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potash separated the carbonic acid, so that no chlorine was evolved from the solution of chloride of lime, nor was any precipitate formed in it; in fact no change whatever occurred. That it was the carbonic acid which produced this effect, was further proved by passing a current of this gas into a solution of chloride of lime; by this it lost its bleaching power, the whole of the chlorine was expelled, and all the lime converted into carbonate.

In order to show the manner in which these compounds of chlorine and lime, and of chlorine and soda, act on putrid miasmata floating in the air, some further experiments were made in the following manner :-Air was passed through blood which had been left to putrefy for eight days; being then passed through a solution of the chloride of lime, carbonate of lime was deposited, and the air was rendered inodorous and completely purified. In a second similar experiment the fetid air was passed through a saturated solution of potash before it arrived at the solution of chloride of lime; the latter had then no effect upon it, and the air retained its insupportable odour; this happened evidently because the carbonic acid, which would otherwise have evolved chlorine to have acted upon the putrid matter, was absorbed by the potash. Another experiment was made with air left for twenty-four hours over putrescent blood; the portion of it which was passed directly through the chloride was perfectly purified, but when previously freed from carbonic acid the chloride had no effect upon it.

These experiments sufficiently prove that the carbonic acid in the air, arising from the various sources of respiration, combustion, and the decomposition of animal and vegetable matter, liberates the chlorine from its combination with lime or soda; and as this action is slow, the chlorine, though scarcely susceptible of affecting the animal economy, readily decomposes putrid miasmata. It is therefore true fumigation by chlorine, only it is less violent than that effected by the rapid evolution of the gas, and it continues for a longer time.

It is to be observed that chloride of lime is used in solution, and is obtained by dissolving one part of bleaching powder in about 100 times its weight of water, and allowing the solution to become clear. This is to be exposed to infected air, or in rooms which have any unpleasant odour, in flat vessels, in order that a sufficient surface may be acted upon. If it should be required, the operation may be quickened by the addition of a little vinegar, or of muriatic acid largely diluted. In some cases, where the disagreeable smell is extremely strong, and where it would be difficult to expose a solution to slow action, it may be thrown into the place, or the powder may be used, the action of which would be more gradual and effectual. Chloride of soda is prepared only in solution; the process is given in the last edition of the London Pharmacopoeia: it is however less easily obtained than the chloride of lime, is more expensive, and not in any respect preferable; the solution is then called liquor soda chlorinatæ.

FUNCHAL. [MADEIRA.]

FUNCTIONS, CALCULUS OF. By the term function of a quantity is meant any algebraical expression, or other quantity expressed algebraically or not, which depends for its value upon the first. Thus the circumference of a circle is a function of the radius; the expression (a2 — x2) (b2 + y2) is a function of a, b, x, and y. For the distinctive names of functions, see TRANSCENDENTAL and ALGEBRAICAL.

All algebra is, in one sense, a calculus of functions; but the name is peculiarly appropriate, and always given, to that branch of investigation in which the form of a function is the thing sought, and not its value in any particular case, nor the conditions under which it may have a particular value. [EQUATIONS, FUNCTIONAL.] For instance, What is that function of a which, being multiplied by the same function of y, shall give the same function of x + y?'-is a question of the calculus of Functions.

Various isolated questions connected with this calculus have been treated, from the time of Newton downwards, particularly by Lagrange, Laplace, Monge, and Euler. But the direct solution of functional equations, or at least the first attempt to form general methods in the case of funetions of a single variable, appears to have been made by Mr. Babbage and Sir J. Herschel (1810-1813). To the treatise entitled Examples of the Calculus of Differences, by the latter, the former appended another, containing examples of the solutions of functional equations. This last,

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and the artic.e, Calculus of Functions,' in the Encyclopædia Metropolitana,' are the only formal treatises on the subject, of which we know.

A function of x is denoted by px, 4x, xx, fx, Fx, x, &c., &c., the first letter being a symbol of an operation to be performed. Thus, Ffx denotes that when the operation signified by fhas been performed upon x, that signified by F is performed upon the result. When the same operation is repeated, the results may be denoted by fx, ffx, ƒƒƒx, &c., which may be abbreviated into fr, f2x, ƒ3x, &c. For different points of interest connected with the relations of functional forms, see PERIODIC; INVERSE.

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FUNCTIONS, THEORY OF, a name given by Lagrange to a view of the principles of the Differential Calculus, of which we have expressed our opinion in the article DIFFERENTIAL CALCULUS. The works of Lagrange, in which its details are to be found, are Théorie des Fonctions Analytiques,' first edition, 1797; second edition, 1813; and Leçons sur le Calcul des Fonctions,' of which the first edition is volume 10 of the Leçons de l'Ecole Normale (1801), and the second was published in 1806.

