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producing establishment

  • 1 producing establishment

    действующее предприятие, функционирующее предприятие

    Politics english-russian dictionary > producing establishment

  • 2 establishment

    n
    1) установление; основание; создание; учреждение; введение
    3) учреждение ( государственное); организация; заведение
    4) (Establishment) истэблишмент; власть имущие; правящие круги; влиятельные круги или лица
    •
    - British ruling Establishment
    - business establishment
    - Defense Establishment
    - establishment of a new state
    - establishment of a permanent joint task-force headquarters
    - establishment of diplomatic relations
    - establishment of foreign military bases
    - establishment of foreign troops
    - establishment of the situation of approximate parity
    - industrial establishment
    - large industrial establishment
    - manufacturing establishment
    - military establishment
    - military industrial establishment
    - operated establishment
    - operating establishment
    - peace establishment
    - principal establishment
    - private establishment
    - producing establishment
    - publicly-owned establishment
    - regular establishment
    - ruling establishment
    - small industrial establishment
    - war establishment

    Politics english-russian dictionary > establishment

  • 3 Port Wine

       Portugal's most famous wine and leading export takes its name from the city of Oporto or porto, which means "port" or "harbor" in Portuguese. Sometimes described as "the Englishman's wine," port is only one of the many wines produced in continental Portugal and the Atlantic islands. Another noted dessert wine is Madeira wine, which is produced on the island of Madeira. Port wine's history is about as long as that of Madeira wine, but the wine's development is recent compared to that of older table wines and the wines Greeks and Romans enjoyed in ancient Lusitania. During the Roman occupation of the land (ca. 210 BCE-300 CE), wine was being made from vines cultivated in the upper Douro River valley. Favorable climate and soils (schist with granite outcropping) and convenient transportation (on ships down the Douro River to Oporto) were factors that combined with increased wine production in the late 17th century to assist in the birth of port wine as a new product. Earlier names for port wine ( vinho do porto) were descriptive of location ("Wine of the Douro Bank") and how it was transported ("Wine of [Ship] Embarkation").
       Port wine, a sweet, fortified (with brandy) aperitif or dessert wine that was designed as a valuable export product for the English market, was developed first in the 1670s by a unique combination of circumstances and the action of interested parties. Several substantial English merchants who visited Oporto "discovered" that a local Douro wine was much improved when brandy ( aguardente) was added. Fortification prevented the wine from spoiling in a variety of temperatures and on the arduous sea voyages from Oporto to Great Britain. Soon port wine became a major industry of the Douro region; it involved an uneasy alliance between the English merchant-shippers at Oporto and Vila Nova de Gaia, the town across the river from Oporto, where the wine was stored and aged, and the Portuguese wine growers.
       In the 18th century, port wine became a significant element of Britain's foreign imports and of the country's establishment tastes in beverages. Port wine drinking became a hallowed tradition in Britain's elite Oxford and Cambridge Universities' colleges, which all kept port wine cellars. For Portugal, the port wine market in Britain, and later in France, Belgium, and other European countries, became a vital element in the national economy. Trade in port wine and British woolens became the key elements in the 1703 Methuen Treaty between England and Portugal.
       To lessen Portugal's growing economic dependence on Britain, regulate the production and export of the precious sweet wine, and protect the public from poor quality, the Marquis of Pombal instituted various measures for the industry. In 1756, Pombal established the General Company of Viticulture of the Upper Douro to carry out these measures. That same year, he ordered the creation of the first demarcated wine-producing region in the world, the port-wine producing Douro region. Other wine-producing countries later followed this Portuguese initiative and created demarcated wine regions to protect the quality of wine produced and to ensure national economic interests.
       The upper Douro valley region (from Barca d'Alva in Portugal to Barqueiros on the Spanish frontier) produces a variety of wines; only 40 percent of its wines are port wine, whereas 60 percent are table wines. Port wine's alcohol content varies usually between 19 and 22 percent, and, depending on the type, the wine is aged in wooden casks from two to six years and then bottled. Related to port wine's history is the history of Portuguese cork. Beginning in the 17th century, Portuguese cork, which comes from cork trees, began to be used to seal wine bottles to prevent wine from spoiling. This innovation in Portugal helped lead to the development of the cork industry. By the early 20th century, Portugal was the world's largest exporter of cork.

