View allAll Photos Tagged Refinance
I tried one method of using it. It’s the same one as Lawrence Principe uses in his book, and indeed I asked him about it a year before the book was published. He said the secret was in the temperature, or words to that effect. I had previously tried it this way but had either left it in too long or made it too hot, or maybe not had a very good quality of ‘water’. It is worth nothing that the Leyden papyrus doesn’t specify how to use this water.
So first I dipped the silver into the liquid when it was cold, and not a lot happened except that over 10 minutes in it, the silver turned slightly yellow, but left for longer and it went black. Whilst black is an alchemical colour, it isn’t the one we want here, at the end of the process.
So I heated the golden liquid until it became more red, although nowhere near boiling. Say about hand hot. A few seconds immersed in it gave this, shown with some untreated silver:
Note the shine of the metal and the apparent depth of colour.
I stuck another sample in for longer, it turned black. I’d killed it! (Silver sulphides are black, but a thin layer of them is, as you can see, gold coloured)
Which is of course a possible aim, since much reference is made to the death of metals and their resurrection in Graeco-Egyptian alchemy.
The next step in the use of this substance would probably be to seal the colour in using some kind of varnish, because now, three weeks later, the colour on the silver has faded to a slight yellow as the sulphides have evaporated or oxidised.
The next step after turning the silver black would be to melt it with other ingredients, but exactly what I am not sure.
The funny thing is that I haven’t found any later mention of this recipe than a 9/10th century Arabic text. I suspect that might be because by that time and after, both in Arabic countries and in Europe, such a superficial colour change was nothing special and had no value, since it did not lead to anything really like gold. Whereas the Egyptian alchemists were more interested in the specific colour change using divine/ sulphurous substances, themselves of important colours and unusual behaviour and so it was of great use to them.
Some of the world's most famous scientists did indeed believe iron could be turned into gold, and several of them tried desperately to make it happen for hundreds of years. Long before much of modern science became known, many early scientists were fascinated by a practice called alchemy.
Alchemy was a secret and mysterious practice that reflected a spiritual worldview very different from our modern view of science. The metals we know today as individual elements were believed by alchemists to be alive and growing underground. Metals like iron and lead were thought to be merely immature and undeveloped “early" versions of precious metals, like silver and gold.
Alchemists believed they could refine base metals into precious metals if they could just find the mythical substance they called philosopher's stone. The philosopher's stone they searched for wasn't an actual rock. Instead, it was supposedly a magical wax, liquid, or powder that could heal ailments and prolong life, as well as change base metals into precious metals.
Knowing what we do today about science, alchemy sounds crazy, doesn't it? After all, it's no surprise that alchemists ultimately failed in their quest, since the very idea of alchemy contradicts the basic laws of chemistry and physics. Rather than the atoms and elements we know today, alchemists believed everything in the world was made up of four elements: air, earth, fire, and water.
We now know that air, earth, fire, and water are not actual elements. Therefore, it's not possible to adjust the percentages of those elements within iron to turn it into gold. Despite the utter failure of alchemy to transform iron into gold, it wasn't a completely worthless pursuit. Scientists and historians now credit ancient alchemists for developing the groundwork for what would become modern chemistry.
In fact, you're probably already familiar with one of the more famous alchemists from ancient history. Ever heard of a guy named Sir Isaac Newton? That's right! Sir Isaac Newton, the guy who invented calculus and is considered the father of modern physics, was a devoted alchemist who believed at one time that he had discovered the mythical philosopher's stone.
Newton's dedication to alchemy has made modern scientists reconsider its importance in the history of the development of modern science. Many experts now agree that alchemy was an important natural step in laying the foundation for modern science. Instead of superstitious witchcraft, alchemy is now often seen as an ancient practice of early scientists trying to make sense of the world around them.
Other experts point out the many scientific advancements that can be traced back to alchemy. For example, alchemists created new alloys and manufactured acids and pigments for the first time. They also invented distillation apparatuses and conceived of atoms hundreds of years before modern atomic theory. Perhaps most importantly, though, they helped to forge the basis for the modern scientific method by repeating controlled experiments over and over.
For hundreds of years alchemists toiled in their laboratories to produce a mythical substance known as the philosopher’s stone. The supposedly dense, waxy, red material was said to enable the process that has become synonymous with alchemy—chrysopoeia, the metamorphosis, or transmutation, of base metals such as lead into gold.
Alchemists have often been dismissed as pseudoscientific charlatans but in many ways they paved the way for modern chemistry and medicine. The alchemists of the 16th and 17th centuries developed new experimental techniques, medicines and other chemical concoctions, such as pigments. And many of them "were amazingly good experimentalists,” says Lawrence Principe, a chemist and science historian at Johns Hopkins University. “Any modern professor of chemistry today would be more than happy to hire some of these guys as lab techs.” The alchemists counted among their number Irish-born scientist Robert Boyle, credited as one of the founders of modern chemistry; pioneering Swiss-born physician Paracelsus; and English physicist Isaac Newton.
But despite the alchemists’ intellectual firepower and experimental acumen, the philosopher’s stone lay forever out of reach. The problem, Principe says, is that the alchemists did not yet know that lead and gold were different atomic elements—the periodic table was still hundreds of years away. Believing them to be hybrid compounds, and therefore amenable to chemical change in laboratory reactions, the alchemists pursued the dream of chrysopoeia to no avail.
With the dawn of the atomic age in the 20th century, however, the transmutation of elements finally became possible. Nowadays nuclear physicists routinely transform one element to another. In commercial nuclear reactors, uranium atoms break apart to yield smaller nuclei of elements such as xenon and strontium as well as heat that can be harnessed to generate electricity. In experimental fusion reactors heavy isotopes of hydrogen merge together to form helium. (An element is defined by the number of protons in its nucleus whereas an isotope of a given element is determined by the quantity of neutrons.)
But what of the fabled transmutation of lead to gold? It is indeed possible—all you need is a particle accelerator, a vast supply of energy and an extremely low expectation of how much gold you will end up with. More than 30 years ago nuclear scientists at the Lawrence Berkeley National Laboratory (LBNL) in California succeeded in producing very small amounts of gold from bismuth, a metallic element adjacent to lead on the periodic table. The same process would work for lead, but isolating the gold at the end of the reaction would prove much more difficult, says David J. Morrissey, now of Michigan State University, one of the scientists who conducted the research. “We could have used lead in the experiments, but we used bismuth because it has only one stable isotope,” Morrissey says. The element’s homogeneous nature means it is easier to separate gold from bismuth than it is to separate gold from lead, which has four stable isotopic identities.
Using the LBNL’s Bevalac particle accelerator, Morrissey and his colleagues boosted beams of carbon and neon nuclei nearly to light speed and then slammed them into foils of bismuth. When a high-speed nucleus in the beam collided with a bismuth atom, it sheared off part of the bismuth nucleus, leaving a slightly diminished atom behind. By sifting through the particulate wreckage, the team found a number of transmuted atoms in which four protons had been removed from a bismuth atom to produce gold. Along with the four protons, the collision-induced reactions had removed anywhere from six to 15 neutrons, producing a range of gold isotopes from gold 190 (79 protons and 111 neutrons) to gold 199 (79 protons, 120 neutrons), the researchers reported in the March 1981 issue of Physical Review C.
The amount of gold produced was so small that Morrissey and his colleagues had to identify it by measuring the radiation given off by unstable gold nuclei as they decayed over the course of a year. In addition to the several radioactive isotopes of gold, the particle collisions presumably produced some amount of the stable isotope gold 197—the stuff of wedding bands and gold bullion—but because it does not decay the researchers were unable to confirm its presence. “The stable isotope would have to be observed in a mass spectrometer,” Morrissey says, “but I think that the number of atoms was, and is still, below the level of detection by mass spec.”
Isolating the minute quantities of gold would be even more difficult using lead as a starting material, but smashing high-speed nuclei into a lead target would indeed complete the long-sought transmutation. Some of the collisions would be expected to remove three protons from lead, or one proton from mercury, to produce gold. “It is relatively straightforward to convert lead, bismuth or mercury into gold,” Morrissey says. “The problem is the rate of production is very, very small and the energy, money, etcetera expended will always far exceed the output of gold atoms.”
In 1980, when the bismuth-to-gold experiment was carried out, running particle beams through the Bevalac cost about $5,000 an hour, “and we probably used about a day of beam time,” recalls Oregon State University nuclear chemist Walter Loveland, one of the researchers on the project. Glenn Seaborg, who shared the 1951 Nobel Prize in Chemistry for his work with heavy elements and who died in 1999, was the senior author on the resulting study. “It would cost more than one quadrillion dollars per ounce to produce gold by this experiment," Seaborg told the Associated Press that year. The going rate for an ounce of gold at the time? About $560.
If you had lived hundreds of years ago, do you think you would've wanted to be an alchemist? Be sure to explore the following interesting activities with a friend or family member:
You might not be able to turn iron into gold, but you can change the form of a simple compound you use every day. What are we talking about? Water, of course! Get an ice cube out of your refrigerator and turn it to liquid water. You can do that a number of ways. You could simply let it melt on the kitchen countertop, or you could put it in a pan and heat it up to watch it melt quickly. You will definitely need that pan if you want to turn your liquid water into a gas. Keep heating some water in a pan until it reaches the boiling point. When it does, you'll see the water in the pan turning into water vapor right before your eyes. Have fun exploring the different states of water!Want to learn more about Isaac Newton's Experiments with Alchemy? Just follow the link to watch videos of some of Isaac Newton's most famous alchemy experiments. How do you think these experiments helped Newton become the famous scientist he was? Was all of alchemy a waste of time? Why or why not?If you could turn one element into another, what would you do? Think about what elements or things you have plenty of. Then think about things that you don't have much of, but would like more of. For example, if you could do it, would you invent a machine that could change air into soda? How about vegetables into ice cream? Let your imagination run wild and write a short story about what you would do as a modern-day alchemist. Have fun and be sure to share your story with a friend or family member!
distillatio.wordpress.com/2013/05/28/how-to-use-the-divin...
Here is the story that has prompted me to post this photo, though any of you guys who know me know I don’t do this kind of shot, as a rule, but this time . . . yeah, I’m doing it. This is going to be a diatribe for justice, so skip right over this if you want. It’s probably boring to anyone who’d never had to deal with this kind of thing.
This photo was taken back in December of 2002, in Decatur, AL, with a little Sony Mavika, so it's pretty poor quality. This particular branch actually had key lights out on their sign, which prompted us to drive back by for a second disbelieving look and a shot!
