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101 panel
панель; распределительная доска [щит]; приборная доска; консоль ( крыла) ; клин ( полотнища парашютного купола) ; сигнальное полотнище; комиссия, рабочая группаa.c. power panel — щиток управления электросистемой переменного тока
d.c. power panel — щиток управления электросистемой постоянного тока
emergency flotation gear panel — верт. панель аварийных средств обеспечения плавучести
essential services circuit breaker panel — эл. щиток автоматов защиты важнейших потребителей
first officer's instrument panel — приборная доска [панель] второго лётчика [пилота]
hat section stiffened panel — панель, подкрепленная корытообразным профилем
navigation function selector panel — щиток переключения видов [режимов] работы навигационных средств
navigation mode selector panel — щиток переключения видов [режимов] работы навигационных средств
rack cartridge ground test panel — щиток наземной проверки пиропатронов. подвески
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102 панель
panel (pnl, p)
деталь из листового риала e элементами жесткости. — matfr- а portion of a stiffened sheet together with its stiffeners.
- (бпок) — unit
- (часть пульта, напр., отдельная панель потолочного пульта) — (overhead panel) module
- аварийных и предупредительных табло, центральная — master caution/warning panel. the eng/apu status annunciator on the master caution/warning panel should illuminate.
- автоматики топлива — fuel (auto) control panel
- автоматического запуска (апд) — engine auto start control unit
- автоматов защиты сети (аэс или азр) (рис. 88) — circuit breaker panel, cb panel, с/в panel
- аэс (ру225) — св pnl225, р225
- бортинженера, верхняя, приборная ment panel — flight engineer's upper instru
-, бытовая (управления бытoвым оборудованием) — equipment/furnishings control panel
-, водозаправочная — water servicing control panel
- выбора режимов системы омега — remote omega control panel with positions: cmptr, onsi, ons2, day-night, mag-true, km-miles.
- гидросистемы, бортовая — hydraulic servicing (points) panel
- двигателя, пусковая — engine startling) control panel
-, декоративная (отделки кабины) — decor panel the cabin interior is finished with decor panels.
- для временных соединений (посредством соединительных шнуров) — patch board /panel/. а board or panel where circults are terminated in jacks for patch cords.
- задатчика (опасной) высоты — (alert) altitude select panel
the test switch is on the altitude select panel, used to activate altitude alert condition signal.
- заправки водой water — servicing (control) panel
- заправки и слива топлива — refuel/defuel panel, (external) fueling and defueling panel, refuel/offload panel
- заправки топливом — fueling control panel
- запуска двигателей — engine start control panel
- запуска двигателей, автоматическая — engine auto start control unit (адп) (eng auto start)
- индивидуального обслужнвания (пассажира) — passenger service panel
- индикации и управления — control display panel /unit/
- кондиционирования воздуха — air-conditioning control panel
- контроля — test /monitoring/ panel
- контроля (см. пульт) — monitor panel
- контроля абсу (автоматической бортовой системы управнения) — afcs (automatic flight control system) monitor panel
- контроля вибрации двигателя — engine vibration monitor panel depress the vibration monitor test switch.
- контроля дверей и люков — door warning (light) panel the panеl mounts door open annunciator.
- контроля звуковой сигнализации — aural warning test panel
used to test following aural warning: а/с ovsp, cab press, unsafe ldg, unsafe takeoff, flaps lrs (load relieving system)
- контроля напряжения, тока и частоты — voltage, load arid frequency monitoring panel
- контроля предкрылков — slat monitor panel
- летчиков (центральная, приборная) — center instrument panel
-, моноблочная фрезерованная (обшивки) — one-piece construction milled panel
-, наклонная — sloping panel
-, облицовочная — covering panel
-, облицовочная (стенки отсека) — wall panel
-, облицовочная потолочная — ceiling panel
- обслуживания (пассажира) — passenger service panel
на панели установлены: кнопки вызова бортпроводника, лампа индивидуального освещения и вентиляционный насадок. — the passenger service panel carries the cabin attendant call-button, reading light and conditioned air outlet.
- обслуживания (систем, напр., заправки, слива) — servicing panel
-, обшивочная (фюзеляжа) — skin panel
- останова двигателей (выключатели кранов останова на центральном пульте пилотов) — hp fuel shut-off valve control panel
-, откидная — hinged panel
- посадочной сигнализации — landing gear (and flap) position (uric) (рис. 69) indicating panel
-, потолочная (верхний эпектрощиток, состоящий из передней, средней и задней панелей) — overhead switch panel (eonsisting of forward, center and aft panels or modules)
- (часть) потолочного пульта — overhead panel module
-, предварительно собранная — prefabricated panel
- прибора, лицевая — instrument face
бленкер "глиссады" находится в левой части лицевой панели прибора. — the glideslope flag is located on the left side of the instrument face.
-, приборная — instrument panel
- приборной доски — instrument (sub-) panel
- приборов контроля двигателя — engine instrument panel
- приборов контроля (работы) двигателей — engine instrument and monitor panel
на панели расположены приборы и световые табло контроля работы силовой установки.
- проверки — test panel
- проверки огнетушителей — fire extinguisher test panel
на панели проверки огнетушителей нажмите кнопку проверк огнетуш. при этом должны загореться лампы i очередь и 2 очередь. — press the firex test button and all main and altn lights illuminate on fire extinguisher test panel.
- противопожарной защиты — fire protection (control) panel
- пульта (т.е. часть пульта) — panel module
- (штепсельных) разъемов — connector panel
- световой аварийной сигнализации, объединенная — master warning light panel (of the master warning light sys
- световой сигнализации (табло) (рис. 69) — annunciator panel (annun panel)
- световой сигнализации летчика (бортинженера) — pilot's (fit engineer's) annunciator panel
-, светопроводная (с боковым подсветом) — edgelit panel. the unit front section incorporates an edgelit panel.
- сигнализации (начала) эвакуации (после аварийной посадки) — emergency evacuation signal panel
- сигнализации отказов — fault annunciation panel
- сигнализации (парашютномy) десанту и управления — paratroop warning and cargo drop control panel
- сигнализации положения шасси (рис. 6) — landing gear position indicating panel
- системы тушения пожара — tire protection /extinguishing/ control panel
-, сливная (системы канализации) — (waste) drain control panel
-, смотровая — inspection panel
- сотовой конструкции — honeycomb panel
- спгу (самолетного переговорного громкоговорящего устройства) — audio (station) selector panel
-, съемная — detachable panel
- табло, центральная — master annunciator panel
fire warning lights (master annunciator panel) illuminate.
-, типовая — typical panel
-, угловая (приборной доски) (рис. 88) — gusset panel
- управления — control panel
- управления автоматическим запуском двигателей (пда) — auto engine start control unit
- управления автоматическим запуском двигателей (пда) работает (табло) — auto start on
- управления выработкой топлива — fuel management panel
- управления гидросистемой — hydraulic control pane!
- управления закрылками — flap control panel
- управления заправкой и сливом топлива — refuel/defuel panel, refuel/off-load panel, (external) fueling and defueling panel
- управления заправкой топлива (в правом отсеке шасси) — fueling control panel (in right main landing gear well)
управление сливом топлива осуществляется установкой ручки в положение "слив" на панели управления заправкой. — offloading is effected through the refueling points by selecting оoff-loadп on the (refueling control panel.
