recent+history

   Little information, much less knowledge, has been made public regarding Portugal's various intelligence services in recent times. Some information was published about the notorious political police during the Estado Novo (1926-74), but much less is known about intelligence units active during democratic Portugal (1974-). Although no comprehensive study has documented the Estado Novo's political police, the PIDE, which operated after 1932 under various names and was sometimes compared to the Portuguese Inquisition (1536-1821), more has become known since Portugal's democracy was established, on 25 April 1974. One striking feature of the pre-1974 political police's work was its multifunctional nature: in addition to terrorizing, persecuting, and sometimes murdering the opposition, PIDE operated a prison system, was empowered by special laws to detain prisoners for 90 days or more without charge, carried out criminal investigations, produced political and foreign intelligence for leaders, and exercised some censorship functions, as well as having the power of arrest.

   With the end of censorship after the Revolution of 25 April 1974 and the abolition of the political police, which had many informants among the population, more information was published on the intelligence services. Given the tragic, tangled history of the Estado Novo's political police and its impact, the new democratic regime was reluctant to set up intelligence services immediately. Care was taken to ensure that such activities under a democratic government would be conducted under strictly observed laws and would be consonant with democratic values and principles. Intelligence units were developed only in the 1980s and were oriented to report to the prime minister, as well as to the ministers of the interior and of national defense. By the late 1990s, the Serviço de Informações Estratégicas de Defesa e Militar/Strategic Defense and Military Information Service (SIEDM) was operating under the Ministry of Interior, along with Serviço de Informações de Segurança/Security Information Service (SIS), a civilian outfit responsible for domestic security. Along with the SIEDM, other military intelligence units are also responsible to the Ministry of National Defense, such as the Serviço de Informações Militares/Mili-tary Information Service (SIM) and Divisão de Informacões Militares/ Military Information Division (DIMIL). In the national legislature, the Assembly of the Republic, a number of permanent committees are responsible for monitoring intelligence activities.

   The Portuguese breed of horse known as Lusitano has a history of at least a thousand years. Other noted Portuguese horse breeds are the Garrano and Sorraia, which evolved from ancient Iberian ponies and horses. Some authorities believe that the Lusitano breed evolved from the ancient Sorraia. The breed's name derives from Lusitania, the name the Romans gave to a portion of southwestern Iberia, a section of which became known in later centuries as Portugal. The breed's name also could be related to the name Luso, in ancient mythology a son of Bacchus, the god of wine and merriment. In recent decades, the Lusitano breed has become fashionable again in equestrian circles that participate in international riding competitions, as well as in producing mounts for the Portuguese bullfight. Despite a declining economy, less public interest and higher expenses in the bull- fighting industry, more opposition from animal rights advocates, and the constraints of European Union regulations, the bull-fight has endured as a sport. Breeding such horses has become a growing business not only for competitive riding, especially dressage, and an increasingly popular equestrian tourism, but also for bull-fighting. Lusitano breeding farms are located mainly in two provinces in Ribatejo, part of the Tagus River valley, and in Alentejo.

    See also Equestrianism.

   Popular creed or belief, a messianism, after the loss of King Sebastião I in Morocco in 1578, that Portugal would be saved and made great again by a returning hero who would appear on a misty morning. Until the early 19th century, various personalities who were imposters posed as a returning Sebastian and sought to be recognized as conquering heroes. Forms of Sebastianist belief have captured the imagination in northeast Brazil as well. According to some historians, Sebastianism was not limited to the 16th century or to presumed royalty, but could find a popular following that could attach to recent political figures in the 19th and 20th centuries as well. There is a vast literature about Sebastianism and its history. One of Portugal's most distinguished historians, Dr. José Hermano Saraiva, suggests that even today a Sebastiani st feeling exists in a common tendency of persons who believe that what one wants cannot happen, but at the same time hope that it will happen and will happen independently of those persons' efforts. Such a state of mind is related to the common mood of Lisbon fado, as well as to the notion of saudade.