Many of you know that Ken & I have been working day and night with our home remodel, trying to get a refinance for the last year – roll some loans together, do a payoff and have money to finish work on the house, since I have not worked since Jamie passed away, and things are tight. We’ve done almost ALL of the work ourselves- like tiling. (HA! in spite of a broken arm AND sitting in grout!) We have persevered; we have worked hard. We finally finished work on the kitchen and on the small bathroom that we totally gutted. FINALLY met the details demanded by the appraiser and the bank. (3rd time’s a charm, right?)
SO! Here’s the deal- almost a year later and we closed on our refinance loan last week. We expected we would be taking a check with us at closing, or at least a deposit slip - instead, we were told No, the bank (“ass Bank”- aka “Compass Bank”) would not release the funds for several days- yes, AFTER Christmas – well how nice . . . SO . . . We requested a direct deposit. Ken checked our account online again yesterday- a deposit had been made but the amount was short by almost $4000!! WTF??!
They have held up our money already, and now the amount is wrong?! Our funds and loans are insignificant to them; they are monumental to us.
Ken emailed and called our bank representative to tell her that the payoff amount was incorrect, which made the deposit to us incorrect. She agreed that it seemed like a large difference and we should check with the closing attorney’s office. Yes, we DID! The closing attorney said the amount deposited was what the bank had sent through them due to a change in one of the figures- that our loan payoffs were more than what was shown, so the deposit amount to us was less. HUH? Our loan payoff amount had NOT changed!!
Are you sensing further scuffling? We were advised to call another lady in another part of the bank. She said she had no idea where the lawyer’s office had gotten the figure. Hmmmm- they got it from the bank! Of course! (Read “ass bank” here!)
Ken checked our account again- checked what the payoff for our loan consolidations showed there- yet a different number appeared as the payoff amount! NO JOKE!
Making a further call to the payoff departmen, Ken was advised that yes, that appeared to be some error “somewhere,” and probably with the attorney’s office . . . Are you getting this? and then this guy gave Ken a 4th and different amount!!
We try to be careful with our money, try to be aware of what goes where and how much it was. Aren’t banks PAID for that sort of thing? Numbers, amounts?
Now, I don’t know about you guys, but if I shorted the bank by $4000, you can bet they would have their money back, collect interest AND double interest in the quickest manner possible! If you were a teller or window clerk at the bank and made a mistake of that size, your job would be in jeopardy. But if they short you, you will have to battle for money that was already YOURS! You will NOT pass GO- you will NOT Collect $100 (or $4000) until the “ass Bank” says you will!
OH! And yes, a correction “of some sort” will be made by the “ass Bank.” Yes, they will cut a check this time and mail it- no direct deposit for errors- even of $4000 worth. And Oh Yeah- it should get to us within three weeks, or please let us know . . . !! You have got to be kidding me! I am sure there will be no "I'm really sorry we don't have our act together" message. No shame in doing a shoddy crappy job at what they are paid to do! Just amazing!
Do you know how much money financial institutions must be making in interest from money they withhold from costumers EVERY day, for a day, a week, 3 weeks? If they are doing it to us, they are doing it to many more people, and though we’re a drop in the bucket, drops add up to streams and rivers and FLOODS, and that adds up to millions of dollars they are stealing from us all!
Know the figures in your accounts, know what documents you sign, what you owe, what you pay, because the “ass Banks” of the world will not hesitate to make the mistake in their favor EVERY time! Be aware, be wary, and be SURE.
I mean, I’m just saying . . .
Fore angled view.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
Aft angle view.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
The covers of the Humble Company's road map of Texas in 1951. Most oil and gas/petrol companies produced a range of map folders either as 'giveways' or for sale at stations and outlets to assist motorists as well as provide for product placement. The mapping in this case was by the General Drafting Company.
The front cover shows Lake Texoma on the state borders of Texas and Oklahoma that was formed by the Denison Dam, completed in 1943 along with a happy family. The rear covers show a period automobile/car along with helpful uniformed attendents at a Humble station.
Chassis n° VF9SK252X0M795040
RM Sotheby's
Salles du Carrousel du Louvre
99 Rue de Rivoli
Parijs - Paris
Frankrijk - France
February 2023
Estimated : € 1.300.000 - 1.500.000
Sold After Auction
From its earliest stages in concept car form to the final Veyron storming out of Bugatti’s Molsheim atelier in 2015, the French marque’s flagship hypercar has never failed to live up to its billing. The furore dates back as early as May 1998, when Volkswagen AG bought the rights to the historic Bugatti name, sparking a whirlwind of anticipation and speculation among the world’s motoring press. The concept that came closest to the eventual production car was shown in Tokyo in 1999, with its space-age design and promising otherworldly performance that seemed impossible for the time—to an extent, the same is still true even today. Bugatti made 252 examples of the standard “16.4” coupé, but began refining the formula part-way through its lifecycle.
First shown to the public at the Pebble Beach Concours d’Elegance in 2008—three years after the Veyron entered production—the new open-topped Bugatti Veyron Grand Sport upped the ante on the world’s most incredible hypercar. Only 150 examples of the Grand Sport would be produced between 2009 and 2015—58 in Grand Sport form, 92 as the later Grand Sport Vitesse—making it markedly rarer than the conventional Veyron. The open hypercar would account just one third of the Veyron’s 450 total production figure.
In order to compensate for the car’s open-top “targa” roof, Bugatti’s engineers reinforced the chassis and fitted the car with a marginally taller windscreen with a modified rear bulkhead to help accommodate the removable top. The Grand Sport also introduced a handful of new features that would also be available on Veyron coupé sister models, including a new camera integrated with the rear-view mirror, daytime running lights, an upgraded sound system, and new wheels featuring six “horseshoe” shapes reflecting the marque signature form of the grille. The Grand Sport matched the original Veyron’s 408.47 km/h top speed, though was electronically limited to 369 km/h with the roof removed.
The example offered here was built in Molsheim in 2009, first finished in Blue Black Metallic, and is believed to have been retained by the factory until 2014, when it was sold to one of Bugatti’s valued clients. At the behest of its first private owner, the Veyron was refinished in the shade of Uni Black and Italian Red over a red leather interior that it wears today. The Bugatti was registered in England in 2017, but resold at auction in the same year, later relocating to Luxembourg. At the time of cataloguing, the odometer read 34,940 kilometres.
One of the most desirable forms of the near-mythical Veyron, the Grand Sport offers not only class-leading 400 km/h+ performance, but also the spine-tingling soundtrack of one of the greatest production engines to ever grace an automobile.
TMB 21/01/20 Painted in Cuban Air Force Colours with No. 931
Constructed as an A-26C-35-DT by Douglas at Tulsa, Oklahoma, USA.
Circa 1944
Taken on Strength/Charge with the United States Army Air Force with s/n 44-35440.
From Circa February 1954 to October 1955
Taken on Strength/Charge with the Armee de l Air with s/n 435440.
For service in Indochina.
1966
To Rock Island Oil (and) Refining Co, Wichita, KS, with c/r N6838D.
1966
Converted to a Monarch 26 by Rock Island.
Circa 2 December 1970
Certificate of airworthiness for N6838D (A-26B, 28719) issued.
2 December 1970
To Aero Union Corp, Chico, CA.
June 1971
To Conair Aviation Ltd, Abbotsford, BC, with c/r CF-MSB.
Operated as fire service #325.
26 July 1974
Civil registration, N6838D, cancelled.
1977
To Conair Aviation Ltd, Abbotsford, BC, with c/r C-FMSB.
By 5 June 1986
Operated as fire service #25.
To National Museum of the United States Air Force Loan Program, Wright Field, Dayton, OH.
View the Location Dossier
To Wings Over Miami Museum, Kendall Tamiami Executive Airport, Miami, FL.
Markings added: 931
15 July 1995
Markings Applied: BG-O, 435440
Markings Applied: 931, 931 FAL
Displayed as a Bay of Pigs Memorial. Painted in a Cuban Air Force colour scheme. Bay of Pigs Memorial
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Australasian Sugar Refining Company complex 1891, 1899 at conversion to apartments in the 1980s.
Designers: Hyndman and Bates.
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`The site of the factory was included in Section 2B [of the original Port Melbourne survey], which was surveyed into four allotments early in the history of Sandridge. By November 1860 three of these had been purchased by A. Ross, joining William Jones, S.G. Henty and P. Lalor as owners of the section (2)..
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In February 1890, the Melbourne Tram and Omnibus Company Limited, had stables, offices, land and an omnibus repository on the section.(3) [Most of the present buildings on the site date from 1891, when the Australasian Sugar Refining Company established a refinery.(4)] On the MMBW detail plan dated 1894, the section is labelled 'sugar works' and the configuration of buildings approximately conforms with the present layout. [The refinery was closed in 1894 following its purchase by the Colonial Sugar Refining Company as part of a move to strengthen its monopoly.].
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[In 1899, Robert Harper and Company Pty Ltd converted the buildings to a starch factory, and various brick additions were constructed to designs by Hyndman and Bates, architects.(5)] When the sewerage was connected in 1899, a plan was drawn by the architects and this closely resembles the 1894 MMBW detail plan configuration. (6) .
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The buildings .. form the major part of the original factory complex on the site, one of the largest nineteenth century industrial sites in Victoria. The complex as a whole is significant for its large size and range of building types. The dramatic massing and height of the 9 Beach Street buildings gives them additional importance as local landmarks as viewed both from the surrounding streets and the sea..
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COMPARATIVE ANALYSIS.
The former Australasian Sugar Refining Company and Robert Harper starch factory complex can be compared with a number of other large nineteenth century industrial complexes in Melbourne. These include the former Yorkshire Brewery, Wellington Street, Collingwood (from 1876), the former Victoria Brewery, Victoria Parade, East Melbourne (established 1854), the former Kimpton's Flour Mill, Elizabeth Street, Kensington, the Thomas Brunt flour mill and Brockhoff and T.B. Guest biscuit factories complex, Laurens and Munster Streets, North Melbourne (from 1888-9) and the Joshua Bros (now CSR) sugar refinery, Whitehall Street, Yarraville (established 1873). All of these are representative of the development in Victoria of the manufacture of foodstuffs and related raw materials. Of these, the CSR refinery is the most directly comparable in terms of original function and the scale and massing of the buildings. Established significantly earlier than the Port Melbourne refinery, the site is larger and more intact..
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In the local context, the only other surviving industrial site of comparable scale is the Swallow and Ariell Biscuit Factory complex (q.v.). This complex is of state significance, and is considerably earlier, with parts dating from the 1850s. The predominantly two- and three-storey buildings, however, are of a different type to the former refinery and starch factory buildings..
Allom Lovell and Associates 1995 cite Jacobs Lewis Vines. Port Melbourne Conservation Study:.
Croatian oil refining worker contemplating future. Refining in the Europe is slowly becoming dying industry.
