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21 интерференционный способ
Универсальный русско-английский словарь > интерференционный способ
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22 метод двухцветной интерференции
Makarov: two color interference methodУниверсальный русско-английский словарь > метод двухцветной интерференции
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23 метод многолучевой интерференции
Makarov: multiple-beam interference methodУниверсальный русско-английский словарь > метод многолучевой интерференции
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24 Interferenzverfahren
n < phys> ■ interference method -
25 интерференционный способ измерения скорости
Русско-английский физический словарь > интерференционный способ измерения скорости
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26 метод многолучевой интерференции
Русско-английский физический словарь > метод многолучевой интерференции
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27 интерференционный способ
Русско-английский морской словарь > интерференционный способ
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28 интерференционный
1. interference2. interferometricРусско-английский большой базовый словарь > интерференционный
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29 unzulässig
Adj. inadmissible; Geschwindigkeit etc.: above the legal limit, excessive; JUR., Beeinflussung: undue; unzulässige Code-Kombination EDV invalid code combination; unzulässiger Befehl / unzulässiges Zeichen EDV invalid command* * *prohibited; invalid; undue; inadmissible; illegal; forbidden; unallowable* * *ụn|zu|läs|sigadj (AUCH JUR)inadmissible; Gebrauch improper; Beeinflussung undue; Belastung, Geschwindigkeit excessive* * *1) (not allowable.) inadmissible2) (not correct according to what is regularly done, especially in meetings etc: He was out of order in saying that.) out of order* * *un·zu·läs·sig[ˈʊntsu:lɛsɪç]adj inadmissible\unzulässige Maßnahmen/Methoden improper measures/methods* * ** * *unzulässig adj inadmissible; Geschwindigkeit etc: above the legal limit, excessive; JUR, Beeinflussung: undue;unzulässige Code-Kombination IT invalid code combination;unzulässiger Befehl/unzulässiges Zeichen IT invalid command* * ** * *adj.illegal adj.inadmissible adj.objectionable adj.unallowable adj.undue adj. adv.inadmissibly adv. -
30 Verfahren
Verfahren n 1. COMP procedure (Programm); 2. GEN process, procedure; 3. IND process, technique; 4. MGT method; 5. RECHT procedure proceedings, action, suit (Rechtsstreit); 6. ADMIN procedure • ein Verfahren für ungültig erklären RECHT extinguish an action • gegen jmdn. ein Verfahren anstrengen RECHT bring a lawsuit against sb* * *n 1. < Comp> Programm procedure; 2. < Geschäft> process, procedure; 3. < Ind> process, technique; 4. < Mgmnt> method; 5. < Recht> procedure Rechtsstreit proceedings, action, suit; 6. < Verwalt> procedure ■ ein Verfahren für ungültig erklären < Recht> extinguish an action ■ gegen jmdn. ein Verfahren anstrengen < Recht> bring a lawsuit against sb* * *Verfahren
(Arbeitsvorgang) operation, course, (Behandlung) treatment, (Gericht) procedure, proceeding[s], process, case, suit at law (US), lawsuit (US), (Handlungsweise) deal (coll.), dealings, (Herstellung) process, method, technique, departure, (Methode) manner, method, plan, line, way, mode, (Schema) policy, system;
• in einem schwebenden Verfahren pendente lite (lat.);
• abgekürztes Verfahren summary proceeding;
• aufeinander abgestimmtes Verfahren concerted practices;
• abgetrenntes Verfahren separate trial;
• anhängiges Verfahren case at law, proceedings instituted;
• beschleunigtes Verfahren speedup;
• bildgebendes Verfahren imaging technique;
• disziplinarisches Verfahren disciplinary proceedings;
• einheitliches Verfahren standard practice, uniform procedure;
• Einsparungen ermöglichendes Verfahren saver;
• gerichtliches Verfahren legal proceedings, judicial process (proceedings);
• getrenntes Verfahren separate action;
• industrielles Verfahren know-how, industrial technique;
• konkursrechtliches Verfahren bankruptcy proceedings (procedure);
• kostspieliges Verfahren costly proceedings, wasteful process;
• neuartiges Verfahren novel method;
• neues Verfahren new departure;
• ordentliches Verfahren regular process, ordinary proceedings;
• ordnungsgemäßes Verfahren due process of law;
• patentfähiges Verfahren patentable process;
• patentiertes Verfahren patented process;
• schiedsgerichtliches Verfahren arbitration procedure;
• schriftliches Verfahren written proceedings;
• übliches steuernsparendes Verfahren tax-saving pattern;
