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  • 101 Indian Shirtings

    Heavily sized, plain-weave cloths, made in many districts of Lancashire from ordinary cotton yarns, such as 371/2-in. 371/2 yards, 68 ends and 70 picks per inch, 10-lb. Shipped in the loom state to India.

    Dictionary of the English textile terms > Indian Shirtings

  • 102 Kerseys

    A coarse woollen fabric in 2 & 2 twill weave with bold ribs. A cheaper cloth than kerseymere. Made about 24 ends and 24 picks per inch, 10-cut gala woollen yarns, heavily milled and finished with a fine nap face.

    Dictionary of the English textile terms > Kerseys

  • 103 Khaddar

    This is a very rough cotton cloth, made in India from native-spun yarns. A much lower quality cloth than any shipped from Lancashire, but is produced so cheaply that the poorer natives can afford to buy it. The qualities vary considerably and one sample was 44 ends and 40 picks per inch, 18's T., 18's W. The weft varied from 10's up to 32's. Heavily sized warp is used and the cloth is the commonest used in India (see Khadi)

    Dictionary of the English textile terms > Khaddar

  • 104 Label Cloth

    A heavily sized plain weave cotton cloth used for labels, tags, etc. The cloth is finished with a glazed surface. One quality is made 64 ends and 64 picks per inch, 32's T., 30's W., but there are numerous qualities.

    Dictionary of the English textile terms > Label Cloth

  • 105 Net Canvas

    An open weave canvas, made of cotton or flax, dyed black or bleached and heavily stiffened. Used for embroidery.

    Dictionary of the English textile terms > Net Canvas

  • 106 Paddings

    A jute or hemp fabric, woven two ends together in a plain weave, and used for coat padding. It is dyed black or left in natural colour. Made about 24-in. wide and 10-oz. to 14-oz. per yard. Usually heavily stiffened.

    Dictionary of the English textile terms > Paddings

  • 107 Penistone

    PENISTONE, or PENNYSTONE
    A rough woollen cloth of the 17th century, heavily milled, named after the town of Penistone where it was first made. Also called " Forest Whites."

    Dictionary of the English textile terms > Penistone

  • 108 Pennystone

    PENISTONE, or PENNYSTONE
    A rough woollen cloth of the 17th century, heavily milled, named after the town of Penistone where it was first made. Also called " Forest Whites."

    Dictionary of the English textile terms > Pennystone

  • 109 Pique

    Sometimes abbreviated to P.K. See full pique and half pique. A type of seaming for gloves. ———————— Dobby cloths composed of two warps and two wefts. The face warp is lightly weighted, and weaves plain with the face weft. The back warp is heavily weighted, and stitches through the plain face cloth, according to a prearranged design. At the stitching points the face cloth is pulled down, causing the face to form an embossed surface. The second weft is used as wadding to make the raised figuring more pronounced. The face warp and weft are usually finer than those used for stitching and wadding and in the proportion of 2: 1, such as 2 ends 32's face 1 end 24's back. A popular cloth is made 40-in., 40/45 yards, 100 face 32's super Egyptian, 50 back 2/60's super American, 120 face picks 42's super Egyptian, and 64 wadding picks 18's super American. The finer piques are rather expensive.

    Dictionary of the English textile terms > Pique

  • 110 Silesias

    Very low quality cotton cloths in twill or satin weaves. Heavily twilled in finishing, has a smooth, glossy finish, and used as linings for cheap clothing. Printed sometimes in stripes. Reeds and picks vary, but always low yarns, 30's to 40's warp and 36's to 44's weft. Originally a low linen cloth made in Silesia in plain, twill, and satin weaves.

    Dictionary of the English textile terms > Silesias

  • 111 Steam Twills

    Very low quality cotton fabrics used for low-class linings and for underwear in some countries. Usually finished grey in a filled finish. Made about 40 to 46 ends and 50 to 54 picks per inch, 26's to 30's warp, 36's weft. Also in white and black and heavily filled qualities, 40-in. wide, 40 ends and 46 picks per inch, 38's warp, 22's weft, for cap linings; 38-in. wide, 44 ends and 50 picks per inch, 38's warp, 28's weft, for cheap clothing linings.

    Dictionary of the English textile terms > Steam Twills

  • 112 Taborette

    Silk fabric woven in stripes of warp satin and weft rib. All-silk warp and silk weft or two-fold super Egyptian cotton weft. The satin stripes are heavily crammed. One cloth is made 180 ends and 72 picks per inch, 75 denier silk warp and 2/100's cotton weft. The cloth is dyed for curtains, etc.