Stored since it was taken to Malmo early December 2021 , it may be awaiting renovation once a new home is found for it with 21 MEs placed out on lease and 11 remaining available including ME 1537 which was in the 2nd batch taken ie 7th 8th and 9th of 32 MEs acquired
refining details:
"Now that the clay has dried out and the sculpture is able to support itself I can take the time to carefully refine some details and make it all smoother. If the sculpture was larger, the next task would be to hollow it out, but because of the small size I am going to mount it on a stand as it is." Tomitheos .
Copyright © 2011 Tomitheos Sculpture / Photography - All Rights Reserved
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Press full size image (L)
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Sobhan Allah and Bhmdh .. Sobhan Allah Almighty
No God but God and Mohammed is the Messenger of Allah
Oh God, you should praise your greatness for Jalal
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Thank you and thank all who helped me on the success of this action
^ ^
I thank everyone who supported me to refine my talent and development of modern
I thank everyone who stood by me and share my joy with graphic
I thank everyone who gave me his glove
Thank you for all the Filkr J, Li Damtwoona your responses to me and me with your words Chdjaakm
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My work belongs to all without enrollment rights
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[Will]
Replies to delete the attached image
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عمآير فيِ دوله قطر ..
مادري وش اسمها ><"
بس شكلها جذبني كثير
قطر ماشاء الله تتطورت للاحسن ..
الله يديمها كذا واحسن ^^
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ب نقدكم ارتقي ..
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ارعص (L) ل تكبير الصورة ض1
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سبحان الله وبحمدة .. سبحان الله العظيم
لا اله الا الله محمد رسول الله
اللهم لك الحمد كما ينبغي ل جلال عظمتك
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Cam : Canon D550
Lens:55-18
iso 100
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أشكركمَ وأشكر كل من سـآعدني على نجـآح هذآ العملَ
^^
أشَكر كل من دعمني على صًقل موهبتي الحديثهَ وتنميتهَـآ
أشكر كل من وقف معيِ , وشَـآركني بِ فرحه تصويري
أشكر كل منَ أهدآني كلمَـآته الحَـآنيه
أشكركم يَ أل الفلكر , اللي دعمتووني بِ ردودكم ليِ وتشجعيكم لي بِ كلمَـآتكمَ
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تحذف الردود المرفقه بِ صوره
From Avatar the Last Airbender. This one has proved difficult to refine, but I think I finally got it.
Golly. I've been refining this model for nearly ten years.
The latest iteration, apart from incorporating some newer, more useful parts, borrows a technique for closing off the lower part of the intakes from Caleb Ricks (www.flickr.com/photos/154269403@N05/). However, I came up with a slightly smoother way to attach the tiles that I'm quite happy about. The downside is that this has meant the intakes don't close up as neatly (the locking brick has moved further back). I'll have to see if I can adjust that at some point without losing too much structural stability.
Work in progress:
refining and detailing a little porcelain hand.
Рабочий процесс:
обработка и деталировка фарфоровой ручки.
These biscuits are leftover from last night's visit to the Cracker Barrel! We cut them in half, spread a little butter on the open layers, and added a bit of cheese to some. This is a delicious way to not waste leftover biscuits!
If you read the following information, you will learn about the cathead biscuit! We had one of those four days ago for the first time at the Tupelo Honey Restaurant in Chattanooga, Tennessee. It was wonderful and I plan to make some sometime! There are many recipes online!
[Source: Texas Chicken and Burgers Website - The word Biscuit originates from the French “bis” (‘twice’) “cuit” (‘cooked’.) This extremely dry and hard food was a staple for soldiers and sailors, due to it’s inherent preservability. During the time of the French King Louis XIV, biscuits eaten by soldiers was known as ‘stone bread’, and soldier’s biscuits in the British army were known as ‘hardtack.’ These were essentially portable crackers with very long shelf lives. Later, ‘animalized’ biscuits were made with meat juices. Additionally Travelers Biscuits were made to keep for long periods of time when wrapped in tin foil.
Biscuits have been a staple of the Southern table since the middle 1700s. This classic bread is made in tons of ways, including the very hard to create beaten biscuit (made by beating air into the dough with a rolling pin or mallet with 100 strokes,) the buttermilk biscuit, and the drop biscuit. In 1875, an African American grocery store owner named Alexander P. Ashbourne created a biscuit cutter. This spring loaded device was made of a board to load and drop off biscuits and a many-shaped metallic plate. The plate could cut the dough into custom shapes. Ashbourne went on to patent other inventions that were used to prepare, treat, and refine coconut oil to usein home kitchens. The original Southern buttermilk biscuit was the size of a cat’s head, and was made by pinching off portions of dough, rolling it into a ball, and placed in a small iron skillet.]
Port aft section view showing main engine, fuel tanks, armor panels, hangar, and part of the cargo pod clamps.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
Ventral angled view.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
Dorsal/starboard view showing medium mining drone docking.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
Port closeup view of the hangar showing Hurricane class heavy shuttles and fighter/bomber.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
Port/ventral view showing forges and heavy drones.
Name: S.S. Bessemer
Registration Number: KCC-1894 (Kolter Construction Contract Number 1,894)
Affiliation: Kolter Mining, Refining, and Fuel.
Class Name: Bessemer class
Type: Deep Space Mining Operations Flagship
Commissioned: Circa late 2500’s, post recent major conflict
Specifications:
Length: 1,844 meters (184.4 studs, 58.1 inches, 4.83 feet, 147.5 cm model)
Width: 503 meters (50.3 studs, 15.8 inches, 40.2 cm model)
Height: 484 meters, 398 meters without dorsal comms array, (48.4 studs, 15.2 inches, 38.7 cm model)
Crew: 2,950 standard complement + capacity for crew families, as well as smaller guest quarters for up to 2,000 additional personnel to be moved to/from mining operations.
Armament: 1 super-heavy coaxial particle beam cannon, (primarily for asteroid mining, but also more than capable of defensive action,) 4 dual-mounted heavy particle cannon turrets, 8 dual-mounted medium particle cannon turrets, 2 coaxial fore medium particle cannons, 80 quad-mounted 80mm anti-fighter flak railgun turrets.
Defensive systems:
Hull: Super-heavy steel alloy hull with carbon nanotube/buckypaper composite layers as spall lining.
Armor plating: steel, titanium alloy, tungsten, ceramic, and carbon nanotube composite armor layers against asteroids/other space debris, kinetic weapons, kinetic spalling, particle, laser, and plasma fire. Thick composite armor provides excellent survivability, but with very high mass. Some battleships are less armored than this ship.
Bulkheads: Extensive titanium bulkhead support network.
Structural integrity field: High power system designed for significant cargo mass placing stress on the frame, or to withstand asteroid impacts to the hull.
Shielding: Internally housed high power adaptive particle field repulsing shielding system capable of surviving significant punishment. Some older battleships have less robust shielding.
Powerplant: 1 primary matter-antimatter reactor with extensive fuel reserves, 2 secondary fusion reactors with extensive fuel reserves. Multiple massive power capacitors. Extensive heatinks.
Propulsion: 1 massive primary fusion engine for sub-lightspeed travel, 1 internal FTL core capable of moderate FTL speed, long range travel, and 32 large reaction control thrusters for slow but dependable below light speed maneuvering.
Computer systems: Single supercomputer core with onboard Virtual Intelligence system.
Comms and Sensors: Local and FTL comms arrays. Radar, LIDAR, infrared, multi-spectral, and additional other local area sensors systems, along with extensive FTL sensors.
Additional Systems: High power artificial singularity for both artificial gravity generation and inertial dampening, allowing for 1G gravity even when hauling an entire cargo hold full of heavy-metal. 6 massive blast furnaces for refining metal ore, an enormous central cargo hold system, 4 fuel refining tanks, 4 massive fuel storage tanks, and an internal rail system for moving ore and personnel.
Embarked Craft: 2 Thunderbird class super-heavy cargo/personnel shuttles, 2 Hurricane class heavy cargo/personnel shuttles, 20 heavy mining drones, 24 medium mining drones, 2 gunships of variable class, 2 heavy fighter/bombers of variable class, potential for multiple additional light shuttles and fighters.
Background: After seeing both the devastation to outlying areas of space caused by the recent Great War, and the corruption within the Federal Defense Navy (working title) Admiralty, Captain David Courtland retired honorably from military service and went to helm his family’s generations old mining company, Kolter Mining, Refining, and Fuel; one of the largest mining companies in United Earth Federation space. (Working title.)
He wanted to take the company, already a reputable and successful business, in a new direction. That direction was the disputed, war-torn, no-man’s-waste-land of space known as The Divide, (working title) situated between the major powers of the galaxy. Life in The Divide was desperate, with little hope for the many people stranded in the ruins, poverty, and crime infested land. None of the major powers could intervene without starting another territorial war, and as such, pirates, gangs, and unscrupulous mega-corporations ruled supreme.
Courtland wanted to make a difference to this sorrowful place, and with trillions of credits and a Fortunes 1,000 company at his control, he had the means to at least begin; although even he lacked the ability to single-handedly remedy the myriad of woes The Divide faced.
David’s plan was simple, to move significant mining operations to The Divide, thus:
1: Creating new, safe, well-paying, good jobs for both an area and an industry that seldom offered such things.
2: Allowing for the placement of company security forces to deter pirate activity around major settlements.
3: Providing tax-free revenue to fund new schools, hospitals, food, water, shetler, and other charitable activities in The Divide.
But to do it, he required a new kind of mining vessel, as well as additional security forces. Thus he contacted Nelson Heavy Industries, who in turn partnered with AxonTech Interstellar Systems for some components, to place an order for a line of custom massive deep space mining operation flagships with enhanced combat capabilities and capable of operating in the remotest reaches of space for months or even years at a time. And so the Bessemer class was born.
The Bessemer class is unlike any mining vessel ever produced before it. Certainly significantly larger mining ships existed, but these were typically little more than unarmed, slow moving things with small engines; closer to a semi-mobile starbase than a combination frontier battleship/mining vessel. But Courtland required something unique. Something that could move faster, survive more punishment, and something that had teeth; not a fragile, barely moving thing that would only sit in safe areas of space. Courtland needed a mighty sheepdog in a world of sheep and wolves.
Bessemer class vessels are 1,844 meters long, and possess more armor, firepower, and shielding than many pre Great War battleship designs. Almost any pirate or local gang would be terrified of the sight of over a mile of steel and particle cannons; clad in Kolter white, green, and yellow.
