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21 толщина отгружаемого проката
Русско-английский новый политехнический словарь > толщина отгружаемого проката
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22 сталь
* * *сталь ж.
steelазоти́ровать сталь — nitride steelалити́ровать сталь — aluminize steelвакууми́ровать сталь — treat (molten) steel under vacuumвари́ть сталь жарг. — make steelворони́ть сталь — blue steelвыплавля́ть сталь — make steelгофрирова́ть сталь — corrugate steelзакаля́ть сталь — harden steel; ( охлаждать в целях закалки) quench steelката́ть сталь в горя́чем состоя́нии — hot-roll steelката́ть сталь в холо́дном состоя́нии — cold-roll steelлеги́ровать сталь — alloy steelнагарто́вывать сталь — work-harden steelнагрева́ть сталь — reheat steelнауглеро́живать сталь — carburize steelнормализова́ть сталь — normalize steelобраба́тывать сталь термомехани́ческий — ausform steelомедня́ть сталь — copper-plate steelотжига́ть сталь — anneal steelотпуска́ть сталь — temper steelоцинко́вывать сталь — galvanize steelпакети́ровать сталь — fagot steelпередува́ть сталь — overblow steelпережига́ть сталь — burn steelплакирова́ть сталь — clad steelподверга́ть сталь термообрабо́тке — heat-treat steelпоставля́ть сталь по механи́ческим сво́йствам — market steel on the basis of physical specificationsпоставля́ть сталь по хими́ческому соста́ву — market steel on the basis of chemical specificationsпродува́ть сталь по́лностью — blow steel fullyразлива́ть сталь (в изло́жницы) — cast steel, pour [teem] steel into mouldsрасчисля́ть сталь — deoxidize steelрифли́ть сталь — checker steelстабилизи́ровать сталь — stabilize steelтрави́ть сталь — pickle steelуспока́ивать сталь — kill steelхроми́ровать сталь хими́ческим спо́собом — chromate steelхроми́ровать сталь электролити́ческим спо́собом — chrome-plate steelцементи́ровать сталь — case-harden steelавиацио́нная сталь — aircraft steelавтома́тная сталь — free-cutting steelалма́зная сталь — extra-hard steelармату́рная сталь — reinforcing-bar steel; ( вид проката) reinforcing barsаустени́тная сталь — abstenitic steelбессеме́ровская сталь — Bessemer steelбруско́вая сталь уст. — (square) bar steelбыстроре́жущая сталь — high-speed steelбула́тная сталь — Damascus steel, damasceneвысоколеги́рованная сталь — high-alloy steelвысокоуглеро́дистая, высокомарганцо́вистая и т. п. сталь — high-carbon, high-manganese, etc. steelдама́сская сталь — Damascus steel, damasceneдина́мная сталь — dynamo steelдисперсио́нно-тверде́ющая сталь — precipitation-hardening steelдоэвтекто́идная сталь — hypoeutectoid steelжаропро́чная сталь — high-temperature steelжаросто́йкая сталь — heat-resistant steelзаклё́почная сталь — rivet steelзаэвтекто́идная сталь — hypereutectoid steelизнососто́йкая сталь — wear-resisting steelинструмента́льная сталь — tool steelквадра́тная сталь — squaresкипя́щая сталь — брит. rimming steel; амер. rimmed steelки́слая сталь — acid steelкислотосто́йкая сталь — acid resisting steelкла́панная сталь — valve steelконве́ртерная сталь — converter steelконструкцио́нная сталь — structural steelко́рпусная сталь — hull plateкоррозио́нно-сто́йкая сталь — corrosion-resistant steelкоте́льная сталь — boiler steelкремни́стая сталь — silicon steelкру́глая сталь — roundsлеги́рованная сталь — alloyed [alloy-treated] steelмалоуглеро́дистая сталь — low-carbon steelма́рганцевая сталь — manganese steelмарте́новская сталь — open-hearth steelмартенси́тная сталь — martensitic steelмартенситностаре́ющая сталь — maraging steelмногосло́йная сталь — ply steelмя́гкая сталь — mild [soft] steelнедораски́сленная сталь — rising steelнелеги́рованная сталь — plain (carbon) steelнема́рочная сталь — off-grade steelнержаве́ющая сталь — stainless steelнизколеги́рованная сталь — low-alloyed steelнизкоуглеро́дистая сталь — low-carbon steelо́бручная сталь — hoop ironосновна́я сталь — basic steelперли́тная сталь — pearlitic steelсталь пове́рхностной прока́ливаемости — shallow-hardening steelподши́пниковая сталь — bearing steelполосова́я сталь ( не путать со стально́й полосо́й) — strip steel (not to be confused with steel strip)полуспоко́йная сталь — semikilled steelпрока́тная, углова́я сталь — anglesпрока́тная, углова́я неравнобо́кая сталь — unequal anglesпрока́тная, углова́я равнобо́кая сталь — equal anglesпроста́я сталь — plain steelпро́фильная сталь — steel shapesпружи́нная сталь — spring steelпрутко́вая сталь — rod steel; ( вид проката) rodsре́льсовая сталь — rail steelро́слая сталь — rising steelсамозака́ливающаяся сталь — air-hardening steelсва́рочная сталь — weld steelсталь сквозно́й прока́ливаемости — through-hardening steelспоко́йная сталь — killed steelсудострои́тельная сталь — shipbuilding steelтекстуро́ванная сталь — grain-oriented steelти́гельная сталь — crucible steelтолстолистова́я сталь — plate steel; ( вид проката) (steel) plateтолстолистова́я, фасо́нная сталь — sketch plate(s)тонколистова́я сталь — sheet steel; ( вид проката) steel sheetто́почная сталь — fire-box steelтрансформа́торная сталь — transformer steelтру́бная сталь — pipe steelуглеро́дистая сталь — carbon steelфасо́нная сталь — structural shape(s)ферри́тная сталь — ferritic steelхро́мистая сталь — chromium steelцеме́нтная сталь — cement steelшве́ллерная сталь — channelsшестигра́нная сталь — hexagonal steel, hexagonsшта́мповая сталь — die steelштри́псовая сталь — skelp steelэлектри́ческая сталь — electrical steel (см. тж. электросталь)электротехни́ческая сталь — electrical-sheet [silicon-sheet] steel -
23 искажение профиля
Русско-английский новый политехнический словарь > искажение профиля
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24 стальной профиль
Авиация и космонавтика. Русско-английский словарь > стальной профиль
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25 профиль стали
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26 сортовая сталь
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27 çelik profili
steel shape -
28 фасонная сталь
1) Naval: fashion2) Engineering: shape, structural shape, structural shapes3) Construction: shaped bars4) Automobile industry: section, section iron, shaped iron5) Mechanics: figured steel6) Automation: fashioned iron, fashioned steel, figured iron7) Makarov: section steel, shaped steel, steel shape -
29 сортовая сталь
1) Naval: section iron, shape iron2) Engineering: section, steel bar, steel shape3) Construction: finished iron, profiled iron, profiled steel, section steel, sectional steel4) Railway term: structural steel5) Automobile industry: shaped iron6) Oil: commercial steel7) Automation: fashioned steel8) Cement: structural-grade steel -
30 Baustahl
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31 Baustahl
m1. construction steel2. mild steelm[mittlerer Kohlenstoffgehalt]machinery steelm[niedriger Kohlenstoffgehalt]1. carbon steel coll.2. low-carbon steel3. plain carbon steel4. structural (carbon) steelm[Stahlprofile]1. sectional steel2. steel shapestructural steel -
32 профиль сталь
1. merchant steel2. steel shapeРусско-английский новый политехнический словарь > профиль сталь
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33 acier profilé
m1) rolled shape2) rolled steel section, steel section, structural shape, shear steelDictionnaire d'ingénierie, d'architecture et de construction > acier profilé
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34 Junghans, Siegfried
SUBJECT AREA: Metallurgy[br]b. 1887d. 1954[br]German pioneer of the continuous casting of metals.[br]Junghans was of the family that owned Gebrüder Junghans, one of the largest firms in the German watch-and clockmaking industry. From 1906 to 1918 he served in the German Army, after which he took a course in metallurgy and analytical chemistry at the Technical High School in Stuttgart. Junghans was then given control of the brassworks owned by his family. He wanted to make castings simply and cheaply, but he found that he lacked the normal foundry equipment. By 1927, formulating his ideas on continuous casting, he had conceived a way of overcoming this deficiency and began experiments. By the time the firm was taken over by Wieland-Werke