• überholtes Verfahren outmoded process;
• [allgemein] übliches Verfahren common practice;
• ungerechtes Verfahren unfair hearing;
• ungesetzliches Verfahren illegal proceedings;
• ungültiges Verfahren void (irregular) process, mistrial;
• unvorschriftsmäßiges Verfahren undue proceedings;
• verbessertes Verfahren improved process;
• Verfahren bei der Aufstellung des Haushalts budget procedure;
• Verfahren bei der Aufstellung des Werbeetats (Werbebudgets) advertising-budget procedure;
• Verfahren zur besseren Ausnutzung elektronischer Datenverarbeitungsanlagen time-sharing of data-processing machines;
• Verfahren zur Beilegung von Tarifstreitigkeiten disputes procedure;
• Verfahren zur Festsetzung der Folgeprämie renewal procedure;
• Verfahren zur Festsetzung eines Prioritätsrechtes (Patentrecht) interference proceedings;
• Verfahren zur Feststellung der Schadenhöhe writ of inquiry [after judgment by default];
• Verfahren zur Freigabe von Geheimmaterial declassification procedure;
• Verfahren der freiwilligen Gerichtsbarkeit non-contentious business;
• Verfahren zur Gründung einer Kapitalgesellschaft incorporation procedure (US);
• Verfahren im Interesse einer Klägergruppe class action (suit);
• Verfahren in Nachlassangelegenheiten administration suit;
• Verfahren zur Offenlegung der Vermögensverhältnisse equitable garnishment, supplementary proceedings (US);
• Verfahren eines integrierten Planungs-, Programmierungs- und Haushaltssystems Planning-Programming-Budgeting System;
• Verfahren zur Regelung arbeitsrechtlicher Streitigkeiten disputes procedure;
• Verfahren zur Regelung von Versicherungsansprüchen claim procedure;
• Verfahren in der Revisionsinstanz proceedings in error;
• Verfahren in Steuersachen process in tax proceedings;
• Verfahren in Warenzeichenangelegenheiten trademark procedure;
• Verfahren abtrennen to separate a case;
• Verfahren anstrengen to institute legal proceedings, to bring a suit;
• neues Verfahren anwenden to take a new departure;
• sein übliches Verfahren anwenden to follow one’s standard practice;
• Verfahren wieder aufnehmen to reopen a case;
• neue Verfahren ausprobieren to experiment with new methods;
• gerichtliches Verfahren aussetzen to stay (suspend) the proceedings, to arrest judgment;
• Verfahren beschleunigen to accelerate proceedings, to speed up procedures;
• Verfahren gegen j. in Gang bringen to take out a process against s. o.;
• Verfahren durchführen to proceed with a case, to carry on legal proceedings;
• neue technologische Verfahren in der Industrie einführen to make technical innovations in industry;
• in ein laufendes Verfahren eingreifen to publish comment on cases pending;
• Verfahren wegen Amtsmissbrauchs einleiten to take misfeasance proceedings;
• Verfahren einstellen to abate proceedings, to dismiss a case;
• einheitliches Verfahren erarbeiten to standardize procedure;
• ordnungsgemäßes Verfahren sicherstellen to regularize the proceedings;
• sich einem schiedsrichterlichen Verfahren unterwerfen to submit a claim for arbitration;
• Verfahren verschleppen to delay the proceedings;
• in einem schiedsgerichtlichen Verfahren tätig werden to arbitrate between parties to a suit;
• zu den Kosten des Verfahrens verurteilt werden to be condemned in (ordered to pay) the costs. -
31 Lippman, Gabriel
SUBJECT AREA: Photography, film and optics[br]b. 16 August 1845 Hallerick, Luxembourgd. 14 July 1921 at sea, in the North Atlantic[br]French physicist who developed interference colour photography.[br]Born of French parents, Lippman's work began with a distinguished career in classics, philosophy, mathematics and physics at the Ecole Normale in Luxembourg. After further studies in physics at Heidelberg University, he returned to France and the Sorbonne, where he was in 1886 appointed Director of Physics. He was a leading pioneer in France of research into electricity, optics, heat and other branches of physics.In 1886 he conceived the idea of recording the existence of standing waves in light when it is reflected back on itself, by photographing the colours so produced. This required the production of a photographic emulsion that was effectively grainless: the individual silver halide crystals had to be smaller than the shortest wavelength of light to be recorded. Lippman succeeded in this and in 1891 demonstrated his process. A glass plate was coated with a grainless emulsion and held in a special plate-holder, glass towards the lens. The back of the holder was filled with mercury, which provided a perfect reflector when in contact with the emulsion. The standing waves produced during the exposure formed laminae in the emulsion, with the number of laminae being determined by the wavelength of the incoming light at each point on the image. When the processed plate was viewed under the correct lighting conditions, a theoretically exact reproduction of the colours of the original subject could be seen. However, the Lippman process remained a beautiful scientific demonstration only, since the ultra-fine-grain emulsion was very slow, requiring exposure times of over 10,000 times that of conventional negative material. Any method of increasing the speed of the emulsion also increased the grain size and destroyed the conditions required for the process to work.