- управления заправкой воды — water servicing control panel
- управления обогревом лобовых стекол — windshield heat (control) panel
на панели расположены выключатели включения обогрева лобовых и боковых стекол лев, и прав, летчиков, контроля работы обогревателей и включения вентилятора обдува. — the w/s heat panel carries the capt's and coplt's switches, side window switches, windshield heat test switch, defog fan switch.
- управления обогревом приемников пвд, ппд, температуры (как часть, например, потолочного пульта) — probe heat control module (of overhead panel)
- управления освещением — lighting control panel
- управления предкрылками — slat control panel
- управления противообледенительной системой (нос) — anti-icing control panel
- управления противопожарной системой (нпо — fire extinguishing control panel
- управления самолетным переговорным громкоговорящим устройством (спгу) — audio (station) selector panel
- управления спойлерами — speller control panel
- управления топливной системой — fuel control panel
- управления уборкой/выпуском шасси — landing gear control panel
- управления эпектрооборудованием — electrical control panel
- управления эпектроэнергетикой — electrical control panel
- управления энергетикой переменного (постоянного) тока — ас (do electrical power control panel
- управления энергосистемой — electrical power control panel
- централизованного обслуживания гидросистемы (заправка, слив, проверка) — hydraulic service center. а door provides access to the hydraulic service center from outside.
- централизованного обслуживания радиоэлектронного оборудования — electronic service center
- центральная, приборная — center instrument panel
- энергетики — electrical control panel
- энергетики (переменного и постоянного тока) panel — ас and dc power control
- энергосистемы — electrical control panel
- энергосистемы и запуска всу (вспомогат. силовой установки) — electrical and apu start control pang
открывать (откидывать) п. — swing the panel open
устанавливать прибор с задней стороны п. — install the instrument from back of the instrument panelРусско-английский сборник авиационно-технических терминов > панель
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103 Brown, Charles Eugene Lancelot
[br]b. 17 June 1863 Winterthur, Switzerlandd. 2 May 1924 Montagnola, Italy[br]English engineer who developed polyphase electrical generation and transmission plant.[br]After attending the Technical College in Winterthur, Brown served with Emile Burgin in Basle before entering the Oerlikon engineering works near Zurich. Two years later he became Director of the electrical department of Oerlikon and from that time was involved in the development of electrical equipment for the generation and distribution of power. The Lauffen-Frankfurt 110-mile (177 km) transmission line of 1891 demonstrated the commercial feasibility of transmitting electrical power over great distances with three-phase alternating current. For this he designed a generator and early examples of oil-cooled transformers, and the scheme gave an impetus to the development of electric-power transmission throughout Europe. In 1891, in association with Walter Boveri, Brown founded the works of Brown Boveri \& Co. at Baden, Switzerland, and until his retirement in 1911 he devoted his energies to the design of polyphase alternating-current machinery. Important installations included the Frankfurt electricity works (1894), the Paderno-Milan transmission line, and the Lugano tramway of 1894, the first system in Europe to use three-phase traction motors. This tramway was followed by many other polyphase and mountain railways. The acquisition by Brown Boveri \& Co. in 1900 of the manufacturing rights of the Parsons steam turbine directed Brown's attention to problems associated with high-speed machines. Recognizing the high centrifugal stress involved, he began to employ solid cylindrical generator rotors with slots for the excitation winding, a method that has come to be universally adopted in large alternators.[br]Bibliography3 December 1901, British patent no. 24,632 (slotted rotor for alternators).Further ReadingObituary, 1924, The Engineer 137:543.Ake T.Vrenthem, 1980, Jonas Wenstrom and the Three Phase System, Stockholm, pp. 26–8 (obituary).75 Years of Brown Boveri, 1966, Baden, Switzerland (for a company history).GWBiographical history of technology > Brown, Charles Eugene Lancelot
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104 Sommeiller, Germain
[br]b. 15 March 1815 St Jeoire, Haute-Savoie, Franced. 11 July 1874 St Jeoire, Haute-Savoie, France[br]French civil engineer, builder of the Mont Cénis tunnel in the Alps.[br]Having been employed in railway construction in Sardinia, Sommeiller was working as an engineer at the University of Turin when, in 1857, he was commissioned to take charge of the French part in the construction of the 13 km (8 mile) tunnel under Mont Cénis between Modane, France, and Bardonècchia, Italy. This was to be the first long-distance tunnel through rock in the Alps driven from two headings with no intervening shafts; it is a landmark in the history of technology thanks to the use of a number of pioneering techniques in its construction.As steam power was unsuitable because of the difficulties in transmitting power over long distances, Sommeiller developed ideas for the use of compressed-air machinery, first mooted by Daniel Colladon of Geneva in 1855; this also solved the problems of ventilation. He also decided to adapt the principle of his compressed-air ram to supply extra power to locomotives on steep gradients. In 1860 he took out a patent in France for a combined compressor-pump, and in 1861 his first percussion drill, mounted on a carriage, was introduced. Although it was of little use at first, Sommeiller improved his drill through trial and error, including the use of the diamond drill-crowns patented by Georges Auguste Leschot in 1862. The invention of dynamite by Alfred Nobel contributed decisively to the speedy completion of the tunnel by the end of 1870, several years ahead of schedule.[br]Further ReadingA.Schwenger-Lerchenfeld, 1884, Die Überschienung der Alpen, Berlin; reprint 1983, Berlin: Moers, pp. 60–77 (explains how the use of compressed air for rock drilling in the Mont Cénis tunnel was a complex process of innovations to which several engineers contributed).W.Bersch, 1898, Mit Schlägel und Eisen, Vienna: reprint 1985 (with introd. by W.Kroker), Dusseldorf, pp. 242–4.WK -
105 unit
единица; агрегат; узел; блок; ( войсковая) часть, подразделение; удельныйair support signal unit — Бр. подразделение связи авиационной поддержки
aircraft torpedo development unit — Бр. подразделение по испытанию и усовершенствованию авиационных торпед
air-sea warfare development unit — подразделение разработки приёмов борьбы авиации с кораблями противника
angular rate control unit — блок двухстепенных [прецессионных] гироскопов
auxiliary takeoff rocket unit — ракетный стартовый ускоритель [ускоритель взлета]
combat crew training unit — часть [подразделение] подготовки боевых экипажей
hose(-drum, -reel) unit — шланговый агрегат (системы дозаправки топливом)
jet assisted takeoff unit — реактивный ускоритель взлета; ркт. стартовый двигатель
long-range combat air unit — часть [подразделение] бомбардировочной авиации; подразделение истребителей-бомбардировщиков дальнего действия
main unit of landing gear — главная но: га шасси
monitor and equalization display unit — блок контроля и индикации рассогласования подсистем (резервированной системы)
range temperature control unit — дв. всережимный регулятор по температуре воздуха
rocket assisted takeoff unit — ракетный ускоритель взлета; ркт. стартовый двигатель
rudder artificial feel unit — механизм загрузки [усилий] руля направления
spotting and reconnaissance unit — корректировочно-разведывательная часть [подразделение]
vertical gyro control unit — гиродатчик вертикали; матка авиагоризонта
— I/O unit— jatounit— jet unit -
