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Biographies of Scientific Men

Arthur Bower Griffiths · 1912 · Free in the US

47,517 words · about 3 h 20 min to read

Period artwork: Interior of the Bodleian Library, 1845
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About this book

Author
Arthur Bower Griffiths
Language
English
Published
1912
Length
47,517 words · about 3 h 20 min
Sections
18 reader sections
Text
Digital text
Rights
Public domain in the United States

 

Contents (18)
  1. Front matter about 8 min
  2. Lavoisier about 15 min
  3. Cuvier about 11 min
  4. Cavendish about 13 min
  5. Priestley about 17 min
  6. Linnaeus about 12 min
  7. Owen about 16 min
  8. Liebig about 12 min
  9. Lyell about 9 min
  10. Dalton about 11 min
  11. Mendeléeff about 10 min
  12. Buffon about 8 min
  13. Berthelot about 16 min
  14. Davy about 11 min
  15. Gay-Lussac about 9 min
  16. Kelvin about 18 min
  17. Index under 1 min
  18. end matter about 2 min

Continue:

Front matter

BIOGRAPHIES OF SCIENTIFIC MEN

By

A. B. GRIFFITHS, PH.D.

Lavoisier

lavoisier

LAVOISIER

1743–1794

AT the time when so many countries were at war concerning the succession to the Austrian throne, there was born at Paris, on 26th August 1743, Lavoisier, who was destined in after years to revolutionize chemistry and ultimately to perish, or rather was murdered by the French communists, during the Reign of Terror which accompanied the first French Revolution. Our hero's father was a wealthy merchant, of a scientific bent of mind, and who encouraged the pursuit of knowledge in the son. Lavoisier was educated at the College Mazarin, where he studied several sciences; and the knowledge gained in early years was invaluable for his future career. By dint of his genius there rose a nouvelle chimie: "La nouvelle chimie est toujours celle de Lavoisier." Lavoisier is, without doubt, the father of modern chemistry, as he overthrew Stahl's, or the phlogistic, theory; although every science is the accumulation of truths discovered by numerous workers in all ages.

The doctrines of Aristotle, and Byzantine, Egyptian, Arabian, and European writers concerning the "four elements"—earth, water, fire, and air—and other non-scientific theories were swept away by the master-mind of the great Frenchman. Even Priestley, Cavendish, Scheele, Macquer, and other distinguished men could not entirely divest themselves of the phlogistic theory; in fact, Black "was the only chemist of his age who completely and openly avowed his conversion to the new Lavoisierian doctrine of combustion."

In 1764 Lavoisier (having been called to the bar as an avocat) gained the prize awarded by the Government of Louis XV. for the best method of lighting the streets of Paris and other large towns, and elaborate experiments on the subject are to be found in the memoirs of the Académie des Sciences—"the greatest scientific body on earth"—as the illustrious Academy has been called by a distinguished American writer; and in 1768 Lavoisier was elected one of its members. Between that date and 1774 he published many papers on chemical, mathematical, and geological subjects—all of which are remarkable for showing the extraordinary ardour and devotion to science of this truly great philosopher. The accuracy of his work and reasoning powers will be found by referring to two of his papers in the memoirs of the Academy for 1770, in which he refutes the idea, held by many, that water could be converted into earth; and it is remarkable that in this his first important research he employs the balance—"the essential instrument of all chemical research." He heated water in a closed and weighed glass vessel for a hundred and one days, and at the termination of the experiment found that the vessel had lost 17·4 grains, and on evaporation of the water a solid residue weighing 20·4 grains was obtained—the excess being due to unavoidable experimental error. Lavoisier concluded that water when heated was not transmuted into earth, which was the theory entertained by the alchemists and some of the pneumatic chemists. He proved that the water dissolved some of the constituents of the glass—a conclusion confirmed by Scheele. This research had a far-reaching and an important bearing on the notions or theories of the times—theories that had existed for centuries were to be swept away by his clinching experimental proof of their absurdity; the art of alchemy and the pursuit of the philosopher's stone was rendered futile; but, above all, the experiments proved that the old alchemical idea of the transmutation to be false; and it led him to enunciate one of the most profound truths in science—the non-indestructibility of matter—"rien ne se crée, rien ne se perde de la nature"—matter is everlasting. In every chemical reaction there is no loss of matter, only new forms are produced. This is the basis of every chemical equation known at the present day; and, consequently, it is impossible to overestimate the importance of the conservation of mass, which Lavoisier established by means of the new instrument of precision—the balance; although it had been a philosophic theory of early Greek and Latin writers. The idea of the mass of matter was first shaped into an exact form by Galileo, and more especially by Newton, in the glorious age of the development of the principles of inductive reasoning enunciated by Bacon and Descartes in their philosophical treatises.

