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List of Russian steam locomotive classes

From Wikipedia, the free encyclopedia

This List of Russian steam locomotive classes includes those built both before and during the Soviet era. They are to the gauge of 5 ft (1,524 mm) unless otherwise stated. Some locomotives originally used in Poland during the period of the Russian Empire were built to 4 ft 8+12 in (1,435 mm) standard gauge and later converted to 5 ft gauge. Class letters are shown in Cyrillic characters, followed by romanized characters in the next column. For more information, see Romanization of Russian. The main source for this list is Le Fleming and Price's Russian Steam Locomotives.[1]

YouTube Encyclopedic

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  • Coal, Steam, and The Industrial Revolution: Crash Course World History #32
  • 25 Facts About the Industrial Revolution (Featuring Alternate History Hub)

Transcription

Hi, I’m John Green, this is Crash Course World History and today we’re going to discuss the series of events that made it possible for you to watch Crash Course. And also made this studio possible. And made the warehouse containing the studio possible. A warehouse, by the way, that houses stuff for warehouses. That’s right, it’s time to talk about the industrial revolution. Although it occurred around the same time as the French, American, Latin American, and Haitian Revolutions— between, say, 1750 and 1850— the industrial revolution was really the most revolutionary of the bunch. No way, dude. All those other revolutions resulted in, like, new borders and flags and stuff. We’ve studied 15,000 years of history here at Crash Course, Me from the Past. And borders and flags have changed plenty, and they’re going to keep changing. [that's a twofer: awesome + ominous] But in all that time, nothing much changed about the way we disposed of waste [g'luck with toilet teching, Bill Gates!] or located drinking water or acquired clothing. Most people lived on or very close to the land that provided their food. [like above an Eata Pita?] Except for a few exceptions, life expectancy never rose above 35 or below 25. Education was a privilege not a right. In all those millennia, we never developed a weapon that could kill more than a couple dozen people at once, or a way to travel faster than horseback. For 15,000 years, most humans never owned or used a single item made outside of their communities. Simon Bolivar didn’t change that and neither did the American Declaration of Independence. You have electricity? Industrial revolution. Blueberries in February? Industrial revolution. You live somewhere other than a farm? Industrial revolution. You drive a car? Industrial revolution. You get twelve years of free, formal education? [peep the creepy teacher in the back] Industrial revolution. Your bed, your antibiotics, your toilet, your contraception, your tap water, your every waking and sleeping second: [mongol-tage footage!] Industrial revolution. [Intro music] [intro music] [intro music] [intro music] [intro music] [intro music] [intro music] Here’s one simple statistic that sums it up: Before the industrial revolution, about 80% of the world’s population was engaged in farming to keep itself and the other 20% of people from starving. Today, in the United States, less than 1% of people list their occupation as farming. I mean, we’ve come so far that we don’t even have to farm flowers anymore. Stan, are these real, by the way? I can’t tell if they’re made out of foam or digital. So what happened? TECHNOLOGY! Here’s my definition: The industrial revolution was an increase in production brought about by the use of machines [get ready to man-suit up, Skynet] and characterized by the use of new energy sources. Although this will soon get more complicated, for our purposes today, industrialization is NOT capitalism— although, as we will see next week, it is connected to modern capitalism. And, the industrial revolution began around 1750 and it occurred across most of the earth, but it started in Europe, especially Britain. What happened? Well, let’s go to the Thought Bubble. The innovations of the Industrial Revolution were intimately interconnected. Like, look, for instance, at the British textile industry: The invention of the flying shuttle by John Kay in 1733 dramatically increased the speed of weaving, which in turn created demand for yarn, which led to inventions like the Spinning Jenny and the waterframe. [& later, Princess Leia bun sock hats] Soon these processes were mechanized using water power, until the steam engine came along to make flying shuttles really fly in these huge cotton mills. The most successful steam engine was built by Thomas “They Didn’t Name Anything After Me” Newcomen [is that Dutch?] to clear water out of mines. And because water was cleared out of those mines, there was more coal to power more steam engines, which eventually led to the fancying up of the Newcomen Steam Engine by James “I Got a Unit of Power and a University Named After Me” Watt, [Farnsworth's raw deal tops, even still] whose engine made possible not only railroads and steamboats but also ever-more efficient cotton mills. [the touch, the feel… of technology] And, for the first time, chemicals other than stale urine, [you must be kidding] I wish I was kidding, were being used to bleach the cloth that people wore— the first of which was sulfuric acid, [sounds super chafey] which was created in large quantities only thanks to lead-lined chambers, which would’ve been impossible without lead production rising dramatically right around 1750 in Britain, thanks to lead foundries powered by coal. And all these factors came together to make more yarn that could be spun and bleached faster and cheaper than ever before, a process that would eventually culminate in $18 Crash Course Mongols shirts. [no exceptions!