106 Bateman, John Frederick La Trobe
[br]b. 30 May 1810 Lower Wyke, near Halifax, Yorkshire, Englandd. 10 June 1889 Moor Park, Farnham, Surrey, England[br]English civil engineer whose principal works were concerned with reservoirs, water-supply schemes and pipelines.[br]Bateman's maternal grandfather was a Moravian missionary, and from the age of 7 he was educated at the Moravian schools at Fairfield and Ockbrook. At the age of 15 he was apprenticed to a "civil engineer, land surveyor and agent" in Oldham. After this apprenticeship, Bateman commenced his own practice in 1833. One of his early schemes and reports was in regard to the flooding of the river Medlock in the Manchester area. He came to the attention of William Fairbairn, the engine builder and millwright of Canal Street, Ancoats, Manchester. Fairbairn used Bateman as his site surveyor and as such he prepared much of the groundwork for the Bann reservoirs in Northern Ireland. Whilst the reports on the proposals were in the name of Fairbairn, Bateman was, in fact, appointed by the company as their engineer for the execution of the works. One scheme of Bateman's which was carried forward was the Kendal Reservoirs. The Act for these was signed in 1845 and was implemented not for the purpose of water supply but for the conservation of water to supply power to the many mills which stood on the river Kent between Kentmere and Morecambe Bay. The Kentmere Head dam is the only one of the five proposed for the scheme to survive, although not all the others were built as they would have retained only small volumes of water.Perhaps the greatest monument to the work of J.F.La Trobe Bateman is Manchester's water supply; he was consulted about this in 1844, and construction began four years later. He first built reservoirs in the Longdendale valley, which has a very complicated geological stratification. Bateman favoured earth embankment dams and gravity feed rather than pumping; the five reservoirs in the valley that impound the river Etherow were complex, cored earth dams. However, when completed they were greatly at risk from landslips and ground movement. Later dams were inserted by Bateman to prevent water loss should the older dams fail. The scheme was not completed until 1877, by which time Manchester's population had exceeded the capacity of the original scheme; Thirlmere in Cumbria was chosen by Manchester Corporation as the site of the first of the Lake District water-supply schemes. Bateman, as Consulting Engineer, designed the great stone-faced dam at the west end of the lake, the "gothic" straining well in the middle of the east shore of the lake, and the 100-mile (160 km) pipeline to Manchester. The Act for the Thirlmere reservoir was signed in 1879 and, whilst Bateman continued as Consulting Engineer, the work was supervised by G.H. Hill and was completed in 1894.Bateman was also consulted by the authorities in Glasgow, with the result that he constructed an impressive water-supply scheme derived from Loch Katrine during the years 1856–60. It was claimed that the scheme bore comparison with "the most extensive aqueducts in the world, not excluding those of ancient Rome". Bateman went on to superintend the waterworks of many cities, mainly in the north of England but also in Dublin and Belfast. In 1865 he published a pamphlet, On the Supply of Water to London from the Sources of the River Severn, based on a survey funded from his own pocket; a Royal Commission examined various schemes but favoured Bateman's.Bateman was also responsible for harbour and dock works, notably on the rivers Clyde and Shannon, and also for a number of important water-supply works on the Continent of Europe and beyond. Dams and the associated reservoirs were the principal work of J.F.La Trobe Bateman; he completed forty-three such schemes during his professional career. He also prepared many studies of water-supply schemes, and appeared as professional witness before the appropriate Parliamentary Committees.[br]Principal Honours and DistinctionsFRS 1860. President, Institution of Civil Engineers 1878, 1879.BibliographyAmong his publications History and Description of the Manchester Waterworks, (1884, London), and The Present State of Our Knowledge on the Supply of Water to Towns, (1855, London: British Association for the Advancement of Science) are notable.Further ReadingObituary, 1889, Minutes of the Proceedings of the Institution of Civil Engineers 97:392– 8.Obituary, 1889, Proceedings of the Royal Society 46:xlii-xlviii. G.M.Binnie, 1981, Early Victorian Water Engineers, London.P.N.Wilson, 1973, "Kendal reservoirs", Transactions of the Cumberland and Westmorland Antiquarian and Archaeological Society 73.KM / LRDBiographical history of technology > Bateman, John Frederick La Trobe
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107 Norton, Charles Hotchkiss
SUBJECT AREA: Mechanical, pneumatic and hydraulic engineering[br]b. 23 November 1851 Plainville, Connecticut, USAd. 27 October 1942 Plainville, Connecticut, USA[br]American mechanical engineer and machine-tool designer.[br]After an elementary education at the public schools of Plainville and Thomaston, Connecticut, Charles H.Norton started work in 1866 at the Seth Thomas Clock Company in Thomaston. He was soon promoted to machinist, and further progress led to his successive appointments as Foreman, Superintendent of Machinery and Manager of the department making tower clocks. He designed many public clocks.In 1886 he obtained a position as Assistant Engineer with the Brown \& Sharpe Manufacturing Company at Providence, Rhode Island, and was engaged in redesigning their universal grinding machine to give it more rigidity and make it more suitable for use as a production machine. In 1890 he left to become a partner in a newly established firm, Leland, Faulconer \& Norton Company at Detroit, Michigan, designing and building machine tools. He withdrew from this firm in 1895 and practised as a consulting mechanical engineer for a short time before returning to Brown \& Sharpe in 1896. There he designed a grinding machine incorporating larger and wider grinding wheels so that heavier cuts could be made to meet the needs of the mass-production industries, especially the automobile industry. This required a heavier and more rigid machine and greater power, but these ideas were not welcomed at Brown \& Sharpe and in 1900 Norton left to found the Norton Grinding Company in Worcester, Massachusetts. Here he was able to develop heavy-production grinding machines, including special machines for grinding crank-shafts and camshafts for the automobile industry.In setting up the Norton Grinding Company, Charles H.Norton received financial support from members of the Norton Emery Wheel Company (also of Worcester and known after 1906 as the Norton Company), but he was not related to the founder of that company. The two firms were completely independent until 1919 when they were merged. From that time Charles H.Norton served as Chief Engineer of the machinery division of the Norton Company, until 1934 when he became their Consulting Engineer.[br]Principal Honours and DistinctionsCity of Philadelphia, John Scott Medal 1925.BibliographyNorton was granted more than one hundred patents and was author of Principles of Cylindrical Grinding, 1917, 1921, Worcester, Mass.Further ReadingRobert S.Woodbury, 1959, History of the Grinding Machine, Cambridge, Mass, (contains biographical information and details of the machines designed by Norton).RTSBiographical history of technology > Norton, Charles Hotchkiss
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108 Outram, Benjamin