(1750-1823)

   Known in history by the name "the Abbé Correa da Serra," this famous Portuguese figure of the Enlightenment, man of letters, diplomat, traveler, botanist, and intellectual spent many years abroad in Great Britain, Italy, and the young republic of the United States. Patronized by the powerful, rich Duke of Lafões and ordained as a priest at age 25, Correa da Serra received a doctorate in Italy two years later and soon undertook diplomatic missions abroad for Portugal. Minister for Portugal in the United States of America from 1816 to 1820, he became a close friend and longtime correspondent of Thomas Jefferson. In historic Monticello, Thomas Jefferson's stately home, in recent restorations one bedroom has been officially designated as Correa da Serra's room. Correa da Serra was one of the founders of the Lisbon Academy of Sciences and had a wide correspondence with the scientific minds of the French Enlightenment. He was honored for his contributions to the field of botany in a number of other countries as well. In 1822, at the end of his life, he was elected to the new Constitutional Cortes in Lisbon.

a document that provides a summary of personal career history, skills, and experience. A résumé is usually prepared to aid in a job application. A job advertisement may ask either for a résumé or instead may require a candidate to complete an application form.

     Every résumé should include the following: the jobseeker’s name and contact details; a clear and concise description of his or her career objective; some kind of outline of work experience; and a list of education and qualifications. It is important to customize a résumé to the type of job or career being applied for, and to make sure it has impact: a hiring manager receives an average of over 120 résumés for every job opening.

     There are four basic types of résumé: the chronological, the functional, the targeted, and the capabilities résumé. A chronological résumé is useful for people who stay in the same field and do not make major career changes. They should start with and focus on the most recent positions held. A functional résumé is the preferred choice for those seeking their first professional job, or those making a major career change. It is based around 3–5 paragraphs, each emphasizing and illustrating a particular skill or accomplishment. A targeted résumé is useful for jobseekers who are very clear about their job direction and need to make an impressive case for a specific job. Like a functional résumé, it should be based around several capabilities and accomplishments that are relevant to the target job, focusing on action and results. A capabilities résumé is used for people applying for a specific job within their current organization. It should focus on 5–8 skills and accomplishments achieved with the company.

     The format of a résumé should also be considered—whether it is to be printed out, incorporated into an e-mail, posted on a Web site, or burned onto a CD-ROM. Different layout and design elements, such as the choice of fonts or inclusion of multimedia, are suitable for each medium, and should be thought through carefully.

U.K. term CV

SUBJECT AREA: Paper and printing

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The son of a farmer, Bewick was educated locally, but his progress was unremarkable save for demonstrating an intense love of nature and of drawing. In 1767 he was apprenticed to Ralph Beilby, an engraver in Newcastle. Wood-engraving at that time was at a low ebb, restricted largely to crude decorative devices, and Hogarth, commenting on a recent book on the art, doubted whether it would ever recover. Beilby's business was of a miscellaneous character, but Bewick's interest in wood-engraving was noticed and encouraged: Beilby submitted several of his engravings to the Royal Society of Arts, which awarded a premium of £80 for them. His apprenticeship ended in 1774 and he went to London, where he readily found employment with several printers. The call of the north was too strong, however, and two years later he returned to Newcastle, entering into partnership with Beilby. With the publication of Select Fables in 1784, Bewick really showed both his expertise in the art of wood-engraving as a medium for book illustration and his talents as an artist. His engravings for the History of British Birds mark the high point of his achievement. The second volume of this work appeared in 1804, the year in which his partnership with Beilby was dissolved.

The essential feature of Bewick's wood-engravings involved cutting across the grain of the wood instead of along it, as in the old woodcut technique. The wood surface thus obtained offered a much more sensitive medium for engraving than before. It paved the way for the flowering of engraving on wood, and then on steel, for the production of illustrated material for an ever wider public through the Victorian age.