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Taking Lagrange's intention to have been the proof that algebra, as it existed in his time, was sufficient to demonstrate the principles of the Differential Calculus without the introduction of limits, we have only to remark that the end is completely attained. [DIFFERENTIAL CALCULUS.] It is plain to any one acquainted with that calculus, that a demonstration of Taylor's Theorem being once attained, all the rest follows. We now proceed to look at the proof of this theorem given by Lagrange, with reference to absolute correctness or incorrectness.

Lagrange first attempts to prove that every function pr has this property, that (x + h) can be expanded in a series of the form

$ (x + h) = px + Ah + Bh2 + Ch3 + ... He says, firstly, that no negative powers of h can enter the expansion, for if such were the case (+0), instead of being ox, would be infinite. This is true as to any finite number of negative powers of h, but does not exclude an infinite series of negative powers. For instance,

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when h 0, all the terms become infinite, but the first side of the equation is not infinite. Secondly, he assumes that there cannot be fractional powers of h, for if such were the case, there must be fractional powers in the original function px, and if x had m`different values, and if Kh" were one of the terms of the development, the n values of this latter, combined with the m values of px, would give mn different values to 4 (x + h), instead of m. In answer to this it may be asked how is it known, à priori, that there must be a series of powers of h, every value of which is an expansion of p (x + h)? May it not possibly be true that there is an expression of the form

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(x + h) = x + Aha+ Bh' + which is true under certain conditions, determining which of the values of the several terms are to be taken? Thirdly, he assumes that (having thus obtained a series, in which only whole powers of h are found) the supposition h = 0 must reduce it to its first term; an assumption which can only be admitted of such a series as M + Ah + Bh2 + .... when it can be made convergent by giving sufficiently small values to h.

Having once proved or assumed that p (x + h) can be expanded in a series of the form x + Ah + Bh2 + ... the proof of Taylor's Theorem, given by Lagrange, does not differ from the common one. He calls A the derived function of px, and denotes it by o'r generally, if changing

into +h change Pinto P+Ph+...., P' is the derived function of P. The derived function of p'a, denoted by "x, is called the second derived function of pr, and so on. By changing x into x + k, 4 (x + h), or 4x + Ah + Bh2 + becomes ....

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'x.k + ..) + (A + A'k + . .) h + (B + B'1⁄2 + . .) h3

+

....

and by changing ħ into h + k, ¢ (x + h) becomes px + A (h + k) + B (h + k)2 + ....

These must be the same, since both represent (x+h+k): | other, preserving the east-north-eastern direction, is named and by equating the terms which contain the first powers of Chignecto Bay. The whole length of the Bay of Fundy is k, we find

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The works of Lagrange on this subject, though defective in their fundamental positions, except upon the explanation given in DIFFERENTIAL CALCULUS, yet abound in new and useful details, given with all the elegance for which his writings are distinguished: and the student will find them well worth his attention.

FUNDAMENTAL BASE, in music, is the lowest note of the Perfect Chord, or Triad, as the Germans call it, and of the chord of the 7th: hence it is the root of all real chords;-for chords not derived from either the perfect chord or that of the 7th, are considered as suspensions or retardations; or, to speak in unaffected language, the discordant notes of which they are composed are simply appogiaturas. [CHORD.]

The following will show the two Fundamental Chords, and their inversions, with the continued [CONTINUED], or ordinary base, and the Fundamental Base.

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This term is not the best that might have been chosen ; the same meaning is much better conveyed by the word radical, introduced, we believe, by Dr. Callcott. The system of the Fundamental Base, founded on harmonics, and a continual addition of thirds to the triad, is indebted for its origin to Rameau, the celebrated French composer [RAMEAU], and was once almost universally received. D'Alembert wrote a book to explain and eulogise it, and Marpurg, a most distinguished theorist, adopted it in his Handbuch bey dem Generalbasse. But though it may be rendered in some degree serviceable in the analysis of chords, it is in more than one respect erroneous, and the rules drawn from it by its author would cruelly fetter genius, were they allowed to exert any influence on the composition of music. Rameau's once vaunted system is now therefore entirely laid aside, even in the country that gave it birth.

FUNDS and FUNDING SYSTEM. [NATIONAL DEBT.]

FUNDY, BAY OF, is the most extensive gulf on the eastern coast of North America, between Cape Florida and the mouth of the St. Laurence river. It separates Nova Scotia from New Brunswick, and lies between 44° and 46° N. lat. and 63° and 67° W. long. Its direction is from east-north-east to west-south-west; its entrance is at the west-south-western extremity.