AG in 1931, Junghans had achieved positive results. A test plant was erected in 1932, and commercial production of continuously cast metal followed the year after. Wieland told Junghans that a brassfounder who had come up through the trade would never have hit on the idea: it took an outsider like Junghans to do it. He was made Technical Director of Wielands but left in 1935 to work privately on the development of continuous casting for all metals. He was able to license the process for non-ferrous metals during 1936–9 in Germany and other countries, but the Second World War interrupted his work; however, the German government supported him and a production plant was built. In 1948 he was able to resume work on the continuous casting of steel, which he had been considering since 1936. He pushed on in spite of financial difficulties and produced the first steel by this process at Schorndorf in March 1949. From 1950 he made agreements with four firms to work towards the pilot plant stage, and this was achieved in 1954 at Mannesmann's Huckingen works. The aim of continuous casting is to bypass the conventional processes of casting molten steel into ingots, reheating the ingots and shaping them by rolling them in a large mill. Essentially, in continuous casting, molten steel is drawn through the bottom of a ladle and down through a water-cooled copper mould. The unique feature of Junghans's process was the vertically reciprocating mould, which prevented the molten metal sticking as it passed through. A continuous length of steel is taken off and cooled until it is completely solidified into the required shape. The idea of continuous casting can be traced back to Bessemer, and although others tried to apply it later, they did not have any success. It was Junghans who, more than anybody, made the process a reality.[br]Further ReadingK.Sperth and A.Bungeroth, 1953, "The Junghans method of continuous casting of steel", Metal Treatment and Drop Forging, Mayn.J.Jewkes et al., 1969, The Sources of Invention, 2nd edn, London: Macmillan, pp. 287 ff.LRD -
35 предварительный профиль
Русско-английский новый политехнический словарь > предварительный профиль
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36 сложный профиль
Русско-английский новый политехнический словарь > сложный профиль
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37 штампованный профиль
Авиация и космонавтика. Русско-английский словарь > штампованный профиль
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38 شكل
شَكَّلَ \ constitute: to make up: Seven days constitute a week. form: to shape or make: The children formed a circle round her. I formed a good opinion of him. make up: to form jointly: This machine is made up of sixty different parts. Let’s make up a team to play football. model: to shape sth: We enjoy modelling (animals) out of clay in our art lessons. (modelar). mould (mold): to form a soft material into a certain shape: He moulded the clay into the form of a man’s head. shape: to give (sth.) a form: The potter shaped the clay with his fingers. \ See Also كون (كَوَّنَ) \ شَكَّل الحديد بالإحماء والطّرق \ forge: to shape (an iron or steel object) by hammering it when it is hot. -
39 Alleyne, Sir John Gay Newton
SUBJECT AREA: Metallurgy[br]b. 8 September 1820 Barbadosd. 20 February 1912 Falmouth, Cornwall, England[br]English iron and steel manufacturer, inventor of the reversing rolling mill.[br]Alleyne was the heir to a baronetcy created in 1769, which he succeeded to on the death of his father in 1870. He was educated at Harrow and at Bonn University, and from 1843 to 1851 he was Warden at Dulwich College, to the founder of which the family claimed to be related.Alleyne's business career began with a short spell in the sugar industry at Barbados, but he returned to England to enter Butterley Iron Works Company, where he remained for many years. He was at first concerned with the production of rolled-iron girders for floors, especially for fireproof flooring, and deck beams for iron ships. The demand