    Dictionary of the English textile terms > Taborette

  • 113 Tammies

    Plain weave cloths made about 26-in. wide from cotton warp and wool weft in various reeds and picks. They are piece-dyed and heavily glazed. Used for underskirts.

    Dictionary of the English textile terms > Tammies

  • 114 Cort, Henry

    SUBJECT AREA: Metallurgy
    [br]
    b. 1740 Lancaster, England
    d. 1800 Hampstead, near London, England
    [br]
    English ironmaster, inventor of the puddling process and grooved rollers for forming iron into bars.
    [br]
    His father was a mason and brickmaker but, anxious to improve himself, Cort set up in London in 1765 as a navy agent, said to have been a profitable business. He recognized that, at that time, the conversion of pig iron to malleable or wrought iron, which was needed in increasing quantities as developments in industry and mechanical engineering gathered pace, presented a bottleneck in the ironmaking process. The finery hearth was still in use, slow and inefficient and requiring the scarce charcoal as fuel. To tackle this problem, Cort gave up his business and acquired a furnace and slitting mill at Fontley, near Fareham in Hampshire. In 1784 he patented his puddling process, by which molten pig iron on the bed of a reverberatory furnace was stirred with an iron bar and, by the action of the flame and the oxygen in the air, the carbon in the pig iron was oxidized, leaving nearly pure iron, which could be forged to remove slag. In this type of furnace, the fuel and the molten iron were separated, so that the cheaper coal could be used as fuel. It was the stirring action with the iron bar that gave the name "puddling" to the process. Others had realized the problem and reached a similar solution, notably the brothers Thomas and George Cranage, but only Cort succeeded in developing a commercially viable process. The laborious hammering of the ball of iron thus produced was much reduced by an invention of the previous year, 1783. This too was patented. The iron was passed between grooved rollers to form it into bars. Cort entered into an agreement with Samuel Jellico to set up an ironworks at Gosport to exploit his inventions. Samuel's father Adam, Deputy Paymaster of the Navy, advanced capital for this venture, Cort having expended much of his own resources in the experimental work that preceded his inventions. However, it transpired that Jellico senior had, unknown to Cort, used public money to advance the capital; the Admiralty acted to recover the money and Cort lost heavily, including the benefits from his patents. Rival ironmasters were quick to pillage the patents. In 1790, and again the following year, Cort offered unsuccessfully to work for the military. Finally, in 1794, at the instigation of the Prime Minister, William Pitt the Younger, Cort was paid a pension of £200 per year in recognition of the value of his improvements in the technology of ironmaking, although this was reduced by deductions to £160. After his death, the pension to his widow was halved, while some of his children received a pittance. Without the advances made by Cort, however, the iron trade could not have met the rapidly increasing demand for iron during the industrial revolution.
    [br]
    Bibliography
    1787, A Brief State of Facts Relative to the New Method of Making Bar Iron with Raw Pit Coal and Grooved Rollers (held in the Science Museum Library archive collection).
    Further Reading
    H.W.Dickinson, 1941, "Henry Cort's bicentary", Transactions of the Newcomen Society 21: 31–47 (there are further references to grooved rollers and the puddling process in Vol. 49 of the same periodical (1978), on pp. 153–8).
    R.A.Mott, 1983, Henry Con, the Great Finery Creator of Puddled Iron, Sheffield: Historical Metallurgy Society.
    LRD

