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Seventeenth-century Europe witnessed an extraordinary flowering of discoveries and innovations. This study, beginning with the Dutch-invented telescope of 1608, casts Galileo's discoveries into a global framework. Although the telescope was soon transmitted to China, Mughal India, and the Ottoman Empire, those civilizations did not respond as Europeans did to the new instrument. In Europe, there was an extraordinary burst of innovations in microscopy, human anatomy, optics, pneumatics, electrical studies, and the science of mechanics. Nearly all of those aided the emergence of Newton's revolutionary grand synthesis, which unified terrestrial and celestial physics under the law of universal gravitation. That achievement had immense implications for all aspects of modern science, technology, and economic development. The economic implications are set out in the concluding epilogue. All these unique developments suggest why the West experienced a singular scientific and economic ascendancy of at least four centuries.
Want to make the most of your talent for science? This practical guide for students, postdoctorates and professors offers a unique stepwise approach to help you develop your expertise and become a more productive scientist. Covering topics from giving presentations and writing effectively to prioritising your workload, it provides guidance to enhance your skills and combine them with those of others to your mutual benefit. Learn how to maintain your passion for science, inspire others to develop their abilities and motivate yourself to plan effectively, focus on your goals and even optimise funding opportunities. With numerous valuable tips, real-life stories, novel questionnaires and exercises for self-reflection, this must-read guide provides everything you need to take responsibility for your own personal and professional development.
A unique introduction to the design, analysis, and presentation of scientific projects, this is an essential textbook for undergraduate majors in science and mathematics. The textbook gives an overview of the main methods used in scientific research, including hypothesis testing, the measurement of functional relationships, and observational research. It describes important features of experimental design, such as the control of errors, instrument calibration, data analysis, laboratory safety, and the treatment of human subjects. Important concepts in statistics are discussed, focusing on standard error, the meaning of p values, and use of elementary statistical tests. The textbook introduces some of the main ideas in mathematical modeling, including order-of-magnitude analysis, function fitting, Fourier transforms, recursion relations, and difference approximations to differential equations. It also provides guidelines on accessing scientific literature, and preparing scientific papers and presentations. An extensive instructor's manual containing sample lessons and student papers is available at www.cambridge.org/Marder.
From PhD student to post-doc, Phil Dee has been sharing his career experiences with fellow scientists in his regular and acclaimed Science Next Wave column since 2000. Now his invaluable and entertaining advice is available in this compact warts-and-all guide to getting your science PhD and subsequent post-doctoral employment as a researcher. Phil Dee offers you the inside track on what life in the lab is really like with down-to-earth suggestions for making the most productive use of your time, dealing with personal relationships in science and maintaining your morale, as well as dealing with more practical issues like how to design a good poster. As well as being based on the author's own experiences, the book brings together a wealth of advice from other scientists who have made it in science, and from a few who haven't. The book will be accessible to all early career scientists worldwide.
Easy to read and up-to-date, How to Write and Illustrate a Scientific Paper will help both first-time writers and experienced contributors in authoring research papers. Although the examples are mainly from the medical and biological sciences, the principles described apply to virtually every branch of science. This book provides step-by-step information on how to prepare every aspect of a scientific paper, from the title and the order in which the authors are cited, through to how the reference list should be arranged. Illustrations, particularly graphs, are discussed in detail, with poor examples redrawn for comparison. The reader is offered advice on how to present the paper, where and how to submit the manuscript, and finally, how to correct the proofs. Examples of both good and bad writing, taken from actual journal articles, illuminate the author's advice in this accessible and informative guide.
This was the first cross-over book into the history of science written by an historian of economics. It shows how 'history of technology' can be integrated with the history of economic ideas. The analysis combines Cold War history with the history of postwar economics in America and later elsewhere, revealing that the Pax Americana had much to do with abstruse and formal doctrines such as linear programming and game theory. It links the literature on 'cyborg' to economics, an element missing in literature to date. The treatment further calls into question the idea that economics has been immune to postmodern currents, arguing that neoclassical economics has participated in the deconstruction of the integral 'self'. Finally, it argues for an alliance of computational and institutional themes, and challenges the widespread impression that there is nothing else besides American neoclassical economic theory left standing after the demise of Marxism.
Is life different from the non-living? If so, how? And how, in that case, does biology as the study of living things differ from other sciences? These questions are traced through an exploration of episodes in the history of biology and philosophy. The book begins with Aristotle, then moves on to Descartes, comparing his position with that of Harvey. In the eighteenth century the authors consider Buffon and Kant. In the nineteenth century the authors examine the Cuvier-Geoffroy debate, pre-Darwinian geology and natural theology, Darwin and the transition from Darwin to the revival of Mendelism. Two chapters deal with the evolutionary synthesis and such questions as the species problem, the reducibility or otherwise of biology to physics and chemistry, and the problem of biological explanation in terms of function and teleology. The final chapters reflect on the implications of the philosophy of biology for philosophy of science in general.
