Part 1

[Transcriber's Notes:]

This volume is the continuation of volume 1, https://www.gutenberg.org/ebooks/65306

These modifications are intended to provide continuity of the text for ease of searching and reading.

1. To avoid breaks in the narrative, page numbers (shown in curly brackets "{123}") are usually placed between paragraphs. In this case the page number is preceded and followed by an empty line.

2. If a paragraph is exceptionally long, the page number is placed at the nearest sentence break on its own line, but without surrounding empty lines.

3. Blocks of unrelated text are moved to a nearby break between subjects.

5. Use of em dashes and other means of space saving are replaced with spaces and newlines.

6. Subjects are arranged thusly: Main titles are at the left margin, in all upper case (as in the original) and are preceded by an empty line.

Subtitles (if any) are indented three spaces and immediately follow the main title.

Text of the article (if any) follows the list of subtitles (if any) and is preceded with an empty line and indented three spaces.

References to other articles in this work are in all upper case (as in the original) and indented six spaces. They usually begin with "See", "Also" or "Also in".

Citations of works outside this book are indented six spaces and in italics, as in the original. The bibliography in Volume 1, APPENDIX F on page xxi provides additional details, including URLs of available internet versions.

Subject: End---------- indicates the end of a long group of subheadings or other large block.

[End Transcriber's Notes.]

[Image: Spine]

HISTORY FOR READY REFERENCE

FROM THE BEST HISTORIANS, BIOGRAPHERS, SPECIALISTS

THEIR OWN WORDS IN A COMPLETE SYSTEM OF HISTORY

FOR ALL USES, EXTENDING TO ALL COUNTRIES AND SUBJECTS, AND REPRESENTING FOR BOTH READERS AND STUDENTS THE BETTER AND NEWER LITERATURE OF HISTORY IN THE ENGLISH LANGUAGE

BY J.N.LARNED

WITH NUMEROUS HISTORICAL MAPS FROM ORIGINAL STUDIES AND DRAWINGS BY ALAN C. REILEY

IN FIVE VOLUMES

VOLUME II-EL DORADO TO GREAVES

SPRINGFIELD, MASS. THE C. A. NICHOLS CO., PUBLISHERS

MDCCCXCV

COPYRIGHT, 1894. BY J. N. LARNED.

The Riversider Press, Cambridge, Mass, U. S. A. Printed by H. O. Houghton & Company.

LIST OF MAPS.

Map of Europe at the close of the Tenth Century, ... To follow page 1020 Map of Europe in 1768, ... To follow page 1086 Four maps of France, A. D. 1154, 1180, 1814 and 1860, ... To follow page 1168 Two maps of Central Europe, A. D. 848 and 888, ... On page 1404 Map of Germany at the Peace of Westphalia, ... To follow page 1486 Maps of Germany, A. D. 1815 and 1866; of the Netherlands, 1880-1889; and of the Zollverein, ... To follow page 1540

LOGICAL OUTLINES, IN COLORS.

English history, ... To follow page 730 French history, ... To follow page 1158 German history, ... To follow page 1428

CHRONOLOGICAL TABLES.

The Fifth Century, ... On page 1433 The Sixth Century, ... On page 1434

{769}

EL DORADO, The quest of.

"When the Spaniards had conquered and pillaged the civilized empires on the table lands of Mexico, Bogota, and Peru, they began to look round for new scenes of conquest, new sources of wealth; the wildest rumours were received as facts, and the forests and savannas, extending for thousands of square miles to the eastward of the cordilleras of the Andes, were covered, in imagination, with populous kingdoms, and cities filled with gold. The story of El Dorado, of a priest or king smeared with oil and then coated with gold dust, probably originated in a custom which prevailed among the civilized Indians of the plateau of Bogota; but El Dorado was placed, by the credulous adventurers, in a golden city amidst the impenetrable forests of the centre of South America, and, as search after search failed, his position was moved further and further to the eastward, in the direction of Guiana. El Dorado, the phantom god of gold and silver, appeared in many forms. ... The settlers at Quito and in Northern Peru talked of the golden empire of the Omaguas, while those in Cuzco and Charcas dreamt of the wealthy cities of Paytiti and Enim, on the banks of a lake far away, to the eastward of the Andes. These romantic fables, so firmly believed in those old days led to the exploration of vast tracts of country, by the fearless adventurers of the sixteenth century, portions of which have never been traversed since, even to this day. The most famous searches after El Dorado were undertaken from the coast of Venezuela, and the most daring leaders of these wild adventures were German knights."