This entrance is formed by Brier Island, on the side of Nova Scotia and Quoddy Head, on the mainland; a straight line between these two points passes through the island of Grand Manan, which lies about 8 or 9 miles from Quoddy Point, and 35 miles from Brier Island. In this part the bay is about 50 miles wide; but it narrows by degrees to about 30 miles and less, after which it again attains a width of between 30 and 35 miles, which breadth it preserves for the greatest part of its extent, the shores of Nova Scotia and New Brunswick running nearly parallel. Towards its inner extremity it is divided, by a bold headland terminating with Cape Chignecto, into two smaller bays, of which one extends due east, and is called the Bay of Minas; the

about 180 miles.

Both shores of the large bay are rocky and bold, but especially so on the side of Nova Scotia, where a chain of rises at a short distance from the coast. The entrances, hills, probably not less than 500 feet above the sea, both of the Bay of Minas and of Chignecto, are likewise rocky; but in the interior the shores are low, sandy, and flat.

ous, on account of the great strength of the tide and the The navigation of the bay is both difficult and dangerprevailing fogs. The tide rises to a great height, sometimes seventy feet, and flows with great rapidity, running at the entrance about three miles an hour, increasing as it advances to more than seven, and at length rushing with great impetuosity into the bays of Minas and Chigeast and south-east, or from the Atlantic; and during their necto. Fogs cover the bay when the wind blows from the prevalence many vessels are cast on the rocky shores by the violence of the tides.

The Bay of Minas has been united with Halifax Harbour, which is situated on the Atlantic side of Nova Scotia, by a canal fifty-four miles long, and capable of receiving the Shubenacadie Canal. Another canal was projected a few vessels which draw only eight feet of water. It is called years ago, which was to connect the most northern corner of Chignecto Bay, called Cumberland Basin, with Northumberland Strait. This strait separates Prince Edward Island from New Brunswick and Nova Scotia, and one of its bays, called Bay Verte, is separated from Cumberland Basin only by an isthmus eleven miles across. The advantages of such a canal are obvious; but we are not aware that it has been executed. (M'Gregor's British America ; Bouchette's British Dominions in North America.)

FÜNEN, or FUHNEN (in Danish Fyen), a stift' or province of Denmark, consisting of the islands of Füren, Langeland, Taasing, and several islets. It has an area of 1286 square miles, and a population of about 160,000 (in 1801, 121,378), and is divided into the two circles or bailiwicks of Odense and Svendborg, which contain 3 earidoms, 4 baronies, 9 towns, and 201 parishes. It is a bishop's see, and is subdivided into 15 minor circles or herreder, in which there are 180 seignorial estates. The soil is a layer of rich loam on a substratum of clay or sand: it has some hills, but no streams deserving the name of rivers. The produce is grain, vegetables, flax, &c., and great numbers of horses and cattle are reared. The whole of the towns bing, in the island of Langeland, a place of much trade, with are in the island of Fünen, with the exception of Rudkiöabout 250 houses and 1500 inhabitants.

FÜNEN, or FYEN, an island situated in the Baltic, between the eastern coast of the duchy of Schleswig and of Jütland, and the western shores of the island of Seeland, from which parts it is separated by the Great and Little Belts, between 55° 2′ and 55° 47' N. lat. and 9° 46′ and 10° 51' E. long. Its area is about 1176 square miles, and its population, which was 91,333 in 1769, is at present about 144,000. The surface is a level, varied by hills in the southern districts, but they never rise above 500 feet. The north-east of the island is deeply indented with bays of the Kattegat, particularly the Odense fiord,' and is more uniform and less wooded than the south. The soil is in general rich and productive. Fünen abounds in small streams, here called Aas, and lakes: the most considerable lakes are those of Arreskov, Brendegards, and Juulbye. The canal of Odense, which commences at Odense and terminates at Skibhusene, on the Odense fiord, is about two miles and a half in length, ten feet deep, and fifty feet in breadth at the surface. The climate is damp and variable, but milder than that of Seeland. About 610,000 acres are arable and meadow land. The principal crops are barley, oats, and buckwheat, and the quantity of grain annually exported amounts to about 100,000 quarters. Much flax and hemp are raised, and the growth of hops exceeds 2300 cwts. yearly. With the exception of potatoes, the cultivation of vegetables is limited, but the orchards are numerous, and an inferior kind of cider is made. About 78,600 acres are occupied by woods and forests, which, with the peat-moors, supply fuel. The Fünen breed of horses is much sought after, and the stock of the island, including that of Langeland, is upwards of 42,000: that of horned cattle is about

81,000, and of sheep, mostly of improved breeds, 90,000. 1 of Scripture. That they sometimes burnt the body is clear, It is estimated that upwards of 20,000 swine are fed. but burial in a sepulchre was the more general fashion. Honey and wax are regular articles of exportation. There The circumstances attending the burial of the dead among 1s no game besides hares and rabbits, but a great quantity the modern Jews are minutely detailed by D. Levi, in his of wild-fowl and poultry, especially geese. The fisheries 'Succinct Account' of their Rites and Ceremonies, p. 162are productive. The only minerals are freestone, chalk, 170. and limestone. There are no manufacturing establishments; the peasantry however are industrious operatives under their own roofs, and make their own woollen and linen yarn, stockings, and clothing. The townspeople prepare leather and manufacture brandy. Gloves are made at Odense, and woollens and linens are printed at Svendborg.

