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Research Results For 'Etruscans'

ETRUSCANS

The Etruscans were a race inhabiting Etruria, in ancient Italy. They were a powerful race, but internal rivalry of their loosely federated cities gave Rome an opportunity of destroying their power, although this took several centuries of spasmodic warfare, finally coming to a conclusion in the 4th century BC.
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VALERIUS CORVUS

Valerius Corvus was a famous general of the early Roman republic. He was born about 370 BC and died about 270 BC. He was elected consul in 348; defeated the Volsci, the Samnites, the Etruscans, and the Marsi; was dictator in 342 and in 301; consul for the sixth time in 299.
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ARMOUR

Picture of Armour

Armour is body protection worn in battle. The invention of gunpowder led, by degrees, to the virtual abandonment of armour until the Great War, when the helmet reappeared as a defence against shrapnel. Modern armour, used by the army, police, security guards, and people at risk from assassination, uses nylon and fibreglass and is often worn beneath clothing.

Some kind of defensive covering was probably of almost as early invention as weapons of offence. The principal pieces of defensive armour used by the ancients were shields, helmets, cuirasses, and greaves. In the earliest ages of Greece the shield is described as of immense size, but in the time of the Peloponnesian war about 420 BC, it was much smaller. The Romans had two sorts of shields; the scutum, a large rectangular highly convex shield, carried by the legionaries ; and the parma, a small round or oval flat shield, carried by the light-armed troops and the cavalry. In the declining days of Rome the shields became larger and more varied in form. The helmet was a characteristic piece of armour among the Assyrians, Greeks, Etruscans, and Romans. Like all other body armour it was usually made of bronze. The helmet of the historical age of Greece was distinguished by its lofty crest. The Roman helmet in the time of the early emperors fitted close to the head, and had a neck-guard and hinged cheek-pieces fastened under the chin, and a small bar across the face for a visor. Both Greeks and Romans wore cuirasses, at one time of bronze, but latterly of flexible materials. Greaves for the legs were worn by both, but among the Romans usually on one leg. The ancient Germans had large shields of plaited osier covered with leather, afterwards their shields were small, bound with iron, and studded with bosses. The Anglo-Saxons had round or oval shields of wood, covered with leather, and having a boss in the centre; and they had also corselets, or coats of mail, strengthened with iron rings. The Normans were well protected by mail; their shields were somewhat triangular in shape, their helmets conical. In Europe generally metal armour was used from the tenth to the eighteenth century, and at first consisted of a tunic made of iron rings firmly sewn flat upon strong cloth or leather. The rings were afterwards interlinked one with another so as to form a garment of themselves,
called chain- mail.

Great variety is found in the pattern of the armour, and in some cases small pieces of metal were used instead of rings, forming what is called scale-armour. A suit of armour consisting of larger pieces of metal, called plate-armour, was now introduced, and the whole body came to be encased in a heavy metal covering. The various forms of ring or scale armour were gradually superseded by the plate-armour, which continued to be worn until long after the introduction of firearms and field-artillery. A complete suit of armour was an elaborate and costly equipment, consisting of a number of different pieces, each with its distinctive name. In 19th century European armies the metal cuirass was still to some extent in use, the cuirassiers being heavy cavalry; and it is was said that this piece of armour provided a useful defence against the rifle bullets of the time. During all the time that the use of heavy armour prevailed, the horsemen, who alone were fully armed, formed the principal strength of armies; and infantry were generally regarded as of hardly any account. England was, however, an exception, as the English archers were almost at all times, before the invention of gunpowder, an important and sometimes the chief force in the army.
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GLASS

Glass is an artificial hard, brittle, transparent or translucent, noncrystalline solid, consisting of metal silicates or similar compounds fused with an alkali. In its finest qualities glass is quite transparent, and is used for making windows, mirrors, bottles, composite armour plate for armoured fighting vehicles etc.

The ancient Egyptians carried the art of making glass to great perfection, and are known to have practised it as early as 2000 BC, if not earlier. The Assyrians, the Phoenicians, the Greeks and Etruscans were all acquainted with the manufacture. The Romans attained peculiar excellence in glass-making, and among them it was applied to a great variety of purposes. Among the most beautiful specimens of their art are the vases adorned with engraved figures in relief; they were sometimes transparent, sometimes of different colours on a dark ground, and very delicately executed. The Portland or Barberini vase is almost the only surviving specimen of this kind. The mode of preparing glass was known long before it was thought of making windows of it. The first mention of this mode of using glass is to be found in
Lactantius, in the 3rd century AD. St Jerome also speaks of glass being so used in 422 AD.