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SUBJECT AREA: Textiles

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In 1912, Casablancas took out three patents in Britain. The first of these was for putting false twist into textile fibres during the drawing part of spinning. In his next we can find the origins of his interest in his high-draft system, for it contains intermediate sectors or rollers between the usual drawing rollers. It was not until the third patent that there appeared the basis of the modern system with endless inextensible strips of material passing round the rollers to help support the fibres. His first system was for spinning fibres of medium length, giving a much greater draft. This consisted of two aprons around the middle pair of drafting rollers which reached almost to the front ones. The aprons lightly pressed the fibres together in the drafting zone and yet allowed the more-quickly rotating front rollers to pull fibres out of the aprons quite easily. This enabled slivers or rovings to be reduced in thickness more quickly and evenly. In 1913, a further patent showed a development of the apron system where guides made the aprons move in an "S" pattern. Then in 1914 a patent illustrated something similar to the modern layout, while two further patents in the following year contained slightly different layouts. His system was soon applied to both ring frames and the mule, and while it was first applied to cotton, it soon spread to worsted. High-draft spinning was also envisaged by Casablancas and he took out a further patent in 1920 to obtain drafts in a ratio of several hundreds. His principles are used today on some of the most recent open-end spinning frames.

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SUBJECT AREA: Broadcasting, Electronics and information technology, Recording

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After education in Hungary and a period as an assistant at the Technische Hochschule, Berlin, Goldmark moved to England, where he joined Pye of Cambridge and worked on an experimental thirty-line television system using a cathode ray tube (CRT) for the display. In 1936 he moved to the USA to work at Columbia Broadcasting Laboratories. There, with monochrome television based on the CRT virtually a practical proposition, he devoted his efforts to finding a way of producing colour TV images: in 1940 he gave his first demonstration of a working system. There then followed a series of experimental field-sequential colour TV systems based on segmented red, green and blue colour wheels and drums, where the problem was to find an acceptable compromise between bandwidth, resolution, colour flicker and colour-image breakup. Eventually he arrived at a system using a colour wheel in combination with a CRT containing a panchromatic phosphor screen, with a scanned raster of 405 lines and a primary colour rate of 144 fields per second. Despite the fact that the receivers were bulky, gave relatively poor, dim pictures and used standards totally incompatible with the existing 525-line, sixty fields per second interlaced monochrome (black and white) system, in 1950 the Federal Communications Commission (FCC), anxious to encourage postwar revival of the industry, authorized the system for public broadcasting. Within eighteen months, however, bowing to pressure from the remainder of the industry, which had formed its own National Television Systems Committee (NTSC) to develop a much more satisfactory, fully compatible system based on the RCA three-gun shadowmask CRT, the FCC withdrew its approval.

While all this was going on, Goldmark had also been working on ideas for overcoming the poor reproduction, noise quality, short playing-time (about four minutes) and limited robustness and life of the long-established 78 rpm 12 in. (30 cm) diameter shellac gramophone record. The recent availability of a new, more robust, plastic material, vinyl, which had a lower surface noise, enabled him in 1948 to reduce the groove width some three times to 0.003 in. (0.0762 mm), use a more lightly loaded synthetic sapphire stylus and crystal transducer with improved performance, and reduce the turntable speed to 33 1/3 rpm, to give thirty minutes of high-quality music per side. This successful development soon led to the availability of stereophonic recordings, based on the ideas of Alan Blumlein at EMI in the 1930s.

In 1950 Goldmark became a vice-president of CBS, but he still found time to develop a scan conversion system for relaying television pictures to Earth from the Lunar Orbiter spacecraft. He also almost brought to the market a domestic electronic video recorder (EVR) system based on the thermal distortion of plastic film by separate luminance and coded colour signals, but this was overtaken by the video cassette recorder (VCR) system, which uses magnetic tape.