_C. R. Markham, Introduction to Simon's Account of the Expedition of Ursua and Aguirre (Hakluyt Society 1861)._

"There were, along the whole coast of the Spanish Main, rumours of an inland country which abounded with gold. These rumours undoubtedly related to the kingdoms of Bogota and Tunja, now the Nuevo Reyno de Granada. Belalcazar, who was in quest of this country from Quito, Federman, who came from Venezuela, and Gonzalo Ximenez de Quesada, who sought it by way of the River Madalena, and who effected its conquest, met here. But in these countries also there were rumours of a rich land at a distance; similar accounts prevailed in Peru; in Peru they related to the Nuevo Reyno, there they related to Peru; and thus adventurers from both sides were allured to continue the pursuit after the game was taken. An imaginary kingdom was soon shaped out as the object of their quest, and stories concerning it were not more easily invented than believed. It was said that a younger brother of Atabalipa fled, after the destruction of the Incas, took with him the main part of their treasures, and founded a greater empire than that of which his family had been deprived. Sometimes the imaginary Emperor was called the Great Paytite, sometimes the Great Moxo, sometimes the Enim or Great Paru. An impostor at Lima affirmed that he had been in his capital, the city of Manoa, where not fewer than 3,000 workmen were employed in the silversmiths' street; he even produced a map of the country, in which he had marked a hill of gold, another of silver, and a third of salt. ... This imaginary kingdom obtained the name of El Dorado from the fashion of its Lord, which has the merit of being in savage costume. His body was anointed every morning with a certain fragrant gum of great price, and gold dust was then blown upon him, through a tube, till he was covered with it: the whole was washed off at night. This the barbarian thought a more magnificent and costly attire than could be afforded by any other potentate in the world, and hence the Spaniards called him El Dorado, or the Gilded One. A history of all the expeditions which were undertaken for the conquest of his kingdom would form a volume not less interesting than extraordinary."

_R. Southey, History of Brazil, volume 1, chapter 12._

The most tragical and thrilling of the stories of the seekers after El Dorado is that which Mr. Markham introduces in the quotation above, and which Southey has told with full details in _The Expedition of Orsua; and the Crimes of Aguirre._ The most famous of the expeditions were those in which Sir Walter Raleigh engaged, and two of which he personally led--in 1595, and in 1617-18. Released from his long imprisonment in the Tower to undertake the latter, he returned from it, broken and shamed, to be sent to the scaffold as a victim sacrificed to the malignant resentment of Spain. How far Raleigh shared in the delusion of his age respecting El Dorado, and how far he made use of it merely to promote a great scheme for the "expansion of England," are questions that will probably remain forever in dispute.

_Sir Walter Raleigh, Discoverie of the Large, Rich and Beautiful Empire of Guiana (Hakluyt Society 1848)._

ALSO IN: _J. A. Van Heuvel, El Dorado._

_E. Edwards, Life of Raleigh, volume 1, chapters 10 and 25._

_P. F. Tytler, Life of Raleigh, chapters 3 and 6._

_E. Gosse, Raleigh, chapters 4 and 9._

_A. F. Bandelier, The gilded man._

ELECTORAL COLLEGE, The Germanic: Its rise and constitution. Its secularization and extinction.

See GERMANY: A. D. 1125-1152, and 1347-1493; also, 1801-1803, and 1805-1806.

ELECTORAL COMMISSION, The.

See UNITED STATES OF AMERICA: A. D. 1876-1877.

ELECTORS, Presidential, of the United States of America.

See PRESIDENT OF THE UNITED STATES.

ELECTRICAL DISCOVERY AND INVENTION.