[br]b. 1 April 1764 Alfreton, Englandd. 22 May 1805 London, England[br]English ironmaster and engineer of canals and tramroads, protagonist of angled plate rails in place of edge rails.[br]Outram's father was one of the principal promoters of the Cromford Canal, Derbyshire, and Benjamin Outram became Assistant to the canal's Engineer, William Jessop. In 1789 Outram was appointed Superintendent in charge of construction, and his responsibilities included the 2,978 yd (2,723 m) Butterley Tunnel; while the tunnel was being driven, coal and iron ore were encountered. Outram and a partner purchased the Butterley Hall estate above the tunnel and formed Outram \& Co. to exploit the coal and iron: a wide length of the tunnel beneath the company's furnace was linked to the surface by shafts to become in effect an underground wharf. Jessop soon joined the company, which grew and prospered to eventually become the long-lived Butterley Company.As a canal engineer, Outram's subsequent projects included the Derby, Huddersfield Narrow and Peak Forest Canals. On the Derby Canal he built a small iron aqueduct, which though designed later than the Longdon Aqueduct of Thomas Telford was opened earlier, in 1796, to become the first iron aqueduct.It is as a tramroad engineer that Outram is best known. In 1793 he completed a mile-long (1.6 km) tramroad from Outram \& Co.'s limestone quarry at Crich to the Cromford Canal, for which he used plate rails of the type recently developed by John Curr. He was, however, able to use a wider gauge—3 ft 6 in. (1.07 m) between the flanges—and larger wagons than Curr had been able to use underground in mines. It appears to have been Outram's idea to mount the rails on stone blocks, rather than wooden sleepers.Outram then engineered tramroads to extend the lines of the Derby and Peak Forest Canals. He encouraged construction of such tramroads in many parts of Britain, often as feeders of traffic to canals. He acted as Engineer, and his company often provided the rails and sometimes undertook the entire construction of a line. Foreseeing that lines would be linked together, he recommended a gauge of 4 ft 2 in. (1.27 m) between the flanges as standard, and for twenty years or so Outram's plateways, with horses or gravity as motive power, became the usual form of construction for new railways. However, experience then showed that edge rails, weight for weight, could carry greater load, and were indeed almost essential for the introduction of steam locomotives.[br]Further ReadingR.B.Schofield, 1986, "The design and construction of the Cromford Canal, 1788–1794", Transactions of the Newcomen Society 57 (provides good coverage of Outram's early career).P.J.Riden, 1973, The Butterley Company and railway construction, 1790–1830', Transport History 6(1) (covers Outram's development of tramroads).R.A.Mott, 1969, Tramroads of the eighteenth century and their originator: John Curr', Transactions of the Newcomen Society 42."Dowie" (A.R.Cowlishaw, J.H.Price and R.G.P. Tebb), 1971, The Crich Mineral Railways, Crich: Tramway Publications.PJGR -
109 Stephenson, Robert
[br]b. 16 October 1803 Willington Quay, Northumberland, Englandd. 12 October 1859 London, England[br]English engineer who built the locomotive Rocket and constructed many important early trunk railways.[br]Robert Stephenson's father was George Stephenson, who ensured that his son was educated to obtain the theoretical knowledge he lacked himself. In 1821 Robert Stephenson assisted his father in his survey of the Stockton \& Darlington Railway and in 1822 he assisted William James in the first survey of the Liverpool \& Manchester Railway. He then went to Edinburgh University for six months, and the following year Robert Stephenson \& Co. was named after him as Managing Partner when it was formed by himself, his father and others. The firm was to build stationary engines, locomotives and railway rolling stock; in its early years it also built paper-making machinery and did general engineering.In 1824, however, Robert Stephenson accepted, perhaps in reaction to an excess of parental control, an invitation by a group of London speculators called the Colombian Mining Association to lead an expedition to South America to use steam power to reopen gold and silver mines. He subsequently visited North America before returning to England in 1827 to rejoin his father as an equal and again take charge of Robert Stephenson \& Co. There he set about altering the design of steam locomotives to improve both their riding and their steam-generating capacity. Lancashire Witch, completed in July 1828, was the first locomotive mounted on steel springs and had twin furnace tubes through the boiler to produce a large heating surface. Later that year Robert Stephenson \& Co. supplied the Stockton \& Darlington Railway with a wagon, mounted for the first time on springs and with outside bearings. It was to be the prototype of the standard British railway wagon. Between April and September 1829 Robert Stephenson built, not without difficulty, a multi-tubular boiler, as suggested by Henry Booth to George Stephenson, and incorporated it into the locomotive Rocket which the three men entered in the Liverpool \& Manchester Railway's Rainhill Trials in October. Rocket, was outstandingly successful and demonstrated that the long-distance steam railway was practicable.Robert Stephenson continued to develop the locomotive. Northumbrian, built in 1830, had for the first time, a smokebox at the front of the boiler and also the firebox built integrally with the rear of the boiler. Then in Planet, built later the same year, he adopted a layout for the working parts used earlier by steam road-coach pioneer Goldsworthy Gurney, placing the cylinders, for the first time, in a nearly horizontal position beneath the smokebox, with the connecting rods driving a cranked axle. He had evolved the definitive form for the steam locomotive.Also in 1830, Robert Stephenson surveyed the London \& Birmingham Railway, which was authorized by Act of Parliament in 1833. Stephenson became Engineer for construction of the 112-mile (180 km) railway, probably at that date the greatest task ever undertaken in of civil engineering. In this he was greatly assisted by G.P.Bidder, who as a child prodigy had been known as "The Calculating Boy", and the two men were to be associated in many subsequent projects. On the London \& Birmingham Railway there were long and deep cuttings to be excavated and difficult tunnels to be bored, notoriously at Kilsby. The line was opened in 1838.In 1837 Stephenson provided facilities for W.F. Cooke to make an experimental electrictelegraph installation at London Euston. The directors of the London \& Birmingham Railway company, however, did not accept his recommendation that they should adopt the electric telegraph and it was left to I.K. Brunel to instigate the first permanent installation, alongside the Great Western Railway. After Cooke formed the Electric Telegraph Company, Stephenson became a shareholder and was Chairman during 1857–8.Earlier, in the 1830s, Robert Stephenson assisted his father in advising on railways in Belgium and came to be increasingly in demand as a consultant. In 1840, however, he was almost ruined financially as a result of the collapse of the Stanhope \& Tyne Rail Road; in return for acting as Engineer-in-Chief he had unwisely accepted shares, with unlimited liability, instead of a fee.During the late 1840s Stephenson's greatest achievements were the design and construction of four great bridges, as part of railways for which he was responsible. The High Level Bridge over the Tyne at Newcastle and the Royal Border Bridge over the Tweed at Berwick were the links needed to complete the East Coast Route from London to Scotland. For the Chester \& Holyhead Railway to cross the Menai Strait, a bridge with spans as long-as 460 ft (140 m) was needed: Stephenson designed them as wrought-iron tubes of rectangular cross-section, through which the trains would pass, and eventually joined the spans together into a tube 1,511 ft (460 m) long from shore to shore. Extensive testing was done beforehand by shipbuilder William Fairbairn to prove the method, and as a preliminary it was first used for a 400 ft (122 m) span bridge at Conway.In 1847 Robert Stephenson was elected MP for Whitby, a position he held until his death, and he was one of the exhibition commissioners for the Great Exhibition of 1851. In the early 1850s he was Engineer-in-Chief for the Norwegian Trunk Railway, the first railway in Norway, and he also built the Alexandria \& Cairo Railway, the first railway in Africa. This included two tubular bridges with the railway running on top of the tubes. The railway was extended to Suez in 1858 and for several years provided a link in the route from Britain to India, until superseded by the Suez Canal, which Stephenson had opposed in Parliament. The greatest of all his tubular bridges was the Victoria Bridge across the River St Lawrence at Montreal: after inspecting the site in 1852 he was appointed Engineer-in-Chief for the bridge, which was 1 1/2 miles (2 km) long and was designed in his London offices. Sadly he, like Brunel, died young from self-imposed overwork, before the bridge was completed in 1859.