A magisterial study of the philosophy of physics that both introduces the subject to the non-specialist and contains many original and important contributions for professionals in the area. Modern physics was born as a part of philosophy and has retained to this day a properly philosophical concern for the clarity and coherence of ideas. Any introduction to the philosophy of physics must therefore focus on the conceptual development of physics itself. This book pursues that development from Galileo and Newton through Maxwell and Boltzmann to Einstein and the founders of quantum mechanics. There is also discussion of important philosophers of physics in the eighteenth and nineteenth centuries and of twentieth-century debates. In the interest of appealing to the broadest possible readership the author avoids technicalities and explains both the physics and philosophical terms.
The great French zoologist Lamarck (1744–1829) was best known for his theory of evolution, called 'soft inheritance', whereby organisms pass down acquired characteristics to their offspring. Originally a soldier, Lamarck later studied medicine and biology, becoming particularly interested in botany. His distinguished career included admission to the French Academy of Sciences (1779), and appointments as Royal Botanist (1781) and as professor of zoology at the Musée Nationale d'Histoire Naturelle in 1793. Acknowledged as the premier authority on invertebrate zoology, he is credited with coining the term 'invertebrates'. In this two-volume work of 1809, he outlines his theory that under the pressure of different external circumstances, species can develop variations, and that new species and genera can eventually evolve as a result. Darwin paid tribute to Lamarck as the man who 'first did the eminent service of arousing attention to the probability of all change … being the result of law'.
Sir Charles James Fox Bunbury (1809–86), the distinguished botanist and geologist, corresponded regularly with Lyell, Horner, Darwin and Hooker among others, and helped them in identifying botanical fossils. He was active in the scientific societies of his time, becoming a Fellow of the Royal Society in 1851. This nine-volume edition of his letters and diaries was published privately by his wife Frances Horner and her sister Katherine Lyell between 1890 and 1893. His copious journal and letters give an unparalleled view of the scientific and cultural society of Victorian England, and of the impact of Darwin's theories on his contemporaries. Volume 4 covers the years 1857–64. Bunbury correctly foresaw in October 1859 that 'Darwin's forthcoming book on Species ... is likely to cause no little combustion in the scientific world'. He provides a valuable commentary on its reception over the following months.
The great French zoologist Lamarck (1744–1829) was best known for his theory of evolution, called 'soft inheritance', whereby organisms pass down acquired characteristics to their offspring. Originally a soldier, Lamarck later studied medicine and biology. His distinguished career included admission to the French Academy of Sciences (1779), and appointments as Royal Botanist (1781) and as professor of zoology at the Musée Nationale d'Histoire Naturelle in 1793. Acknowledged as the premier authority on invertebrate zoology, he is credited with coining the term 'invertebrates'. In this 1809 work, translated into English in 1914, he outlines his theory that under the pressure of different external circumstances, species can develop variations, and that new species and genera can eventually evolve as a result. Darwin paid tribute to Lamarck as the man who 'first did the eminent service of arousing attention to the probability of all change … being the result of law'.
British palaeontologist Thomas Davidson (1817–85) was born in Edinburgh and began his studies at the city's university. Encouraged by German palaeontologist Leopold von Buch, he began to study brachiopod fossils at the age of twenty, and he quickly became the undisputed authority. He was elected fellow of the Geological Society of London in 1852, receiving the Wollaston medal in 1865. He became a Fellow of the Royal Society in 1857. Published between 1850 and 1886, this six-volume work became the definitive reference text on the subject. It includes more than two hundred hand-drawn plates and a comprehensive bibliography. This volume, the first of six, includes an essay on the terebratulids by Richard Owen, an analysis of brachiopod shell structure by W. B. Carpenter and a guide to classification by Davidson himself. The rest of the volume describes Cretaceous, Tertiary, Oolitic and Liasic brachiopod species.
Thomas Henry Huxley (1825–95), the English biologist and naturalist, was known as 'Darwin's Bulldog', and is best remembered today for his vociferous support for Darwin's theory of evolution. He was, however, an influential naturalist, anatomist and religious thinker, who coined the term 'agnostic' to describe his own beliefs. Almost entirely self-educated, he became an authority in anatomy and palaeontology, and after the discovery of the archaeopteryx, he was the first to suggest that birds had evolved from dinosaurs. He was also a keen promoter of scientific education who strove to make science a paid profession, not dependent on patronage or wealth. Published in 1903, this three-volume work, edited by his son Leonard Huxley, is the second and most complete edition of Huxley's biography and selected letters. Volume 2 covers the period 1870–86, including Huxley's American lecture tour, and the death of his friend Charles Darwin in 1882.
