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1 maintain combustion
Большой англо-русский и русско-английский словарь > maintain combustion
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2 maintain combustion
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3 maintain combustion
Макаров: поддерживать сгорание -
4 combustion
1) сгорание
2) горение
3) дожигание
4) пламенный
5) процесс сгорания
6) сжигание
7) сжигательный
8) сожигательный
9) горючий
10) возгорание
– accelerate combustion
– catalytic combustion
– combustion air
– combustion analysis
– combustion chamber
– combustion controller
– combustion efficiency
– combustion equation
– combustion heater
– combustion knock
– combustion mechanismmechanism
– combustion period
– combustion pressure
– combustion product
– combustion rate
– combustion stroke
– combustion surface
– combustion temperature
– combustion tube
– combustion unit
– complete combustion
– completeness of combustion
– confine combustion
– confined combustion
– crater-like combustion
– delayed combustion
– destructive combustion
– dry combustion
– dry combustion method
– extinguish combustion
– heat of combustion
– heterogeneous combustion
– homogeneous combustion
– incomplete combustion
– initiate combustion
– kinetic combustion
– knocking combustion
– laminar combustion
– maintain combustion
– nonuniform combustion
– slow combustion
– smokeless combustion
– steady-state combustion
– surface combustion
– sustain combustion
– uniform combustion
– wet combustion
reverse-flow combustion chamber — камера сгорания противоточная
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5 combustion
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6 maintain
1) содержать в исправности
2) сохранять
3) обслуживать
4) эксплуатировать
5) поддерживать
– maintain combustion
– maintain discharge
– maintain maneuver
– maintain schedule
– maintain stability
– maintain the climb
maintain by reference to gyros — корректировать по гироскопам
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7 поддерживать сгорание
Большой англо-русский и русско-английский словарь > поддерживать сгорание
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8 temperature
1. температураbottom hole circulating temperature — динамическая температура на забое, температура на забое при циркуляции жидкости
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температура; степень нагрева
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- actual oil temperature
- borehole temperature
- bottomhole temperature
- bottomhole circulating temperature
- chilling temperature
- circulating temperature of drilling mud stream
- crude oil temperature
- decomposition temperature
- downhole temperature
- flow line temperature
- flowing bottomhole temperature
- formation temperature
- gas temperature
- hardening temperature
- high temperature
- ignition temperature
- induration temperature
- inlet temperature
- liquefaction temperature
- lubricating oil chilling temperature
- lubricating oil congelation temperature
- melting temperature
- normal temperature
- oil temperature
- oil chilling temperature
- oil congelation temperature
- oil in-situ temperature
- original temperature
- original reservoir temperature
- pouring temperature
- pseudocritical temperature
- reservoir temperature
- reservoir oil temperature
- rock temperature
- saturation temperature
- separation temperature
- shut-in bottomhole temperature
- sintering temperature
- static temperature of drilling mud
- subsurface temperature
- surface oil temperature
- wellhead temperature
- wellhead annulus temperatureАнгло-русский словарь нефтегазовой промышленности > temperature
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9 control
управление; регулирование; контроль; орган [рычаг] управления; руль; pl. система управления или регулирования; управлять; регулироватьback seat flight control — управление ЛА из задней кабины [с места заднего лётчика]; pl. дублирующие органы управления в задней кабине
be out of control — терять управление [управляемость]; выходить из-под управления [контроля]
continuously variable thrust control — плавное [бесступенчатое] регулирование тяги
control c.g. control — регулирование центровки (ЛА)
control of missile attitude — стабилизация ракеты; управление пространственным положением ракеты
control of the air — превосходство или господство в воздухе; превосходство в области авиации [в авиационной технике]; контроль воздушного пространства
control of the yoke — разг. управление штурвалом
control of thrust orientation — управление ориентированием [направлением вектора] тяги
flight deck lighting controls — органы управления [ручки регулировки] освещением кабины экипажа
fling the controls over — перебрасывать органы управления (в противоположную сторону),
flow control with altitude compensation — регулятор расхода [подачи] с высотным корректором
fuel dump valve control — кран [рычаг крана] аварийного слива топлива