[br]Principal Honours and DistinctionsFRS 1849. President, Institution of Mechanical Engineers 1849. President, Institution of Civil Engineers 1856. Order of St Olaf (Norway). Order of Leopold (Belgium). Like his father, Robert Stephenson refused a knighthood.Further ReadingL.T.C.Rolt, 1960, George and Robert Stephenson, London: Longman (a good modern biography).J.C.Jeaffreson, 1864, The Life of Robert Stephenson, London: Longman (the standard nine-teenth-century biography).M.R.Bailey, 1979, "Robert Stephenson \& Co. 1823–1829", Transactions of the Newcomen Society 50 (provides details of the early products of that company).J.Kieve, 1973, The Electric Telegraph, Newton Abbot: David \& Charles.PJGR -
110 elektromester
subst. power supply engineer, signal engineer subst. [ for lys] outdoor machinery assistant subst. [ ladeelektromester] running maintenance assistant subst. [ stillverks] signal engineer subst. [ telegrafmester] telecommunications engineer -
111 Barsanti, Eugenio
SUBJECT AREA: Steam and internal combustion engines[br]b. 1821 Italyd. 1864 Liège, Belgium[br]Italian co-inventor of the internal combustion engine; lecturer in mechanics and hydraulics.[br]A trained scientist and engineer, Barsanti became acquainted with a distinguished engineer, Felice Matteucci, in 1851. Their combined talents enabled them to produce a number of so-called free-piston atmospheric engines from 1854 onwards. Using a principle demonstrated by the Swiss engineer Isaac de Rivaz in 1827, the troublesome explosive shocks encountered by other pioneers were avoided. A piston attached to a long toothed rack was propelled from beneath by the expansion of burning gas and allowed unrestricted movement. A resulting partial vacuum enabled atmospheric pressure to return the piston and produce the working stroke. Electric ignition was a feature of all the Italian engines.With many successful applications, a company was formed in 1860. A 20 hp (15 kW) engine stimulated much interest. Attempts by John Cockerill of Belgium to mass-produce small power units of up to 4 hp (3 kW) came to an abrupt end; during the negotiations Barsanti contracted typhoid fever and later died. The project was abandoned, but the working principle of the Italian engine was used successfully in the Otto-Langen engine of 1867.[br]Bibliography13 May 1854, British Provisional Patent no. 1,072 (the Barsanti and Matteucci engine).12 June 1857, British patent no. 1,655 (contained many notable improvements to the design).Further ReadingThe Engineer (1858) 5:73–4 (for an account of the Italian engine).Vincenzo Vannacci, 1955, L'invenzione del motore a scoppio realizzota dai toscani Barsanti e Matteucci 1854–1954, Florence.KAB -
112 Baumann, Karl
SUBJECT AREA: Steam and internal combustion engines[br]b. 18 April 1884 Switzerlandd. 14 July 1971 Ilkley, Yorkshire[br]Swiss/British mechanical engineer, designer and developer of steam and gas turbine plant.[br]After leaving school in 1902, he went to the Ecole Polytechnique, Zurich, leaving in 1906 with an engineering diploma. He then spent a year with Professor A.Stodola, working on steam engines, turbines and internal combustion engines. He also conducted research in the strength of materials. After this, he spent two years as Research and Design Engineer at the Nuremberg works of Maschinenfabrik Augsburg-Nürnberg. He came to England in 1909 to join the British Westinghouse Co. Ltd in Manchester, and by 1912 was Chief Engineer of the Engine Department of that firm. The firm later became the Metropolitan-Vickers Electrical Co. Ltd (MV), and Baumann rose from Chief Mechanical Engineer through to, by 1929, Special Director and Member of the Executive Management Board; he remained a director until his retirement in 1949.For much of his career, Baumann was in the forefront of power station steam-cycle development, pioneering increased turbine entry pressures and temperatures, in 1916 introducing multi-stage regenerative feed-water heating and the Baumann turbine multi-exhaust. His 105 MW set for Battersea "A" station (1933) was for many years the largest single-axis unit in Europe. From 1938 on, he and his team were responsible for the first axial-flow aircraft propulsion gas turbines to fly in England, and jet engines in the 1990s owe much to the "Beryl" and "Sapphire" engines produced by MV. In particular, the design of the compressor for the Sapphire engine later became the basis for Rolls-Royce units, after an exchange of information between that company and Armstrong-Siddeley, who had previously taken over the aircraft engine work of MV.Further, the Beryl engine formed the basis of "Gatric", the first marine gas turbine propulsion engine.Baumann was elected to full membership for the Institution of Mechanical Engineers in 1929 and a year later was awarded the Thomas Hawksley Gold Medal by that body, followed by their James Clayton Prize in 1948: in the same year he became the thirty-fifth Thomas Hawksley lecturer. Many of his ideas and introductions have stood the test of time, being based on his deep and wide understanding of fundamentals.JB -
113 Hornblower, Jonathan
SUBJECT AREA: Steam and internal combustion engines[br]b. 1753 Cornwall (?), Englandd. 1815 Penryn, Cornwall, England[br]English mining engineer who patented an early form of compound steam engine.[br]Jonathan came from a family with an engineering tradition: his grandfather Joseph had worked under Thomas Newcomen. Jonathan was the sixth child in a family of thirteen whose names all began with "J". In 1781 he was living at Penryn, Cornwall and described himself as a plumber, brazier and engineer. As early as 1776, when he wished to amuse himself by making a small st-eam engine, he wanted to make something new and wondered if the steam would perform more than one operation in an engine. This was the foundation for his compound engine. He worked on engines in Cornwall, and in 1778 was Engineer at the Ting Tang mine where he helped Boulton \& Watt erect one of their engines. He was granted a patent in 1781 and in that year tried a large-scale experiment by connecting together two engines at Wheal Maid. Very soon John Winwood, a partner in a firm of iron founders at Bristol, acquired a share in the patent, and in 1782 an engine was erected in a colliery at Radstock, Somerset. This was probably not very successful, but a second was erected in the same area. Hornblower claimed greater economy from his engines, but steam pressures at that time were not high enough to produce really efficient compound engines. Between 1790 and 1794 ten engines with his two-cylinder arrangement were erected in Cornwall, and this threatened Boulton \& Watt's near monopoly. At first the steam was condensed by a surface condenser in the bottom of the second, larger cylinder, but this did not prove very successful and later a water jet was used. Although Boulton \& Watt proceeded against the owners of these engines for infringement of their patent, they did not take Jonathan Hornblower to court. He tried a method of packing the piston rod by a steam gland in 1781 and his work as an engineer must have been quite successful, for he left a considerable fortune on his death.[br]Bibliography1781, British patent no. 1,298 (compound steam engine).Further ReadingR.Jenkins, 1979–80, "Jonathan Hornblower and the compound engine", Transactions of the Newcomen Society 11.J.Tann, 1979–80, "Mr Hornblower and his crew, steam engine pirates in the late 18th century", Transactions of the Newcomen Society 51.J.Farey, 1827, A Treatise on the Steam Engine, Historical, Practical and Descriptive, reprinted 1971, Newton Abbot: David \& Charles (an almost contemporary account of the compound engine).D.S.L.Cardwell, 1971, From Watt to Clausius. The Rise of Thermo dynamics in the Early Industrial Age, London: Heinemann.H.W.Dickinson, 1938, A Short History of the Steam Engine, Cambridge University Press.R.L.Hills, 1989, Power from Steam. A History of the Stationary Steam Engine, Cambridge University Press.RLH -