&$%# ] [ha] Available now at DFTBA.com. Thanks, Thought Bubble, for that shameless promotion of our beautiful, high-quality t-shirts available now at DFTBA.com. [TeamCrashCourse: lousy with subtlty] So, the problem here is that with industrialization being so deeply interconnected, it’s really difficult to figure out why it happened in Europe, especially Britain. And that question of why turns out to be one of the more contentious discussions in world history today. For instance, here are some Eurocentric reasons why industrialization might have happened first in Europe: There’s the cultural superiority argument that basically holds that Europeans are just better and smarter than other people. [somebody explain Mr. Bean then] Sometimes this is formulated as Europeans possessing superior rationality. By the way, you’ll never guess where the people who make this argument tend to come from— unless you guessed that they come from Europe. And then, others argue that only Europe had the culture of science and invention that made the creation of these revolutionary technologies possible. Another argument is that freer political institutions encouraged innovation and strong property rights created incentives for inventors. And, finally, people often cite Europe’s small population because small populations require labor-saving inventions. Oh, it’s time for the Open Letter? [it's not the yellow chair he's rolling over to so I just can't bear to look.] An Open Letter to the Steam Engine. But first, let’s see what’s in the secret compartment today. Oh, it’s a Tardis. [you're welcome, Whovians] Truly the apex of British industrialization. Dear Steam Engine, You know what’s crazy? You’ve really never been improved upon. Like this thing, which facilitates time travel, probably runs on a steam engine. [Eye of Harmony > steam engine, ftr] Almost all electricity around the world, whether it’s from coal or nuclear power, is just a steam engine. It’s all still just water and heat, and it speaks to how truly revolutionary the Industrial Revolution was that since then, it’s really just been evolution. Best Wishes, John Green So, you may have heard any of those rationales for European industrialization, or you may have heard others. The problem with all of them, is that each time you think you’re at the root cause it turns out there’s a cause of the root cause. [not unlike the show LOST] To quote Leonardo diCaprio, James Cameron, and coal mine operators, “We have to go deeper.” ["Context is everything." -John Green] But, anyway, the problem with these Eurocentric why answers, is that they all apply to either China or India or both. And it’s really important to note that in 1800, it was not clear that Europe was going to become the world’s dominant manufacturing power in the next hundred years. At the time, China, India, and Europe were all roughly at the same place in terms of industrial production. First, let’s look at China. It’s hard to make the European cultural superiority argument because China had been recording its history since before Confucius, and plus there was all that bronze and painting and poetry. It’s also kind of difficult to make a blanket statement that China was economically inferior to Europe, since they invented paper money and led the world in exports of everything from silk to china. I mean, pre-Industrial Revolution, population growth was the surest sign of economic success, and China had the biggest population in the world. [were my flowers just assaulted by educational exuberance?] I guess that answers the question of whether they’re digital. [better be in stock at thinkgeek.com, mr. green. just saying...] It’s also difficult to say that China lacked a culture of invention when they invented gunpowder, and printing, and paper, and arguably compasses. And China had more free enterprise during the Song dynasty than anywhere in the world. Some argue that China couldn’t have free enterprise because they had a long history of trying to impose monopolies on items like salt and iron. And that’s true, but when it comes to enforcing those monopolies, they also had a long history of failure. So really, in a lot of ways, China was at least as primed for an Industrial Revolution as Britain was. So, why didn’t it happen? Well, Europeans— specifically the British— had two huge advantages: First, Coal. When you trace the story of improved transportation, or