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An electrical engineer, university teacher and wide-ranging writer, Fleeming Jenkin (1833–85) filed thirty-five British patents in the course of his career. Edited by Sidney Colvin (1845–1927) and J. A. Ewing (1855–1935) and first published in 1887, this two-volume work brings together a selection of Jenkin's varied and engaging papers. The collection ranges from notes on his voyages as a marine telegraph engineer, to a critical review of Darwin's On the Origin of Species, essays on literature, and thoughts on technical education. A memoir written by Robert Louis Stevenson, his former student, provides biographical context and attests to Jenkin's many interests and talents across the arts and sciences. Volume 2 includes Jenkin's papers on political economy, scientific education, and applied science, notably marine telegraphy. Abstracts of his scientific papers, along with a list of his patents, form an appendix to the volume.
In additamento hoc idem argumentum aliter tractatur simulque ostenditur quemadmodum motus lunae cum omnibus inaequalitatibus innumeris aliis modis repraesentari atque ad calculum revocari possit
The problem of the moon's orbit was one that Leonhard Euler (1707–83) returned to repeatedly throughout his life. It provided a testing ground for Newton's theory of gravitation. Could the motion of the moon be entirely accounted for by Newton's theory? Or, as Euler initially suspected, did other forces need to be invoked? For practical purposes, if the moon's orbit could be accurately predicted, its motion would provide the universal timekeeper required to solve the longitude problem. In addition to the mathematical 'three-body problem', a topic still under investigation today, Euler was faced with the statistical problem of reconciling observations rendered inconsistent by experimental error. The present work, published in Latin in 1753, is Euler's triumphant solution. It may not be the last word on a subject which has occupied mathematicians and astronomers for over three centuries, but it showed that Newton's laws were sufficient to explain lunar motion.
The naturalist and traveller Thomas Pennant (1726–98) helped popularise British ornithology by meticulously compiling and arranging existing research. At the age of twelve, Pennant had been given Francis Willughby's Ornithology (1678), to which he credited his lifelong love of natural history. His own writings on ornithology are heavily based on the classification system devised by Willughby and John Ray, which divides birds primarily into land birds and waterfowl. Although Pennant's brief, accessible book brought few original insights to the field, it boosted public interest in the study and classification of birds. The detailed descriptions of the appearance and habits of each bird are enlivened by the author's elegant turns of phrase. This better-known 1781 version of the 1773 original includes fifteen fine engravings. Pennant's other zoological works include Arctic Zoology (1784–5) and his History of Quadrupeds (third edition, 1793), both of which are reissued in this series.
From humble origins, and trained by the London Missionary Society in theology, printing and rudimentary medicine, William Ellis (1794–1872) sailed for the Society Islands in 1816. He found himself at the cusp of major cultural change as Western influences affected the indigenous Polynesians. During his time there, Ellis became a skilled linguist and able chronicler of the traditional yet rapidly shifting way of life. He succeeded in capturing vivid stories of a leisured people who, without written language, had developed a rich oral tradition, social structure and belief system. Published in 1829, this two-volume collection proved to be an important reference work, notably for its natural history; it soon accompanied Darwin aboard the Beagle. In Volume 2, Ellis moves between Huahine and Raiatea, giving further background on the existing customs and polytheistic rituals, contrasted with the introduction of Western religion, dress, schools, housing, medicine and law.
By the late eighteenth century, scientists had discovered certain types of gas, such as 'fixed air' (carbon dioxide), but their composition was little understood. Relatively few investigations into gases had taken place, and so the polymath Joseph Priestley (1733–1804) was able to make major breakthroughs in the field using a range of experimental techniques. While living near a brewery, he found that it was possible to outline the shape of the gas above fermenting beer with smoke, and that fire would burn with varying strength depending on the composition of the air. This three-volume collection first appeared between 1774 and 1777. Primarily an account of Priestley's early experiments, with details of apparatus including candles and live mice, Volume 1 is reissued here in its corrected 1775 second edition and also incorporates a brief history of the field of inquiry.
In 1793, the Caribbean island of Dominica fell victim to the deadly yellow fever virus. The British physician James Clark (c.1737–1819), who practised on the island for many years, witnessed the outbreak at first hand. He published this descriptive account in 1797, using the work to discuss his methods of attempting to treat the disease, which was considered among the most lethal tropical ailments of the time. Long before the link between mosquitoes and disease transmission was made, Clark explains his hypothesis about the origins of the outbreak and discusses the symptoms of its sufferers as well as possible methods of prevention. He also includes chapters addressing other ailments, including typhus, dysentery, cholera and tetanus. This remains an enlightening resource in the history of the understanding and treatment of disease in tropical climates.
The Austrian scientist Ernst Mach (1838–1916) carried out work of importance in many fields of enquiry, including physics, physiology, psychology and philosophy. Published in this English translation of 1906, these essays examine geometry from three different perspectives. Mach argues that, as our ideas about space are created by the senses and how we experience our environment, researchers must not consider the subject from a mathematical standpoint alone. In the first essay, he explains how humans generate spatial concepts. Next, he discusses the psychology of geometry, its empirical origins, and its development. In the final piece, he writes from the viewpoint of a physicist, outlining how various mathematicians, such as Carl Friedrich Gauss and Bernhard Riemann, have contributed to our geometrical understanding. Also reissued in this series in English translation are Mach's The Science of Mechanics (1893) and Popular Scientific Lectures (1895).