But the Bessemer, and others of her class, are not merely warships masquerading as civilian craft. They are heavy mining machines that live up to their name; a steel producing process that revolutionized the industry of Earth some seven hundred years earlier. The Bessemer and her sister ships are capable of blasting metal-rich asteroids to bits with their coaxial mining particle beam cannon, and then having swarms of automated mining drones devour any valuable deposits within before unloading the materials into the Bessemer’s ore hold for the internal rail system to run any raw ore through her six corvette sized forges, and then having the refined metal shunted to her cavernous lower hold, while any waste material from the refining process is vented directly into space.
Ships of this class are outfitted with a sizable hangar, advanced sensor suite, extensive internal cargo bays, and large cargo pod clamps that allow it to act in the capacity of miner, defensive ship, operations command center, and even freighter and personnel carrier should usual shipping to outlying mining sites be disrupted.
But capable as they are, these are not the spartan mining vessels with unlivable working conditions that some shady companies have been known to operate. These space-faring cities of steel feature robust safety systems, spacious and comfortable crew quarters, multiple restaurants, multiple mess-halls, multiple shops for clothing, food, electronics, and other items, an arcade, multiple gyms with weights, various weight and cardio machines, martial arts areas, gymnastics equipment, along with a walking track, a small bowling alley, an olympic sized swimming pool, a multi-sport stadium, a greenhouse, hydroponics bays, a small stage/concert area, several computer labs, a library, a small movie theater, crew lounges and break areas, a salon/spa, a bar/club, chapels, classroom/daycare areas, office areas, as well as repair stations, enough dry and frozen storage to keep everyone fed for extended missions, advanced workshops, astrotography, laboratories, guest bunk-rooms, and a starbase grade medical center.
Not everyone is happy about Kolter Mining’s efforts, however. While Courtland founded the Kolter Foundation to aid those in need, he also lobbied for what came to be known as the Kolter Bill to be passed. Mining employees out in the colonies loved the added protections this afforded them. But the executives of Kolter’s rival mining companies operating out of Earth’s colony worlds quickly found themselves facing laws that favored the profits of Kolter and their already developed safety systems and excellent treatment of employees. What’s more, the Federal Defense Navy Admiralty have been continually frustrated that rather than helping to line their pockets as part of the military industrial complex, Courtland has been working tirelessly to reveal their corruption and hidden support of crime in outlying areas of space.
What’s more, there are even rumors that Courtland is now working with, and possibly even helping to fund, a mercenary vigilante unit out in The Divide known as the Phoenix Command Group, founded by Jonathan Scarlett, another former Federal Defense Navy Captain who ran afoul of the Admiralty.
The wealthy and corrupt among the Admiralty, military industrial complex, crime syndicates, and corrupt businesses running shady operations out in The Divide are deeply troubled by these rumors. But those who are now citizens of no nation, and who have known nothing but hopelessness and need for years, have a slight spark of hope rising like a Phoenix.
IRL info: This digital SHIP was made in Bricklink’s Studio software from September 11th to September 30th, 2021. I did not originally plan to participate in SHIPtember, but I couldn’t resist. It is 184 studs (58.1 inches) long, 50 studs wide, and 48 studs high. It is comprised of 23,470 pieces, which I believe makes it my highest piece-count SHIP to date, and means that the model itself has a mass of 973.502 ounces, or 60.843 pounds, or 27.597 kilograms, which most likely makes it my heaviest SHIP as well as my most piece intensive. (I really need to learn to build a little more hollow.) Note that it uses all real pieces/colors that are available for sale on Bricklink. (Albeit at a price that makes attempting to build it in physical bricks highly impractical.) It is 100% connected, and should be at least somewhat stable in real life. I would want to reinforce the fore-end with more Technic, and switch out the longest Lego Technic axle holding the engine for an aftermarket stainless steel version. I cannot guarantee that various sections built out from the main SNOT and Technic frame would be totally stable without slight redesign of a few bits. It would also require a hefty display stand of some kind.
The current pictures are WIP to show the completed status of the build itself. Better renders done by importing the Studio build into Mecabricks, replacing any pieces that fail to load or change position, and then exporting to Blender for higher quality rendering, and finally hopefully doing some cool backgrounds with GIMP, will hopefully follow before whatever October picture deadline is decided on. Please do not use these early pictures in the poster if time remains, as I hope to provide better ones. Thank you for reading this lengthy description. Have a cookie.
If this ship had a theme song, this magnificent piece by Clamavi De Profundis would be it: youtu.be/Xm96Cqu4Ils
I decided to do a shot of Rumblemumbles, so dug in the archives and found this one from Dec 2008.
I really liked the photo, but the background was very vanilla and was horrible. I can't even remember where we took it.
In order to transport her to a new level, it is first necessary to "extract" her from the original, and the difficulty in that varies depending on edges, so if you want to make your editing life easier, always have children with thick black straight hair that isn't wispy.
I decided to use a new tool in PS CS5 called Cutout And Refine Edge. You can see a tutorial here.
This new selection tool is vastly improved on the basic selection technique, and the secret is in the user interface at the edge refining part. There are various preview modes and adjustments available in the refining popup, making the final selection so much easier than in earlier versions.
I have seen 3rd party software that did a good job on selections, such as Fluid Mask, but this new PS tool makes it possible to complete without leaving PS, and will probably be the demise of those 3rd party efforts.
The edges of hair is always tricky and this was no exception, but the result isn't too bad.
After finalising the selection where she was extracted from the vanilla essence, I added a new gradient layer behind the cutout, using a plain reverse radial black and white gradient, as you can see here.
This provides a nice highlight background with a wonderful contrast to the pink top.
Yes, we do miss her since she left the nest, but she has made a great effort to visit and call a lot, so we have got used to her absence.
The original vanilla flavoured shot is below. Note I also increased the size of the canvas (not the image) to give it balance.
Isn't she CUTE
Indian Railways (reporting mark IR) is an Indian state-owned enterprise, owned and operated by the Government of India through the Ministry of Railways. It is one of the world's largest railway networks comprising 115,000 km of track over a route of 65,808 km and 7,112 stations. In 2014-15, IR carried 8.397 billion passengers annually or more than 23 million passengers a day (roughly half of whom were suburban passengers) and 1058.81 million tons of freight in the year.On world level Ghaziabad is the largest manufacturer of Railway Engines. In 2014–2015 Indian Railways had revenues of ₹1634.50 billion (US$25 billion) which consists of ₹1069.27 billion (US$16 billion) from freight and ₹402.80 billion (US$6.1 billion) from passengers tickets.Railways were first introduced to India in the year 1853 from Mumbai to Thane. In 1951 the systems were nationalised as one unit, the Indian Railways, becoming one of the largest networks in the world. IR operates both long distance and suburban rail systems on a multi-gauge network of broad, metre and narrow gauges. It also owns locomotive and coach production facilities at several places in India and are assigned codes identifying their gauge, kind of power and type of operation. Its operations cover twenty nine states and seven union territories and also provides limited international services to Nepal, Bangladesh and Pakistan.Indian Railways is the world's seventh largest commercial or utility employer, by number of employees, with over 1.334 million employees as of last published figures in 2013 . As for rolling stock, IR holds over 245,267 Freight Wagons, 66,392 Passenger Coaches and 10,499 Locomotives (43 steam, 5,633 diesel and 4,823 electric locomotives). The trains have a 5 digit numbering system and runs 12,617 passenger trains and 7421 freight trains daily. As of 31 March 2013, 21,614 km (32.8%) of the total 65,808 km route length was electrified. Since 1960, almost all electrified sections on IR use 25,000 Volt AC traction through overhead catenary delivery.
HISTORY
The history of rail transport in India began in the mid-nineteenth century. The core of the pressure for building Railways In India came from London. In 1848, there was not a single kilometre of railway line in India. The country's first railway, built by the Great Indian Peninsula Railway (GIPR), opened in 1853, between Bombay and Thane. A British engineer, Robert Maitland Brereton, was responsible for the expansion of the railways from 1857 onwards. The Allahabad-Jabalpur branch line of the East Indian Railway had been opened in June 1867. Brereton was responsible for linking this with the GIPR, resulting in a combined network of 6,400 km. Hence it became possible to travel directly from Bombay to Calcutta. This route was officially opened on 7 March 1870 and it was part of the inspiration for French writer Jules Verne's book Around the World in Eighty Days. At the opening ceremony, the Viceroy Lord Mayo concluded that "it was thought desirable that, if possible, at the earliest possible moment, the whole country should be covered with a network of lines in a uniform system".
By 1875, about £95 million were invested by British companies in India. Guaranteed railways. By 1880 the network had a route mileage of about 14,500 km, mostly radiating inward from the three major port cities of Bombay, Madras and Calcutta. By 1895, India had started building its own locomotives, and in 1896, sent engineers and locomotives to help build the Uganda Railways.
In 1900, the GIPR became a government owned company. The network spread to the modern day states of Assam, Rajputhana and Madras Presidency and soon various autonomous kingdoms began to have their own rail systems. In 1905, an early Railway Board was constituted, but the powers were formally vested under Lord Curzon. It served under the Department of Commerce and Industry and had a government railway official serving as chairman, and a railway manager from England and an agent of one of the company railways as the other two members. For the first time in its history, the Railways began to make a profit.
In 1907 almost all the rail companies were taken over by the government. The following year, the first electric locomotive made its appearance. With the arrival of World War I, the railways were used to meet the needs of the British outside India. With the end of the war, the railways were in a state of disrepair and collapse. Large scale corruption by British officials involved in the running of these railways companies was rampant. Profits were never reinvested in the development of British colonial India.
In 1920, with the network having expanded to 61,220 km, a need for central management was mooted by Sir William Acworth. Based on the East India Railway Committee chaired by Acworth, the government took over the management of the Railways and detached the finances of the Railways from other governmental revenues.
The period between 1920 and 1929, was a period of economic boom; there were 66,000 km of railway lines serving the country; the railways represented a capital value of some 687 million sterling; and they carried over 620 million passengers and approximately 90 million tons of goods each year. Following the Great Depression, the railways suffered economically for the next eight years. The Second World War severely crippled the railways. Starting 1939, about 40% of the rolling stock including locomotives and coaches was taken to the Middle East, the railways workshops were converted to ammunitions workshops and many railway tracks were dismantled to help the Allies in the war. By 1946, all rail systems had been taken over by the government.
ORGANISATIONAL STRUCTURE
RAILWAY ZONES
Indian Railways is divided into 16 zones, which are further sub-divided into divisions. The number of zones in Indian Railways increased from six to eight in 1951, nine in 1966 and seventeen in 2003. Each zonal railway is made up of a certain number of divisions, each having a divisional headquarters. There are a total of sixty-eight divisions.
Each zone is headed by a general manager, who reports directly to the Railway Board. The zones are further divided into divisions, under the control of divisional railway managers (DRM). The divisional officers, of engineering, mechanical, electrical, signal and telecommunication, accounts, personnel, operating, commercial, security and safety branches, report to the respective Divisional Railway Manager and are in charge of operation and maintenance of assets. Further down the hierarchy tree are the station masters, who control individual stations and train movements through the track territory under their stations' administration.