communication, or industrial efficiency, or better chemical manufacturing, it always comes back to coal, because the Industrial Revolution was all about using different forms of energy to automate production. And, England had large supplies of coal that were near the surface, which meant that it was cheap to mine, so it quickly replaced wood for heating and cooking and stuff. So, that encouraged the British to look for more coal. The only problem with coal mining, aside from it being, you know, like, deadly and everything, is that the coal mines flooded all the time. I guess coal mining is also a little problematic for, like, the health of, you know, like, the planet. ["Nudge, nudge, wink, wink. Know what I mean?"] But, because there was all this incentive to get more coal out of the ground, steam engines were invented to pump water out of the mines. And because those early steam engines were super inefficient, they needed a cheap and abundant source of fuel in order to work— namely, coal, which meant they were much more useful to the British than anyone else. So steam engines used cheap British coal to keep British coal cheap, and cheap British coal created the opportunity for everything from railroads to steel, which like so much else in the Industrial Revolution, created a positive feedback loop. Because they run on rails, railroads need steel. And because it is rather heavy, steel needs railroads. Secondly, there were Wages. Britain (and to a lesser extent the Low Countries) had the highest wages in the world at the beginning of the 18th century. In 1725, wages in London were the equivalent of 11 grams of silver per day. In Amsterdam, they were 9 grams. In Beijing, Venice, and Florence, they were under 4. And in Delhi, they were under 2. It’s not totally clear why wages were so high in Britain. Like, one argument is that the Black Death lowered population so much that it tightened labor markets, but that doesn’t explain why wages remained low in, like, plague-ravaged Italy. Mainly, high wages combined with cheap fuel costs meant that it was economically efficient for manufacturers to look to machines as a way of lowering their production costs. To quote the historian Robert Allen: “Wages were high and energy was cheap. These prices led directly to the industrial revolution by giving firms strong incentives to invent technologies that substituted capital and coal for labor.” Stan, I’m a little worried that people are still going to accuse me of Eurocentrism. Of course, other people will accuse me of an anti-European bias. I don’t have a bias against Europe. I love Europe. Europe gave me many of my favorite cheeses and cross-country skiing and Charlie Chaplin, who inspired today’s Danica drawing. [big ups, Modern Times. you endure] Like, the fact of coal being near the surface in Britain can’t be chalked up to British cultural superiority. But the wages question is a little different because it makes it sound like only Europeans were smart enough to pay high wages. But here’s one last thing to consider: India was the world’s largest producer of cotton textiles, despite paying basically the lowest wages in the world. Indian agriculture was so productive that laborers could be supported at a very low cost. And that, coupled with a large population meant that Indian textile manufacturing could be very productive without using machines, so they didn’t need to industrialize. But more importantly from our perspective, there’s a strong argument to be made that Indian cotton production helped spur British industrialization. It was cotton textiles that drove the early Industrial Revolution, and the main reason that Britain was so eager to produce cottons was that demand was incredibly high. They were more comfortable than woolens, but they were also cheaper, because cottons could be imported from India at such a low cost. So, Indian cottons created the market and then British manufacturers invested in machines (and imported Indian know-how) to increase production so that they could compete with India. And that’s at least one way in which European industrialization was truly a world phenomenon. For those of you who enjoy such highly contentious and thorny, cultural historical debates, good news. Next week, we’ll be talking about capitalism. [can't wait to read the comments section for that one. yes i can] Thanks for watching, I’ll see you then. Crash Course is produced and directed by Stan Muller. Our script supervisor is Danica Johnson. The show is written by my high school history teacher, Raoul Meyer, and myself. We are ably interned by Meredith Danko. And our graphics team is Thought Bubble. Last week’s phrase of the week was "New England Revolution" If you want to suggest future phrases of the week, you can do so in comments where you can also guess at this week’s phrase of the week or ask questions about today’s video that will be answered by our team of historians. Thanks for watching Crash Course. Special shout out to our only known platinum-selling artist viewer, Lupe Fiasco. And as we say in my hometown, don’t forget My philosophy, like color TV, is all there in black and white.