    Historical dictionary of Portugal > Port Wine

  • 4 procreation

    1. n биол. воспроизведение; размножение; деторождение
    2. n порождение
    Синонимический ряд:
    1. creation (noun) creation; establishment; formulation; invention
    2. fathering (noun) fathering; generation; proliferation; siring
    3. producing offspring (noun) bearing young; breeding; hatching; multiplication; multiplying; producing offspring; propagation; reproduction; spawning

    English-Russian base dictionary > procreation

  • 5 Blanquart-Evrard, Louis-Désiré

    [br]
    b. 2 August 1802 Lille, France
    d. 28 April 1872 Lille, France
    [br]
    French photographer, photographic innovator and entrepreneur.
    [br]
    After beginning his working life in a tobacco company, Blanquart-Evrard became Laboratory Assistant to a chemist. He also became interested in painting on ivory and porcelain, foreshadowing a life-long interest in science and art. Following his marriage to the daughter of a textile merchant, Blanquart-Evrard became a partner in the family business in Lyon. During the 1840s he became interested in Talbot's calotype process and found that by applying gallic acid alone, as a developing agent after exposure, the exposure time could be shorter and the resulting image clearer. Blanquart-Evrard recognized that his process was well suited to producing positive prints in large numbers. During 1851 and 1852, in association with an artist friend, he became involved in producing quantities of prints for book illustrations. In 1849 he had announced a glass negative process similar to that devised two years earlier by Niepcc de St Victor. The carrying agent for silver salts was albumen, and more far-reaching was his albumen-coated printing-out paper announced in 1850. Albumen printing paper was widely adopted and the vast majority of photographs made in the nineteenth century were printed in this form. In 1870 Blanquart-Evrard began an association with the pioneer colour photographer Ducos du Hauron with a view to opening a three-colour printing establishment. Unfortunately plans were delayed by the Franco-Prussian War, and Blanquart-Evrard died in 1872 before the project could be brought to fruition.
    [br]
    Bibliography
    1851, Traité de photographie sur papier, Paris (provides details of his improvements to Talbot's process).
    Further Reading
    J.M.Eder, 1945, History of Photography, trans. E. Epstein, New York.
    JW

    Biographical history of technology > Blanquart-Evrard, Louis-Désiré

  • 6 McKay, Hugh Victor

    [br]
    b. c. 1866 Drummartin, Victoria, Australia
    d. 21 May 1926 Australia
    [br]
    Australian inventor and manufacturer of harvesting and other agricultural equipment.
    [br]
    A farmer's son, at the age of 17 McKay developed modifications to the existing stripper harvester and created a machine that would not only strip the seed from standing corn, but was able to produce a threshed, winnowed and clean sample in one operation. The prototype was produced in 1884 and worked well on the two acres of wheat that had been set aside on the family farm. By arrangement with a Melbourne plough maker, five machines were made and sold for the 1885 season. In 1886 the McKay Harvester Company was formed, with offices at Ballarat, from which the machines, built by various companies, were sold. The business expanded quickly, selling sixty machines in 1888, and eventually rising to the production of nearly 2,000 harvesters in 1905. The name "Sunshine" was given to the harvester, and the "Sun" prefix was to appear on all other implements produced by the company as it diversified its production interests. In 1902 severe drought reduced machinery sales and left 2,000 harvesters unsold. McKay was forced to look to export markets to dispose of his surplus machines. By 1914 a total of 10,000 machines were being exported annually. During the First World War McKay was appointed to the Business Board of the Defence Department. Increases in the scale of production resulted in the company moving to Melbourne, where it was close to the port of entry of raw materials and was able to export the finished article more readily. In 1909 McKay produced one of the first gas-engined harvesters, but its cost prevented it from being more than an experimental prototype. By this time McKay was the largest agricultural machinery manufacturer in the Southern hemisphere, producing a wide range of implements, including binders. In 1916 McKay hired Headlie Taylor, who had developed a machine capable of harvesting fallen crops. The jointly developed machine was a major success, coming as it did in what would otherwise have been a disastrous Australian harvest. Further developments included the "Sun Auto-header" in 1923, the first of the harvesting machines to adopt the "T" configuration to be seen on modern harvesters. The Australian market was expanding fast and a keen rivalry developed between McKay and Massey Harris. Confronted by the tariff regulations with which the Australian Government had protected its indigenous machinery industry since 1906, Massey Harris sold all its Australian assets to the H.V. McKay company in 1930. Twenty-three years later Massey Ferguson acquired the old Sunshine works and was still operating from there in the 1990s.
    Despite a long-running history of wage disputes with his workforce, McKay established a retiring fund as well as a self-help fund for distressed cases. Before his death he created a charitable trust and requested that some funds should be made available for the "aerial experiments" which were to lead to the establishment of the Flying Doctor Service.
    [br]
    Principal Honours and Distinctions
    CBE.
    Further Reading
    Graeme Quick and Wesley Buchele, 1978, The Grain Harvesters, American Society of Agricultural Engineers (devotes a chapter to the unique development of harvesting machinery which took place in Australia).
    AP