RECRUITMENT AND TRAINING
Staff are classified into gazetted (Group 'A' and 'B') and non-gazetted (Group 'C' and 'D') employees. The recruitment of Group 'A' gazetted employees is carried out by the Union Public Service Commission through exams conducted by it. The recruitment to Group 'C' and 'D' employees on the Indian Railways is done through 20 Railway Recruitment Boards and Railway Recruitment Cells which are controlled by the Railway Recruitment Control Board (RRCB). The training of all cadres is entrusted and shared between six centralised training institutes.
ROLLING STOCK
LOCOMOTIVES
Locomotives in India consist of electric and diesel locomotives. The world's first CNG (Compressed Natural Gas) locomotives are also being used. Steam locomotives are no longer used, except in heritage trains. In India, locomotives are classified according to their track gauge, motive power, the work they are suited for and their power or model number. The class name includes this information about the locomotive. It comprises 4 or 5 letters. The first letter denotes the track gauge. The second letter denotes their motive power (Diesel or Alternating - on Electric) and the third letter denotes the kind of traffic for which they are suited (goods, passenger, Multi or shunting). The fourth letter used to denote locomotives' chronological model number. However, from 2002 a new classification scheme has been adopted. Under this system, for newer diesel locomotives, the fourth letter will denote their horsepower range. Electric locomotives don't come under this scheme and even all diesel locos are not covered. For them this letter denotes their model number as usual.In world level Ghaziabad is the largest manufacturer of Locomotive.
A locomotive may sometimes have a fifth letter in its name which generally denotes a technical variant or subclass or subtype. This fifth letter indicates some smaller variation in the basic model or series, perhaps different motors, or a different manufacturer. With the new scheme for classifying diesel locomotives (as mentioned above) the fifth item is a letter that further refines the horsepower indication in 100 hp increments: 'A' for 100 hp, 'B' for 200 hp, 'C' for 300 hp, etc. So in this scheme, a WDM-3A refers to a 3100 hp loco, while a WDM-3D would be a 3400 hp loco and WDM-3F would be 3600 hp loco.
Note: This classification system does not apply to steam locomotives in India as they have become non-functional now. They retained their original class names such as M class or WP class.
Diesel Locomotives are now fitted with Auxiliary Power Units which saves nearly 88% of Fuel during the idle time when train is not running.
GOODS WAGONS
The number of goods wagons was 205,596 on 31 March 1951 and reached the maximum number 405,183 on 31 March 1980 after which it started declining and was 239,321 on 31 March 2012. The number is far less than the requirement and the Indian Railways keeps losing freight traffic to road. Indian Railways carried 93 million tonnes of goods in 1950–51 and it increased to 1010 million tonnes in 2012–13.
However, its share in goods traffic is much lower than road traffic. In 1951, its share was 65% and the share of road was 35%. Now the shares have been reversed and the share of railways has declined to 30% and the share of road has increased to 70%.
PASSENGER COACHES
Indian railways has several types of passenger coaches.
Electric Multiple Unit (EMU) coaches are used for suburban traffic in large cities – mainly Mumbai, Chennai, Delhi, Kolkata, Pune, Hyderabad and Bangalore. These coaches numbered 7,793 on 31 March 2012. They have second class and first class seating accommodation.
The coaches used in Indian Railways are produced at Integral Coach Factory, Rail Coach Factory.Now,they are producing new LHB coaches.
Passenger coaches numbered 46,722 on 31 March 2012. Other coaches (luggage coach, parcel van, guard's coach, mail coach, etc.) numbered 6,560 on 31 March 2012.
FREIGHT
Indian Railways earns about 70% of its revenues from freight traffic (₹686.2 billion from freight and ₹304.6 billion from passengers in 2011–12). Most of its profits come from transporting freight, and this makes up for losses on passenger traffic. It deliberately keeps its passenger fares low and cross-subsidises the loss-making passenger traffic with the profit-making freight traffic.
Since the 1990s, Indian Railways has stopped single-wagon consignments and provides only full rake freight trains
Wagon types include:
BOXNHL
BOBYN
BCN
BCNHL
TECHNICAL DETAILS
TRACK AND GAUGE
Indian railways uses four gauges, the 1,676 mm broad gauge which is wider than the 1,435 mm standard gauge; the 1,000 mm metre gauge; and two narrow gauges, 762 mm and 610 mm. Track sections are rated for speeds ranging from 75 to 160 km/h.
The total length of track used by Indian Railways is about 115,000 km while the total route length of the network is 65,000 km. About 24,891 km or 38% of the route-kilometre was electrified, as of 31 March 2014.
Broad gauge is the predominant gauge used by Indian Railways. Indian broad gauge - 1,676 mm - is the most widely used gauge in India with 108,500 km of track length (94% of entire track length of all the gauges) and 59,400 km of route-kilometre (91% of entire route-kilometre of all the gauges).
In some regions with less traffic, the metre gauge (1,000 mm) is common, although the Unigauge project is in progress to convert all tracks to broad gauge. The metre gauge has about 5,000 km of track length (4% of entire track length of all the gauges) and 4,100 km of route-kilometre (7% of entire route-kilometre of all the gauges).
The Narrow gauges are present on a few routes, lying in hilly terrains and in some erstwhile private railways (on cost considerations), which are usually difficult to convert to broad gauge. Narrow gauges have 1,500 route-kilometre. The Kalka-Shimla Railway, the Kangra Valley Railway and the Darjeeling Himalayan Railway are three notable hill lines that use narrow gauge, but the Nilgiri Mountain Railway is a metre gauge track. These four rail lines will not be converted under the Unigauge project.
The share of broad gauge in the total route-kilometre has been steadily rising, increasing from 47% (25,258 route-km) in 1951 to 86% in 2012 whereas the share of metre gauge has declined from 45% (24,185 route-km) to 10% in the same period and the share of narrow gauges has decreased from 8% to 3%. About 24,891 route-km of Indian railways is electrified.
Sleepers (ties) are made up of prestressed concrete, or steel or cast iron posts, though teak sleepers are still in use on a few older lines. The prestressed concrete sleeper is in wide use today. Metal sleepers were extensively used before the advent of concrete sleepers. Indian Railways divides the country into four zones on the basis of the range of track temperature. The greatest temperature variations occur in Rajasthan.
RESEARCH AND DEVELOPMENT
Indian Railways has a full-fledged organisation known as Research Designs and Standards Organisation (RDSO), located at Lucknow for all research, designs and standardisation tasks.
In August 2013, Indian Railways entered into a partnership with Indian Institute of Technology (Madras) to develop technology to tap solar energy for lighting and air-conditioning in the coaches. This would significantly reduce the fossil fuel dependency for Indian Railways.
Recently it developed and tested the Improved Automated Fire Alarm System in Rajdhani Express Trains. It is intended that the system be applied to AC coaches of all regular trains.
CURRENT AND FUTURE DEVELOPMENTS
In recent years, Indian Railways has undertaken several initiatives to upgrade its ageing infrastructure and enhance its quality of service. The Indian government plans to invest ₹905000 crore (US$137 billion) to upgrade the railways by 2020.
TOILETS ON RAILWAYS
In 2014, Indian Railways and DRDO developed a bio-toilet to replace direct-discharge toilets, which are currently the primary type of toilet used in railway coaches. The direct discharge of human waste from trains onto the tracks corrodes rails, costing Indian Railways tens of millions of rupees a year in rail-replacement work. Flushing a bio-toilet discharges human waste into an underfloor holding tank where anaerobic bacteria remove harmful pathogens and break the waste down into neutral water and methane. These harmless by-products can then be safely discharged onto the tracks without causing corrosion or foul odours. As part of its "Swachh Rail-Swachh Bharat" ("Clean Rail-Clean India") programme, Indian Railways plans to completely phase out direct-discharge toilets on its lines by 2020-2021. As of March 2015, 17,338 bio-toilets had been installed on newly built coaches, with all new coaches to have bio-toilets from 2016; older rolling stock will be retrofitted.
LOCOMOTIVE FACTORIES
In 2015, plans were disclosed for building two locomotive factories in the state of Bihar, at Madhepura (diesel locomotives) and at Marhowra (electric locomotives). Both factories involve foreign partnerships. The diesel locomotive works will be jointly operated in a partnership with General Electric, which has invested ₹2052 crore (US$310 million) for its construction, and the electric locomotive works with Alstom, which has invested ₹1293.57 crore (US$195 million). The factories will provide Indian Railways with 800 electric locomotives of 12,000 horse power each, and a mix of 1,000 diesel locomotives of 4,500 and 6,000 horsepower each. In November 2015, further details of the ₹14656 crore (US$2 billion) partnership with GE were announced: Indian Railways and GE would engage in an 11-year joint venture in which GE would hold a majority stake of 74%. Under the terms of the joint venture, Indian Railways would purchase 100 goods locomotives a year for 10 years beginning in 2017; the locomotives would be modified versions of the GE Evolution series. The diesel locomotive works will be built by 2018; GE will import the first 100 locomotives and manufacture the remaining 900 in India from 2019, also assuming responsibility for their maintenance over a 13-year period. In the same month, a ₹20000 crore (US$3 billion) partnership with Alstom to supply 800 electric locomotives from 2018 to 2028 was announced.
LINKS TO ADJACENT COUNTRIES
EXISTING RAIL LINKS
Nepal – Break-of-gauge – Gauge conversion under uni-gauge project
Pakistan – same Broad Gauge. Thar Express to Karachi and the more famous Samjhauta Express international train from Lahore, Pakistan to Amritsar (Attari).
Bangladesh – Same Broad Gauge. The Maitri Express between Dhaka and Kolkata started in April 2008 using the Gede-Darsana route, in addition to a Freight Train service from Singhabad and Petrapole in India to Rohanpur and Benapole in Bangladesh. A second passenger link between Agartala, India and Akhaura Upazila, Bangladesh was approved by the Government of Bangladesh and India in September 2011.
UNDER CONSTRUCTUION / PROPOSED LINKS
Bhutan – railways under construction – Same gauge
Myanmar – Manipur to Myanmar (under construction)
Vietnam – On 9 April 2010, Former Union Minister of India, Shashi Tharoor announced that the central government is considering a rail link from Manipur to Vietnam via Myanmar.
Thailand – possible if Burma Railway is rebuilt.
TYPES OF PASSENGER SERVICES
Trains are classified by their average speed. A faster train has fewer stops ("halts") than a slower one and usually caters to long-distance travel.