gas jet attitude control — управление пространственным положением с помощью системы газоструйных рулей
go out of control — терять управление, выходить из-под управления [контроля]
ground rollout rudder steering control — управление пробегом [на пробеге] с помощью руля направления
interconnected fuel and propeller controls — объединённая система регулирования подачи топлива и шага винта
jet tab thrust vector control — управление вектором тяги с помощью газовых рулей; дефлекторное управление вектором тяги
jet(-deflection, -direction) control — реактивное [струйное] управление; управление изменением направления тяги; струйный руль
manual mixture shut-off control — рычаг отсечки подачи горючей смеси, рычаг останова [выключения] двигателя
maximum boundary layer control — управление пограничным слоем при наибольшей эффективности [производительности, интенсивности работы] системы
recover the control — восстанавливать управление [управляемость]
respond to the controls — реагировать [отвечать] на отклонение рулей [органов управления]
space shuttle orbiter control — управление орбитальной ступенью челночного воздушно-космического аппарата
throttle and collective pitch control — верт. рычаг «шаг — газ»
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10 pressure
давление; сжатие; прессование; герметичныйboundary layer induced pressure — давление, обусловленное пограничным слоем
computer unit output pressure — давление на выходе решающего гидроусилителя (автомата загрузки бустерного управления)
dump the pressure to return — стравливать [перепускать] давление в отводящую магистраль
forward (control) stick pressure — усилие (на ручке) в направлении «от себя», давящее [толкающее] усилие (на ручке)
partial pressure suit capstan pressure — давление в натяжных пневмокамерах высотного компенсирующего костюма
relax forward pressure on the stick — уменьшать усилие на ручке в направлении «от себя»: отпускать ручку назад
relieve the back pressure on the stick — уменьшать усилие на ручке в направлении «на себя»; отпускать ручку вперёд
saturated vapor pressure — упругость насыщающего пара; давление насыщенного пара
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11 control
1. регулирование, регулировка; управление; регулировать, управлять2. регулировочное устройство3. элементы системы управления4. автоматическое регулирование приводки5. устройство для автоматической регулировки приводки красок6. автоматическое регулирование боковой приводки7. устройство для автоматической регулировки боковой приводкиbackward-acting control — регулирование; регулировка
8. автоматическое регулирование натяжения9. устройство для регулировки натяжения10. регулирование приводки по окружности цилиндра11. устройство для регулировки приводки по окружности цилиндраclosed-loop control — замкнутый цикл контроля, контроль с обратной связью
12. контроль положения линии рубки; контроль положения линии поперечной резки13. автоматическое устройство, контролирующее положение изображения относительно линии рубкиdiaphragm control — номограмма, связывающая индекс диафрагмы с масштабом съёмки
14. управление экспозицией15. устройство для управления экспозициейgradation control — управление градацией; управление градационным процессом; контроль градации, регулирование градации
gripper control — управление захватами, регулировка захватов
highlight control — управление градацией «высоких светов», регулирование градационных характеристик «высоких светов»
16. регулировка подачи краски17. регулятор подачи краски18. регулирование режима работы передаточного валика по отношению к дукторному валу, регулирование передаточного валика19. устройство для регулирования режима работы передаточного валика20. регулирование продольной приводки21. устройство для регулировки долевой приводки22. регулирование боковой и продольной приводки23. устройство для регулировки боковой и продольной приводки24. контроль неподачи листов25. устройство, контролирующее неподачу листов26. регулировка положения валика печатного станка27. устройство для регулирования положения валика печатного станка28. авторегулирование натяжения с помощью пневматически нагруженного «плавающего» валика29. пневматическое устройство с «плавающим» валиком для авторегулирования натяжения30. регулирование окружного смещения формного цилиндра31. устройство для управления окружным смещением формного цилиндра32. управление экспозицией при копировании33. устройство для автоматического отсчёта времени экспонированияprint to cut register control — приводка рубки по печати, регулирование положения линии рубки ленты
34. регулирование приводки35. устройство для регулирования приводкиexchange control — валютный контроль; валютное регулирование
control margin — диапазон регулирования; диапазон управления
36. регулирование приводки на рабочем ходу37. устройство для регулирования приводки на рабочем ходу38. контроль подачи листов39. устройство, контролирующее подачу листов40. регулирование боковой приводки41. устройство для регулирования боковой приводкиtime control — управление временем, автоматический отсчёт времени