Benedict Biscop introduced glass windows into Britain in 674 AD. In church windows it was used from the 3rd century. The Venetians were long celebrated for their glass manufacture, which was established before 700 AD. Britain did not become distinguished for glass until about the commencement of the 16th century.

The excise laws relative to the glass manufacture were at one time complicated in the extreme, and tended to check improvements in glass-making. These laws were repealed in 1845 by Sir Robert Peel, as part of his free-trade policy, and beneficial effects were immediately apparent in the improved quality, cheapness, and greater variety of descriptions of glass produced. Traditionally, glass is largely made in France, Germany, Belgium, and the United States. For coloured glass Bohemia has long had a high reputation.

The first mention of the manufacture of glass in the United States is in Captain John Smith's 'History of Virginia', in which he speaks of a glass factory having been founded at Jamestown in 1615, and a second in 1622. The work was coarse, being chiefly confined to bottles. In 1754, a successful factory was established in Brooklyn by Bamper, a Dutchman. In 1779, factories were founded at Temple, New Hampshire, and in 1795 the industry was begun at Pittsburgh. By 1813 there were five glass factories at Pittsburgh. In 1840 there were eighty-one factories in the United States, by 1870, 201 factories flourished in different places and since then the industry rapidly increased.

Glass is formed by the fusion of siliceous matter, such as powdered flint or fine sand, together with some alkali, alkaline earth, salt, or metallic oxide. The nature of the glass will depend upon the quality and proportion of the ingredients of which it is formed; and thus an infinite variety of kinds of glass may be made, but in commerce five kinds are usually recognized:

1. Bottle or coarse green glass. 2. Broad, spread, or sheet window-glass. 3. Crown-glass, or the best window-glass. 4. Plate-glass, or glass of pure soda. 5. Flint-glass, or glass of lead.

Coloured glass may be mentioned as a sixth kind. The physical properties of glass are of the highest importance. Perhaps the chief of these is its transparency, and next to that its resistance to acids (except hydrofluoric acid). It preserves its transparency in a considerable heat, and its expansibility is less than that of any other known solid. Its great ductility, when heated, is also a remarkable property. It can, in this state, be drawn into all shapes, and even be spun into the finest threads. It is a bad conductor of heat, and is very brittle. It is usually cut by the diamond.

The works in which glass is made are called glass-houses. They were traditionally constructed of brick, and made of conical form. A large vault was made in the interior of the cone, extending from side to side, and of sufficient height to allow workmen to wheel in and out rubbish from beneath the furnace, which was placed over the vault, and separated from it by an iron grating. The materials used for the formation of the glass are sometimes calcined in a calcar or fritting furnace, and a chemical union between the ingredients commenced, forming a frit. But this process is not essential, and the materials, after being ground and thoroughly mixed up together, are usually placed at once in melting pots or crucibles made of Stourbridge fire-clay, or other similar material, the melting-pots being then placed in the melting furnace or oven. This is a kind of reverberatory furnace, traditionally circular in form, arched or domed above, and capable of keeping up an intense heat. The crucibles are placed in the furnace at equal distances from each other round the circumference, each pot being opposite to an opening in the wall of the furnace in order that the crucible may be charged or discharged by the workman from without. In the 19th century a furnace called a tank furnace came into use which enabled melting pots to be dispensed with, as the material could be melted in and worked from the furnace directly.

The use of the annealing furnace, is also essential in glass-making, the process of allowing the glass to cool there being called annealing. Unless this process be carefully managed, the articles formed in the glass-house can be of no use, from their liability to break by the slightest scratch or change of temperature.

Sheet glass is the commonest description of glass. It is composed of various ingredients in varying proportions, usually of sand, chalk, or limestone, sulphate of soda, and cullet or broken glass. A coarse variety of it may be made of a mixture of two parts by measure of soap-boilers' waste, one of soda-ash and one of cleaned sand. In France the materials employed are commonly: sand 100 parts, sulphate of soda 30, carbonate of lime 30, coke to aid in the reduction of the sulphate of soda 5, with some bioxide of manganese to correct the greenish tinge that glass with a soda base possesses. Traditionally when the materials were properly melted a quantity was taken out of the pot on the end of an iron tube about 5 feet long, and the workman by blowing into and swinging the tube while heating and reheating the glass, imparted a cylindrical shape to the newly-formed product. The rounded extremity of the cylinder (which was about 4 feet long or more) was softened in the furnace in order to enable the workman to blow a hole in it. This opening was made by heating the cylinder and then stopping up the tube with the thumb, when the expansion of the air caused the cylinder to burst open at the end. The other rounded end was detached after cooling by winding round its circumference a thread of red hot glass, which caused a clear fracture. The cylinder was then split open parallel to its axis by a diamond, and then conveyed to the flattening furnace where it was heated and opened out into a flat sheet of glass. It was afterwards placed in the annealing furnace.

