to a thousand but i got a lot of good feedbacks and i do appreciated it. My MOC is one of kind.

 

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