In 1772 Lavoisier published the results of his experiments on the calcination of metals, the burning of phosphorus and sulphur, and the increased weight in each case was due to absorption of air, and that when the calces of metals were heated with charcoal they were reduced to the metallic state. Twenty years before these experiments, and twenty-two years before the discovery of oxygen by Priestley, Voltaire came to the conclusion that the increased weight of iron after being heated in air was due to its absorption of something in the air: "Il est très possible que cette augmentation de poids soit venue de la matière répandue dans l'atmosphère." (See Voltaire's paper in Recueil des Pièces qui ont remporté les Prix de l'Académie royale des Sciences, Paris, 1752, tome iv., p. 171.)

Although Priestley first isolated "dephlogisticated air" or oxygen, it was left for the genius of Lavoisier to first interpret the phenomenon of combustion; and in 1778 (the year that witnessed the deaths of Voltaire and Rousseau within thirty-three days of each other) he established the fact that oxygen was the universal oxidizing principle.

During 1775 and subsequent years Lavoisier expounded his views on the nature of respiration, fermentation, and combustion; and we have to this day excellent sepia drawings by Madame Lavoisier of her husband's experiments on respired air.

In 1783 the composition of water was discovered by Cavendish, and confirmed the same year by Lavoisier and Laplace. Lavoisier was then able to explain the reactions which take place when metals dissolve in acids; and when metals burn to form calces, that oxygen is instrumental in the combustion. From the work of Cavendish, he first clearly stated the compound nature of water and determined accurately its volumetric composition (Kopp). "Although Cavendish was the first to show that water is produced when the two gases hydrogen and oxygen are exploded together, it would yet appear that he did not fully grasp the fact that water is a compound of these two gases; it was left to Lavoisier to give a clear statement of this all-important fact, and thus to remove the last prop from under the now tottering but once stately edifice built by Stahl and his successors."

The nouvelle chimie, based on the theory of combustion or oxidation, was not accepted by the older chemists, and many distinguished workers remained followers of Stahl and his phlogistic doctrine, but unprejudiced and younger minds readily accepted the teachings of Lavoisier—certainly a revolution on the older views of chemical theory. This revolution brought upon him much odium and obloquy—so much so that his effigy was burnt at Berlin as a protest against his antiphlogistic doctrines; yet the same Prussian savants and students a few years later readily accepted the nouvelle chimie, and now his philosophy is the bulwark, the very foundation stone, of modern chemistry.

The following words of a well-known living scientist are applicable in Lavoisier's case: "It is extraordinary how slow people are to appreciate enthusiasm on the part of real workers; and it is a terrible crime to upset preconceived ideas. However, it is satisfactory to feel that one has helped to advance truth and upset falsehood, even should the effort prove painful to a certain section of fossilized people who are too lazy to work themselves, and who try to suppress the capacity of work in others."

How few think justly of the thinking few! How many never think who think they do.