    Biographical history of technology > Cort, Henry

  • 115 MacNeill, Sir John Benjamin

    [br]
    b. 1793 (?) Mount Pleasant, near Dundalk, Louth, Ireland
    d. 2 March 1880
    [br]
    Irish railway engineer and educator.
    [br]
    Sir John MacNeill became a pupil of Thomas Telford and served under him as Superintendent of the Southern Division of the Holyhead Road from London to Shrewsbury. In this capacity he invented a "Road Indicator" or dynamometer. Like other Telford followers, he viewed the advent of railways with some antipathy, but after the death of Telford in 1834 he quickly became involved in railway construction and in 1837 he was retained by the Irish Railway Commissioners to build railways in the north of Ireland (Vignoles received the commission for the south). Much of his subsequent career was devoted to schemes for Irish railways, both those envisaged by the Commissioners and other private lines with more immediately commercial objectives. He was knighted in 1844 on the completion of the Dublin \& Drogheda Railway along the east coast of Ireland. In 1845 MacNeill lodged plans for over 800 miles (1,300 km) of Irish railways. Not all of these were built, many falling victim to Irish poverty in the years after the Famine, but he maintained a large staff and became financially embarrassed. His other schemes included the Grangemouth Docks in Scotland, the Liverpool \& Bury Railway, and the Belfast Waterworks, the latter completed in 1843 and subsequently extended by Bateman.
    MacNeill was an engineer of originality, being the person who introduced iron-lattice bridges into Britain, employing the theoretical and experimental work of Fairbairn and Eaton Hodgkinson (the Boyne Bridge at Drogheda had two such spans of 250ft (76m) each). He also devised the Irish railway gauge of 5 ft 2 in. (1.57 m). Consulted by the Board of Trinity College, Dublin, regarding a School of Engineering in 1842, he was made an Honorary LLD of the University and appointed the first Professor of Civil Engineering, but he relinquished the chair to his assistant, Samuel Downing, in 1846. MacNeill was a large and genial man, but not, we are told, "of methodical and business habit": he relied heavily on his subordinates. Blindness obliged him to retire from practice several years before his death. He was an early member of the Institution of Civil Engineers, joining in 1827, and was elected a Fellow of the Royal Society in 1838.
    [br]
    Principal Honours and Distinctions
    FRS 1838.
    Further Reading
    Dictionary of National Biography. Proceedings of the Institution of Civil Engineers
    73:361–71.
    AB

    Biographical history of technology > MacNeill, Sir John Benjamin

  • 116 Vitruvius Pollio

    [br]
    b. early first century BC
    d. c. 25 BC
    [br]
    Roman writer on architecture and engineering subjects.
    [br]
    Nothing is known of Vitruvius apart from what can be gleaned from his only known work, the treatise De architectura. He seems to have been employed in some capacity by Julius Caesar and continued to serve under his heir, Octavianus, later Emperor Augustus, to whom he dedicated his book. It was written towards the end of his life, after Octavianus became undisputed ruler of the Empire by his victory at Actium in 31 BC, and was based partly on his own experience and partly on earlier, Hellenistic, writers.
    The De architectura is divided into ten books. The first seven books expound the general principles of architecture and the planning, design and construction of various types of building, public and domestic, including a consideration of techniques and materials. Book 7 deals with interior decoration, including stucco work and painting, while Book 8 treats water supply, from the location of sources to the transport of water by aqueducts, tunnels and pipes. Book 9, after a long and somewhat confused account of the astronomical theories of the day, describes various forms of clock and sundial. Finally, Book 10 deals with mechanical devices for handling building materials and raising and pumping water, for which Vitruvius draws on the earlier Greek authors Ctesibius and Hero.
    Although this may seem a motley assembly of subjects, to the Roman architect and builder it was a logical compendium of the subjects he was expected to know about. At the time, Vitruvius' rigid rules for the design of buildings such as temples seem to have had little influence, but his accounts of more practical matters of building materials and techniques were widely used. His illustrations to the original work were lost in antiquity, for no later manuscript includes them. Through the Middle Ages, manuscript copies were made in monastic scriptoria, although the architectural style in vogue had little relevance to those in Vitruvius: these came into their own with the Italian Renaissance. Alberti, writing the first great Renaissance treatise on architecture from 1452 to 1467, drew heavily on De architectura; those who sought to revive the styles of antiquity were bound to regard the only surviving text on the subject as authoritative. The appearance of the first printed edition in 1486 only served to extend its influence.
    During the sixteenth and seventeenth centuries, Vitruvius was used as a handbook for constructing machines and instruments. For the modern historian of technology and architecture the work is a source of prime importance, although it must be remembered that the illustrations in the early printed editions are of contemporary reproductions of ancient devices using the techniques of the time, rather than authentic representations of ancient technology.
    [br]
    Bibliography
    Of the several critical editions of De architectura there are the Teubner edition, 1899. ed. V.Rose, Leipzig; the Loeb Classical Library edition, 1962, ed. F.Granger, London: Heinemann, (with English trans. and notes); and the Collection Guillaume Budé with French trans. and full commentary, 10 vols, Paris (in progress).
    Further Reading
    Apart from the notes to the printed editions, see also: H.Plommer, 1973, Vitruvius and Later Roman Building Manuals, London. A.G.Drachmann, 1963, The Mechanical Technology of Greek and Roman Antiquity Copenhagen and London.
    S.L.Gibbs, 1976, Greek and Roman Sundials, New Haven and London.
    LRD