The mining engineer and petrologist Frederick Henry Hatch (1864–1932) left the Geological Survey of Great Britain in 1892, relocating to South Africa. He worked for De Beers and with John Hays Hammond for Cecil Rhodes, finding important new gold fields in Matabeleland and Mashonaland. Control of the gold mines was a significant factor in the tension between Dutch and English settlers that would result in the Second Boer War in 1899. Prior to this, Rhodes and Hammond were behind the abortive Jameson Raid, but Hatch had returned to England briefly and was not implicated. This 1895 work, written with South African mining engineer J. A. Chalmers, reveals the extent of gold reserves in the Transvaal, and the engineering skills needed to exploit them. It deals with geological, economic and legal aspects of the mining industry, remaining of interest to historians of South Africa and the British Empire.
The geologist Sir Henry Thomas De la Beche (1796–1855) made important contributions as both a surveyor and a theorist. Elected to the Royal Society in 1823, he mapped geological strata in Devon during the 1830s and became the founding director of the British Geological Survey, the world's first national geological survey. In 1847, he was elected president of the Geological Society of London. Reflecting the scope of his scientific knowledge, the present work covers a wide range of topics, including the density of planets, the mineralisation of organic remains, and what could be inferred from the fossils thus created. The book was first published in 1834, the year he became embroiled in an argument with his contemporary Roderick Murchison. Lasting several years, the dispute became known as the 'The Great Devonian Controversy'. De la Beche's Geological Manual (third edition, 1833) has also been reissued in this series.
Following his stint as the naturalist aboard the Endeavour on James Cook's pioneering voyage, Sir Joseph Banks (1743–1820) became a pre-eminent member of the scientific community in London. President of the Royal Society from 1778, and a friend and adviser to George III, Banks significantly strengthened the bonds between the practitioners and patrons of science. Between 1796 and 1800, the Swedish botanist and librarian Jonas Dryander (1748–1810) published this five-volume work recording the contents of Banks' extensive library. The catalogue was praised by many, including the distinguished botanist Sir James Edward Smith, who wrote that 'a work so ingenious in design and so perfect in execution can scarcely be produced in any science'. Volume 5 (1800) contains a list of works from the first four volumes indexed by author, as well as a supplementary list of those items that were acquired after the publication of the previous volumes.
Professor of natural philosophy at the Royal Institution between 1853 and 1887, the British physicist and mountaineer John Tyndall (1820–93) passionately sought to share scientific understanding with the Victorian public. A lucid and highly regarded communicator, he lectured on such topics as heat, light, magnetism and electricity. In this collection of eight lectures, first published in 1867, Tyndall explains numerous acoustic phenomena for a non-specialist audience. Emphasising the practical nature of scientific enquiry, he describes experiments throughout and includes many illustrations of laboratory equipment. The lectures discuss the general properties of sound, how it travels, how noise and music differ, how gas flames can produce musical notes, and much more. Several of Tyndall's other publications, from his work on radiant heat to his exploration of alpine glaciers, are also reissued in this series.
As early as the seventeenth century, scientists realised that a pendulum swings more slowly at the equator than it would at the North Pole. Newton predicted that gravity increased with latitude, and that the Earth could not be perfectly spherical. Although various experiments were undertaken to determine the exact degree of this ellipticity, none proved successful until physicist Edward Sabine (1788–1883) embarked on a series of expeditions across the world. Based on pendulum measurements from a wide range of latitudes, from Jamaica to Spitsbergen, his results were very different to mathematical predictions, and far more accurate; Charles Babbage would even complain that they were too good to be true. In this account, which first appeared in 1825, Sabine explains his methodology and presents his findings. His book opens a fascinating window into nineteenth-century geodesy for students in the history of science.
First published in 1840, this two-volume treatise by Cambridge polymath William Whewell (1794–1886) remains significant in the philosophy of science. The work was intended as the 'moral' to his three-volume History of the Inductive Sciences (1837), which is also reissued in this series. Building on philosophical foundations laid by Immanuel Kant and Francis Bacon, Whewell opens with the aphorism 'Man is the Interpreter of Nature, Science the right interpretation'. Volume 2 contains the final sections of Part 1, addressing namely the philosophy of biology and palaetiology. Part 2, 'Of Knowledge', includes a selective review of opinions on the nature of knowledge and the means of seeking it, beginning with Plato. Whewell's work upholds throughout his belief that the mind was active and not merely a passive receiver of knowledge from the world. A key text in Victorian epistemological debates, notably challenged by John Stuart Mill and his System of Logic, Whewell's treatise merits continued study and discussion in the present day.