ACCOMODATION CLASSES
Indian Railways has several classes of travel with or without airconditioning. A train may have just one or many classes of travel. Slow passenger trains have only unreserved seating class whereas Rajdhani, Duronto, Shatabdi, garib rath and yuva trains have only airconditioned classes. The fares for all classes are different with unreserved seating class being the cheapest. The fare of Rajdhani, Duronto and Shatabdi trains includes food served in the train but the fare for other trains does not include food that has to be bought separately. In long-distance trains a pantry car is usually included and food is served at the berth or seat itself. Luxury trains such as Palace on Wheels have separate dining cars but these trains cost as much as or more than a five-star hotel room.
A standard passenger rake generally has four unreserved (also called "general") compartments, two at the front and two at the end, of which one may be exclusively for ladies. The exact number of other coaches varies according to the demand and the route. A luggage compartment can also exist at the front or the back. In some mail trains a separate mail coach is attached. Lavatories are communal and feature both the Indian style as well as the Western style.
The following table lists the classes in operation. A train may not have all these classes.
1A First class AC: This is the most expensive class, where the fares are almost at par with air fare. There are eight cabins (including two coupes) in the full AC First Class coach and three cabins (including one coupe) in the half AC First Class coach. The coach has an attendant to help the passengers. Bedding is included with the fare in IR. This air conditioned coach is present only on popular routes and can carry 18 passengers (full coach) or 10 passengers (half coach). The sleeper berths are extremely wide and spacious. The coaches are carpeted, have sleeping accommodation and have privacy features like personal coupes. This class is available on broad gauge and metre gauge trains.
2A AC-Two tier: These air-conditioned coaches have sleeping berths across eight bays. Berths are usually arranged in two tiers in bays of six, four across the width of the coach and two berths longways on the other side of the corridor, with curtains along the gangway or corridor. Bedding is included with the fare. A broad gauge coach can carry 48 passengers (full coach) or 20 passengers (half coach). This class is available on broad gauge and metre gauge trains.
FC First class: Same as 1AC but without air conditioning. No bedding is available in this class. The berths are wide and spacious. There is a coach attendant to help the passengers. This class has been phased out on most of the trains and is rare to find. However narrow gauge trains to hill stations have this class.
3A AC three tier: Air conditioned coaches with 64 sleeping berths. Berths are usually arranged as in 2AC but with three tiers across the width and two longways as before giving eight bays of eight. They are slightly less well-appointed, usually no reading lights or curtained off gangways. Bedding is included with fare. It carries 64 passengers in broad gauge. This class is available only on broad gauge.
3E AC three tier (Economy): Air conditioned coaches with sleeping berths, present in Garib Rath Trains. Berths are usually arranged as in 3AC but with three tiers across the width and three longways. They are slightly less well-appointed, usually no reading lights or curtained off gangways. Bedding is not included with fare.
CC AC chair car: An air-conditioned seater coach with a total of five seats in a row used for day travel between cities.
EC Executive class chair car: An air-conditioned coach with large spacious seats and legroom. It has a total of four seats in a row used for day travel between cities. This class of travel is only available on Shatabdi Express trains.
SL Sleeper class: The sleeper class is the most common coach on IR, and usually ten or more coaches could be attached. These are regular sleeping coaches with three berths vertically stacked. In broad gauge, it carries 72 passengers per coach.
2S Seater class: same as AC Chair car, without the air-conditioning. These may be reserved in advance or may be unreserved.
UR Unreserved: The cheapest accommodation. The seats are usually made up of pressed wood in older coaches but cushioned seats are found in new coaches. These coaches are usually over-crowded and a seat is not guaranteed. Tickets are issued in advance for a minimum journey of more than 24 hours. Tickets issued are valid on any train on the same route if boarded within 24 hours of buying the ticket.
At the rear of the train is a special compartment known as the guard's cabin. It is fitted with a transceiver and is where the guard usually gives the all clear signal before the train departs.
UNESCO WORLD HERITAGE SITES
There are two UNESCO World Heritage Sites on Indian Railways. – The Chatrapati Shivaji Terminus and the Mountain Railways of India. The latter consists of three separate railway lines located in different parts of India:
- Darjeeling Himalayan Railway, a narrow gauge railway in West Bengal.
- Nilgiri Mountain Railway, a 1,000 mm metre gauge railway in the Nilgiri Hills in Tamil Nadu.
- Kalka-Shimla Railway, a narrow gauge railway in the Shivalik mountains in Himachal Pradesh. In 2003 the railway was featured in the Guinness Book of World Records for offering the steepest rise in altitude in the space of 96 kilometre.
NOTABLE TRAINS
TOURIST TRAINS
Palace on Wheels is a specially designed luxury tourist train service, frequently hauled by a steam locomotive, for promoting tourism in Rajasthan. The train has a 7 nights & 8 days itinerary, it departs from New Delhi (Day 1), and covers Jaipur (Day 2), Sawai Madhopur and Chittaurgarh (Day 3), Udaipur (Day 4), Jaisalmer (Day 5), Jodhpur (Day 6), Bharatpur and Agra (Day 7), return to Delhi (Day 8).
Royal Rajasthan on Wheels a luxury tourist train service covers various tourist destinations in Rajasthan. The train takes tourists on a 7-day/8-night tour through Rajasthan. The train starts from New Delhi's Safdarjung railway station (Day 1), and has stops at Jodhpur (Day 2), Udaipur and Chittaurgarh (Day 3), Ranthambore National Park and Jaipur (Day 4), Khajuraho (Day 5), Varanasi and Sarnath (Day 6), Agra (Day 7) and back to Delhi (Day 8).
Maharaja Express a luxury train operated by IRCTC runs on five circuits covering more than 12 destinations across North-West and Central India, mainly centered around Rajasthan between the months of October to April.
Deccan Odyssey luxury tourist train service covers various tourist destinations in Maharashtra and Goa. The 7 Nights / 8 Days tour starts from Mumbai (Day 1) and covers Jaigad Fort, Ganapatipule and Ratnagiri (Day 2), Sindhudurg, Tarkarli and Sawantwadi (Day 3), Goa (Day 4), Kolhapur and Pune (Day 5), Aurangabad and Ellora Caves (Day 6), Ajanta Caves and Nashik (Day 7), and back to Mumbai (Day 8).
The Golden Chariot luxury train runs on two circuits Pride of the South and Splendor of the South.
Mahaparinirvan Express an a/c train service also known as Buddhist Circuit Train which is run by IRCTC to attract Buddhist pilgrims. The 7 nights/8 Days tour starts from New Delhi (Day 1) and covers Bodh Gaya (Day 2), Rajgir and Nalanda (Day 3), Varanasi and Sarnath (Day 4), Kushinagar and Lumbini (Day 5 and 6), Sravasti (Day 7), Taj Mahal (Agra) (Day 8) before returning to New Delhi on (Day 8).
OTHER TRAINS
- Samjhauta Express is a train that runs between India and Pakistan. However, hostilities between the two nations in 2001 saw the line being closed. It was reopened when the hostilities subsided in 2004. Another train connecting Khokhrapar (Pakistan) and Munabao (India) is the Thar Express that restarted operations on 18 February 2006; it was earlier closed down after the 1965 Indo-Pak war.
- Lifeline Express is a special train popularly known as the "Hospital-on-Wheels" which provides healthcare to the rural areas. This train has a carriage that serves as an operating room, a second one which serves as a storeroom and an additional two that serve as a patient ward. The train travels around the country, staying at a location for about two months before moving elsewhere.
- Fairy Queen is the oldest operating locomotive in the world today, though it is operated only for specials between Delhi and Alwar. John Bull, a locomotive older than Fairy Queen, operated in 1981 commemorating its 150th anniversary. Gorakhpur railway station also has the distinction of being the world's longest railway platform at 1,366 m. The Ghum station along the Darjeeling Toy Train route is the second highest railway station in the world to be reached by a steam locomotive. The Mumbai–Pune Deccan Queen has the oldest running dining car in IR.
- Vivek Express, between Dibrugarh and Kanyakumari, has the longest run in terms of distance and time on Indian Railways network. It covers 4,286 km in about 82 hours and 30 minutes.
- Bhopal Shatabdi Express is the fastest train in India today having a maximum speed of 160 km/h on the Faridabad–Agra section. The fastest speed attained by any train is 184 km/h in 2000 during test runs.
- Special Trains are those trains started by Indian Railways for any specific event or cause which includes Jagriti Yatra trains, Kumbh Mela Trains., emergency trains, etc.
- Double-decker AC trains have been introduced in India. The first double decker train was Pune-Mumbai Sinhagad express plying between Pune and Mumbai while the first double-decker AC train in the Indian Railways was introduced in November 2010, running between the Dhanbad and Howrah stations having 10 coaches and 2 power cars. On 16 April 2013, Indian Railways celebrated its 160 years of nationwide connectivity with a transportation of 23 million passengers in a day.
PROBLEMS AND ISSUES
Indian Railways is cash strapped and reported a loss of ₹30,000 crores (₹300bn) in the passenger segment for the year ending March 2014. Operating ratio, a key metric used by Indian railways to gauge financial health, is 91.8% in the year 2014-15. Railways carry a social obligation of over ₹20,000 crores (₹200bn $3.5bn). The loss per passenger-km increased to 23 paise by the end of March 2014. Indian Railways is left with a surplus cash of just ₹690 crores (₹6.9bn $115mn) by the end of March 2014.
It is estimated that over ₹ 5 lakh crores (₹5 trillion) (about $85 bn at 2014 exchange rates) is required to complete the ongoing projects alone. The railway is consistently losing market share to other modes of transport both in freight and passengers.
New railway line projects are often announced during the Railway Budget annually without securing additional funding for them. In the last 10 years, 99 New Line projects worth ₹ 60,000 crore (₹600bn) were sanctioned out of which only one project is complete till date, and there are four projects that are as old as 30 years, but are still not complete for one reason or another.
Sanjay Dina Patil a member of the Lok Sabha in 2014 said that additional tracks, height of platforms are still a problem and rise in tickets, goods, monthly passes has created an alarming situation where the common man is troubled.
WIKIPEDIA
The Supermarine Spitfire is a British single-seat fighter aircraft that was used by the Royal Air Force and many other Allied countries during and after the Second World War. The Spitfire was built in many variants, using several wing configurations, and was produced in greater numbers than any other British aircraft. It was also the only British fighter to be in continuous production throughout the war. The Spitfire continues to be a popular aircraft, with approximately 55 Spitfires being airworthy, while many more are static exhibits in aviation museums all over the world.