    Biographical history of technology > McKay, Hugh Victor

  • 7 Pierce, John Robinson

    [br]
    b. 27 March 1910 Des Moines, Iowa, USA
    [br]
    American scientist and communications engineer said to be the "father" of communication satellites.
    [br]
    From his high-school days, Pierce showed an interest in science and in science fiction, writing under the pseudonym of J.J.Coupling. After gaining Bachelor's, Master's and PhD degrees at the California Institute of Technology (CalTech) in Pasadena in 1933, 1934 and 1936, respectively, Pierce joined the Bell Telephone Laboratories in New York City in 1936. There he worked on improvements to the travelling-wave tube, in which the passage of a beam of electrons through a helical transmission line at around 7 per cent of the speed of light was made to provide amplification at 860 MHz. He also devised a new form of electrostatically focused electron-multiplier which formed the basis of a sensitive detector of radiation. However, his main contribution to electronics at this time was the invention of the Pierce electron gun—a method of producing a high-density electron beam. In the Second World War he worked with McNally and Shepherd on the development of a low-voltage reflex klystron oscillator that was applied to military radar equipment.
    In 1952 he became Director of Electronic Research at the Bell Laboratories' establishment, Murray Hill, New Jersey. Within two years he had begun work on the possibility of round-the-world relay of signals by means of communication satellites, an idea anticipated in his early science-fiction writings (and by Arthur C. Clarke in 1945), and in 1955 he published a paper in which he examined various possibilities for communications satellites, including passive and active satellites in synchronous and non-synchronous orbits. In 1960 he used the National Aeronautics and Space Administration 30 m (98 1/2 ft) diameter, aluminium-coated Echo 1 balloon satellite to reflect telephone signals back to earth. The success of this led to the launching in 1962 of the first active relay satellite (Telstar), which weighed 170 lb (77 kg) and contained solar-powered rechargeable batteries, 1,000 transistors and a travelling-wave tube capable of amplifying the signal 10,000 times. With a maximum orbital height of 3,500 miles (5,600 km), this enabled a variety of signals, including full bandwidth television, to be relayed from the USA to large receiving dishes in Europe.
    From 1971 until his "retirement" in 1979, Pierce was Professor of Electrical Engineering at CalTech, after which he became Chief Technologist at the Jet Propulsion Laboratories, also in Pasadena, and Emeritus Professor of Engineering at Stanford University.
    [br]
    Principal Honours and Distinctions
    Institute of Electrical and Electronics Engineers Morris N.Liebmann Memorial Award 1947; Edison Medal 1963; Medal of Honour 1975. Franklin Institute Stuart Ballantine Award 1960. National Medal of Science 1963. Danish Academy of Science Valdemar Poulsen Medal 1963. Marconi Award 1974. National Academy of Engineering Founders Award 1977. Japan Prize 1985. Arthur C.Clarke Award 1987. Honorary DEng Newark College of Engineering 1961. Honorary DSc Northwest University 1961, Yale 1963, Brooklyn Polytechnic Institute 1963. Editor, Proceedings of the Institute of Radio Engineers 1954–5.
    Bibliography
    23 October 1956, US patent no. 2,768,328 (his development of the travelling-wave tube, filed on 5 November 1946).
    1947, with L.M.Field, "Travelling wave tubes", Proceedings of the Institute of Radio
    Engineers 35:108 (describes the pioneering improvements to the travelling-wave tube). 1947, "Theory of the beam-type travelling wave tube", Proceedings of the Institution of
    Radio Engineers 35:111. 1950, Travelling Wave Tubes.
    1956, Electronic Waves and Messages. 1962, Symbols, Signals and Noise.
    1981, An Introduction to Information Theory: Symbols, Signals and Noise: Dover Publications.
    1990, with M.A.Knoll, Signals: Revolution in Electronic Communication: W.H.Freeman.
    KF