for large sections exceeded the capacity of the small mills then in use at Butterley, so Alleyne introduced the welding of T-sections to form the required H-sections.In 1861 Alleyne patented a mechanical traverser for moving ingots in front of and behind a rolling mill, enabling one person to manipulate large pieces. In 1870 he introduced his major innovation, the two-high reversing mill, which enabled the metal to be passed back and forth between the rolls until it assumed the required size and shape. The mill had two steam engines, which supplied the motion in opposite directions. These two inventions produced considerable economies in time and effort in handling the metal and enabled much heavier pieces to be processed.During Alleyne's regime, the Butterley Company secured some notable contracts, such as the roof of St Paneras Station, London, in 1868, with the then-unparalleled span of 240 ft (73 m). The manufacture and erection of this awe-inspiring structure was a tribute to Alleyne's abilities. In 1872 he masterminded the design and construction of the large railway bridge over the Old Maas at Dordrecht, Holland. Alleyne also devised a method of determining small quantities of phosphorus in iron and steel by means of the spectroscope. In his spare time he was a skilled astronomical observer and metalworker in his private workshop.[br]Bibliography1875, "The estimation of small quantities of phosphorus in iron and steel by spectrum analysis", Journal of the Iron and Steel Institute: 62.Further ReadingObituary, 1912, Journal of the Iron and Steel Institute: 406–8.LRDBiographical history of technology > Alleyne, Sir John Gay Newton
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40 Gibbons, John
SUBJECT AREA: Metallurgy[br]fl. 1800–50 Staffordshire, England[br]English ironmaster who introduced the round hearth in the blastfurnace.[br]Gibbons was an ironmaster in the Black Country, South Staffordshire, in charge of six blast furnaces owned by the family business. Until Gibbons's innovation in 1832, small changes in the form of the furnace had at times been made, but no one had seriously questioned the square shape of the hearth. Gibbons noticed that a new furnace often worked poorly by improved as time went on. When it was "blown out", i.e. taken out of commission, he found that the corners of the hearth had been rounded off and the sides gouged out, so that it was roughly circular in shape. Gibbons wisely decided to build a blast furnace with a round hearth alongside an existing one with a traditionally shaped hearth and work them in exactly the same conditions. The old furnace produced 75 tons of iron in a week, about normal for the time, while the new one produced 100 tons. Further improvements followed and in 1838 a fellow ironmaster in the same district, T. Oakes, considerably enlarged the furnace, its height attaining no less than 60ft (18m). As a result, output soared to over 200 tons a week. Most other ironmasters adopted the new form with enthusiasm and it proved to be the basis for the modern blast furnace. Gibbons made another interesting innovation: he began charging his furnace with the "rubbish", slag or cinder, from earlier ironmaking operations. It contained a significant amount of iron and was cheaper to obtain than iron ore, as it was just lying around in heaps. Some ironmasters scorned to use other people's throw-outs, but Gibbons sensibly saw it as a cheap source of iron; it was a useful source for some years during the nineteenth century but its use died out when the heaps were used up. Gibbons published an account of his improvements in ironmaking in a pamphlet entitled Practical Remarks on the Construction of the Staffordshire Blast Furnace.[br]Bibliography1839, Practical Remarks on the Construction of the Staffordshire Blast Furnace, Birmingham; reprinted 1844.Further ReadingJ.Percy, 1864, Metallurgy. Iron and Steel, London, p. 476. W.K.V.Gale, 1969, Iron and Steel, London: Longmans, pp. 44–6.LRD
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