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See also: Baird, John Logie

SUBJECT AREA: Broadcasting, Electronics and information technology, Photography, film and optics

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During the early years of the motion picture industry, Jenkins made many innovations, including the development in 1894 of his own projector, the "Phantoscope", which was widely used for a number of years. In the same year he also suggested the possibility of electrically transmitting pictures over a distance, an interest that led to a lifetime of experimentation. As a result of his engineering contributions to the practical realization of moving pictures, in 1915 the National Motion Picture Board of Trade asked him to chair a committee charged with establishing technical standards for the industry. This in turn led to his proposing the creation of a professional society for those engineers in the industry, and the following year the Society of Motion Picture Engineers (later to become the Society of Motion Picture and Television Engineers) was formed, with Jenkins as its first President. Soon after this he began experiments with mechanical television, using both the Nipkow hole-spiral disc and a low-definition system of his own, based on rotating bevelled glass discs (his so-called "prismatic rings") and alkali-metal photocells. In the 1920s he gave many demonstrations of mechanical television, including a cable transmission of a crude silhouette of President Harding from Washington, DC, to Philadelphia in 1923 and a radio broadcast from Washington in 1928. The following year he formed the Jenkins Television Company to make television transmitters and receivers, but it soon went into debt and was acquired by the de Forest Company, from whom RCA later purchased the patents.

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See also: Baird, John Logie; Ives, Herbert Eugene; Zworykin, Vladimir Kosma

SUBJECT AREA: Textiles

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Little is known about the early life of Robert Kay except that he may have moved to France with his father, John Kay of Bury in 1747 but must have returned to England and their home town of Bury soon after. He may have been involved with his father in the production of a machine for making the wire covering for hand cards to prepare cotton for spinning. However, John Aikin, writing in 1795, implies that this was a recent invention. Kay's machine could pierce the holes in the leather backing, cut off a length of wire, bend it and insert it through the holes, row after row, in one operation by a person turning a shaft. The machine preserved in the Science Museum, in London's South Kensington, is more likely to be one of Robert's machine than his father's, for Robert carried on business as a cardmaker in Bury from 1791 until his death in 1801. The flying shuttle, invented by his father, does not seem to have been much used by weavers of cotton until Robert invented the drop box in 1760. Instead of a single box at the end of the sley, Robert usually put two, but sometimes three or four, one above another; the boxes could be raised or lowered. Shuttles with either different colours or different types of weft could be put in the boxes and the weaver could select any one by manipulating levers with the left hand while working the picking stick with the right to drive the appropriate shuttle across the loom. Since the selection could be made without the weaver having to pick up a shuttle and place it in the lath, this invention helped to speed up weaving, especially of multi-coloured checks, which formed a large part of the Lancashire output.

Between 1760 and 1763 Robert Kay may have written a pamphlet describing the invention of the flying shuttle and the attack on his father, pointing out how much his father had suffered and that there had been no redress. In February 1764 he brought to the notice of the Society of Arts an improvement he had made to the flying shuttle by substituting brass for wood, which enabled a larger spool to be carried.

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SUBJECT AREA: Broadcasting, Electronics and information technology, Telecommunications

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Marconi was educated in physics at Leghorn and at Bologna University. An avid experimenter, he worked in his parents' attic and, almost certainly aware of the recent work of Hertz and others, soon improved the performance of coherers and spark-gap transmitters. He also discovered for himself the use of earthing and of elevated metal plates as aerials. In 1895 he succeeded in transmitting telegraphy over a distance of 2 km (1¼ miles), but the Italian Telegraph authority rejected his invention, so in 1896 he moved to England, where he filed the first of many patents. There he gained the support of the Chief Engineer of the Post Office, and by the following year he had achieved communication across the Bristol Channel.

The British Post Office was also slow to take up his work, so in 1897 he formed the Wireless Telegraph \& Signal Company to work independently. In 1898 he sold some equipment to the British Army for use in the Boer War and established the first permanent radio link from the Isle of Wight to the mainland. In 1899 he achieved communication across the English Channel (a distance of more than 31 miles or 50 km), the construction of a wireless station at Spezia, Italy, and the equipping of two US ships to report progress in the America's Cup yacht race, a venture that led to the formation of the American Marconi Company. In 1900 he won a contract from the British Admiralty to sell equipment and to train operators. Realizing that his business would be much more successful if he could offer his customers a complete radio-communication service (known today as a "turnkey" deal), he floated a new company, the Marconi International Marine Communications Company, while the old company became the Marconi Wireless Telegraph Company.