    Biographical history of technology > Pierce, John Robinson

  • 8 Reichenbach, Georg Friedrich von

    [br]
    b. 24 August 1772 Durlach, Baden, Germany
    d. 21 May 1826 Munich, Germany
    [br]
    German engineer.
    [br]
    While he was attending the Military School at Mannheim, Reichenbach drew attention to himself due to the mathematical instruments that he had designed. On the recommendation of Count Rumford in Munich, the Bavarian government financed a two-year stay in Britain so that Reichenbach could become acquainted with modern mechanical engineering. He returned to Mannheim in 1793, and during the Napoleonic Wars he was involved in the manufacture of arms. In Munich, where he was in the service of the Bavarian state from 1796, he started producing precision instruments in his own time. His basic invention was the design of a dividing machine for circles, produced at the end of the eighteenth century. The astronomic and geodetic instruments he produced excelled all the others for their precision. His telescopes in particular, being perfect in use and of solid construction, soon brought him an international reputation. They were manufactured at the MathematicMechanical Institute, which he had jointly founded with Joseph Utzschneider and Joseph Liebherr in 1804 and which became a renowned training establishment. The glasses and lenses were produced by Joseph Fraunhofer who joined the company in 1807.
    In the same year he was put in charge of the technical reorganization of the salt-works at Reichenhall. After he had finished the brine-transport line from Reichenhall to Traunstein in 1810, he started on the one from Berchtesgaden to Reichenhall which was an extremely difficult task because of the mountainous area that had to be crossed. As water was the only source of energy available he decided to use water-column engines for pumping the brine in the pipes of both lines. Such devices had been in use for pumping purposes in different mining areas since the middle of the eighteenth century. Reichenbach knew about the one constructed by Joseph Karl Hell in Slovakia, which in principle had just been a simple piston-pump driven by water which did not work satisfactorily. Instead he constructed a really effective double-action water-column engine; this was a short time after Richard Trevithick had constructed a similar machine in England. For the second line he improved the system and built a single-action pump. All the parts of it were made of metal, which made them easy to produce, and the pumps proved to be extremely reliable, working for over 100 years.
    At the official opening of the line in 1817 the Bavarian king rewarded him generously. He remained in the state's service, becoming head of the department for roads and waterways in 1820, and he contributed to the development of Bavarian industry as well as the public infrastructure in many ways as a result of his mechanical skill and his innovative engineering mind.
    [br]
    Further Reading
    Bauernfeind, "Georg von Reichenbach" Allgemeine deutsche Biographie 27:656–67 (a reliable nineteenth-century account).
    W.Dyck, 1912, Georg v. Reichenbach, Munich.
    K.Matschoss, 1941, Grosse Ingenieure, Munich and Berlin, 3rd edn. 121–32 (a concise description of his achievements in the development of optical instruments and engineering).
    WK

    Biographical history of technology > Reichenbach, Georg Friedrich von

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