The exports of Fünen consist of corn, pease, brandy, apples, horses, oxen, butter, salted meat, tallow, hides, hops, linen, honey, and wax. Odense, which by its canal has a direct access to the sea, is the great trading mart of the island. There is a good road from Middelfahrt to this town; but the roads are in general very bad. The people of Fünen are, like their neighbours, somewhat indolent and shy of work, as well as phlegmatic: they are however an honest, sound-hearted race. Their religion is the Lutheran.

The principal towns in Fünen are Odense, the capital and episcopal residence, pleasantly situated, and reputed to be the most antient town in Denmark; in 55° 25' N. lat., and 10° 22′ E. long. It has about 1100 houses, and 8600 inhabitants. Here are a royal palace, built by Frederick IV., a townhall, four churches (of which that of St. Canute is a noble Gothic pile, erected eight centuries ago, and containing the mausolea of St. Canute, Erichslaf, John, and Christian III., kings of Denmark and Norway), a chapter | seminary, gymnasium, theatre, two public libraries, hospital, house of correction, &c. Assens, on the western coast, at the entrance into the Little Belt, another old town, has an indifferent harbour, a townhall, one church, about 350 houses, and 2330 inhabitants. Bogense, on the north coast, the smallest town in the province, has one church, about 250 houses, and 1000 inhabitants. Kierteminde, beautifully situated on a bight of the Great Belt, which is crossed by a large wooden bridge, has one church, a school, two hospitals, about 260 houses, and 1500 inhabitants. Middelfahrt, on the Little Belt, has a townhall, church, hospital, school, about 240 houses, and 1300 inhabitants, and a ferry about a mile across to Snoghoi on the Jutland coast. Svendborg, the chief town of the bailiwick of this name, is at the south-eastern extremity of Fünen, on an arm of the Baltic which separates that island from Taasing; in 55° 5 N. lat. and 10° 38' E. long. It has two churches, a townhall, three schools, about 350 houses, and 3400 inhabitants, and exports much grain, &c. Nyeborg. a fortified town on the eastern coast, contains the remains of the palace in which the kings of Denmark held their courts and national diets, with a church, townhall, several schools, a hospital and an infirmary, about 300 houses, and 2900 inhabitants. The Swedes were totally defeated by the Danes under its walls in 1659. And lastly, Faaborg, in the south-west, is a small town with about 260 houses and 1500 inhabitants, a handsome church, &c., and a good harbour on an arm of the Little Belt, protected at its entrance by the three islands of Lyöe, Avernaröe, and Biömöe.

FUNERAL, the performance of the rites of sepulture or burial; generally supposed to be derived from the Latin funis, a torch, because, at least in the Roman times, funerals were sometimes performed by torch-light. Others derive the word from phónos (póvoc), 'slaughter,' as designating death.

The Egyptians are among the earliest people of whose religious ceremonies we have authentic accounts, more particularly in what related to their dead. Upon this occasion the parents and friends of the deceased put on mourning habits, and abstained from gaiety and entertainments. The mourning lasted from forty to seventy days, during which time the body was embalmed; and, when the process was completed, placed in a sort of chest, which was afterwards preserved either in their houses or in the sepulchres of their ancestors. Before the dead were allowed to be deposited in a tomb, they underwent a solemn judgment, upon an unfavourable issue of which they were deprived of the rite of burial.

The mourning customs of the antient Jews can only be collected from an examination of the Prophets and other parts P. C., No. 660.

The funeral rites of the Greeks and Romans have been collected with great research by Guichard in his Funérailles, et diverses Manières d'ensevelir des Romains, Grecs, et autres Nations,' 4to., Lyon, 1581; by Meursius, in his treatise De Funere Græcorum et Romanorum,' 12mo., Hag. Com. 1604; by Gutherius, De Jure Manium, seu de Ritu, More, et Legibus prisci Funeris,' 12mo., Par., 1613, reprinted in 4to., 1615, and again in 8vo., Lips., 1671; and by Kirchman, De Funeribus Romanorum Libri IV.,' 12mo., Hamb., 1605, and Lugd. Bat., 1672. See also the Ceremonies Funèbres de toutes Nations,' par le Sr. Maret, 12mo., Par., 1677.