His greatest achievement occurred on 12 December 1901, when Morse telegraph signals from a transmitter at Poldhu in Cornwall were received at St John's, Newfoundland, a distance of some 2,100 miles (3,400 km), with the use of an aerial flown by a kite. As a result of this, Marconi's business prospered and he became internationally famous, receiving many honours for his endeavours, including the Nobel Prize for Physics in 1909. In 1904, radio was first used to provide a daily bulletin at sea, and in 1907 a transatlantic wireless telegraphy service was inaugurated. The rescue of 1,650 passengers from the shipwreck of SS Republic in 1909 was the first of many occasions when wireless was instrumental in saving lives at sea, most notable being those from the Titanic on its maiden voyage in April 1912; more lives would have been saved had there been sufficient lifeboats. Marconi was one of those who subsequently pressed for greater safety at sea. In 1910 he demonstrated the reception of long (8 km or 5 miles) waves from Ireland in Buenos Aires, but after the First World War he began to develop the use of short waves, which were more effectively reflected by the ionosphere. By 1918 the first link between England and Australia had been established, and in 1924 he was awarded a Post Office contract for short-wave communication between England and the various parts of the British Empire.

With his achievements by then recognized by the Italian Government, in 1915 he was appointed Radio-Communications Adviser to the Italian armed forces, and in 1919 he was an Italian delegate to the Paris Peace Conference. From 1921 he lived on his yacht, the Elettra, and although he joined the Fascist Party in 1923, he later had reservations about Mussolini.

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SUBJECT AREA: Aerospace

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Throughout the history of aviation there have been many attempts to produce a cheap and simple aeroplane for "the man in the street". The tiny Demoiselle built by Alberto Santos- Dumont in 1909 or the de Havilland Moth of 1925 are good examples, but the one which very nearly achieved this aim was Henri Mignet's Flying Flea of 1933. Mignet was a self-taught designer of light aircraft, which often incorporated his unorthodox ideas. His Pou-du-Ciel ("Sky Louse" or "Flying Flea") was unorthodox. The materials used in construction were conventional wood and fabric, but the control system departed from the usual wing plus tailplane (with elevators). The Flea had two wings in tandem. The rear wing was fixed, while the forward wing was hinged to allow the angle of incidence, and hence its lift, to be increased or decreased. Reducing the forward wing's lift would cause the Flea to dive. After Mignet's first flight, on 6 September 1933, and the publication of his book Le Sport de l'air, which explains how to build a Poudu-Ciel, a Pou-building craze started in France. Mignet's book was translated into English and 6,000 copies were sold in a month. During 1935 the craze spread to Britain, where a Flying Flea could be built for £50–£90, including the engine. After several fatal crashes, the aircraft was banned in 1936. A design fault in the control system was to blame, and although this was remedied the wave of popular enthusiasm vanished. Mignet continued to design light aircraft and during the Second World War he was working on a Pou- Maquis for use by the French Resistance but the war ended before the aircraft was ready. During the post-war years a series of Flying Flea derivatives appeared, but their numbers were small. However, the home-build movement in general has grown in recent years, a fact which would have pleased Henri Mignet, the "Patron Saint of Homebuilders".

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SUBJECT AREA: Metallurgy

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After working as a millwright in Halifax, Riley found employment at the Ormesby Ironworks in Middlesbrough until, in 1869, he became manager of the Askam Ironworks in Cumberland. Three years later, in 1872, he was appointed Blast-furnace Manager at the pioneering Siemens Steel Company's works at Landore, near Swansea in South Wales. Using Spanish ore, he produced the manganese-rich iron (spiegeleisen) required as an additive to make satisfactory steel. Riley was promoted in 1874 to be General Manager at Landore, and he worked with William Siemens to develop the use of the latter's regenerative furnace for the production of open-hearth steel. He persuaded Welsh makers of tin plate to use sheets rolled from lowcarbon (mild) steel instead of from charcoal iron and, partly by publishing some test results, he was instrumental in influencing the Admiralty to build two naval vessels of mild steel, the Mercury and the Iris.