In his Traité de Chimie Lavoisier described more fully the formation of oxides, and the phenomenon of combustion; and he proved (1777-78) that the calces of lead, tin, and mercury are oxides of these metals. But the phlogistic theory was still held by many honoured workers in chemistry, and they believed that in Cavendish's inflammable air (hydrogen) was the long-cherished, but undiscovered, phlogiston. Concerning the solution of metals in muriatic or vitriolic acid with the evolution of inflammable air, these phlogistonists stated that the metals lose phlogiston by the process, and that a calx is a metal minus phlogiston or "metallic spirit"!

The quantitative work of Lavoisier, his weighing and measuring, and the philosophical deductions of his experiments, completely shattered the theory of phlogiston—a theory which prevented the advance of science and proved to be a false doctrine, which unfortunately lasted nearly a hundred years. A theory is only useful when it explains the truths of science and helps the advancement of knowledge. Many theories have disappeared from the realms of science, and many are undergoing modification even at the present day.

About eleven years (1785) after the succession of Louis XVI. to the throne of his grandfather, the phlogistic doctrine was completely overthrown—and this was entirely due to the researches, philosophical deductions, and writings of the great Frenchman.

Lavoisier gave the present accepted definition of an "element," although it may be remarked en passant that the researches of Lockyer, Ramsay, and others in the present day have somewhat modified our views concerning the nature of the chemical elements.

About the years 1785-87 Lavoisier, aided by De Morveau (a convert to the nouvelle chimie), Berthollet, and De Fourcroy, formulated a new system of chemical nomenclature which was greatly needed for the further development of the Lavoisierian chemistry: elements, compounds, oxides (peroxides and protoxides), acids, salts, etc., were defined, thus forming the basis of the chemistry of to-day. Lavoisier was the general who marshalled the isolated facts and co-ordinated them into one harmonious and stupendous whole. The work of the four French chemists and the teaching of Lavoisier were, by the close of the eighteenth century, universally accepted by chemists.

Lavoisier was the first to attempt the ultimate analysis of organic compounds, by burning these bodies in a stream of oxygen, and collecting the water and carbonic acid produced. This work is of historical interest as being the last performed by the illustrious savant, and just before execution.

But his ultimate right to fame rests on his interpretation of the phenomenon of combustion—that it is not a decomposition but a combination; the indestructibility of matter (conservation of mass); his philosophical deductions of the work of others; the introduction of the balance into all chemical operations; the recognition as elements of those bodies only which yield but one kind of matter; the formation of compounds from elements; his system of nomenclature; and, finally, his work (in conjunction with Laplace) on specific heats. Surely a goodly list, and sufficient to make his name immortal in the history of chemistry.

His energy knew no bounds, and at an early age, twenty-five, he became fermier général under the Government, and had the right, with others, of collecting the indirect taxes throughout France; a and this position during the Reign of Terror caused his downfall. He held the post of a fermier général until 20th March 1791, when the Assemblée Nationale suppressed the institution.

Lavoisier was wrongfully accused of mixing with the tobacco "water and other ingredients harmful to the health of the citizens"; and in May 1794—l'an deuxième de la République—he and twenty-seven of his colleagues were arrested; and on 2nd May Dupin (a member of the Government) brought the charges against the twenty-eight officials, and they were condemned to death.

The accused passed the night of 5th May in the dungeons of the Conciergerie, and were to be fed on black bread, but a generous friend, supposed to be Madame Lavoisier, secretly bribed the jailers, and provided the inmates of the prison with better food. This was no easy task, as the sentries were a double row of gendarmes one on foot, the other on horses and the passages were poorly illuminated by torches. This was the precaution taken to prevent the escape of the prisoners. Some were located in dungeons, where horrors of the most revolting kind had been perpetrated. Lavoisier and others were placed in the dungeon previously occupied by Marie Antoinette. The night was horrible. Only a few had obtained folding-beds, without mattresses or bedclothes, and others rested on the bare earth of the dungeons! On 7th May, on the eve of his death, Lavoisier wrote a letter to his cousin Augez de Villiers in which he said:—

J'ai parcouru une carrière assez longue, surtout très heureuse, et je crois que ma mémoire sera accompagnée de quelques regrets et peutêtre de quelque gloire. Que pourrais-je désirer de plus?