114 Leonardo da Vinci
[br]b. 15 April 1452 Vinci, near Florence, Italy,d. 2 May 1519 St Cloux, near Amboise, France.[br]Italian scientist, engineer, inventor and artist.[br]Leonardo was the illegitimate son of a Florentine lawyer. His first sixteen years were spent with the lawyer's family in the rural surroundings of Vinci, which aroused in him a lifelong love of nature and an insatiable curiosity in it. He received little formal education but extended his knowledge through private reading. That gave him only a smattering of Latin, a deficiency that was to be a hindrance throughout his active life. At sixteen he was apprenticed in the studio of Andrea del Verrochio in Florence, where he received a training not only in art but in a wide variety of crafts and technical arts.In 1482 Leonardo went to Milan, where he sought and obtained employment with Ludovico Sforza, later Duke of Milan, partly to sculpt a massive equestrian statue of Ludovico but the work never progressed beyond the full-scale model stage. He did, however, complete the painting which became known as the Virgin of the Rocks and in 1497 his greatest artistic achievement, The Last Supper, commissioned jointly by Ludovico and the friars of Santa Maria della Grazie and painted on the wall of the monastery's refectory. Leonardo was responsible for the court pageants and also devised a system of irrigation to supply water to the plains of Lombardy. In 1499 the French army entered Milan and deposed Leonardo's employer. Leonardo departed and, after a brief visit to Mantua, returned to Florence, where for a time he was employed as architect and engineer to Cesare Borgia, Duke of Romagna. Around 1504 he completed another celebrated work, the Mona Lisa.In 1506 Leonardo began his second sojourn in Milan, this time in the service of King Louis XII of France, who appointed him "painter and engineer". In 1513 Leonardo left for Rome in the company of his pupil Francesco Melzi, but his time there was unproductive and he found himself out of touch with the younger artists active there, Michelangelo above all. In 1516 he accepted with relief an invitation from King François I of France to reside at the small château of St Cloux in the royal domain of Amboise. With the pension granted by François, Leonardo lived out his remaining years in tranquility at St Cloux.Leonardo's career can hardly be regarded as a success or worthy of such a towering genius. For centuries he was known only for the handful of artistic works that he managed to complete and have survived more or less intact. His main activity remained hidden until the nineteenth and twentieth centuries, during which the contents of his notebooks were gradually revealed. It became evident that Leonardo was one of the greatest scientific investigators and inventors in the history of civilization. Throughout his working life he extended a searching curiosity over an extraordinarily wide range of subjects. The notes show careful investigation of questions of mechanical and civil engineering, such as power transmission by means of pulleys and also a form of chain belting. The notebooks record many devices, such as machines for grinding and polishing lenses, a lathe operated by treadle-crank, a rolling mill with conical rollers and a spinning machine with pinion and yard divider. Leonardo made an exhaustive study of the flight of birds, with a view to designing a flying machine, which obsessed him for many years.Leonardo recorded his observations and conclusions, together with many ingenious inventions, on thousands of pages of manuscript notes, sketches and drawings. There are occasional indications that he had in mind the publication of portions of the notes in a coherent form, but he never diverted his energy into putting them in order; instead, he went on making notes. As a result, Leonardo's impact on the development of science and technology was virtually nil. Even if his notebooks had been copied and circulated, there were daunting impediments to their understanding. Leonardo was left-handed and wrote in mirror-writing: that is, in reverse from right to left. He also used his own abbreviations and no punctuation.At his death Leonardo bequeathed his entire output of notes to his friend and companion Francesco Melzi, who kept them safe until his own death in 1570. Melzi left the collection in turn to his son Orazio, whose lack of interest in the arts and sciences resulted in a sad period of dispersal which endangered their survival, but in 1636 the bulk of them, in thirteen volumes, were assembled and donated to the Ambrosian Library in Milan. These include a large volume of notes and drawings compiled from the various portions of the notebooks and is now known as the Codex Atlanticus. There they stayed, forgotten and ignored, until 1796, when Napoleon's marauding army overran Italy and art and literary works, including the thirteen volumes of Leonardo's notebooks, were pillaged and taken to Paris. After the war in 1815, the French government agreed to return them but only the Codex Atlanticus found its way back to Milan; the rest remained in Paris. The appendix to one notebook, dealing with the flight of birds, was later regarded as of sufficient importance to stand on its own. Four small collections reached Britain at various times during the seventeenth and eighteenth centuries; of these, the volume in the Royal Collection at Windsor Castle is notable for its magnificent series of anatomical drawings. Other collections include the Codex Leicester and Codex Arundel in the British Museum in London, and the Madrid Codices in Spain.Towards the end of the nineteenth century, Leonardo's true stature as scientist, engineer and inventor began to emerge, particularly with the publication of transcriptions and translations of his notebooks. The volumes in Paris appeared in 1881–97 and the Codex Atlanticus was published in Milan between 1894 and 1904.[br]Principal Honours and Distinctions"Premier peintre, architecte et mécanicien du Roi" to King François I of France, 1516.Further ReadingE.MacCurdy, 1939, The Notebooks of Leonardo da Vinci, 2 vols, London; 2nd edn, 1956, London (the most extensive selection of the notes, with an English translation).G.Vasari (trans. G.Bull), 1965, Lives of the Artists, London: Penguin, pp. 255–271.C.Gibbs-Smith, 1978, The Inventions of Leonardo da Vinci, Oxford: Phaidon. L.H.Heydenreich, Dibner and L. Reti, 1981, Leonardo the Inventor, London: Hutchinson.I.B.Hart, 1961, The World of Leonardo da Vinci, London: Macdonald.LRD / IMcN -
115 PE