To the naturalist John Woodward (c.1665–1728), fossils were 'much neglected, and left wholly to the Care and Treatment of Miners and meer Mechanicks'. He had built up a large personal collection of these samples of the Earth's petrified remains and spent much of his life developing a system for their classification, the results of which were published in this important illustrated work of 1728. A distinguished physician and a fellow of the Royal Society, Woodward wrote extensively on scientific topics, and had developed a theory that fossils were creatures destroyed in the flood described in the Bible. These ideas attracted critics and supporters in equal measure, but his contribution to techniques of fossil collection and classification were influential. In the present work, he devotes the early chapters to questions of description and classification, while the later sections contain some of his letters to his scientific contemporaries, including Isaac Newton.
The orphaned son of an Anglican clergyman, David Hartley (1705–57) was originally destined for holy orders. Declining to subscribe to the Thirty-Nine Articles, he turned to medicine and science yet remained a religious believer. This, his most significant work, provides a rigorous analysis of human nature, blending philosophy, psychology and theology. First published in two volumes in 1749, Observations on Man is notable for being based on the doctrine of the association of ideas. It greatly influenced scientists, theologians, social reformers and poets: Samuel Taylor Coleridge, who named his eldest son after Hartley, had his portrait painted while holding a copy. In Volume 1, Hartley utilises Newtonian science in his observations. He presents a theory of 'vibrations', explaining how the elements of the nerves and brain interact as a result of stimulation, creating 'associations' and emotions.
After the death of the younger Carl Linnaeus in 1783, the entirety of the Linnean collections, including the letters received by the elder Linnaeus from naturalists all over Europe, was purchased by the English botanist James Edward Smith (1759–1828), later co-founder and first president of the Linnean Society of London. In 1821, Smith published this two-volume selection of the letters exchanged by Linnaeus père et fils and many of the leading figures in the study of natural history, revealing some of the close ties of shared knowledge and affection that bound the European scientific community at that time. Where necessary, Smith translates the letters into English, with the exception of those written in French, which are presented in the original. Volume 1 illuminates the epistolary relationships of Linnaeus senior with Peter Collinson, John Ellis and Alexander Garden, providing a very brief biography of each. Garden's letters to Ellis also feature prominently.
A member, and later president, of the Académie des Sciences, French botanist and doctor René Louiche Desfontaines (1750–1833) spent the years 1783–5 on an expedition to North Africa. During his time in Tunisia and Algeria, he collected over a thousand plant specimens: more than three hundred genera were new to European naturalists at this time. Having succeeded Le Monnier in the chair of botany at the Jardin du Roi in 1786, Desfontaines helped found the Institut de France following the Revolution and published his two-volume Flora atlantica in Latin in 1798–9. A lavishly illustrated second edition appeared in four volumes in 1800. Combining its two volumes of plates into one, this reissue will give modern researchers an insight into the promulgation of pioneering plant science. Volume 2 contains classes 14 to 24 in the Linnaean system of plant taxonomy, from Didynamia to Cryptogamia.
A member, and later president, of the Académie des Sciences, French botanist and doctor René Louiche Desfontaines (1750–1833) spent the years 1783–5 on an expedition to North Africa. During his time in Tunisia and Algeria, he collected over a thousand plant specimens: more than three hundred genera were new to European naturalists at this time. Having succeeded Le Monnier in the chair of botany at the Jardin du Roi in 1786, Desfontaines helped found the Institut de France following the Revolution and published his two-volume Flora atlantica in Latin in 1798–9. A lavishly illustrated second edition appeared in four volumes in 1800. Combining its two volumes of plates into one, this reissue will give modern researchers an insight into the promulgation of pioneering plant science. Volume 3 brings together all 261 line engravings from the volumes that accompanied the botanical catalogue.
Best known for his ideas relating to evolution, French naturalist Jean-Baptiste Lamarck (1744–1829) first built his reputation as a botanist and was elected to the prestigious Académie des Sciences in 1779. His career took a new turn in 1793 when he was made professor of 'insects, worms and microscopic animals' at the Muséum National d'Histoire Naturelle, although he lacked prior knowledge of the subject area. Undaunted, Lamarck set out to classify organisms which few naturalists had considered worthy of study since Linnaeus. He was the first to distinguish vertebrates from 'invertebrates' - a term he coined - by the presence of a vertebral column. In this groundbreaking seven-volume work, published between 1815 and 1822, he arranges invertebrates into twelve classes, laying the foundations for the modern study of these organisms. Volume 6, published in two parts between 1819 and 1822 (reissued here together), continues with the study of conchifera and covers molluscs.
Jane Haldimand Marcet (1769–1858) wrote across a range of topics, from natural philosophy to political economy. Her educational books were especially intended for female students, to combat the prevalent idea that science and economics were unsuitable for women, but they found broader popularity: Michael Faraday, as a young bookbinder's apprentice, credited Marcet with introducing him to electrochemistry. This two-volume work, first published in 1829, is a beginner's guide to botany. Since the chief aim was accessibility, Marcet does not dwell on the often burdensome process of plant classification, but focuses on plant forms and botany's practical applications. She presents the facts in the form of simple conversations between two students and their teacher. Based on the lectures of the Swiss botanist Candolle, Volume 1 introduces roots, leaves, sap, and the effects of different soil and air.