Crown glass is differently formed by different makers, but its composition is essentially the same as the best sheet glass. It used to be the only window-glass made in Britain, but its manufacture had been almost or altogether superseded by that of sheet glass by the start of the 20th century. The ingredients being melted and at the proper temperature, a quantity of the glass was withdrawn by the tube (to the amount, by successive addition, usually of 10 lbs in all). By various manipulations this from having the form of a hollow oblate spheroid was made to assume the form of a thin circular plate, with a thick part called the bull's eye in the centre, being the point at which an iron rod was attached to it for the purpose of causing it to revolve rapidly and spread out into a sheet before the furnace. The bull's eye used to be commonly seen in the windows of humble dwellings, the pieces of glass containing them being cheap.

Flint-glass or Crystal is one of the kinds largely made, being employed especially for table utensils, globes, ornaments, etc. Powdered flint was formerly employed in its manufacture, but fine white sand has been substituted. The other materials are red-lead or litharge, and pearl-ash (carbonate of potash). The following is said to be a good mixture : Fine white sand, 300 parts; red-lead or litharge, 200; refined pearl-ash, 86; nitre, 20; with a small quantity of arsenic and manganese. The furnace is kept at a very high temperature until the whole of the materials are fused. When the glass becomes translucent the temperature is diminished until it becomes a tenacious mass. Suppose a glass vessel is to be made, the iron tube is put into the crucible, and the required quantity of glass lifted out, which after certain adjustments is rolled into a cylindrical form on an iron table called the merver or marver. The workman
then blows the glass into the form of a hollow globe, and re-heats and blows until the globe becomes of the required thinness. An iron rod called the punty is now attached to the end of the glass furthest from the tube, and the tube detached. The workman now heats the glass on the punty, and sitting down upon a chair with smooth arms, he lays the punty upon them, and rolling it with his left hand he gives the glass a rotatory motion, while with an instrument in his right, somewhat like a pair of sugar-tongs, he enlarges or contracts the different parts of the vessel until it assumes the requisite shape. A pair of shear's is al.so made use of in certain cases. The article is then detached from the punty, and carried to the annealing furnace. Many of the articles, after coming from the annealing furnace, are sent to the cutter or grinder. The operation of grinding is performed by wheels of various diameter and of various edges, some of iron, others of stone, and some of wood. Rich and delicate designs may be cut upon the articles by means of small wheels of copper and steel upon which emery is kept constantly falling.

Ornamental figures may also be engraved, or rather etched, upon articles of glass by means of hydrofluoric acid, care being taken to place a coating of some substance over the parts not to be acted upon. Various ornamental forms are given to the surface of glass vessels by metallic moulds. The mould is usually of copper, with the figure cut on its inside, and opens with hinges to permit the glass to be taken out. The angles of moulded objects are always less sharp than those of cut-glass.

Green or bottle-glass is formed of the coarsest materials, such as coarse sea or river sand, lime, and clay, and the most inferior alkalies, as soap-boilers' waste, and the slag of iron ore. A cheap mixture for this kind of glass may be made of common sand and lime, with a little clay and sea salt. The manipulations of the traditional glass-blower in fashioning bottle-glass into various forms were in general the same as those performed by the flint-glass blower. Wine and beer bottles, which are required to be all of a certain capacity, are blown in moulds, so that their containing portion may be as nearly as possible of the requisite size. When the articles are made they are carried to the annealing furnace. Green bottle-glass is preferable to all other kinds for vessels required to contain corrosive substances; it is less fusible than flint glass, and
thus is better calculated for many chemical purposes.

Plate-glass is a fine and thick glass cast in sheets. One maker's ingredients are as follows: white sand, 300 lbs; soda, 200; lime, 30; oxide of manganese, 2; oxide of cobalt, 3 ounces; and fragments of glass (cullet) equal to the weight of sand. After being melted in large crucibles, and the liquid glass having been thoroughly skimmed, it is transferred by a copper ladle to smaller pots (cuvettes). When the glass in the smaller crucible is ready for casting it is poured upon an iron casting-table, and a large metal cylinder moved along spreads the glass into a broad uniform sheet. The subsequent stages of the process are concerned with the discovery of flaws, the squaring of the edges, the grinding of the surfaces plane, the grinding of the sides, and the polishing. Before grinding and polishing the glass is what is called common 'rough plate,' and in this state it is much used for roofing, cellar-lighting, etc, being non-transparent. 'Rolled plate,' which is cast on a table that imparts a surface of grooves, flutings, lines, etc, is extensively used for the same purposes.