In 1878 Riley moved north on his appointment as General Manager of the Steel Company of Scotland, a firm closely associated with Charles Tennant that was formed in 1872 to make steel by the Siemens process. Already by 1878, fourteen Siemens melting furnaces had been erected, and in that year 42,000 long tons of ingots were produced at the company's Hallside (Newton) Works, situated 8 km (5 miles) south-east of Glasgow. Under Riley's leadership, steelmaking in open-hearth furnaces was initiated at a second plant situated at Blochairn. Plates and sections for all aspects of shipbuilding, including boilers, formed the main products; the company also supplied the greater part of the steel for the Forth (Railway) Bridge. Riley was associated with technical modifications which improved the performance of steelmaking furnaces using Siemens's principles. He built a gasfired cupola for melting pig-iron, and constructed the first British "universal" plate mill using three-high rolls (Lauth mill).

At the request of French interests, Riley investigated the properties of steels containing various proportions of nickel; the report that he read before the Iron and Steel Institute in 1889 successfully brought to the notice of potential users the greatly enhanced strength that nickel could impart and its ability to yield alloys possessing substantially lower corrodibility.

The Steel Company of Scotland paid dividends in the years to 1890, but then came a lean period. In 1895, at the age of 54, Riley moved once more to another employer, becoming General Manager of the Glasgow Iron and Steel Company, which had just laid out a new steelmaking plant at Wishaw, 25 km (15 miles) south-east of Glasgow, where it already had blast furnaces. Still the technical innovator, in 1900 Riley presented an account of his experiences in introducing molten blast-furnace metal as feed for the open-hearth steel furnaces. In the early 1890s it was largely through Riley's efforts that a West of Scotland Board of Conciliation and Arbitration for the Manufactured Steel Trade came into being; he was its first Chairman and then its President.

In 1899 James Riley resigned from his Scottish employment to move back to his native Yorkshire, where he became his own master by acquiring the small Richmond Ironworks situated at Stockton-on-Tees. Although Riley's 1900 account to the Iron and Steel Institute was the last of the many of which he was author, he continued to contribute to the discussion of papers written by others.

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SUBJECT AREA: Metallurgy, Textiles

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John Wyatt was the eldest son of John and Jane Wyatt, who lived in the small village of Thickbroom in the parish of Weeford, near Lichfield. John the younger was educated at Lichfield school and then worked as a carpenter at Thickbroom till 1730. In 1732 he was in Birmingham, engaged by a man named Heely, a gunbarrel forger, who became bankrupt in 1734. Wyatt had invented a machine for making files and sought the help of Lewis Paul to manufacture this commercially.

The surviving papers of Paul and Wyatt in Birmingham are mostly undated and show a variety of machines with which they were involved. There was a machine for "making lead hard" which had rollers, and "a Gymcrak of some consequence" probably refers to a machine for boring barrels or the file-making machine. Wyatt is said to have been one of the unsuccessful competitors for the erection of London Bridge in 1736. He invented and perfected the compound-lever weighing machine. He had more success with this: after 1744, machines for weighing up to five tons were set up at Birmingham, Chester, Gloucester, Hereford, Lichfield and Liverpool. Road construction, bridge building, hydrostatics, canals, water-powered engines and many other schemes received his attention and it is said that he was employed for a time after 1744 by Matthew Boulton.

It is certain that in April 1735 Paul and Wyatt were working on their spinning machine and Wyatt was making a model of it in London in 1736, giving up his work in Birmingham. The first patent, in 1738, was taken out in the name of Lewis Paul. It is impossible to know which of these two invented what. This first patent covers a wide variety of descriptions of the vital roller drafting to draw out the fibres, and it is unknown which system was actually used. Paul's carding patent of 1748 and his second spinning patent of 1758 show that he moved away from the system and principles upon which Arkwright built his success. Wyatt and Paul's spinning machines were sufficiently promising for a mill to be set up in 1741 at the Upper Priory, Birmingham, that was powered by two asses. Wyatt was the person responsible for constructing the machinery. Edward Cave established another at Northampton powered by water while later Daniel Bourn built yet another at Leominster. Many others were interested too. The Birmingham mill did not work for long and seems to have been given up in 1743. Wyatt was imprisoned for debt in The Fleet in 1742, and when released in 1743 he tried for a time to run the Birmingham mill and possibly the Northampton one. The one at Leominster burned down in 1754, while the Northampton mill was advertised for sale in 1756. This last mill may have been used again in conjunction with the 1758 patent. It was Wyatt whom Daniel Bourn contacted about a grant for spindles for his Leominster mill in 1748, but this seems to have been Wyatt's last association with the spinning venture.