[br]Principal Honours and DistinctionsRoyal Photographic Society Progress Medal 1897. Nobel Prize (for his work in interference colour photography) 1908.Further ReadingJ.S.Friedman, 1944, History of Colour Photography, Boston.Brian Coe, 1978, Colour Photography: The First Hundred Years, London. Gert Koshofer, 1981, Farbfotografie, Vol. I, Munich.BC -
32 Lumière, Auguste
SUBJECT AREA: Photography, film and optics[br]b. 19 October 1862 Besançon, Franced. 10 April 1954 Lyon, France[br]French scientist and inventor.[br]Auguste and his brother Louis Lumière (b. 5 October 1864 Besançon, France; d. 6 June 1948 Bandol, France) developed the photographic plate-making business founded by their father, Charles Antoine Lumière, at Lyons, extending production to roll-film manufacture in 1887. In the summer of 1894 their father brought to the factory a piece of Edison kinetoscope film, and said that they should produce films for the French owners of the new moving-picture machine. To do this, of course, a camera was needed; Louis was chiefly responsible for the design, which used an intermittent claw for driving the film, inspired by a sewing-machine mechanism. The machine was patented on 13 February 1895, and it was shown on 22 March 1895 at the Société d'Encouragement pour l'In-dustrie Nationale in Paris, with a projected film showing workers leaving the Lyons factory. Further demonstrations followed at the Sorbonne, and in Lyons during the Congrès des Sociétés de Photographie in June 1895. The Lumières filmed the delegates returning from an excursion, and showed the film to the Congrès the next day. To bring the Cinématographe, as it was called, to the public, the basement of the Grand Café in the Boulevard des Capuchines in Paris was rented, and on Saturday 28 December 1895 the first regular presentations of projected pictures to a paying public took place. The half-hour shows were an immediate success, and in a few months Lumière Cinématographes were seen throughout the world.The other principal area of achievement by the Lumière brothers was colour photography. They took up Lippman's method of interference colour photography, developing special grainless emulsions, and early in 1893 demonstrated their results by lighting them with an arc lamp and projecting them on to a screen. In 1895 they patented a method of subtractive colour photography involving printing the colour separations on bichromated gelatine glue sheets, which were then dyed and assembled in register, on paper for prints or bound between glass for transparencies. Their most successful colour process was based upon the colour-mosaic principle. In 1904 they described a process in which microscopic grains of potato starch, dyed red, green and blue, were scattered on a freshly varnished glass plate. When dried the mosaic was coated with varnish and then with a panchromatic emulsion. The plate was exposed with the mosaic towards the lens, and after reversal processing a colour transparency was produced. The process was launched commercially in 1907 under the name Autochrome; it was the first fully practical single-plate colour process to reach the public, remaining on the market until the 1930s, when it was followed by a film version using the same principle.Auguste and Louis received the Progress Medal of the Royal Photographic Society in 1909 for their work in colour photography. Auguste was also much involved in biological science and, having founded the Clinique Auguste Lumière, spent many of his later years working in the physiological laboratory.[br]Further ReadingGuy Borgé, 1980, Prestige de la photographie, Nos. 8, 9 and 10, Paris. Brian Coe, 1978, Colour Photography: The First Hundred Years, London ——1981, The History of Movie Photography, London.Jacques Deslandes, 1966, Histoire comparée du cinéma, Vol. I, Paris. Gert Koshofer, 1981, Farbfotografie, Vol. I, Munich.BC -
33 создавать
•The magnetic moment produces a diamagnetic effect.