    Biographical history of technology > Vitruvius Pollio

  • 117 Philosophy

       And what I believe to be more important here is that I find in myself an infinity of ideas of certain things which cannot be assumed to be pure nothingness, even though they may have perhaps no existence outside of my thought. These things are not figments of my imagination, even though it is within my power to think of them or not to think of them; on the contrary, they have their own true and immutable natures. Thus, for example, when I imagine a triangle, even though there may perhaps be no such figure anywhere in the world outside of my thought, nor ever have been, nevertheless the figure cannot help having a certain determinate nature... or essence, which is immutable and eternal, which I have not invented and which does not in any way depend upon my mind. (Descartes, 1951, p. 61)
       Let us console ourselves for not knowing the possible connections between a spider and the rings of Saturn, and continue to examine what is within our reach. (Voltaire, 1961, p. 144)
       As modern physics started with the Newtonian revolution, so modern philosophy starts with what one might call the Cartesian Catastrophe. The catastrophe consisted in the splitting up of the world into the realms of matter and mind, and the identification of "mind" with conscious thinking. The result of this identification was the shallow rationalism of l'esprit Cartesien, and an impoverishment of psychology which it took three centuries to remedy even in part. (Koestler, 1964, p. 148)
       It has been made of late a reproach against natural philosophy that it has struck out on a path of its own, and has separated itself more and more widely from the other sciences which are united by common philological and historical studies. The opposition has, in fact, been long apparent, and seems to me to have grown up mainly under the influence of the Hegelian philosophy, or, at any rate, to have been brought out into more distinct relief by that philosophy.... The sole object of Kant's "Critical Philosophy" was to test the sources and the authority of our knowledge, and to fix a definite scope and standard for the researches of philosophy, as compared with other sciences.... [But Hegel's] "Philosophy of Identity" was bolder. It started with the hypothesis that not only spiritual phenomena, but even the actual world-nature, that is, and man-were the result of an act of thought on the part of a creative mind, similar, it was supposed, in kind to the human mind.... The philosophers accused the scientific men of narrowness; the scientific men retorted that the philosophers were crazy. And so it came about that men of science began to lay some stress on the banishment of all philosophic influences from their work; while some of them, including men of the greatest acuteness, went so far as to condemn philosophy altogether, not merely as useless, but as mischievous dreaming. Thus, it must be confessed, not only were the illegitimate pretensions of the Hegelian system to subordinate to itself all other studies rejected, but no regard was paid to the rightful claims of philosophy, that is, the criticism of the sources of cognition, and the definition of the functions of the intellect. (Helmholz, quoted in Dampier, 1966, pp. 291-292)
       Philosophy remains true to its classical tradition by renouncing it. (Habermas, 1972, p. 317)
       I have not attempted... to put forward any grand view of the nature of philosophy; nor do I have any such grand view to put forth if I would. It will be obvious that I do not agree with those who see philosophy as the history of "howlers" and progress in philosophy as the debunking of howlers. It will also be obvious that I do not agree with those who see philosophy as the enterprise of putting forward a priori truths about the world.... I see philosophy as a field which has certain central questions, for example, the relation between thought and reality.... It seems obvious that in dealing with these questions philosophers have formulated rival research programs, that they have put forward general hypotheses, and that philosophers within each major research program have modified their hypotheses by trial and error, even if they sometimes refuse to admit that that is what they are doing. To that extent philosophy is a "science." To argue about whether philosophy is a science in any more serious sense seems to me to be hardly a useful occupation.... It does not seem to me important to decide whether science is philosophy or philosophy is science as long as one has a conception of both that makes both essential to a responsible view of the world and of man's place in it. (Putnam, 1975, p. xvii)
       What can philosophy contribute to solving the problem of the relation [of] mind to body? Twenty years ago, many English-speaking philosophers would have answered: "Nothing beyond an analysis of the various mental concepts." If we seek knowledge of things, they thought, it is to science that we must turn. Philosophy can only cast light upon our concepts of those things.
       This retreat from things to concepts was not undertaken lightly. Ever since the seventeenth century, the great intellectual fact of our culture has been the incredible expansion of knowledge both in the natural and in the rational sciences (mathematics, logic).
       The success of science created a crisis in philosophy. What was there for philosophy to do? Hume had already perceived the problem in some degree, and so surely did Kant, but it was not until the twentieth century, with the Vienna Circle and with Wittgenstein, that the difficulty began to weigh heavily. Wittgenstein took the view that philosophy could do no more than strive to undo the intellectual knots it itself had tied, so achieving intellectual release, and even a certain illumination, but no knowledge. A little later, and more optimistically, Ryle saw a positive, if reduced role, for philosophy in mapping the "logical geography" of our concepts: how they stood to each other and how they were to be analyzed....