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Ἰησοῦς (יֵשׁוּעַ Jeshua, later form for יְהוֹשׁוּעַ Joshua; s. MLidzbarski, Handb. d. nordsem. Epigr. 1898, 291; FPraetorius, ZDMG 59, 1905, 341f; FSteinmetzer, BZ 14, 1917, 193ff; FWaele, Wetenschappelijke Tijdingen 5, ’42, 177–81), gen. οῦ, dat. οῦ, acc. οῦν, voc. οῦ, ὁ Joshua/Jesus. This name, common among Jews (several persons w. it in LXX and Joseph. [Niese, index]; EpArist 48; 49; ins fr. the time of Augustus [RevÉpigr n.s. 1, 1913 no. 12]; POxy 816 [I B.C.]; PLond III, 1119a, 2 p. 25 [105 A.D.]. Ostraca: Sb 5812; 5817; 5820; 5822), usu. takes the article in the gospels (in J the nom. freq. appears without the art.: RNevius, NTS 12, ’65, 81–85; GFee, NTS 17, ’71, 168–83) except when it is accompanied by a word in apposition w. the art.; in the epistles and Rv it does not regularly take the art. (B-D-F §260, 1; W-S, §18, 6; HvSoden, D. Schriften des NTs I/2, 1911, 1406–9).

① Joshua, successor of Moses, military leader of the people when they entered Canaan (Josh; 1 Macc 2:55; 2 Macc 12:15; Philo, Joseph., Just.; Mel., HE 4, 26, 14; SibOr 2, 247) Ac 7:45; Hb 4:8. Fully Ἰ. υἱὸς Ναυή (Josh 1:1; cp. Sir 46:1; AssMos fgm f; Just., D. 113, 2; 115, 4) B 12:8f or Ἰ. ὁ τοῦ Ναυή 1 Cl 12:2 (AssMos fgm a; Just., D. 49, 6 al.; cp.111, 4 ἀπὸ Ἰ. τοῦ Ναυῆ).

② Jesus, son of Eliezer, in the genealogy of Jesus Lk 3:29 (Ἰωσή v.l.).