PE, peacetime establishment————————PE, performance engineer————————PE, performance evaluation————————PE, peripheral equipmentпериферийная аппаратура [оборудование]————————PE, permissible errorдопустимая ошибка [отклонение, погрешность]————————PE, personal effects————————PE, personal equipment————————PE, personnel, enlisted————————PE, personnel equivalent————————PE, personnel error————————PE, petroleum engineer————————PE, physical education————————PE, physical examination————————PE, pilot error————————PE, pistol expert————————PE, planning estimate————————PE, plastic explosive————————PE, point expanding (projectile)————————PE, point of explosionцентр взрыва; точка разрыва (боеприпаса)————————PE, pontoon equipmentпонтонное [переправочное] имущество————————PE, port of embarkation————————PE, position(al) error————————PE, post engineer————————PE, post exchange————————PE, potential excess (of stock)————————PE, power equipmentсиловые приводы; силовое оборудование————————PE, practical exercise————————PE, preliminary evaluation————————PE, prime equipment————————PE, probable errorвероятная ошибка [отклонение, погрешность]————————PE, procedures evaluation————————PE, Бр procurement executiveуполномоченный по заготовки [закупкам]————————PE, production engineering————————PE, Бр production executive————————PE, professional educationпрофессиональная [специальная] подготовка————————PE, professional examinationпроверка уровня профессиональной [специальной] подготовки————————PE, program element————————PE, project engineer————————PE, purchased equipmentEnglish-Russian dictionary of planing, cross-planing and slotting machines > PE
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116 EPC
1) Общая лексика: Экстра-провинциальная корпорация (Extra-Provintial Corporation (Канада - компания, созданная в соответствии с норативными положениями одной провинции и зарегистрированная в другой провинции для ведения в ней бизнеса, либо компания другой страны,), (Engineering, Procurement, Construction) Проектирование-Закупки-Строительство2) Компьютерная техника: Enhanced Pci Controller, Entropic Proprietary Coding3) Американизм: Engineer Procure Construct4) Военный термин: Education Promotion Certificate, Education Promotion Certificate, Advanced, Electronic Phone Check, elementary processing center5) Техника: easy processing channel, electron photon cascade, electronic program control, emergency preparedness coordinator, end plate current, engineering planning coordinator, equipotential cathode, error protection code, Расширенный перлит с покрытием (Expanded perlite coated - изоляция)6) Строительство: проектирование, материально-техническое снабжение, строительство (Engineering, Procurement and Construction), контракт на инжиниринг, поставки и строительство (http://www.proz.com/kudoz/english_to_russian/finance_general/2163298-convertible_epc_contract.html)7) Религия: Evangelical Presbyterian Church8) Бухгалтерия: Earnings Per Click9) Автомобильный термин: electronic pressure control10) Ветеринария: EctoPlacental Cone, Exceptionally Pretty Cat12) Телекоммуникации: evolved packed core13) Сокращение: Economic Policy Committee, Economic and Planning Council, Electro Prismatic Collimator, Electronic Plane Conversion, Electronic Power Conditioner, Engin Principal de Combat (Future main battle tank (France)), Esso Petroleum Company, European Planning Council, European Political Cooperation, электронный каталог запчастей (electronic parts catalog)14) Университет: Educational Programs Committee15) Физиология: Enhanced Primary Care, Extracellular Patch Clamp, endothelial progenitor cells16) Электроника: Electronics Part Catalogue17) Нефть: engineer, procure and construct18) Банковское дело: European Payments Council = Европейский совет по платежным системам, Европейский совет по платежам19) Биотехнология: Embryonic stem cells20) Транспорт: Extended Propulsion Coverage21) Воздухоплавание: Environmental Protection Control22) Фирменный знак: Electric Power Corporation, Emerging Products Center23) Экология: Environmental Policy Center, Конвенция о европейском патенте24) Деловая лексика: Electronic Parts Catalog, Electronic Product Code, Engineering Procure And Construct25) Глоссарий компании Сахалин Энерджи: energy performance contract, engineering procurement construction, проектирование, материально-техническое снабжение и строительство (Engineering Procurement and Construction), проектирование, снабжение и строительство (engineering, procurement and construction), (I) Engineering Procurement and Construction (Installation)26) Окружающая среда: Energy Performance Certificate (http://en.wikipedia.org/wiki/Energy_Performance_Certificate)27) Полимеры: easy processing carbon, ethylene propylene copolymer28) Программирование: Emulate Pocket Calculator30) Океанография: Economic Policy Council31) Сахалин Ю: (M) engineering, procurement and construction contractor32) SAP.тех. управляемая событиями цепь процессов33) Нефть и газ: engineering & procurement company34) Логистика: (Electronic Product Code) электронный код продукта35) Единицы измерений: Earning Per Clicks36) Международная торговля: European Patent Convention37) Оргтехника: Electronic Pre-Collation (электронная подборка копий) -
117 mechanic
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118 Blumlein, Alan Dower
SUBJECT AREA: Aerospace, Broadcasting, Electronics and information technology, Photography, film and optics, Recording, Telecommunications[br]b. 29 June 1903 Hampstead, London, Englandd. 7 June 1942[br]English electronics engineer, developer of telephone equipment, highly linear electromechanical recording and reproduction equipment, stereo techniques, video and radar technology.[br]He was a very bright scholar and received a BSc in electrical technology from City and Guilds College in 1923. He joined International Western Electric (later to become Standard Telephone and Cables) in 1924 after a period as an instructor/demonstrator at City and Guilds. He was instrumental in the design of telephone measuring equipment and in international committee work for standards for long-distance telephony.From 1929 Blumlein was employed by the Columbia Graphophone Company to develop an electric recording cutterhead that would be independent of Western Electric's patents for the system developed by Maxfield and Harrison. He attacked the problems in a most systematic fashion, and within a year he had developed a moving-coil cutterhead that was much more linear than the iron-cored systems known at the time. Eventually Blumlein designed a complete line of recording equipment, from microphone and through-power amplifiers. The design was used by Columbia; after the merger with the Gramophone Company in 1931 to form Electrical and Musical Industries Ltd (later known as EMI) it became the company standard, certainly for coarse-groove records, until c.1950.Blumlein became interested in stereophony (binaural sound), and developed and demonstrated a complete line of equipment, from correctly placed microphones via two-channel records and stereo pick-ups to correctly placed loudspeakers. The advent of silent surfaces of vinyl records made this approach commercial from the late 1950s. His approach was independent and quite different from that of A.C. Keller.His extreme facility for creating innovative solutions to electronic problems was used in EMI's development from 1934 to 1938 of the electronic television system, which became the BBC standard of 405 lines after the Second World War, when television broadcasting again became possible. Independent of official requirements, EMI developed a 60 MHz radar system and Blumlein was involved in the development of a centimetric radar and display system. It was during testing of this aircraft mounted equipment that he was killed in a crash.[br]BibliographyBlumlein was inventor or co-inventor of well over 120 patents, a complete list of which is to be found in Burns (1992; see below). The major sound-recording achievements are documented by British patent nos. 350,954, 350,998, 363,627 (highly linear cutterhead, 1930) and 394,325 (reads like a textbook on stereo technology, 1931).Further ReadingThe definitive biography of Blumlein has not yet been written; the material seems to have been collected, but is not yet available. However, R.W.Burns, 1992, "A.D.Blumlein, engineer extraordinary", Engineering Science and Education Journal (February): 19– 33 is a thorough account. Also B.J.Benzimra, 1967, "A.D. Blumlein: an electronics genius", Electronics \& Power (June): 218–24 provides an interesting summary.GB-N -