Locomotive built before 1925

Class
(Cyrillic)
Class
(Romanized)
Type Manufacturer Quantity Years
built
Notes Image
Cherepanov steam locomotive 2-2-0 Yefim and Miron Cherepanov 1833–1834 The first Russian-built steam locomotive. Track gauge was 5 ft 6 in (1,676 mm).[2]
Д D (ru) 0-4-2
2-4-0
4-4-0
1856–1906 Class for various four-coupled locomotives
Т T (ru) 0-6-0
2-6-0
1857-1915 Class for various six-coupled locomotives
Ъ " (ru) 0-4-4
2-4-2
2-6-2
4-6-0
4-6-2
2-8-2
1864–1914 Class for various passenger tank locomotives
Ф F (ru) 0-6-0+0-6-0 Avonside, Sharp, Stewart and Company, Yorkshire Engine Company, Kolomna 45 1872–1883 Fairlie locomotives
Ч Ch (ru) 0-8-0 Malsevsky, Kolomna, Bryansk, Nevsky, Putilov, Kharkiv, Henschel & Sohn 1878–1911 Class for various eight-coupled locomotives
О O 0-8-0 Kolomna, Bryansk, Votkinsk, Nevski, Putilov, Sigl, StEG, Henschel, BMAG, Luhansk, Krasnoye Sormovo, Kharkiv 9129 1890–1928 osnovnoy tip (basic type);
Variants with different valve gear and wheel diameters
П P (ru) 4-4-0 SACM, Belfort, South Eastern Railways' Odessa Works, Putilov, Kolomna 169 1891–1905 Four-cylinder tandem compound
Н N (ru) 2-6-0 Alexandrov, Kolomna, Union, Bryansk, Luhansk, Krasnoye Sormovo, Nevski, Putilov, Votkinsk, Kharkiv 1082 1892–1914 [3] Variants with different valve gear and wheel diameters
А A (ru) 4-6-0 Kolomna, Hanomag, Henschel, Krasnoye Sormovo, Lokomotivfabrik Luhansk, Kharkiv Locomotive Factory, Bryansk 533 1892–1907 Variants with different valve gear
ЕФ Ye<sup>F</sup> (ru) 2-10-0 Baldwin 2 1895 Four-cylinder Vauclain compound
Х Kh 2-8-0 Baldwin 235 1895–1900 Four-cylinder Vauclain compound
В V (ru) 4-6-0 Baldwin 88 1895–1899 Four-cylinder Vauclain compound
Я Ya (ru) 2-6-0 Nevski, Putilov 150 1896–1903
Ц Ts (ru) 2-8-0 Henschel, Hanomag, Bryansk, Fives-Lille, Société Franco-Belge, SACM-Mühlhausen, Kharkiv 214 1896–1904
Ж Zh (ru) 4-6-0 Henschel, Kolomna, Nevski, Kharkiv 210 1896–1909
Р R (ru) 2-8-0 Bryansk, Putilov, SACM-Mühlhausen, Krasnoye Sormovo, Kolomna 477 1899–1914 Four-cylinder tandem compound
Ѳ Fita (ru) 0-6-6-0 Bryansk, Putilov, Kolomna 463 1899–1924 Mallet locomotives