"Electricity, through its etymology at least, traces its lineage back to Homeric times. In the Odyssey reference is made to the 'necklace hung with bits of amber' presented by the Phœnician traders to the Queen of Syra. Amber was highly prized by the ancients, having been extensively used as an ornamental gem, and many curious theories were suggested as to its origin. Some of these, although mythical, were singularly near the truth, and it is an interesting coincidence that in the well-known myth concerning the ill-fated and rash youth who so narrowly escaped wrecking the solar chariot and the terrestrial sphere, amber, the first known source of electricity, and the thunder-bolts of Jupiter are linked together. It is not unlikely that this substance was indebted, for some of the romance that clung to it through ages, to the fact that when rubbed it attracts light bodies. This property it was known to possess in the earliest times: it is the one single experiment in electricity which has come down to us from the remotest antiquity. ... The power of certain fishes, notably what is known as the 'torpedo,' to produce electricity, was known at an early period, and was commented on by Pliny and Aristotle. {770} ... Up to the sixteenth [century] there seems to have been no attempt to study electrical phenomena in a really scientific manner. Isolated facts which almost thrust themselves upon observers, were noted, and, in common with a host of other natural phenomena, were permitted to stand alone, with no attempt at classification, generalization, or examination through experiment. ... Dr. Gilbert can justly be called the creator of the science of electricity and magnetism. His experiments were prodigious in number, and many of his conclusions were correct and lasting. To him we are indebted for the name 'electricity,' which he bestowed upon the power or property which amber exhibited in attracting light bodies, borrowing the name from the substance itself, in order to define one of its attributes. ... This application of experiment to the study of electricity, begun by Gilbert three hundred years ago, was industriously pursued by those who came after him, and the next two centuries witnessed a rapid development of science. Among the earlier students of this period were the English philosopher, Robert Boyle, and the celebrated burgomaster of Magdeburg, Otto von Guericke. The latter first noted the sound and light accompanying electrical excitation. These were afterwards independently discovered by Dr. Wall, an Englishman, who made the somewhat prophetic observation, 'This light and crackling seems in some degree to represent thunder and lightning.' Sir Isaac Newton made a few experiments in electricity, which he exhibited to the Royal Society. ... Francis Hawksbee was an active and useful contributor to experimental investigation, and he also called attention to the resemblance between the electric spark and lightning. The most ardent student of electricity in the early years of the eighteenth century was Stephen Gray. He performed a multitude of experiments, nearly all of which added something to the rapidly accumulating stock of knowledge, but doubtless his most important contribution was his discovery of the distinction between conductors and non-conductors. ... Some of Gray's papers fell into the hands of Dufay, an officer of the French army, who, after several years' service, had resigned his post to devote himself to scientific pursuits. ... His most important discovery was the existence of two distinct species of electricity, which he named 'vitreous' and 'resinous.' ... A very important advance was made in 1745 in the invention of the Leyden jar or phial. As has so many times happened in the history of scientific discovery, it seems tolerably certain that this interesting device was hit upon by at least three persons, working independently of each other. One Cuneus, a monk named Kleist, and Professor Muschenbroeck, of Leyden, are all accredited with the discovery. ... Sir William Watson perfected it by adding the outside metallic coating, and was by its aid enabled to fire gunpowder and other inflammables."

_T. C. Mendenhall, A Century of Electricity, chapter 1._

ELECTRICITY: A. D. 1745-1747. Franklin's identification of Electricity with Lightning.

"In 1745 Mr. Peter Collinson of the Royal Society sent a [Leyden] jar to the Library Society of Philadelphia, with instructions how to use it. This fell into the hands of Benjamin Franklin, who at once began a series of electrical experiments. On March 28, 1747, Franklin began his famous letters to Collinson. ... In these letters he propounded the single-fluid theory of electricity, and referred all electric phenomena to its accumulation in bodies in quantities more than their natural share, or to its being withdrawn from them so as to leave them minus their proper portion." Meantime, numerous experiments with the Leyden jar had convinced Franklin of the identity of lightning and electricity, and he set about the demonstration of the fact. "The account given by Dr. Stuber of Philadelphia, an intimate personal friend of Franklin, and published in one of the earliest editions of the works of the great philosopher, is as follows:--'The plan which he had originally proposed was to erect on some high tower, or other elevated place, a sentry-box, from which should rise a pointed iron rod, insulated by being fixed in a cake of resin. Electrified clouds passing over this would, he conceived, impart to it a portion of their electricity, which would be rendered evident to the senses by sparks being emitted when a key, a knuckle, or other conductor was presented to it. Philadelphia at this time offered no opportunity of trying an experiment of this kind. Whilst Franklin was waiting for the erection of a spire, it occurred to him that he might have more ready access to the region of clouds by means of a common kite. He prepared one by attaching two cross-sticks to a silk handkerchief, which would not suffer so much from the rain as paper. To his upright stick was fixed an iron point. The string was, as usual, of hemp, except the lower end, which was silk. Where the hempen string terminated, a key was fastened. With this apparatus, on the appearance of a thunder-gust approaching, he went into the common, accompanied by his son, to whom alone he communicated his intentions, well knowing the ridicule which, too generally for the interest of science, awaits unsuccessful experiments in philosophy. He placed himself under a shed to avoid the rain. His kite was raised. A thunder-cloud passed over it. No signs of electricity appeared. He almost despaired of success, when suddenly he observed the loose fibres of his string move toward an erect position. He now pressed his knuckle to the key, and received a strong spark. How exquisite must his sensations have been at this moment! On his experiment depended the fate of his theory. Doubt and despair had begun to prevail, when the fact was ascertained in so clear a manner, that even the most incredulous could no longer withhold their assent. Repeated sparks were drawn from the key, a phial was charged, a shock given, and all the experiments made which are usually performed with electricity.' And thus the identity of lightning and electricity was proved. ... Franklin's proposition to erect lightning rods which would convey the lightning to the ground, and so protect the buildings to which they were attached, found abundant opponents. ... Nevertheless, public opinion became settled ... that they did protect buildings. ... Then the philosophers raised a new controversy as to whether the conductors should be blunt or pointed; Franklin, Cavendish, and Watson advocating points, and Wilson blunt ends. ... The logic of experiment, however, showed the advantage of pointed conductors; and people persisted then in preferring them, as they have done ever since."