There are several other kinds of glass that may be noticed. Pressed glass is flint-glass formed into articles by pressing into moulds of iron or bronze, a fine surface being afterwards attained by heating so that a thin film on the surface melts.

Slag glass is glass from the slag of blast-furnaces mixed with other ingredients; it is largely used for bottles.

Optical glass is made of special varieties of flint and crown glass.

Strass, which was used for imitating gems, was a very dense flint-glass, colours being imparted by metallic oxides.

Spun glass is glass in the form of very fine threads, in which state it may be woven into textile fabrics of great beauty.

Toughened or hardened glass, having certain properties owing to its being heated to the melting point and plunged into an oleaginous mixture, was invented prior to the start of the 20th century, but was not developed into a working product until the mid-20th century, and is now very commonly used for windows.

Coloured glass is of two kinds - entirely coloured, the colouring matter being melted along with the other ingredients; or partially coloured, a quantity of white glass being gathered from one pot, and dipped into the other containing the coloured glass, by which the whole receives a skin of coloured glass. The colouring matters are chiefly the metallic oxides. A beautiful yellow colour is imparted by silver in union with alumina (powdered clay and chloride of silver being used), also by uranium and by glass of antimony; red colours by oxide of iron, copper, and gold; green by protoxide of iron, oxide of copper, oxide of chromium, &c.; blue by cobalt; orange by peroxide of iron with chloride of silver. ohemia is particularly famous for its manufactures of articles in coloured glass.
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GEMS

Gems, or precious stones, are sometimes found crystallized in regular shapes and with a natural polish, more commonly they are of irregular shapes and with a rough coat.

The term gem often denotes more particularly a stone that is cut, polished, or engraved, and it also includes pearls and various artificial productions.


The first and most valuable class of gems includes diamonds, emeralds, rubies, sapphires, and a few others; the second class includes the amethyst, topaz, garnet, etc;
while agate, lapis-lazuli, cornelian, etc, though much used for ornament, can scarcely be called gems.

The fabrication of artificial gems became an important industrial art during the 19th century. The base of one class of imitations is a peculiar kind of glass of considerable hardness, brilliancy and refractive power called paste or strass, which is distinguished from ordinary glass by the presence of 50 per cent of oxide of lead among its constituents. When the strass is obtained very pure it is melted and mixed with substances having a metallic base, generally oxides, which communicate to the mass the most varied colours.

Another class, called semi-stones or doublets, are made by affixing thin slices of real gem to an under part of strass by means of an invisible cement. In some cases an imitation is made by setting uncoloured strass or quartz in jewelry with some coloured 'foil' at the back of it.

At the end of the 19th century attempts were made with a fair measure of success to manufacture true gems by artificial processes. The French chemists Becquerel, Ebelman, Gaudin, Despretz, and others did much in this direction.

In 1858 Deville and Caron communicated to the Academy of Sciences, Paris, a process for the production of a number of gems of the corundum class, such as rubies, sapphires, etc. The process essentially consisted in exposing the fluoride of aluminium, together with a little charcoal and boracic acid, in a plumbago crucible protected from the action of the air, to a white heat for about an hour. Many experiments with a view to producing diamonds artificially have also been made. From hydrocarbons, subjected to a very intense heat and enormous pressure, minute crystals, differing from natural diamonds in no respect save brilliancy, have been produced. Artificial diamonds are now widely used in industry.