Г G (ru) 4-6-0 Bryansk, Kharkiv 124 1901–1903
Ш Sh (ru) 2-8-0 Bryansk, Kharkiv 161 1901–1907
З Z (ru) 4-6-0 Kolomna 24 1902–1906
І I (ru) 0-4-4-2 Kolomna 112 1903–1905 [4] Mallet locomotives
У U 4-6-0 Putilov 56 1906–1910
Щ Shch (ru) 2-8-0 Kharkiv, Bryansk, Luhansk, Nevski, Putilov, Krasnoye Sormovo, Kolomna 2028 1906–1924 Variants with different wheel diameter
Б B (ru) 4-6-0 Bryansk, Luhansk 252 1907–1914
К K (ru) 4-6-0 Kolomna, Putilov, Moscow-Kasaner railway workshops 145 1907–1912
Ѵ Izhitsa 0-8-0 Kolomna, Bryansk 56 1908–1918
И I (ru) 2-8-0 Kolomna 19 1909–1910
С S (ru) 2-6-2 Krasnoye Sormovo, Luhansk, Kharkiv, Nevski 678 1910–1919
Ы Y (ru) 0-8-0 Kolomna, Votkinsk 372 1910–1920
КУ K<sup>U</sup> (ru) 4-6-0 Kolomna 39 1911–1914 K usilenny (larger K)
УУ U<sup>U</sup> 4-6-0 Putilow 6 1912 U usilenny (larger U)
Э E 0-10-0 Luhansk, Krasnoye Sormovo, Kharkiv, Kolomna, Bryansk, Newski 1528 1912–1925
ѴС
originally ЧВПс
Y<sup>S</sup>
originally ChVPs
0-8-0 Krasnoye Sormovo 27 1914–1915 as Standard gauge for the Warsaw–Vienna line.
СВ S<sup>V</sup> (ru) 2-6-2 Kolomna 15 1914–1915 Built to standard gauge for Warsaw-Vienna line in 1915. Later converted to 5 ft gauge for Moscow-Kursk line.[5]
Л
from
1947:
ЛП
L
from
1947:
LP
4-6-2 Putilov 66 1914–1926
ЕС YeS 2-10-0 ALCO 106 1915–1916 [6] S for Schenectady
ЕФ YeF 2-10-0 Baldwin 242 1915 F for Philadelphia;
250 shipped, 8 lost at sea
ЕК YeK 2-10-0 CLC 50 1915–1916 K for Kingston
ЕЛ YeL 2-10-0 ALCO, Baldwin al least 554 1916–1919 L for chief engineer A. I. Lipez
ЭШ E<sup>Sh</sup> 0-10-0 NoHAB 500 1920–1924 Two with Uniflow steam engine designated ЭМШ (EMSh)
ЭГ E<sup>G</sup> 0-10-0 AEG, Borsig, Hanomag, SMF, Henschel, Hohenzollern, Humboldt, Jung, Karlsruhe, Krauss, Krupp, LHW, O&K, Rheinmetall, BMAG, Vulcan, Wolf, Maffei, Esslingen 700 1921–1923 1 rebuilt to condensing locomotive in 1933 and designated ЭГК (EGK)
ХМ Kh<sup>M</sup> 2-8-0 H.K. Porter 1915-1916 Designated as sub-class of Х but shares little similarities.
Ф F 2-10-0 État Belge type 36
Ь (ru) ' 0-4-0
0-4-2
2-4-0
0-6-0
0-6-2
0-6-4
0-8-0
2-10-2
to 1957 Class for various goods tank locomotives