tonal control — управление градацией изображения или градационным процессом, регулирование градационной характеристики
42. управление движением лентыfailsoft control — управление с "мягким отказом"
43. устройство для контроля за движением ленты44. регулирование положения боковой кромки ленты45. устройство для выравнивания ленты46. управление длиной подачи ленты47. устройство для регулирования подачи лентыfeed control slide — заслонка, регулирующая подачу
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12 stability
устойчивость; остойчивость ( гидросамолёта) ; стабильность ( пиротехнического состава) -
13 Hamilton, Harold Lee (Hal)
[br]b. 14 June 1890 Little Shasta, California, USAd. 3 May 1969 California, USA[br]American pioneer of diesel rail traction.[br]Orphaned as a child, Hamilton went to work for Southern Pacific Railroad in his teens, and then worked for several other companies. In his spare time he learned mathematics and physics from a retired professor. In 1911 he joined the White Motor Company, makers of road motor vehicles in Denver, Colorado, where he had gone to recuperate from malaria. He remained there until 1922, apart from an eighteenth-month break for war service.Upon his return from war service, Hamilton found White selling petrol-engined railbuses with mechanical transmission, based on road vehicles, to railways. He noted that they were not robust enough and that the success of petrol railcars with electric transmission, built by General Electric since 1906, was limited as they were complex to drive and maintain. In 1922 Hamilton formed, and became President of, the Electro- Motive Engineering Corporation (later Electro-Motive Corporation) to design and produce petrol-electric rail cars. Needing an engine larger than those used in road vehicles, yet lighter and faster than marine engines, he approached the Win ton Engine Company to develop a suitable engine; in addition, General Electric provided electric transmission with a simplified control system. Using these components, Hamilton arranged for his petrol-electric railcars to be built by the St Louis Car Company, with the first being completed in 1924. It was the beginning of a highly successful series. Fuel costs were lower than for steam trains and initial costs were kept down by using standardized vehicles instead of designing for individual railways. Maintenance costs were minimized because Electro-Motive kept stocks of spare parts and supplied replacement units when necessary. As more powerful, 800 hp (600 kW) railcars were produced, railways tended to use them to haul trailer vehicles, although that practice reduced the fuel saving. By the end of the decade Electro-Motive needed engines more powerful still and therefore had to use cheap fuel. Diesel engines of the period, such as those that Winton had made for some years, were too heavy in relation to their power, and too slow and sluggish for rail use. Their fuel-injection system was erratic and insufficiently robust and Hamilton concluded that a separate injector was needed for each cylinder.In 1930 Electro-Motive Corporation and Winton were acquired by General Motors in pursuance of their aim to develop a diesel engine suitable for rail traction, with the use of unit fuel injectors; Hamilton retained his position as President. At this time, industrial depression had combined with road and air competition to undermine railway-passenger business, and Ralph Budd, President of the Chicago, Burlington \& Quincy Railroad, thought that traffic could be recovered by way of high-speed, luxury motor trains; hence the Pioneer Zephyr was built for the Burlington. This comprised a 600 hp (450 kW), lightweight, two-stroke, diesel engine developed by General Motors (model 201 A), with electric transmission, that powered a streamlined train of three articulated coaches. This train demonstrated its powers on 26 May 1934 by running non-stop from Denver to Chicago, a distance of 1,015 miles (1,635 km), in 13 hours and 6 minutes, when the fastest steam schedule was 26 hours. Hamilton and Budd were among those on board the train, and it ushered in an era of high-speed diesel trains in the USA. By then Hamilton, with General Motors backing, was planning to use the lightweight engine to power diesel-electric locomotives. Their layout was derived not from steam locomotives, but from the standard American boxcar. The power plant was mounted within the body and powered the bogies, and driver's cabs were at each end. Two 900 hp (670 kW) engines were mounted in a single car to become an 1,800 hp (l,340 kW) locomotive, which could be operated in multiple by a single driver to form a 3,600 hp (2,680 kW) locomotive. To keep costs down, standard locomotives could be mass-produced rather than needing individual designs for each railway, as with steam locomotives. Two