Les événements dans lesquels je me trouve saisi m'éviteront, selon toute probabilité, les inconvénients de la vieillesse. Je mourrai dans toute la force de mon àge. C'est encore là un avantage que je dois ajouter à ceux dont j'ai joui.

Si je ressens quelques sentiments pénibles, c'est de n'avoir pas fait davantage pour ma famille, c'est d'être privé de tout et de ne pouvoir donner ni à elle ni à toi aucune preuve de mon affection et de ma reconnaissance.

Il est done vrai que l'exercice de toutes les vertus sociales, que des services importants rendus à la patrie, une carrière employée utilement pour le progrès des arts et des connaissances humaines ne sont pas suffisants pour vous défendre d'une fin sinistre, pour vous empêcher de perir comme un coupable!

Je t'écris aujourd'hui, parce que demain il me sera peut-être pas permis de la faire, et parce que c'est une douce consolation pour moi de m'occuper de toi et des personnes qui me sont chères à ce dernier moment. N'oublie pas de me rappeler, au souvenir de ceux qui's'intérréssent à moi et fais que cette lettre leur devienne commune à tous. Selon toute probabilité, c'est la dernière que je vous écrirai.

Lavoisier had made an enemy of no less a person than Marat. In 1780, the latter wrote a "détestable essai sur la nature du feu," and announced that it had received the approval of the Academy. Lavoisier flatly denied the assertion. This infuriated the hatred of Marat to such an extent that in his pamphlet, L'Ami du Peuple, written in 1791, he says: "Je vous dénonce le coryphée, le charlatan Lavoisier, chimiste, fermier général, régisseur des poudres et des salpètres, qui a mis Paris en prison et a interrompu la circulation de l'air avec un mur. . . ."

De Fourcroy spoke indignantly of Lavoisier's sentence: "L'homme qui auroit illustré son siècle par ses talens, qui auroit répandu ses lumières sur la société, dont les travaux auroient eu pour but d'instruire de rendre meilleurs et plus heureux les hommes, seroit placé dans un même tombeau avec celui qui en auroit fait le tourment ou qui en auriot été la honté!"

Yet De Fourcroy, De Morveau, Monge, and others who were his friends and pupils did nothing to save the head of their master. Jealousy—despicable jealousy—was the cause of these men forsaking their friend. "Sa supériorité," they confessed, stood in their way! They only talked, but did not act; and it is stated that De Fourcroy even contributed, by "sa terrible accusation," to the death of Lavoisier.

Petitions for the commutation of the death sentence were scornfully rejected. The Revolution knew no bounds—"away to the guillotine," "à la lanterne!" were the constant cries during the years of its existence. With tricoloured scarfs and Phrygian caps of crimson cloth they sang as they marched the streets of Paris that terrible song of the "Marseillaise":—

Allons, enfants de la patrie, Le jour de gloire est arrivé! Contre nous, de la tyrannic, L'étendard sanglant est levé?

and the murderous levelling song "Ça Ira."

Copy of the death warrant of Lavoisier

Terrible! terrible in those days! Men and women, tied down to a cart (tumbril), were hurried along the streets to the place of execution. Down clanked the axe, and the head of a victim rolled into the corbeille. The joy of the jealous, black calumnies, devilry, the hatred of cowards, the rage and stupidity of the masses, these were the feelings of men in the year 1794—and they triumphed.

Lavoisier asked for a short time to complete a research in which he was engaged, but Coffinhal (President of the Revolutionary Tribunal) remarked that "la République n'a pas besoin de savants; il faut que la justice suivre son cours."

On 8th May 1794, the immortal Lavoisier was guillotined in the fifty-first year of his age. Calm and resigned, he met his death without flinching, without demonstration, knowing that he had done his duty both to the State and to Science.