③ Jesus Christ, more definitely designated as Ἰ. Χριστός, Χριστὸς Ἰ., ὁ κύριος Ἰ. (Χριστός [so also TestSol D 1, 12]), ὁ σωτὴρ Ἰ. Χριστός etc. Mt 1:1, 21, 25 and oft. S. Χριστός, κύριος, σωτήρ. On the use of the names in Paul s. EvDobschütz, D. Th.-Briefe in Meyer⁷ 1909, 60f.—Two times by Ar. (15, 1; 3), 5 times by Mel., freq. by Just.—On the abbreviation of the names in mss. s. LTraube, Nomina sacra 1907, 113ff; EbNestle, ZNW 9, 1908, 248ff.—The older lit. on Jesus in ASchweitzer, Gesch. der Leben-Jesu-Forschung² 1913. Further RGG III³, ’59, 619–53 (bibliog. 651–53); MVeit, D. Auffassung v. d. Pers. Jesu im Urchristent. nach d. neuesten Forschungen, diss. Marburg ’46; REisler, Ἰησοῦς βασιλεύς 1928–1930; RBultmann, Jesus² 1929 (reprinted ’51), D. Urchristentum ’49; PFeine, Jesus 1930; FPrat, Jésus-Christ ’33; JKlausner, J. von Nazareth² ’34 (Eng. tr. 1926); MGoguel, La Vie de J. ’32 (Eng. tr. ’44); KAdam, Jes. Christus⁴ ’35; FWillam, D. Leben J. im Lande u. Volke Israel⁴ ’34; JPickl, Messiaskönig J. in d. Auffassung seiner Zeitgenossen³ ’39; RGuardini, D. Herr ’37; MDibelius, Jesus ’39 (³’60) (Eng. tr. ’49); ALoisy, Hist. et mythe à propos de J-Ch. ’38; HFelder, Jes. v. Naz.² ’39; CNoel, The Life of J. ’39; VGrÿnbech, J. d. Menschensohn ’41; RMeyer, D. Proph. aus Galil. ’40; CCadoux, The Hist. Mission of J. ’41; AOlmstead, J. in the Light of History ’42; WManson, J. the Messiah ’43, 6th impr. ’52; ARawlinson, Christ in the Gospels ’44; GRicciotti, Life of Christ ’47; FBüchsel, Jesus ’47; HCadbury, J.: What Manner of Man ’47; GDuncan, J., Son of Man ’47; JHoffmann, Les Vies de Jésus et le Jésus de l’Histoire ’47; WKümmel, Verheissung u. Erfüllung² ’53; GBornkamm, J. von Nazareth ’56 (Eng. tr. ’60); JKnox, Jesus, Lord and Christ ’58; HRistow u. KMatthiae, ed., D. historische Jesus u. d. kerygmatische Christus ’60; ESchweizer, Jesus (Eng. tr. DGreen) ’71; HBraun, Qumran u. d. NT II ’66, 54–118 (lit.); WKümmel in TRu 31, ’65/66; 40, ’75; 41, ’76 etc.; GSchneider, EDNT II 180–84; JMeier, A Marginal Jew—Rethinking the Historical Jesus, 2 vols. ’91–’94 (lit.). For more recent studies, see the standard bibliographic aids.—On the name: WLowrie, Theol. Today 8, ’51, 11–19; VTaylor, Names of Jesus ’53.

④ Jesus Barabbas Mt 27:16f; s. Βαραββᾶς.

⑤ Jesus/Justus Ἰ. ὁ λεγόμενος Ἰοῦστος Jesus who is called Justus (on the double name s. Dssm., B 183f [BS 315]), συνεργὸς ἐκ περιτομῆς Col 4:11. It has been conjectured (Zahn, Einl. I 321, 4; EAmling, ZNW 10, 1909, 261f) that this Jesus is referred to again in Phlm 23. On this ADeissmann, D. Name J.: Mysterium Christi ’31, 13–41.—M-M. EDNT. TW.

 

оптимизация
Процесс отыскания варианта, соответствующего критерию оптимальности
[Терминологический словарь по строительству на 12 языках (ВНИИИС Госстроя СССР)]

оптимизация
1. Процесс нахождения экстремума функции, т.е. выбор наилучшего варианта из множества возможных, процесс выработки оптимальных решений; 2. Процесс приведения системы в наилучшее (оптимальное) состояние. Иначе говоря, первое определение трактует термин «О.» как факт выработки и принятия оптимального решения (в широком смысле этих слов); мы выясняем, какое состояние изучаемой системы будет наилучшим с точки зрения предъявляемых к ней требований (критерия оптимальности) и рассматриваем такое состояние как цель. В этом смысле применяется также термин «субоптимизация» в случаях, когда отыскивается оптимум по какому-либо одному критерию из нескольких в векторной задаче оптимизации (см. Оптимальность по Парето, Векторная оптимизация). Второе определение имеет в виду процесс выполнения этого решения: т.е. перевод системы от существующего к искомому оптимальному состоянию. В зависимости от вида используемых критериев оптимальности (целевых функций или функционалов) и ограничений модели (множества допустимых решений) различают скалярную О., векторную О., мно¬гокритериальную О., стохастическую О (см. Стохастическое программирование), гладкую и негладкую (см. Гладкая функция), дискретную и непрерывную (см. Дискретность, Непрерывность), выпуклую и вогнутую (см. Выпуклость, вогнутость) и др. Численные методы О., т.е. методы построения алгоритмов нахождения оп¬тимальных значений целевых функций и соответствующих точек области допустимых значений — развитой отдел современной вычислительной математики. См. Оптимальная задача.
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