119 Cotchett, Thomas
SUBJECT AREA: Textiles[br]fl. 1700s[br]English engineer who set up the first water-powered textile mill in Britain at Derby.[br]At the beginning of the eighteenth century, silk weaving was one of the most prosperous trades in Britain, but it depended upon raw silk worked up on hand twisting or throwing machines. In 1702 Thomas Cotchett set up a mill for twisting silk by water-power at the northern end of an island in the river Derwent at Derby; this would probably have been to produce organzine, the hard twisted thread used for the warp when weaving silk fabrics. Such mills had been established in Italy beginning with the earliest in Bologna in 1272, but it would appear that Cotchett used Dutch silk-throwing machinery that was driven by a water wheel that was 13½ ft (4.1 m) in diameter and built by the local engineer, George Sorocold. The enterprise soon failed, but it was quickly revived and extended by Thomas and John Lombe with machinery based on that being used successfully in Italy.[br]Further ReadingD.M.Smith, 1965, Industrial Archaeology of the East Midlands, Newton Abbot (provides an account of Cotchett's mill).W.H.Chaloner, 1963, "Sir Thomas Lombe (1685–1739) and the British silk industry", History Today (Nov.).R.L.Hills, 1970, Power in the Industrial Revolution, Manchester (a brief coverage of the development of early silk throwing mills).D.Kuhn, 1988, Science and Civilisation in China, Vol. V: Chemistry and ChemicalTechnology, Part 9, Textile Technology: spinning and reeling, Cambridge (covers the diffusion of the techniques of the mechanization of the silk-throwing industry from China to the West).RLH -
120 Ilgner, Karl
SUBJECT AREA: Electricity[br]b. 27 July 1862 Neisse, Upper Silesia (now Nysa, Poland)d. 18 January 1921 Berthelsdorf, Silesia[br]German electrical engineer, inventor of a transformer for electromotors.[br]Ilgner graduated from the Gewerbeakademie (the forerunner of the Technical University) in Berlin. As the representative of an electric manufacturing company in Breslau (now Wroclaw, Poland) from 1897, he was confronted with the fact that there were no appropriate drives for hoisting-engines or rolling-plants in steelworks. Two problems prevented the use of high-capacity electric motors in the mining as well as in the iron and steel industry: the reactions of the motors on the circuit at the peak point of stress concentration; and the complicated handling of the control system which raised the risks regarding safety. Having previously been head of the department of electrical power transmission in Hannover, he was concerned with the development of low-speed direct-current motors powered by gas engines.It was Harry Ward Leonard's switchgear for direct-current motors (USA, 1891) that permitted sudden and exact changes in the speed and direction of rotation without causing power loss, as demonstrated in the driving of a rolling sidewalk at the Paris World Fair of 1900. Ilgner connected this switchgear to a large and heavy flywheel which accumulated the kinetic energy from the circuit in order to compensate shock loads. With this combination, electric motors did not need special circuits, which were still weak, because they were working continuously and were regulated individually, so that they could be used for driving hoisting-engines in mines, rolling-plants in steelworks or machinery for producing tools and paper. Ilgner thus made a notable advance in the general progress of electrification.His transformer for hoisting-engines was patented in 1901 and was commercially used inter alia by Siemens \& Halske of Berlin. Their first electrical hoisting-engine for the Zollern II/IV mine in Dortmund gained international reputation at the Düsseldorf exhibition of 1902, and is still preserved in situ in the original machine hall of the mine, which is now a national monument in Germany. Ilgner thereafter worked with several companies to pursue his conception, became a consulting engineer in Vienna and Breslau and had a government post after the First World War in Brussels and Berlin until he retired for health reasons in 1919.[br]Bibliography1901, DRP no. 138, 387 1903, "Der elektrische Antrieb von Reversier-Walzenstraßen", Stahl und Eisen 23:769– 71.Further ReadingW.Kroker, "Karl Ilgner", Neue Deutsche Biographie, Vol. X, pp. 134–5. W.Philippi, 1924, Elektrizität im Bergbau, Leipzig (a general account).K.Warmbold, 1925, "Der Ilgner-Umformer in Förderanlagen", Kohle und Erz 22:1031–36 (a detailed description).WK
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Power engineer — Power Engineers are in the discipline studying the conversion of energy from one form to another.In Canada, it is required by law to have Power Engineers overseeing and operating nearly any instance in which pressure equipment is… … Wikipedia
power engineer — energetikos inžinierius statusas T sritis profesijos apibrėžtis Inžinierius, kuris organizuoja atskirų energetikos sistemų įrengimą, eksploatavimą, techninę priežiūrą ir remontą. Užtikrina įmonei arba gamyklai elektros energijos, šilumos, garo,… … Inžinieriai, technikai ir technologai. Trikalbis aiškinamasis žodynėlis
nuclear power engineer — branduolinės energetikos inžinierius statusas T sritis profesijos apibrėžtis Inžinierius, kuris tiria, projektuoja ir pataria mechaninės įrangos, skirtos branduolinei energijai išjungti, kontroliuoti ir panaudoti, klausimais, planuoja ir prižiūri … Inžinieriai, technikai ir technologai. Trikalbis aiškinamasis žodynėlis
nuclear power engineer — branduolinės energetikos inžinierius statusas T sritis profesijos apibrėžtis Mechanikos nžinierius, kuris tiria ir projektuoja mechaninę įrangą, skirtą branduolinei energijai išjungti, kontroliuoti ir panaudoti. Planuoja ir prižiūri jos plėtrą,… … Inžinieriai, technikai ir technologai. Trikalbis aiškinamasis žodynėlis
Power engineering — Power engineering, also called power systems engineering, is a subfield of electrical engineering that deals with the generation, transmission and distribution of electric power as well as the electrical devices connected to such systems… … Wikipedia
engineer — Synonyms and related words: Seabee, accomplish, achieve, act, aeronautical engineer, agent, agricultural engineer, ancestors, angle, apprentice, architect, arrange, artificer, artist, author, automotive engineer, be productive, be responsible for … Moby Thesaurus
Power Computing Corporation — (often referred to as Power Computing) was the first company selected by Apple Computer to create Macintosh compatible computers. Stephen “Steve” Kahng, a computer engineer best known for his design of the Leading Edge Model D, founded the… … Wikipedia
Power strip — Power bar redirects here. For the manufacturer of energy food products, see PowerBar. French/Belgian power strip A power strip (also known as an extension block, power board and by many other variations) is a block of electrical sockets that… … Wikipedia
Power steering — helps drivers steer vehicles by augmenting steering effort of the steering wheel. It does this by adding controlled energy to the steering mechanism, so the driver needs to provide only modest effort regardless of conditions. In particular, power … Wikipedia
Power (communication) — Power is the ability to influence the attainment of goals of an individual or a group. Power is not a characteristic of any one individual, rather, it is defined in terms of relationships and transactions between people. Power is crucial to the… … Wikipedia
Power systems CAD — refers to computer aided design (CAD) software tools that are used to design and simulate complex electrical power systems. Such power systems are typically found in mission critical facilities such as computer data centers, network operations… … Wikipedia