•It is this reaction which builds up the reservoir of activated molecules.
•Displacing a particle in one direction brings about a force in the opposite direction.
•This vibrational resonance can create new photons.
•Industrial and professional societies have brought into being (or existence) a wide variety of standards.
•Where the valley is narrow the earthflow toe forms a dam, sometimes creating a lake.
•To build up (or produce) sufficient pressure so as to ensure...
•These forces cannot develop torque.
•If the rotor is given the shape of a polygon, the lines of force exert the desired torque.
•The detonation wave upon impacting the wave shaper generates a shock wave.
•The heat generated by magnetization...
•The feedback generates parasitic laser oscillations.
•The resistance element generates precision voltages.
•The use of a driving belt could give rise to vibration.
•The model was rotated in a centrifuge to induce centrifugal forces.
•When a current passes through a wire, it sets up a magnetic field around the wire.
•The magnetic field sets up a magnetomotive force.
•The flywheels set up in the spring-mounted screen a motion which...
•The heating of the coils sets up a ventilating draught.
•The object of the experiment is to build up a high current of charged particles.
•The gradient of viscous shear stresses establishes a steady-state concentration gradient.
•These energy transitions give rise to pockets of photons.
•This brings with it acute problems of electrical interference.
•In the past 20 years the electronics industry has generated many completely new technological systems.
•The media bring into existence and cultivate a new form of common consciousness.
II•An instrument has been created (or devised) for...
•The research staffs are evolving workable designs.
•The engineers have come up with an improved technique for...
•He originated the projection method.
Русско-английский научно-технический словарь переводчика > создавать
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34 метод интерференционного интеграла
Optics: interference integral methodУниверсальный русско-английский словарь > метод интерференционного интеграла
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35 метод интерференционного интеграла
опт. interference integral methodРусско-английский физический словарь > метод интерференционного интеграла
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36 микроскоп
microscope, scope* * *микроско́п м.
microscopeмикроско́п даё́т, напр. прямо́е или перевё́рнутое изображе́ние — a microscope forms an, e. g., erect or inverted imageмикроско́п испо́льзуется для наблюде́ния по ме́тоду, напр. тё́много или све́тлого по́ля — a microscope can be used for, e. g., dark-field or bright-field workнаблюда́ть в микроско́п — observe with a microscopeмикроско́п предназна́чен для наблюде́ния в, напр. проходя́щем или отражё́нном све́те — a microscope is intended for, e. g., transmitted or reflected light workмикроско́п рабо́тает по при́нципу фа́зового контра́ста — a microscope operates by the phase-contrast methodавтоэлектро́нный микроско́п — field-emission microscopeбинокуля́рный микроско́п — binocular microscopeбиологи́ческий микроско́п — biological microscopeголографи́ческий микроско́п — holographic microscopeмикроско́п для я́дерных эму́льсий — nuclear-emulsion microscopeизмери́тельный микроско́п — measuring microscopeиммерсио́нный микроско́п — immersion microscopeинверти́рованный микроско́п — inverted-stage microscopeинструмента́льный микроско́п — toolmaker's [tool-room] microscopeинтерференцио́нный микроско́п — interference microscopeинфракра́сный микроско́п — infra-red microscopeио́нный микроско́п — field-ion microscopeла́зерный микроско́п — laser microscopeлюминесце́нтный микроско́п — fluorescence microscopeмагни́тный микроско́п — magnetic microscopeметаллографи́ческий микроско́п — ( без фотокамеры) metallurgical microscope; ( с встроенной фотокамерой) metallographic microscope, metallographмонокуля́рный микроско́п — monocular microscopeопти́ческий микроско́п — light [optical] microscopeотсчё́тный микроско́п — reading microscopeполяризацио́нный микроско́п — polarizing microscopeпроекцио́нный микроско́п — projection microscopeпрото́нный микроско́п — proton microscopeра́стровый микроско́п — scanning [flying-spot] microscopeрентге́новский микроско́п — X-ray microscopeмикроско́п с бегу́щим лучо́м — scanning [flying-spot] microscopeмикроско́п с больши́м увеличе́нием — high-power microscopeсветово́й микроско́п — light microscopeмикроско́п с ма́лым увеличе́нием — low-power microscopeстереоскопи́ческий микроско́п — stereoscopic microscope, stereomicroscopeстереоскопи́ческий микроско́п обеспе́чивает объё́мное восприя́тие объе́кта — a stereomicroscope produces the sensation of depth in an