       Since that time, however, philosophers in the "analytic" tradition have swung back from Wittgensteinian and even Rylean pessimism to a more traditional conception of the proper role and tasks of philosophy. Many analytic philosophers now would accept the view that the central task of philosophy is to give an account, or at least play a part in giving an account, of the most general nature of things and of man. (Armstrong, 1990, pp. 37-38)
       8) Philosophy's Evolving Engagement with Artificial Intelligence and Cognitive Science
       In the beginning, the nature of philosophy's engagement with artificial intelligence and cognitive science was clear enough. The new sciences of the mind were to provide the long-awaited vindication of the most potent dreams of naturalism and materialism. Mind would at last be located firmly within the natural order. We would see in detail how the most perplexing features of the mental realm could be supported by the operations of solely physical laws upon solely physical stuff. Mental causation (the power of, e.g., a belief to cause an action) would emerge as just another species of physical causation. Reasoning would be understood as a kind of automated theorem proving. And the key to both was to be the depiction of the brain as the implementation of multiple higher level programs whose task was to manipulate and transform symbols or representations: inner items with one foot in the physical (they were realized as brain states) and one in the mental (they were bearers of contents, and their physical gymnastics were cleverly designed to respect semantic relationships such as truth preservation). (A. Clark, 1996, p. 1)
       Socrates of Athens famously declared that "the unexamined life is not worth living," and his motto aptly explains the impulse to philosophize. Taking nothing for granted, philosophy probes and questions the fundamental presuppositions of every area of human inquiry.... [P]art of the job of the philosopher is to keep at a certain critical distance from current doctrines, whether in the sciences or the arts, and to examine instead how the various elements in our world-view clash, or fit together. Some philosophers have tried to incorporate the results of these inquiries into a grand synoptic view of the nature of reality and our human relationship to it. Others have mistrusted system-building, and seen their primary role as one of clarifications, or the removal of obstacles along the road to truth. But all have shared the Socratic vision of using the human intellect to challenge comfortable preconceptions, insisting that every aspect of human theory and practice be subjected to continuing critical scrutiny....
       Philosophy is, of course, part of a continuing tradition, and there is much to be gained from seeing how that tradition originated and developed. But the principal object of studying the materials in this book is not to pay homage to past genius, but to enrich one's understanding of central problems that are as pressing today as they have always been-problems about knowledge, truth and reality, the nature of the mind, the basis of right action, and the best way to live. These questions help to mark out the territory of philosophy as an academic discipline, but in a wider sense they define the human predicament itself; they will surely continue to be with us for as long as humanity endures. (Cottingham, 1996, pp. xxi-xxii)
       In his study of ancient Greek culture, The Birth of Tragedy, Nietzsche drew what would become a famous distinction, between the Dionysian spirit, the untamed spirit of art and creativity, and the Apollonian, that of reason and self-control. The story of Greek civilization, and all civilizations, Nietzsche implied, was the gradual victory of Apollonian man, with his desire for control over nature and himself, over Dionysian man, who survives only in myth, poetry, music, and drama. Socrates and Plato had attacked the illusions of art as unreal, and had overturned the delicate cultural balance by valuing only man's critical, rational, and controlling consciousness while denigrating his vital life instincts as irrational and base. The result of this division is "Alexandrian man," the civilized and accomplished Greek citizen of the later ancient world, who is "equipped with the greatest forces of knowledge" but in whom the wellsprings of creativity have dried up. (Herman, 1997, pp. 95-96)

    Historical dictionary of quotations in cognitive science > Philosophy

См. также в других словарях:

  • made-up — adj. 1. formed or conceived by the imagination; not true; as, a made up story. Syn: fabricated, fancied, fictional, fictitious, invented. [WordNet 1.5] 2. having been paved. [British] [WordNet 1.5] 3. marked by the use of cosmetic makeup; as,… …   The Collaborative International Dictionary of English

  • made-up — adj 1.) a story, name, word etc that is made up is not true or real ▪ She used a made up name. 2.) wearing ↑make up on your face ▪ She was heavily made up (=wearing a lot of make up) …   Dictionary of contemporary English

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  • made-up — adjective 1 a story that is made up is not true: This tale of hers is totally made up. see also: make up make 1 2 wearing make­up (1) on your face: She was heavily made up …   Longman dictionary of contemporary English

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