{771}

_P. Benjamin, The Age of Electricity, chapter 3._

ELECTRICITY: A. D. 1753-1820. The beginnings of the Electric Telegraph.

"The first actual suggestion of an electric telegraph was made in an anonymous letter published in the Scots Magazine at Edinburgh, February 17th, 1753. The letter is initialed 'C. M.,' and many attempts have been made to discover the author's identity. ... The suggestions made in this letter were that a set of twenty-six wires should be stretched upon insulated supports between the two places which it was desired to put in connection, and at each end of every wire a metallic ball was to be suspended, having under it a letter of the alphabet inscribed upon a piece of paper. ... The message was to be read off at the receiving station by observing the letters which were successively attracted by their corresponding balls, as soon as the wires attached to the latter received a charge from the distant conductor. In 1787 Monsieur Lomond, of Paris, made the very important step of reducing the twenty-six wires to one, and indicating the different letters by various combinations of simple movements of an indicator, consisting of a pith-ball suspended by means of a thread from a conductor in contact with the wire. ... In the year 1790 Chappe, the inventor of the semaphore, or optico-mechanical telegraph, which was in practical use previous to the introduction of the electric telegraph, devised a means of communication, consisting of two clocks regulated so that the second hands moved in unison, and pointed at the same instant to the same figures. ... In the early form of the apparatus, the exact moment at which the observer at the receiving station should read off the figure to which the hand pointed was indicated by means of a sound signal produced by the primitive method of striking a copper stew pan, but the inventor soon adopted the plan of giving electrical signals instead of sound signals. ... In 1795 Don Francisco Salva ... suggested ... that instead of twenty-six wires being used, one for each letter, six or eight wires· only should be employed, each charged by a Leyden jar, and that different letters should be formed by means of various combinations of signals from these. ... Mr. (afterwards Sir Francis) Ronalds ... took up the subject of telegraphy in the year 1816, and published an account of his experiments in 1823," based on the same idea as that of Chappe. ... "Ronalds drew up a sort of telegraphic code by which words, and sometimes even complete sentences, could be transmitted by only three discharges. ... Ronalds completely proved the practicability of his plan, not only on [a] short underground line, .... but also upon an overhead line some eight miles in length, constructed by carrying a telegraph wire backwards and forwards over a wooden frame-work erected in his garden at Hammersmith. ... The first attempt to employ voltaic electricity in telegraphy was made by Don Francisco Salva, whose frictional telegraph has already been referred to. On the 14th of May, 1800, Salva read a paper on 'Galvanism and its application to Telegraphy' before the Academy of Sciences at Barcelona, in which he described a number of experiments which he had made in telegraphing over a line some 310 metres in length. ... A few years later he applied the then recent discovery of the Voltaic pile to the same purpose, the liberation of bubbles of gas by the decomposition of water at the receiving station being the method adopted for indicating the passage of the signals. A telegraph of a very similar character was devised by Sömmering, and described in a paper communicated by the inventor to the Munich Academy of Sciences in 1809. Sömmering used a set of thirty-five wires corresponding to the twenty-five letters of the German alphabet and the ten numerals. ... Oersted's discovery of the action of the electric current upon a suspended magnetic needle provided a new and much more hopeful method of applying the electric current to telegraphy. The great French astronomer Laplace appears to have been the first to suggest this application of Oersted's discovery, and he was followed shortly afterwards by Ampere, who in the year 1820 read a paper before the Paris Academy of Sciences."

_G. W. De Tunzelmann, Electricity in Modern Life, chapter 9._

ELECTRICITY: A. D. 1786-1800. Discoveries of Galvani and Volta.