In art and archaeology the term gem is usually applied to a precious stone cut or engraved in ornamental designs, or with inscriptions. Stones on which the design is raised above the general surface are called cameos; those having the design sunk below the surface are called intaglios. Early specimens of cut gems are seen in the scarabaei or beetle-shaped signets worn in rings by the ancient Egyptians. Among the Greeks, Etruscans, and Romans gem-sculpture held a high place, reaching its highest point under Augustus. Modern gem-engraving dates from the beginning of the 15th century, the chief seats of the art being Italy and Germany. Rome becoming the headquarters of the seal-engraving art. The traditional tools of the engraver consist of a lathe, and a series of little rods with heads of different shapes, all of which can be adjusted to the lathe. The axis of the lathe is pierced at the centre with an orifice, into which the tools for cutting the stone are firmly fixed by means of a screw. The engraver wets the extremity of the mounted rod with diamond dust made into a paste with oil (traditionally olive oil), and as the wheel is in motion he applies the stone, firmly cemented to a piece of reed, to the revolving tool. The diamond dust enables the tool to cut into the stone with ease. As the design is frequently very elaborate and of the greatest delicacy, the tools are necessarily multiform. The stones used for cameo-cutting often exhibit layers of different colours, so that the raised design has a tint distinct from the ground. Intaglios are very often executed in transparent stones, and the subjects treated in this manner are more limited in number. They are chiefly such as seals, devices, coats of arms, etc.
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ETRURIA

Etruria was the name anciently given to that part of Italy which corresponded partly with the modern Tuscany, and was bounded by the Mediterranean, the Apennines, the river Magra, and the Tiber. The name of Tusci or Etrusci was used by the Romans to designate the race of people anciently inhabiting this country, but the name by which they called themselves was Kasena (or perhaps more correctly Ta-Rarasena.) These Rasena entered Italy at a very early period from the north, and besides occupying Etruria proper, extended their influence to Campania, Elba, and Corsica. Etruria proper was in a flourishing condition before the foundation of Rome in 753 BC.

It was known very early as a confederation of twelve great cities, each of which formed a republic of itself. Amongst the chief were Veii, Clusium, Volsinii, Arretium, Cortona, Falerii, and Faesulae; but the list mayhave varied at different epochs. The chiefs of these republics were styled lucumones, and united the office of priest and general. They were elected for life.

After a long- struggle with Rome the Etruscan power was completely broken by the Romans in a series of victories, from the fall of Veii in 396 BC to the battle at the Vadimonian Lake in 283 BC. The Etruscans had attained a high state of civilization. They carried on a flourishing commerce, and at one time were powerful at sea. They were less warlike than most of the nations around them, and had the custom of hiring mercenaries for their armies.

The Etruscans were specially distinguished by their religious institutions and ceremonies, which reveal tendencies gloomy and mystical. Their gods were of two orders, the first nameless, mysterious deities, exercising a controlling influence in the background on the lower order of gods, who manage the affairs of the world. At the head of these is a deity resembling the Roman Jupiter (in Etruscan Tinia). But it is characteristic of the Etruscan religion that there is also a Vejovis or evil Jupiter. The Etruscan name of Venus was Turan, of Vulcan Sethlans, of Bacchus Phuphluns, of Mercury Turms.

Etruscan art was in the main borrowed from Greece. For articles in terra cotta, a material which they used mainly for ornamental tiles, sarcophagi, and statues, Etruscans were especially celebrated. In the manufacture of pottery they had made great advances; but most of the painted vases popularly known as Etruscan are undoubtedly productions of Greek workmen. The skill of the Etruscans in works of metal is attested by ancient writers, and also by numerous extant specimens, such as necklaces, ear-rings, bracelets, etc. The bronze candelabra, of which many examples have been preserved, were eagerly sought after both in Greece and Rome. A peculiar manufacture was that of engraved bronze mirrors. These were polished on one side, and have on the other an engraved design, taken in most cases from Greek legend or mythology.

The Etruscans showed great constructive and engineering skill. They were acquainted with the principle of the arch, and the massive ruins of the walls of their ancient cities still testify to the solidity of their constructions. Various arts and inventions were derived by the Romans from the Etruscans.
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VERONA

Verona is a city in Northern Italy. It was founded by the Gauls or Etruscans before being taken by the Romans.
Verona is a village in Grundy County, Illinois, USA.
Verona is a town in Dane County, Wisconsin, USA.
Verona is a city in Dane County, Wisconsin, USA.
Verona is a CDP in Augusta County, Virginia, USA.
Verona is a borough in Allegheny County, Pennsylvania, USA.
Verona is a village partly in Preble County and partly in Montgomery County Ohio, USA.
Verona is a township in Essex County, New Jersey, USA.
Verona is a CDP in Essex County, New Jersey, USA.
Verona is a town in Oneida County, New York, USA.
Verona is a township in Adams County, Nebraska, USA.
Verona is a city in LaMoure County, North Dakota, USA.
Verona is a town in Lawrence County, Missouri, USA.
Verona is a town in Lee County, Mississippi, USA.
Verona is a township in Faribault County, Minnesota, USA.
Verona is a township in Huron County, Michigan, USA.
Verona is a town in Hancock County, Maine, USA.
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