Lavoisier was President of the Académie, and a deputation of its members penetrated the prison and placed wreaths on his grave in the Conciergerie. The name of "Lavoisier" required no embellishment, nor was the sculptor's art needed to perpetuate it in posterity.

No lengthen'd scroll, no praise-encumbered stone; My epitaph shall be my name alone.

Byron.

As long as chemistry exists the name of "Lavoisier" will always be remembered as the creator of a new era in science; and as long as the human race is capable of estimating the worth of noble labours, so long will the name of "Lavoisier" live, and the memory of him who bore it remain enshrined and held in affectionate reverence by succeeding generations.

Coffinhal, who would not listen to Lavoisier, had, says Lamartine, "the massive frame, figure, and masculine vigour of the Alpine races of his country (an Auvergnat). The energy of his mind responded to that of his muscles. Payan was the head, and Coffinhal the hand, of this night and morrow." And of this man Robespierre said: "You destroy me, you destroy yourself, you destroy the Republic." Ultimately he was guillotined.

Concerning this period Carlyle says in his French Revolution: "The spring sends its green leaves and bright weather, bright May, brighter than ever; death pauses not. Lavoisier, famed chemist, shall die and not live. Chemist Lavoisier was Farmer-General Lavoisier too, and now all the Farmers-General are arrested; all shall give an account of their moneys and incomings, and die for putting water in the tobacco they sold. Lavoisier begged a fortnight more of life to finish some experiments, but the Republic does not need such; the axe must do its work."

To illustrate the feelings, animosities, jealousies, and fiendish propensities of Robespierre and his minions, two coins and a medal of the period bear ample testimony. The obverse side of one coin has the inscription: "Ludov XVI., D. Gratia" (with the head of Louis); and on the reverse side are the royal arms of France (fleur-de-lis) and the inscription: "1782, Rex Franciæ et Navarræ." The obverse side of the other coin, only ten years later, has the head of Louis and the inscription: "Louis XVI., Roi des Français"; and on the reverse side: "1792, 4 de la lib.," with the royal arms replaced by a floral design. There is a great difference in the title of the king; and the fourth year of liberty is most significant.

The medal is an English one struck in 1794, on the obverse of which is the following inscription: "A map of France, 1794. France divided, throne overthrown, honour trodden under foot, religion 'sixes and sevens,' glory erased, and fire in every corner." And on the reverse is the inscription: "May Great Britain ever remain the reverse."

These were the fanatical times in which Lavoisier lived and worked. Fancy any man of science in these days attempting to do research work during such a general upheaval.

A few words concerning the ever-memorable place of execution will be of interest. The Place de la Révolution, now the Place de la Concorde, the first square in Europe, has a tragic history. Originally a waste ground, it was reclaimed in 1748, after the peace of Aix-la-Chapelle (18th October 1748), and a statue of Louis XV. was erected there by the Municipal Council of Paris—the square then receiving the name of Place Louis XV. On 30th May 1770, at a display of fireworks to celebrate the marriage of the Dauphin, afterwards Louis XVI., with Marie Antoinette, a panic arose which resulted in the death of 1200 persons, and 2000 seriously injured. During the Reign of Terror in 1793 the guillotine was erected on the spot where now stands the Obelisk of Luxor (twin monolith to Cleopatra's Needle). Louis XVI. and Marie Antoinette were among the first victims, and between January 1793 and May 1795, upwards of 20,000 persons were guillotined. In 1799 the famous square was named the Place de la Concorde; it was afterwards renamed after Louis XV., and in 1826 after Louis XVI., and, finally, in 1830 it was again renamed the Place de la Concorde; and it was on the site where the Obelisk now stands that our hero Lavoisier was executed—his work unfinished, but he left a fine legacy to posterity.

His house was in the Place de la Madeleine, Paris; and in 1900 (a hundred and six years after his death) a beautiful bronze statue of him, by Barrias, which rests on a massive granite pedestal, was erected in the same square and opposite the house where Lavoisier lived. The pedestal bears the inscription:—

Antoine Laurent Lavoisier, 1743-1794, le fondateur de la chimie modèrne. Erigé par souscription publique, sous le patronage de l'Académie des Sciences. M. Berthelot, Secrétaire perpétuel pour les sciences physiques.