units of this type were completed in 1935 and sent on trial throughout much of the USA. They were able to match steam locomotive performance, with considerable economies: fuel costs alone were halved and there was much less wear on the track. In the same year, Electro-Motive began manufacturing diesel-electrie locomotives at La Grange, Illinois, with design modifications: the driver was placed high up above a projecting nose, which improved visibility and provided protection in the event of collision on unguarded level crossings; six-wheeled bogies were introduced, to reduce axle loading and improve stability. The first production passenger locomotives emerged from La Grange in 1937, and by early 1939 seventy units were in service. Meanwhile, improved engines had been developed and were being made at La Grange, and late in 1939 a prototype, four-unit, 5,400 hp (4,000 kW) diesel-electric locomotive for freight trains was produced and sent out on test from coast to coast; production versions appeared late in 1940. After an interval from 1941 to 1943, when Electro-Motive produced diesel engines for military and naval use, locomotive production resumed in quantity in 1944, and within a few years diesel power replaced steam on most railways in the USA.Hal Hamilton remained President of Electro-Motive Corporation until 1942, when it became a division of General Motors, of which he became Vice-President.[br]Further ReadingP.M.Reck, 1948, On Time: The History of the Electro-Motive Division of General Motors Corporation, La Grange, Ill.: General Motors (describes Hamilton's career).PJGRBiographical history of technology > Hamilton, Harold Lee (Hal)
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14 Todd, Leonard Jennett
SUBJECT AREA: Steam and internal combustion engines[br]fl. 1885 London, England[br]English (?) patentee of steam engines incorporating the uniflow principle.[br]In a uniflow system, the steam enters a steam engine cylinder at one end, pushes the pistons along, and exhausts through a ring of ports at the centre of the cylinder that are uncovered by movement of the piston. The piston is returned by steam then entering the other end of the cylinder, moving the piston arrangement back, and again making its exit through the central ports. This gave the thermodynamic advantage of the cylinder ends remaining hot and the centre colder with reheating the ends of the cylinder through compression of the residual steam. The principle was first patented by Jacob Perkins in England in 1827 and was tried in America in 1856.Little is known about Todd. The addresses given in his patent specifications show that he was living first at South Hornsey and then Stoke Newington, both in Middlesex (now in London). No obituary notices have been traced. He took out a patent in 1885 for a "terminal exhaust engine" and followed this with two more in 1886 and 1887. His aim was to "produce a double acting steam engine which shall work more efficiently, which shall produce and maintain within itself an improved gradation of temperature extending from each of its two Hot Inlets to its common central Cold Outlet". His later patents show the problems he faced with finding suitable valve gears and the compression developing during the return stroke of the piston. It was this last problem, particularly when starting a condensing engine, that probably defeated him through excessive compression pressures. There is some evidence that he hoped to apply his engines to railway locomotives.[br]Bibliography1885, British patent no. 7,301 (terminal exhaust engine). 1886, British patent no. 2,132.1887, British patent no. 6,666.Further ReadingR.L.Hills, 1989, Power from Steam. A History of the Stationary Steam Engine, Cambridge University Press (provides the fullest discussion of his patents). H.W.Dickinson, 1938, A Short History of the Steam Engine, Cambridge University Press.J.Stumpf, 1912, The Una-Flow Steam Engine, Munich: R.Oldenbourg.RLH -
15 sludge incineration
сжигание ила
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[ http://www.eionet.europa.eu/gemet/alphabetic?langcode=en]EN
sludge incineration
A method used for drying and reducing sludge volume and weight. Since incineration requires auxiliary fuel to obtain and maintain high temperature and to evaporate the water contained in the incoming sludge, concentration techniques should be applied before incineration. Sludge incineration is a two-step process involving drying and combustion after a preceding dewatering process, such as filters, drying beds, or centrifuges. (Source: CORBIT)
[http://www.eionet.europa.eu/gemet/alphabetic?langcode=en]Тематики
EN
DE
FR
установка для сжигания осушенного шлама
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[А.С.Гольдберг. Англо-русский энергетический словарь. 2006 г.]Тематики
EN
Англо-русский словарь нормативно-технической терминологии > sludge incineration
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