The Spitfire was designed as a short-range, high-performance interceptor aircraft by R. J. Mitchell, chief designer at Supermarine Aviation Works (which operated as a subsidiary of Vickers-Armstrong from 1928). In accordance with its role as an interceptor, Mitchell designed the Spitfire's distinctive elliptical wing to have the thinnest possible cross-section; this thin wing enabled the Spitfire to have a higher top speed than several contemporary fighters, including the Hawker Hurricane. Mitchell continued to refine the design until his death from cancer in 1937, whereupon his colleague Joseph Smith took over as chief designer, overseeing the development of the Spitfire through its multitude of variants.
During the Battle of Britain (July–October 1940), the Spitfire was perceived by the public to be the RAF fighter, though the more numerous Hawker Hurricane shouldered a greater proportion of the burden against the Luftwaffe. However, because of its higher performance, Spitfire units had a lower attrition rate and a higher victory-to-loss ratio than those flying Hurricanes.
After the Battle of Britain, the Spitfire superseded the Hurricane to become the backbone of RAF Fighter Command, and saw action in the European, Mediterranean, Pacific and the South-East Asian theatres. Much loved by its pilots, the Spitfire served in several roles, including interceptor, photo-reconnaissance, fighter-bomber and trainer, and it continued to serve in these roles until the 1950s. The Seafire was a carrier-based adaptation of the Spitfire which served in the Fleet Air Arm from 1942 through to the mid-1950s. Although the original airframe was designed to be powered by a Rolls-Royce Merlin engine producing 1,030 hp (768 kW), it was strong enough and adaptable enough to use increasingly powerful Merlin and, in later marks, Rolls-Royce Griffon engines producing up to 2,340 hp (1,745 kW); as a consequence of this the Spitfire's performance and capabilities improved, sometimes dramatically, over the course of its life.
Mk V (Types 331, 349 & 352)
Spitfire LF.Mk VB, BL479, flown by Group Captain M.W.S Robinson, station commander of RAF Northolt, August 1943. This Spitfire has the wide bladed Rotol propeller, the internal armoured windscreen and "clipped" wings.
Late in 1940, the RAF predicted that the advent of the pressurised Junkers Ju 86P bomber series over Britain would be the start of a new sustained high altitude bombing offensive by the Luftwaffe, in which case development was put in hand for a pressurised version of the Spitfire, with a new version of the Merlin (the Mk VI). It would take some time to develop the new fighter and an emergency stop-gap measure was needed as soon as possible: this was the Mk V.
The basic Mk V was a Mk I with the Merlin 45 series engine. This engine delivered 1,440 hp (1,074 kW) at take-off, and incorporated a new single-speed single-stage supercharger design. Improvements to the carburettor also allowed the Spitfire to use zero gravity manoeuvres without any problems with fuel flow. Several Mk I and Mk II airframes were converted to Mk V standard by Supermarine and started equipping fighter units from early 1941. The majority of the Mk Vs were built at Castle Bromwich.
The VB became the main production version of the Mark Vs. Along with the new Merlin 45 series the B wing was fitted as standard. As production progressed changes were incorporated, some of which became standard on all later Spitfires. Production started with several Mk IBs which were converted to Mk VBs by Supermarine. Starting in early 1941 the round section exhaust stacks were changed to a "fishtail" type, marginally increasing exhaust thrust. Some late production VBs and VCs were fitted with six shorter exhaust stacks per side, similar to those of Spitfire IXs and Seafire IIIs; this was originally stipulated as applying specifically to VB(trop)s. After some initial problems with the original Mk I size oil coolers, a bigger oil cooler was fitted under the port wing; this could be recognised by a deeper housing with a circular entry. From mid-1941 alloy covered ailerons became a universal fitting.
Spitfire VC(trop), fitted with Vokes filters and "disc" wheels, of 417 Squadron RCAF in Tunisia in 1943.
A constant flow of modifications were made as production progressed. A "blown" cockpit hood, manufactured by Malcolm, was introduced in an effort to further increase the pilot's head-room and visibility. Many mid to late production VBs - and all VCs - used the modified, improved windscreen assembly with the integral bullet resistant centre panel and flat side screens introduced with the Mk III. Because the rear frame of this windscreen was taller than that of the earlier model the cockpit hoods were not interchangeable and could be distinguished by the wider rear framing on the hood used with the late-style windscreen.
Different propeller types were fitted, according to where the Spitfire V was built: Supermarine and Westland manufactured VBs and VCs used 10 ft 9 in (3.28 m) diameter, 3 bladed de Havilland constant speed units, with narrow metal blades, while Castle Bromwich manufactured VBs and VCs were fitted with a wide bladed Rotol constant speed propeller of either 10 ft 9 in (3.28 m) diameter, with metal blades, or (on late production Spitfires) 10 ft 3 in (3.12 m) diameter, with broader, "Jablo" (compressed wood) blades. The Rotol spinners were longer and more pointed than the de Havilland leading to a 3.5 in (8.9 cm) increase in overall length. The Rotol propellers allowed a modest speed increase over 20,000 ft (6,100 m) and an increase in the service ceiling. A large number of Spitfire VBs were fitted with "gun heater intensifier" systems on the exhaust stacks. These piped additional heated air into the gun bays. There was a short tubular intake on the front of the first stack and a narrow pipe led into the engine cowling from the rear exhaust.
The VB series were the first Spitfires able to carry a range of specially designed "slipper" drop tanks which were fitted underneath the wing centre-section. Small hooks were fitted, just forward of the inboard flaps: when the tank was released these hooks caught the trailing edge of the tank, swinging it clear of the fuselage.
With the advent of the superb Focke Wulf Fw 190 in August 1941 the Spitfire was for the first time truly outclassed, hastening the development of the "interim" Mk IX. In an effort to counter this threat, especially at lower altitudes, the VB was the first production version of the Spitfire to use "clipped" wingtips as an option, reducing the wingspan to 32 ft 2 in (9.8 m).The clipped wings increased the roll rate and airspeed at lower altitudes. Several different versions of the Merlin 45/50 family were used, including the Merlin 45M which had a smaller "cropped" supercharger impeller and boost increased to +18 lb. This engine produced 1,585 hp (1,182 kW) at 2,750 ft (838 m), increasing the L.F VB's maximum rate of climb to 4720 ft/min (21.6 m/s) at 2,000 ft (610 m).
VB Trop of 40 Squadron SAAF fitted with the "streamlined" version of the Aboukir filter, a broad-bladed, 10 ft 3 in (3.12 m) diameter Rotol propeller, and clipped wings.
The Mk VB(trop) (or type 352) could be identified by the large Vokes air filter fitted under the nose; the reduced speed of the air to the supercharger had a detrimental effect on the performance of the aircraft, reducing the top speed by 8 mph (13 km/h) and the climb rate by 600 ft/min (3.04 m/s), but the decreased performance was considered acceptable. This variant was also fitted with a larger oil tank and desert survival gear behind the pilot's seat. A new "desert" camouflage scheme was applied. Many VB(trop)s were modified by 103 MU (Maintenance Unit-RAF depots in which factory fresh aircraft were brought up to service standards before being delivered to squadrons) at Aboukir, Egypt by replacing the Vokes filter with locally manufactured "Aboukir" filters, which were lighter and more streamlined. Two designs of these filters can be identified in photos: one had a bulky, squared off filter housing while the other was more streamlined. These aircraft were usually fitted with the wide blade Rotol propeller and clipped wings.
Triumph Spitfire Mk I Roadster
The Triumph Spitfire is a small English two-seat sports car, introduced at the London Motor Show in 1962.[3] The vehicle was based on a design produced for Standard-Triumph in 1957 by Italian designer Giovanni Michelotti. The platform for the car was largely based upon the chassis, engine, and running gear of the Triumph Herald saloon, and was manufactured at the Standard-Triumph works at Canley, in Coventry. As was typical for cars of this era, the bodywork was fitted onto a separate structural chassis, but for the Spitfire, which was designed as an open top or convertible sports car from the outset, the ladder chassis was reinforced for additional rigidity by the use of structural components within the bodywork. The Spitfire was provided with a manual hood for weather protection, the design improving to a folding hood for later models. Factory-manufactured hard-tops were also available.
The Triumph Spitfire was originally devised by Standard-Triumph to compete in the small sports car market that had opened up with the introduction of the Austin-Healey Sprite. The Sprite had used the basic drive train of the Austin A30/35 in a light body to make up a budget sports car; Triumph's idea was to use the mechanicals from their small saloon, the Herald, to underpin the new project. Triumph had one advantage, however; where the Austin A30 range was of unitary construction, the Herald featured a separate chassis. It was Triumph's intention to cut that chassis down and clothe it in a sports body, saving the costs of developing a completely new chassis / body unit.
Italian designer Michelotti—who had already penned the Herald—was commissioned for the new project, and came up with a traditional, swooping body. Wind-up windows were provided (in contrast to the Sprite/Midget, which still featured sidescreens, also called curtains, at that time), as well as a single-piece front end which tilted forwards to offer unrivaled access to the engine. At the dawn of the 1960s, however, Standard-Triumph was in deep financial trouble, and unable to put the new car into production; it was not until the company was taken over by the Leyland organization funds became available and the car was launched. Leyland officials, taking stock of their new acquisition, found Michelotti's prototype hiding under a dust sheet in a corner of the factory and rapidly approved it for production.
Spitfire 4 or Mark I (1962-1964)
Overview:
Production1962–1964
45,753 made
Powertrain:
Engine1,147 cc (1.1 l) I4
Transmission4-speed manual with optional overdrive on top and third from 1963 onwards
Dimensions:
Curb weight1,568 lb (711 kg) (unladen U.K.-spec)
The production car changed little from the prototype, although the full-width rear bumper was dropped in favour of two part-bumpers curving round each corner, with overriders. Mechanicals were basically stock Herald. The engine was an 1,147 cc (1.1 l) 4-cylinder with a pushrod OHV cylinder head and 2 valves per cylinder, mildly tuned for the Spitfire, fed by twin SU carburettors. Also from the Herald came the rack and pinion steering and coil-and-wishbone front suspension up front, and at the rear a single transverse-leaf swing axle arrangement. This ended up being the most controversial part of the car: it was known to "tuck in" and cause violent over steer if pushed too hard, even in the staid Herald. In the sportier Spitfire (and later the 6-cylinder Triumph GT6 and Triumph Vitesse) it led to severe criticism. The body was bolted to a much-modified Herald chassis, the outer rails and the rear outriggers having been removed; little of the original Herald chassis design was left, and the Spitfire used structural outer sills to stiffen its body tub.
The Spitfire was an inexpensive small sports car and as such had very basic trim, including rubber mats and a large plastic steering wheel. These early cars were referred to both as "Triumph Spitfire Mark I" and "Spitfire 4", not to be confused with the later Spitfire Mark IV.