Eleven years after the death of Lavoisier, his widow was married to Count Rumford—the founder of the Royal Institution, London. Two years after the death of Lavoisier, his wife published his Mémoires de Chimie (1796-99), in four volumes; and between the years 1857 and 1896, Lavoisier's Œuvres Completes, in six volumes, edited by Dumas and Grimaux, were published at the expense of the French Government.

We conclude our study of Lavoisier in the words of Galileo: "Ricordiamoci in grazia, che il cercar la constituzione del mondo è de' maggiori e de' più nobili problemi, che sieno in natura."

Cuvier

CUVIER

1769-1832

WHEN George III. and Louis XV. were on the thrones of England and France respectively, there was born one of the world's greatest naturalists. Georges Chrétien Léopold Frédéric Dagobert Cuvier was born on 23rd August 1769, at Montbéliard, in the Department of Doubs, then belonging to Würtemberg. His father, an officer and a Protestant, retired in order to escape religious persecution, and settled in the town previously mentioned. He had three sons—the eldest died young, the second became the hero of our story, and the third was Frédéric Cuvier (1772-1838), the naturalist.

Georges Cuvier, on account of his delicate constitution, was first taught by his mother an excellent and praise-worthy woman. At ten years of age he went to school, and there acquired an excellent knowledge of Greek, Latin, mathematics, and other subjects; and at the age of fourteen the Duke of Würtemberg sent him to the Academy of Stuttgart. He had studied Buffon, and thereby became acquainted with the natural history of

baron cuvier

birds and quadrupeds. His scientific studies were encouraged by one of the professors of the Academy giving him a copy of Linnæus' Systema Naturæ. At this time he was studying philosophy and political economy, natural history, and the German language.

During a period of great anxiety and unrest (namely, in 1788), and at the age of nineteen, Cuvier became private tutor in the family of the Comte d'Héricy, whose estate was near Caen in Normandy. In this position he remained for six years—all through the Great Revolution; in the last year of his tutorship he heard of the execution of Lavoisier (1794), and during the same year his country was at war. The French conquered Flanders, overran the Palatinate, and took Treves; they also took Coblenz, Maëstricht, and Venlo, and nearly the whole frontiers of Holland, and many places in Spain. At the same time the French were defeated by the English in various sea-fights, and lost nearly all their West Indian islands. During this period of storm and unrest Cuvier was working quietly on his favourite subject. In the nobleman's family, besides learning the manners and etiquette of refined society, he was studying with great zeal natural history, comparing fossil forms with living species, dissecting molluscs, classifying animals, etc. It was at this period that he conceived the idea of his two great works, the Ossemens Fossiles and the Règne Animal—and he placed classification on an anatomical basis, which was a great stride upon the work of his predecessors. Lamarck arranged the various groups of animals in linear order from lower to higher—a scala naturæ; Cuvier opposed this system, and established the idea of diverging branches (embranchements), although, unlike Lamarck, he was no evolutionist.

While at the Normandy town, with its beautiful cathedral of St Pierre, Cuvier made the acquaintance of the old Abbé Tessier, then hiding from the fury of Robespierre and other revolutionists. Disguised as a surgeon, the learned old man discovered the worth of young Cuvier, and this introduction was the means of putting the latter into communication with Jussieu, Geoffroy Saint-Hilaire, Daubenton, Lapécède, and other men of science.

In 1795 Cuvier was appointed an assistant to the professor of anatomy in the Musée d'Histoire Naturelle. The same year saw him established as professor at the École Centrale du Panthéon—and here he composed his Tableau élémentaire de l'Histoire Naturelle des Animaux—the basis of the modern system of classification of the animal kingdom. At this time Mertrud, aided by the brothers Cuvier, commenced the famous and extensive collection of comparative anatomy at the Jardin des Plantes, Paris; and the next year Cuvier was elected a member of the Académie des Sciences.