objectмикроско́п с цифровы́м отсчё́том — digitized microscopeтелевизио́нный микроско́п — television microscopeтенево́й микроско́п — shadow microscopeультрафиоле́товый микроско́п — ultra-violet microscopeуниверса́льный микроско́п — universal stage microscopeфазоконтра́стный микроско́п — phase-contrast microscopeфотоэлектри́ческий микроско́п — photoelectric microscopeшка́ловый микроско́п — reading microscopeэлектро́нный микроско́п — electron microscopeэлектро́нный, отража́тельный микроско́п — reflection electron microscopeэлектро́нный, просве́чивающий микроско́п — transmission electron microscopeэлектро́нный, ра́стровый микроско́п — scanning electron microscopeэмиссио́нный микроско́п — field-emission microscope -
37 в настоящее время общепринято, что
В настоящее время общепринято, что-- Today it is well accepted that the optical interference technique is the most accurate method for the measurement of ultra-thin gas bearing separations.Русско-английский научно-технический словарь переводчика > в настоящее время общепринято, что
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38 Störspannungsmessmethode
Deutsch-Englisch Wörterbuch der Elektrotechnik und Elektronik > Störspannungsmessmethode
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39 микроскоп
м. microscopeмикроскоп работает по принципу фазового контраста — a microscope operates by the phase-contrast method
металлографический микроскоп — metallurgical microscope; metallographic microscope
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40 Braun, Karl Ferdinand
[br]b. 6 June 1850 Fulda, Hesse, Germanyd. 20 April 1918 New York City, New York, USA[br]German physicist who shared with Marconi the 1909 Nobel Prize for Physics for developments in wireless telegraphy; inventor of the cathode ray oscilloscope.[br]After obtaining degrees from the universities of Marburg and Berlin (PhD) and spending a short time as Headmaster of the Thomas School in Berlin, Braun successively held professorships in theoretical physics at the universities of Marburg (1876), Strasbourg (1880) and Karlsruhe (1883) before becoming Professor of Experimental Physics at Tübingen in 1885 and Director and Professor of Physics at Strasbourg in 1895.During this time he devised experimental apparatus to determine the dielectric constant of rock salt and developed the Braun high-tension electrometer. He also discovered that certain mineral sulphide crystals would only conduct electricity in one direction, a rectification effect that made it possible to detect and demodulate radio signals in a more reliable manner than was possible with the coherer. Primarily, however, he was concerned with improving Marconi's radio transmitter to increase its broadcasting range. By using a transmitter circuit comprising a capacitor and a spark-gap, coupled to an aerial without a spark-gap, he was able to obtain much greater oscillatory currents in the latter, and by tuning the transmitter so that the oscillations occupied only a narrow frequency band he reduced the interference with other transmitters. Other achievements include the development of a directional aerial and the first practical wavemeter, and the measurement in Strasbourg of the strength of radio waves received from the Eiffel Tower transmitter in Paris. For all this work he subsequently shared with Marconi the 1909 Nobel Prize for Physics.Around 1895 he carried out experiments using a torsion balance in order to measure the universal gravitational constant, g, but the work for which he is probably best known is the addition of deflecting plates and a fluorescent screen to the Crooke's tube in 1897 in order to study the characteristics of high-frequency currents. The oscilloscope, as it was called, was not only the basis of a now widely used and highly versatile test instrument but was the forerunner of the cathode ray tube, or CRT, used for the display of radar and television images.At the beginning of the First World War, while in New York to testify in a patent suit, he was trapped by the entry of the USA into the war and remained in Brooklyn with his son until his death.[br]Principal Honours and DistinctionsNobel Prize for Physics (jointly with Marconi) 1909.Bibliography1874, "Assymetrical conduction of certain metal sulphides", Pogg. Annal. 153:556 (provides an account of the discovery of the crystal rectifier).1897, "On a method for the demonstration and study of currents varying with time", Wiedemann's Annalen 60:552 (his description of the cathode ray oscilloscope as a measuring tool).Further ReadingK.Schlesinger \& E.G.Ramberg, 1962, "Beamdeflection and photo-devices", Proceedings of the Institute of Radio Engineers 50, 991.KF
См. также в других словарях:
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