In UK specification the in-line four produced 63 bhp (47 kW) at 5750 rpm, and 67 lb·ft (91 N·m)of torque at 3500 rpm. This gave a top speed of 92 mph (148 km/h), and would achieve 0 to 60 mph (97 km/h) in 17.3 seconds. Average fuel consumption was 31mpg.
For 1964 an overdrive option was added to the 4-speed manual gearbox to give more relaxed cruising. Wire wheels and a hard top were also available.
Text regarding the Supermarine Spitfire aeroplane and Triumph Spitfire Roadster has been taken from excerpts of Wikipedia articles on each model.
The Supermarine Spitfire Mk VB aircraft and 1962 Triumph Spitfire Mk I road car have been modelled in Lego miniland-scale for Flickr LUGNuts' 79th Build Challenge, - 'LUGNuts goes Wingnuts, ' - featuring automotive vehicles named after, inspired by, or with some relationship to aircraft.
The Atlantic Refining Company, Incorporated in 1870 under the laws of the Commonwealth of Pennsylvania (ABNCo)
Number M05188
Shares: 10
Dated: Feb 25 1966
American Bank Note Company
Trying to refine a portable lighting system for my trip to Ireland in June. I'll be doing more portraits there for the Fifty Female Faces book project.
I've been using a big softbox but need to emulate the light quality with off-camera flash and umbrellas. I just can't lug all that stuff to Ireland and then spend a bunch of money on power transformers. This was a test I did last night. Light is a little harder than my softbox but I have some ideas on how to make it more diffused.
For this shot, I used a 60" reflective umbrella with a 430EX II strobe set to half power and 24mm. The diffusion screen on the flash was engaged. The umbrella was set directly above and behind the camera. I also used a 24" silver reflector which is on the model's lap.
The experiments continue...
Albert Watson has spent a lifetime refining how a photograph can hold attention. Not through spectacle, but through control. Through a precise understanding of light and form and the quiet tension between them.
He was born in Edinburgh in 1942 and was blind in one eye from birth. That fact shaped everything. He learned to rely less on depth and more on structure. Edges. Geometry. The way light describes a face. He studied graphic design at Duncan of Jordanstone College of Art then film at the Royal College of Art in London. That dual training never left him. His pictures feel built rather than decorated. Each decision is deliberate.
In the early 1970s he moved to Los Angeles. A test shoot led to an assignment with Harper’s Bazaar and from there into regular work with Vogue and Rolling Stone and Time. He moved easily between fashion and portraiture and commercial work but the through line was always the same. Precision. Restraint. A refusal to clutter the frame.
Some of his most enduring photographs come from moments that could have gone another way.
When he photographed Alfred Hitchcock for a holiday issue of Harper’s Bazaar the concept was darkly playful. Hitchcock arrived with a plucked goose and a desire for some theater. He told Watson he wanted to pose as if he were holding the bird by its neck while it looked like it was still alive. Watson watched as Hitchcock meticulously staged the shot and adjusted the bird as if it were a leading man. The image is unsettling and funny at the same time. It works because Watson held it right at that edge. He didn't push too far. He let the macabre sensibility of the director fill the space.
Years later he photographed Steve Jobs. The tech mogul arrived with a reputation for being difficult and a lack of patience for the process. He gave Watson exactly one hour. Watson didn't blink. He told Jobs he could do it in half that time. He asked Jobs to lean forward and imagine he was across a table from three or four people who disagreed with him. Jobs sat and leaned and looked directly into the glass with an intensity that felt like a physical weight. Watson got the shot in twenty minutes. As Jobs left the studio he looked at the Polaroid and asked if he could have it. He told Watson it was the best photograph anyone had ever taken of him.
That range tells you something about Watson. He is not imposing a style so much as finding the right level of reduction for each subject. He knows how much to take away and how much to leave.
His work spans more than a hundred Vogue covers and countless campaigns yet it never feels excessive. His images are held in major collections including the Metropolitan Museum of Art and the National Portrait Gallery. His book Cyclops is often cited as one of the defining photography monographs of its time. It is a fitting title for someone who learned to see in a singular way.
When I photographed him he was leaning in and adjusting his glasses and studying an image. Still working. Still refining. The gesture felt small but it held something larger. It was a lifetime of looking distilled into a single moment of attention.
I made this portrait as part of my New Heroes project. This is about spending time with the people shaping our future and trying to see them clearly as they are. explorers.com/albert-watson-2/
"Fiji" or "Laukota" No. 11.
A Hudswell-Clarke 0-6-0 No. 972 from 1913.
Rescued from a Fijian sugar plantation.
Colonial Sugar Refining Company Limited.
From wikidedia: The Rodeo San Francisco Refinery is a oil refinery located in Rodeo, California, which is located in the San Francisco Bay Area. The refinery is currently owned and operated by ConocoPhillips.
The complex is capable of refining 100,000 barrels of crude oil per day.
Tidex Oil Can made by Tidewater Oil Company (before 1936 rendered as Tide Water Oil Company) was a major petroleum refining and marketing concern in the United States for more than 80 years.
I will tweak this style a little but have been wanting to use this fabric for something like this for a while :)
As I exited the data core having made the necessary alterations needed to match my story to Kal-El I planned to begin training to refine the raw abilities that this planet gives me. Sadly, with this ship having just escaped the final battle of Krypton, most of its assets had been stripped, including all the training drones used to help refine the talents of young recruits. No good having them in a battle if they can’t aim or a fire the gun.
Fortunately Brainiac offered a solution.
“General.”
“Yes Brainiac?”
“I believe I have a solution to your lack of training drones problem.”
“What might that be?”
“A ship of this class always comes with a navigator-class droid body for the Brainiac unit to help co-ordinate all ship movements in the event of the crew becoming incapacitated. If you were to transfer my program into the navigator body I would be able to operate the body and you would thus be allowed to practice combat against me.”
“That sounds like a good idea Brainiac. But won't this affect the ships functions if I transfer you into this body and out of the mainframe?”
“Ships functions shall not be hampered. The unit shall have direct control over ship functions despite not being in the ship mainframe itself, allowing remote control over the ship even if the unit is not present onboard. ”
“Good. You may proceed.”
“Affirmative sir”
There was a brief surge in the ships power as, I presume, Brainiac carried out the process he had spoken of. With in a few moments out from behind the door to the ships Mainframe walked this robotic body, this must be the body Brainiac talked about.
“Brainiac?”>
“Affirmative.”
“Did it work?”
“All systems in this unit are operating at 98.27% efficiency. Not the level of efficiency I would desire but well above acceptable standards, I shall endeavor to correct these issues at a later date.”
“Do you still have Kal-El’s signal?”
“Affirmative, the ship is still tracking Kal-El’s signal.”
“Good. Be sure you that you keep track of him, and keep me posted of any developments. Now, I need you to create an emergency program to activate at a moments notice once we’re outside.”
“What program would that be Sir?”
“Once given the command you will instantly attach the hazard armor to me, regardless of the current situation.”
“Affirmative. Program created. Did you desire to have this program created in order to stop the unknown abilities your species acquires on exposure to this Planet from overwhelming you?”
“That is correct Brainiac.”
“Affirmative Sir. Do you wish to begin a training programme?"
“Yes Brainiac. Run programme five and open the bay doors."
"Yes General."
No sooner had he spoken those words that the bay doors began to open revealing the bright light that must be this Planet's sun shining on a white coloured ground. As the light of the sun shined on me, I felt a painful sensation in my eyes as if they were getting hotter, and hotter. It seems that I was acquiring the powers that I had previously when I first stepped out of the ship.
The pain of the heat in my eyes was excruciating but I had combat it. Kal-El has not been overpowered by these new abilities so clearly he has mastered them, and if a cowards son can achieve mastery of such phenomenal gifts then one of Kryptons finest Generals could as well. With this I stepped out of the ship and the door sealed itself behind me.
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The following takes place in parallel with Man of Tomorrow #18
Brown pelicans in flight. In the distance, one of many oil/refining/chemical plants along the Houston Ship Channel.
Australasian Sugar Refining Company complex 1891, 1899 at conversion to apartments in the 1980s.
Designers: Hyndman and Bates.
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`The site of the factory was included in Section 2B [of the original Port Melbourne survey], which was surveyed into four allotments early in the history of Sandridge. By November 1860 three of these had been purchased by A. Ross, joining William Jones, S.G. Henty and P. Lalor as owners of the section (2)..
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In February 1890, the Melbourne Tram and Omnibus Company Limited, had stables, offices, land and an omnibus repository on the section.(3) [Most of the present buildings on the site date from 1891, when the Australasian Sugar Refining Company established a refinery.(4)] On the MMBW detail plan dated 1894, the section is labelled 'sugar works' and the configuration of buildings approximately conforms with the present layout. [The refinery was closed in 1894 following its purchase by the Colonial Sugar Refining Company as part of a move to strengthen its monopoly.].
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[In 1899, Robert Harper and Company Pty Ltd converted the buildings to a starch factory, and various brick additions were constructed to designs by Hyndman and Bates, architects.(5)] When the sewerage was connected in 1899, a plan was drawn by the architects and this closely resembles the 1894 MMBW detail plan configuration. (6) .
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The buildings .. form the major part of the original factory complex on the site, one of the largest nineteenth century industrial sites in Victoria. The complex as a whole is significant for its large size and range of building types. The dramatic massing and height of the 9 Beach Street buildings gives them additional importance as local landmarks as viewed both from the surrounding streets and the sea..
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COMPARATIVE ANALYSIS.
The former Australasian Sugar Refining Company and Robert Harper starch factory complex can be compared with a number of other large nineteenth century industrial complexes in Melbourne. These include the former Yorkshire Brewery, Wellington Street, Collingwood (from 1876), the former Victoria Brewery, Victoria Parade, East Melbourne (established 1854), the former Kimpton's Flour Mill, Elizabeth Street, Kensington, the Thomas Brunt flour mill and Brockhoff and T.B. Guest biscuit factories complex, Laurens and Munster Streets, North Melbourne (from 1888-9) and the Joshua Bros (now CSR) sugar refinery, Whitehall Street, Yarraville (established 1873). All of these are representative of the development in Victoria of the manufacture of foodstuffs and related raw materials. Of these, the CSR refinery is the most directly comparable in terms of original function and the scale and massing of the buildings. Established significantly earlier than the Port Melbourne refinery, the site is larger and more intact..
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In the local context, the only other surviving industrial site of comparable scale is the Swallow and Ariell Biscuit Factory complex (q.v.). This complex is of state significance, and is considerably earlier, with parts dating from the 1850s. The predominantly two- and three-storey buildings, however, are of a different type to the former refinery and starch factory buildings..
Allom Lovell and Associates 1995 cite Jacobs Lewis Vines. Port Melbourne Conservation Study:.