In 1796 he discovered red blood in leeches (Hirudo), and the following year appeared his paper on the nutrition of insects.

In 1799 he succeeded Daubenton (the collaborator of Buffon) in the chair of natural history at the Collège de France; and finally succeeded Mertrud in the chair of comparative anatomy at the Jardin des Plantes.

In 1800 he published his first palæontological paper, Mémoires sur les Espèces d'Eléphants vivants et fossils, and the quantity and quality of the palæontological work which he turned out is simply astounding.

After the publication of his great work, Leçons d'Anatomie Comparée, in 1802, Napoleon (then First Consul) appointed Cuvier one of the inspectors-general for establishing lycées in thirty towns. At the same time he was elected Secrétaire perpétuel de l'Académie des Sciences (l'Institut de France), and was consequently brought into contact with all the celebrated men of science in the French capital.

In the same year (1804) that saw Napoleon created Emperor and crowned by Pope Pius VII., Cuvier married a widow—Madame Duvaucel (whose husband was a fermier général, and along with Lavoisier and others suffered death by decapitation). His marriage was a happy one.

From 1809 to 1813 Cuvier was sent on an important educational mission to Holland, Italy, and Germany; and during his sojourn in those countries, Napoleon (then master of Europe) dethroned the Pope, annexed Rome, made Bernadotte King of Sweden, incorporated Holland with France, divorced Josephine and married Maria Louisa of Austria, declared war against Russia, retreated from Moscow, but still alert and intrepid. Such were the times in which Cuvier did work of the highest importance. He was made Chevalier de la Légion d'Honneur in 1811, and three years later a Councillor of State, and in 1812 appeared his monumental work, Recherches sur les Ossemens Fossiles.

During the nine years' reign of Louis XVIII. he was Chancellor of the University of Paris, and held many State appointments. In 1817 he published Règne Animal distribué d'après son Organisation, a work which had the greatest influence upon naturalists, and his system became of world-wide fame.

Cuvier visited London in 1818, and was delighted with the liberties enjoyed by the people in this country, and more than once he alluded to it in his writings. During his sojourn in England Cuvier was made an "immortal"—as a member of the Académie Française is designated. In 1819 he was created a baron.

On the death of Louis XVIII., his brother Charles, the Comte d'Artois, ascended the throne as Charles X., and Cuvier took part in the coronation of that monarch, on which occasion he was promoted in the Order of the Légion d'Honneur, was created a Commander of the Order of the Crown of Würtemberg, and received other distinctions.

Three years after the succession of Charles X., Cuvier refused the odious office of press censor, but accepted the position of administrator of the non-catholic religions in France.

Cuvier formed a most extensive library, and permitted naturalists of all nations to work in it. The spirit of jealousy was entirely foreign to his nature. He rejoiced in the discoveries and work of others. "The man who has made a permanent addition to our knowledge of facts has rendered an imperishable service to science," said Cuvier. After his death his library was purchased by the French Government, and it now belongs to the Jardin des Plantes; and the vestibule of the library of St Geneviève contains a fine bust of Cuvier.

In 1828 Cuvier, in collaboration with Valenciennes, commenced the famous Histoire Naturelle des Poissons, which, however, was not completed until after his death.

In 1830, or the year that saw the abdication of Charles X. (the last of the Bourbon dynasty in France), la petite révolution de trois jours, and the election of Louis Philippe to the throne by the title of King of the French (not as the King of France), Cuvier was in London when the petite révolution was consummated, and remained there two weeks. In 1832 he was created a peer of France, and just before his death (which occurred on 13th May 1832) was made Ministre de 1'Intérieur. Cuvier died in harness, for he was lecturing at the Collège de France only a few days before his death. He was buried in the celebrated Cimetière du Père la Chaise, and his funeral was attended by an enormous concourse of people, his death being looked upon as a national calamity.

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