In the religious creed both of the Greeks and Romans, sepulture was peculiarly an act of piety toward the dead, without which it was supposed the departed spirit could not reach a place of rest. To be deprived of the proper rites was considered the greatest misfortune. The funeral rites of the Greeks and Romans were in many respects similar, and among both nations the practice prevailed of burning the dead and collecting the ashes in urns. In the case of public funerals, according to Servius's Commentary on Virgil, the deceased was kept seven or eight days, and every day washed with hot water, or sometimes with oil, that in case he were only in a slumber he might be waked; and at stated intervals his friends meeting made a shout with the same view: this was called conclamatio. On the seventh day, if no signs of life appeared, he was dressed and placed on a couch in the vestibule, with the feet outwards, as if about to take his departure. In the course of these seven days, an altar was raised near the bed-side, called acerra, on which the friends offered incense. The scene here described is frequently represented in antient bas-reliefs. (See the Townley Marbles, vol. ii., pp. 167, 228, &c.) On the seventh day the last 'conclamatio' ended, when the couch and body were carried to the rostra, where the nearest of kin pronounced the funeral oration, and afterwards to the funeral pile. The body having been consumed, the ashes were gathered, inclosed in an urn, and finally laid in the sepulchre or tomb. An apotheosis or canonization was frequently part of the funeral ceremony of the emperor.

The Magi among the Medes and Persians neither burned nor buried their dead, but left them to birds of prey or dogs. (Herod. i., 140; Strabo, 735, 746.) Chardin, in his Travels,' vol. ii., p. 186, has given a full description of a modern Persian cemetery; and Niebuhr describes the Parsees near Bombay as still exposing their dead after the antient fashion mentioned in Herodotus. (Niebuhr, Reisebeschreibung, ii., 50.) Tacitus, in his treatise 'De Moribus Germanorum,' (c. 27) notices the simplicity of the funerals among the antient Germans. Like the Romans, they burned their dead. The things which a German valued most were his arms and his horse: these were added to the funeral pile, with a persuasion that the deceased would have the same pursuits in his new state of existence.

In the tomb of Childeric, king of the Franks, his spear, his sword, with his other warlike weapons, and even his horse's head, were found. (See Montfaucon, Monumens de la Monarchie Françoise, tom. i., p. 10.)

Lafitau, Charlevoix, and other travellers describe the same notions of a future state and the same funeral ceremonies as prevalent among the savages of America. Dr. Robertson (Hist. of Amer., vol. ii., b. 4) says, as they imagine that departed spirits begin their career anew in the world whither they are gone, they bury together with the bodies of the dead, their bow, their arrows, and other weapons used in hunting or war; they deposit in their tomb the skins or stuffs of which they make garments, Indian corn, venison, domestic utensils, and whatever is reckoned among the necessaries in their simple mode of life.

·

For the funeral rites of the early Christians, the reader may consult Gretser De Funere Christiano,' 4to., Ingolst., 1611; and he may learn the customs of a later period from Durand, who wrote his 'Rationale Divinorum Officiorum' in the twelfth century.

Brand, in his Popular Antiquities,' vol. ii., p. 139 to 212, has much upon the English ceremonials, beginning with VOL. XI.-D

Watching with the Dead,' called in the north of England | the Lake-Wake; he then proceeds with 'Laying out or streaking the Body;' setting salt or candles upon it; funeral entertainments; sin-eaters; mortuaries; following the corpse to the grave, and carrying evergreens, torches and lights at funerals; black used in mourning; the pall and under-bearers; doles and donations to the poor at funerals; church-yards; garlands in churches; and strewing flowers upon graves.

vicinity are mines of excellent coal, and some alum and
vitriol works, as well as extensive vineyards.
Large quan-
tities of grain and tobacco are grown about Fünfkirchen,
and much rape-seed is raised for making oil. The trade of
the town is chiefly in the produce of the country, and in
leather, which is manufactured here, and in great request
throughout Hungary. There are mineral springs and
baths. Some have supposed that the Roman colony Ser-
binum was planted on this spot. It was in the hands of
the Turks from 1543 to 1686, and is the place of assembly
for the provincial states.

forming the appearances called mouldiness, mildew, smut, rust, brand, dry-rot, &c. Notice has been occasionally taken of these plants under their respective heads; in this place some general account will be given of them as a large natural order.