Locomotives built after 1925

Class
(Cyrillic)
Class
(Romanized)
Type Manufacturer Quantity Years
built
Notes Image
СУ S<sup>U</sup> 2-6-2 Bryansk, Krasnoye Sormovo, Kolomna, Luhansk, Kharkiv 2270 1925–1941 36 with higher axleload designated СУТ (SUT);
210 with draught fan designated СУМ (SUM)
Krasnoye Sormovo 411 1947–1951 2 with mechanical stokers designated СУР (SUR)
М M (ru) 4-8-0 Luhansk, Putilov 100 1926–1930 Rebuilt from 1932 as 2-cylinder designated МР (MR)
ЭУ E<sup>U</sup> 0-10-0 Kolomna, Luhansk, Krasnoye Sormovo, Bryansk, Kharkiv 2535 1926–1931
ТA T<sup>A</sup> (ru) 2-10-4 ALCO 5 1931 Experimental locomotives
ТБ T<sup>B</sup> (ru) 2-10-2 Baldwin 5 1931 Experimental locomotives
ФД20 FD20 2-10-2 Voroshilovgrad 2927 1931–1940 [7] FD after Felix Dzerzhinsky;
2 Condensing locomotives designated ФДК (FDK)
ИС20
from 1962: ФДП20
IS20
from 1962: FDP20
2-8-4 Kolomna, Voroshilovgrad 638 1932–1941 IS after Joseph Stalin
ЭМ E<sup>M</sup> 0-10-0 Voroshilovgrad, Krasnoye Sormovo, Bryansk, Kharkiv 2325 1932–1935 18 converted to condensing locomotives and designated ЭМК (EMK) between 1937 and 1940
Я Ya 4-8-2+2-8-4 Beyer, Peacock & Company 1 1932 [8] Experimental Garratt locomotive – the biggest Garratt locomotive ever built.
ЭР ER 0-10-0 Murom workshops (1) (1933) [9] Rebuilt from ЭМ (EM)
Voroshilovgrad, Bryansk 305 1934–1936
Kolomna 22 1943–1944
Reșița, MÁVAG, Malaxa, ČKD, Cegielski, Škoda 2716 1946–1955
АА20 AA20 4-14-4 Voroshilovgrad 1 1934 Experimental locomotive;
AA after Andrey Andreyevich Andreyev
СО SO (ru) 2-10-0 Kharkiv, Bryansk, Ulan-Ude, Krasnoyarsk, Voroshilovgrad 2523 1934–1951 SO after Grigory (Sergo) Ordzhonikidze;
2 condensing locomotives designated СОК (SOK)
9P (ru) 0-6-0 Kolomna, Novocherkassk, Murom workshops 2688 1935–1957
СО19
also СОК
SO19
also SOK
2-10-0 Kharkiv, Bryansk, Ulan-Ude, Voroshilovgrad 1436 1936–1942 Condensing locomotives
В5 V5 (ru) 0-4-4 Kolomna 1 1937 Experimental locomotive with high pressure boiler
2-3-2К 2-3-2K 4-6-4 Kolomna 2 1937–1938 Experimental locomotives
2-3-2В 2-3-2V 4-6-4 Voroshilovgrad 1 1938 Experimental locomotive
СО18
also СОВ
SO18
also SOV
2-10-0 Kharkiv, Bryansk, Voroshilovgrad 489 1939–1946
ФД21 FD21 2-10-2 Voroshilovgrad, Ulan-Ude 286 1940–1942 as ФД20 (FD20), with 21 t axleload
ЛК L<sup>K</sup> (ru) 2-10-0 Voroshilovgrad 1 1941 Experimental locomotive
ИС21
from 1962:
ФДП21
IS21
from 1962:
FDP21
2-8-4 Voroshilovgrad 11 1941–1942 as ИС20 (IS20), but with 21 t axleload
ФДР18 FDR18 2-10-4 Ulan-Ude (85) (1943–1944) Converted from ФД (FD); 18 t axleload;
ША ShA 2-8-0 ALCO, Baldwin 194 1943 USATC S160 Class;
200 shipped, 6 lost at sea
ЕА YeA 2-10-0 ALCO, Baldwin 1622 1944–1946
ЕМ YeM 2-10-0 Baldwin 425 1944–1947 13 with feedwater heater ЕМВ (EMV)
Л
originally
П
L
originally
P
2-10-0 Kolomna, Voroshilovgrad, Bryansk 4199 1945–1955
23
also УУ
23 (ru)
also UU
2-10-4 Ulan-Ude 1 1949 Experimental locomotive
ОР23 OR23 2-10-4 Voroshilovgrad 1 1949 OR after October Revolution Locomotive Works;
Experimental locomotive
П34 P34 2-6-6-2 Kolomna 1 1949 Experimental Mallet locomotive
П36 P36 4-8-4 Kolomna 251 1950–1956
ЛВ
originally
ОР18
LV
originally
OR18
2-10-2 Voroshilovgrad 522 1952–1956
ОР21 OR21 (ru) 2-10-2 Voroshilovgrad 3 1953–1954 Experimental locomotives
П38 P38 2-8-8-4 Kolomna 4 1954–1955 Experimental Mallet locomotive
м 9P<sup>M</sup> (ru) 0-6-0 Murom workshops 500 1955–1957

Captured locomotives

Class
(Cyrillic)
Class
(Romanized)
Type Manufacturer Quantity Years
built
Notes Image
ТЭ TE 1'E h2 Various ~2700 1942-1945 Deutsche Reichsbahn Kriegsloks. Some standard gauge, used in the Baltic and border republics. 100 transferred to Hungarian State Railways in 1963.

Locomotive builders

Reference[10]

See also

References

  • Le Fleming, H. M. & Price, John Horace (1972). Russian Steam Locomotives. New York: Drake Publishers. ISBN 0-87749-148-8.
This page was last edited on 15 January 2024, at 16:11
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