Strutt's Manners and Customs,' and Gough's 'Sepulchral Monuments of Great Britain,' are other works to which the reader may refer for the antient funeral rites of FUNGI. Under this name botanists comprehend not England. only the various races of mushrooms, toadstools, and simiFuneral entertainments, called silicernia and cancelar productions, but a large number of microscopic plants ferales by the Romans, are of very antient date. They are still kept up in the north of England, and are there called arvals or arvils. Among some extracts from the Berkeley Manuscripts, we read that 'From the death of Maurice, the fourth Lord Berkeley, which happened June 8th, 1368, until his interment, the reeve of his manor of Hinton spent Nothing can well be more different than the extremes of three quarters and seven bushels of beans in fatting one development of Fungi, if the highest and the lowest forms hundred geese towards his funeral, and divers other reeves are contrasted; as for example, the large fleshy Boleti, which of manors the like, in geese, ducks, and other poultry.' inhabit the trunks of trees, and the microscopic mouldWalsingham, speaking of those who attended Richard II.'s plants, composed of threads much too delicate to be distinfuneral at Langley, in 1399, says, 'Nec erat qui eos in-guished by the naked eye. Nevertheless, it turns out upon vitaret ad prandium post laborem.' (Hist., p. 405.) Shak- inquiry that the latter is only a simple form of the former, speare has a well-known allusion to these feasts in Hamlet, or, in other words, that a Boletus is merely an enormous act i., sc. 2: aggregation of the vegetable tissue constituting a Mucor, developed upon the same plan, subject to the same influences, possessing a similar chemical character, and propagating by means which are altogether analogous.

The funeral baked meats

Did coldly furnish forth the marriage tables.'

FUNERAL ORATIONS, discourses at funerals, are of great antiquity. The second book of Thucydides (c. 35, &c.) contains the laboured harangue delivered by Pericles at the solemn funeral ceremony instituted in honour of those Athenians who fell at the beginning of the Peloponnesian war; and other similar orations are extant in Greek. Augustus, at the early age of twelve, performed this office for his grandmother, and afterwards, when emperor, for the young Marcellus. Tacitus tells us that Nero pronounced a funeral oration over his wife Poppaa. Funeral orations were equally common over Christian martyrs; and Durand, in his Rationale,' already referred to, says, 'Ceterum priusquam corpus humo injecta contegatur, defunctus oratione funebri laudabatur.' Fuller, in his Appeal of injured Innocence,' (part iii., p. 75,) and Misson, in his Travels in England,' show the continuance of this practice to the close of the seventeenth century. Gay alludes to it in his 'Dirge :'

Twenty good shillings in a rag I laid,

Be ten the parson's for his sermon paid.'

The practice of delivering what may be properly called funeral orations, that is, addresses over the grave or at the interment of the dead by laymen, is common among the French, and is not unfrequent on great occasions among the people of the United States.

FUNERAL SHOWS or GAMES frequently followed public funerals among the Greeks and Romans. An early example of this occurs in the funeral games celebrated by Achilles in honour of Patroclus. (Homer, Iliad.) As the dead were supposed to be delighted with blood, various animals, especially such as the deceased had been fond of, were slaughtered at the pile, and thrown into it; and, in still ruder times, captives or slaves. Among the Romans, gladiators, called bustuarii, were made to fight. Junius Brutus exhibited gladiators at his father's funeral; and the 'Adelphi' of Terence, at a later period, was produced for the first time at the funeral of Lucius Æmilius Paulus.

Viewed with reference to their whole extent, the plants of this order may be described as cellular or filamentous bodies, having a concentric mode of development, often when full grown almost amorphous, absorbing oxygen and exhaling carbonic acid, and propagating either by means of microscopic granules, which are lodged in particular recep tacles, or by a dissolution of their whole tissue.

That they are cellular or filamentous may be easily ascertained by examining them with even an indifferent microscope; perhaps they might be even simply described as cellular, for their filamentous tissue seems nothing but cells drawn out. Sometimes, as in the genus Uredo, they consist of spheroidal cells, having little connection with each other, each cell containing propagating matter, and all separating from each other in the form of a fine powder when ripe: the smut in corn is of this nature; or, as in Cylindrosporium, the cells are truncated cylinders not adhering, so far as we can see, and separating in like manner when ripe. In plants of a more advanced organization, as the genus Monilia, the constituent cells are connected in series, which preserve their spherical form, and also contain their own reproductive matter; while in such plants as Aspergillas the cells partly combine into threads forming a stem, and partly preserve their spheroidal form for the fructification (fig. 24). From adhering in simple series, the structure of Fungi advances to a combination of such series into strata, whence result the various kinds of dry-rot, thick leathery expansions developing amidst decaying timber; a more complicated form is thence produced in the form of puff-balls, truffles, sclerotiums, and the like, in which a figure approaching that of a sphere is the result, the reproductive cells being indiscriminately confused in the interior of such plants; and finally, the organization is so much complicated, that, independently of a mere aggregation of tissue, we find envelopes of various kinds for the protection of the propagating mass, as in Agaricus and Geastrum, and special receptacles for the propagating matter, as in Boletus and numerous others.

FÜNFKIRCHEN (in Hungarian Pecs, and in the national records Quinque Ecclesiæ), an old town in the county of Baranya in Hungary, and the seat of provincial It is probable however that in all Fungi, and certain that administration, consists of a single street built at the foot in most of them, the first development of the plant consists of the lofty Mount Metshek, and at the edge of a rich and in what we here call a filamentous matter, which radiates extensive valley, in 46° 5' N. lat. and 18° 16′ E. long. So- from the centre formed by the spore (or seed), and that all lyman, the Turkish sultan, who resided here, was wont to the cellular spheroidal appearances are subsequently devecall it the Paradise of the Earth.' The number of houses loped, more especially with a view to the dispersion of the is about 2000, and the population is about 11,500. This species. We purposely say dispersion, not multiplication; town contains several handsome buildings, an episcopal for it is certain that the filamentous matter is quite as palace, an ecclesiastical seminary, a gymnasium, a cathedral capable of multiplying a fungus as the cellular or spheroidal. standing on high ground (the site of a Roman castellum), This is partly proved by the common mushroom (Agaricus and said to be the oldest in Hungary, a fine, massively-campestris), whose filamentous matter is commonly sold, built church of the Jesuits, several churches, some of which were formerly Turkish mosques, a public library and cabinet of coins, two monasteries, two hospitals, &c. In the

under the name of spawn, for the artificial multiplication of that species in gardens; and more completely by some recent experiments of M. Audouin, who found that the

Botrytis Bassiana would inoculate caterpillars and other larvæ as readily by minute portions of its spawn as by its spores or seedlike spheroidal particles. Although, however, there seems so much reason to ascribe the presence of a filamentous spawn to all Fungi, yet it is seldom seen by the ordinary observer; for it develops out of sight, under ground, in the midst of the decaying matter on which Fungi so often appear, or through the very substance of living matter; and it is only the aggregation of spheroidal matter which we see. It would appear that for the growth of the former darkness is necessary, and that the latter is stimulated into existence by the action of a feeble quantity of light. To apply to these parts familiar and equivalent names, we should say that the stalk or stem radiates in dark damp situations, where it is buried from sight, and that the spheroidal part or fructification alone is able to develop beneath the light of day. The spawn of the mushroom is its stem, the mushroom itself is the fructification of the plant. It is generally believed that spiral cells are unknown in Fungi; Corda however, in his recent microscopical work on these plants (Icones Fungorum hucusque cognitorum, Prag. 1837), figures them in the genus Trichia, calling them elaters, and thus assigning them a nature analogous to that of the organs known by the same name in Jungermanniace and Marchantiaceæ.

a heath in Italy? Let any one take a few different kinds o seeds and commit them all to the ground in the same place; some will spring up and flourish, others will just appear above ground and then perish, others will make an attempt to germinate. This, an every-day event, is a sufficient explanation of the fact elicited by M. Dutrochet's experiment. Every kind of seed has something specific in its nature, in consequence of which it requires particular kinds of soil, and some special combination of heat, light and moisture, to be roused into a state of vegetation. As to the presence of the seeds of the Botrytis and Monilia in the vessels in which M. Dutrochet's experiments were conducted, it is perfectly easy to conceive that the seeds of such common plants exist everywhere suspended in the air or adhering to the cleanest vessels; they are so numerous as to baffle all powers of calculation; they are so minute as only to become visible when aggregated in masses of many thousands, and so generally dispersed that it is difficult to conceive a place in which they may not be reasonably supposed to exist. The very general existence of dry-rot is no weak evidence of this; but upon that subject we have already made what observations we have thought necessary. [DRY-ROT.] Fungi are among the most numerous of all plants in regard to genera and species, so abundant indeed that no one has as yet attempted to form an estimate of their numbers. Fries somewhere asserts that he had discovered above 2000 within the compass of a square furlong in Sweden; even the European species of microscopic Fungi are but little known, if we are to judge from the numerous new kinds introduced into Corda's recent work; and as for those which inhabit the tropics, our knowledge of them amounts to little or nothing. It is generally asserted that they are uncommon in tropical countries, but it is doubtful whether this is true, and at all events it appears from the evidence of a recent traveller in that island that they are extremely abundant in Java.

multiplication they often commit extensive ravages, attacking and destroying timber, and producing decay in all kinds of vegetable matter of a soft and succulent nature; nor is it to dead matter that their ravages are confined. They sometimes fix themselves upon live insects, producing great havoc among the silkworms in the manufactories of Italy, and are probably the cause of a more extensive destruction of such animals than we at present have any idea of. Under the name of mildew and blight they commit excessive damage among living plants, as the farmer and orchardist know too well to their cost.

The concentric growth of the filamentous stem or spawn of Fungi may generally be witnessed in damp cellars, when they begin to grow without impediment upon the walls or decaying wood. Nothing is more common in such situations than to see a beautiful white flocculent matter, which a breath almost will dissipate, spreading from a centre nearly equally in all directions; such appearances, formerly called byssi, have been ascertained to be the spawn of various kinds of Fungi, the fructification of which is probably never developed. Evidence of the existence of a similar mode of growth may be found when the spawn itself is not They usually prefer damp, dark, unventilated places, such visible, as in fields where Fungi so often spring up in circles as cellars, vaults, the parts beneath decaying bark, the holor rings; this arises from their stem having originally lows of trees, the denser parts of woods and forests, or any spread circularly from its point of origin, and thrown up its decaying matter placed in a damp and shaded situation; and fructification at the circumference of the circle so formed. are most especially averse to dryness and bright light. Even Unlike other plants, Fungi, instead of purifying the air by when they appear upon the live leaves of trees, the stems of robbing it of its carbonic acid and restoring the oxygen, corn, or in similar situations, it is either at the damp and vitiate it by exhaling carbonic acid and absorbing oxy- wet season of the year, late in the autumn, or in damp and gen. This has been proved experimentally by Dr. Marcet shaded places; and M. Audouin has shown experimentally of Geneva; and (Lindley, Intr. Bot., ed. 2, p. 324) will that when live insects are attacked by them it is only when probably explain the cause of Fungi being so universally they are confined in damp unventilated places. (See Comptes destitute of green colouring matter, which we know re-rendus, 2nd half-year, 1837.) In stations favourable to their sults from the decomposition of carbonic acid. It affords, no doubt, an additional argument to those who believe that Fungi are an intermediate kingdom between plants and animals; an idea which, like that of believing them to be atoms of vegetable matter combined by the expiring forces of nature,' we do not think it necessary seriously to discuss. That they are not equivocally generated is sufficiently proved by each species having its own particular kind of seed or spore: a provision that would be perfectly unnecessary if the species sprang up out of decay ing matter by the mere action of particular combinations of external forces. To assert the existence of fortuitous creations in this class of plants is contrary not only to analogy but to the plainest evidence. The experimental observer may indeed discover that Fungi will regularly develop in one kind of chemical mixture and not in another: Dutrochet, for example, found that, if he acidulated a weak solution of white of egg, different species of Monilia rapidly formed upon it; while, if he rendered such a solution slightly alkaline, the genus Botrytis made its appearance, and that the solution in its simple state, neither alkalescent nor acidulated, produced no Fungi-a remarkable circumstance enough. But it would be too much to infer from such an experiment, that invisible germs of a filamentous plant may be created by the chemical action of an acid or an alkali on organic matter dissolved in water, and that they develop by virtue of the vital action which would be the necessary attribute of this chemico-organic molecular compound:' on the contrary, the experiment only showed that the seeds of Fungi, like those of other plants, require special soils in which to grow; that Botrytis will not grow in acid mucilage, nor Monilia in alkaline, nor either in mucilage in a neuter state. This is only what happens in plants of a more highly organized nature. Who ever saw the horned poppy of the sea-shore growing spontaneously in an inland field, the marsh marigold on a dry heath, or the reindeer lichen of Lapland on

The systematical arrangement of these plants has long exercised the ingenuity of botanists, who have contrived various schemes of classifying them according to what are believed to be their natural relations. The most celebrated of them is the mycological system of Fries. We cannot enter at any length into the details of this arrangement; but, as some difficulty attends the study of it, a short explanation of its fundamental principles may be useful. We shall therefore give a brief explanation of the leading features of this author's arrangement.

Fries in the first place divides the whole order into four Cohorts, distinguished by the following characters:Cohort I. HYMENOMYCETES. A Hymenium present; that

is, the fungus opened out into a fructifying membrane, in which the spores (seeds) are placed, usually in the inside of asci (transparent simple cases). The texture wholly filamentous.

Cohort II. PYRENOMYCETES. A Perithecium present; that is, the fungus closed up; then perforated by a hole or irregular laceration, and enclosing a distinct kernel holding asci. Texture obscurely cellular; that of the stroma (receptacle) somewhat filamentous.

Cohort III. GASTEROMYCETES. A Peridium present: that is, the fungus at first closed up and containing loose spores, having no asci. The texture cellular.

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