Containing the Descriptions and Synonymes of the Fruits and Fruit Trees Commonly Met with in the Gardens and Orchards of Great Britain, with Selected Lists of Those Most Worthy of Cultivation
Robert Hogg (1818–97) was a British nurseryman and an early secretary of the Royal Horticultural Society: a prize medal is named in his honour. Born in Berwickshire, Hogg trained in medicine at Edinburgh before following his father into fruit tree cultivation, and became joint editor of the Cottage Gardener, later the Journal of Horticulture. In 1851, he published The British Pomology (also reissued in this series): this work, on apples, was apparently intended as a study of British fruit trees, but no further volumes followed. Instead, in 1860, Hogg published this comprehensive catalogue of British fruit, which ran to five, increasingly extended, editions over the next twenty-five years. It became the standard reference work, and was even plagiarised in Scott's Orchardist: however Hogg sued and obtained an injunction preventing further sales. Hogg promoted systematic work in the Royal Horticultural Society and was instrumental in setting up its fruit committee.
George John Romanes (1848–94), evolutionary biologist, was one of the most zealous supporters of Darwin's theory of evolution by natural selection in the nineteenth century. He met Darwin in 1874 and became a firm friend and follower, applying Darwinian theory to his work on animal intelligence and mental evolution. Romanes was elected to the Royal Society in 1879 at the age of 31, having produced his own influential research on the evolution of the nervous system. This three-volume study of Darwin's work and its implications was first developed as a series of lectures given in Edinburgh and London between 1886 and 1890. Controversially, Romanes deviates from Darwin's assertion of the significance of geographical isolation, contending that physiological differences among the same species were central to evolutionary change. Published posthumously in 1895, Volume 2 focuses on the 'post-Darwinian questions' of heredity and utility in organisms.
Marianne North (1830–90), the Victorian amateur botanist and painter, travelled to distant countries of the world to paint exotic flora in their natural surroundings. This two-volume collection of her memoirs, edited by her sister and published in 1892, records North's remarkable travels. Laden with her palettes and easels, the independent North travelled alone and fended for herself. Her journals describe how she endured swarms of insects, scaled cliffs, trudged through wilderness and crossed swamps in order to reach the plants she wanted to paint. Volume 2 covers North's travels to Australia and New Zealand, which she undertook at the suggestion of Charles Darwin. The work concludes with the last journey she made, to Chile in 1884–5, to paint the monkey-puzzle tree in its natural habitat. This autobiography reveals the stories behind North's art, which can still be appreciated today since her vivid paintings are displayed at Kew Gardens.
Manchester-born Sir Joseph John Thomson (1858–1940), discoverer of the electron, was one of the most important Cambridge physicists of the later nineteenth and first half of the twentieth centuries. Succeeding Lord Rayleigh as Cavendish Professor of Experimental Physics, he directed the research interests of the laboratory, and eight of his students, including Rutherford, went on to win Nobel Prizes, as Thomson himself did in 1906. He was knighted in 1908, received the Order of Merit in 1912, and became Master of Trinity College in 1918. He also served as President of the Royal Society from 1915 from 1920 and was a government advisor on scientific research during World War I. This autobiography, published in 1936, covers all aspects of his career - his student days in Manchester, arrival in Cambridge, and growing international reputation. It gives a fascinating picture of Cambridge life and science at a dynamic period of development.
Sir Andrew Crombie Ramsay (1814–91) was a British geologist with a particular interest in the effects of glaciation on the landscape. He travelled in Europe and America, and was a keen climber. His first work, Geology of the Island of Arran (1840), also published in this series, attracted the attention of Roderick Murchison, who found him employment with the Geological Survey, and Ramsay later succeeded Murchison as its director. He carried out important fieldwork in Wales, taught at University College London and the Royal School of Mines, and published a successful textbook. Another major contribution was his work on the origin of lakes: his controversial 1862 proposal that glaciers could hollow out lake basins even in the absence of earth movements was eventually accepted. Ramsay's younger colleague at the Geological Survey, Sir Archibald Geikie (1835–1924), who also wrote a biography of Murchison, published this memoir in 1895.
James Shirley Hibberd (1825–90) was a journalist and writer on gardening, whose popular works had great influence on middle-class taste. Although not a trained horticulturalist, his many books were based on practical experience. He developed a succession of gardens in north London concentrating on particular types of plants, and his books reflected this work, with the Rose Book (1864) and the Fern Garden (1869) being particularly successful. He also wrote on garden design, flower arrangement, garden furniture and architecture, and his Rustic Adornments of 1856, also published in this series, is an important work of social and fashion history. He edited the magazine Floral World until 1875 and later the Gardener's Magazine, and was even consulted by the government about potato blight. His engaging and very personal style made him a popular forerunner of modern celebrity gardeners, and set a fashion for highly decorative and ornamental gardens.
Henry Field (1755–1837) was a British apothecary and member of the Society of Apothecaries of London. Besides serving in various administrative capacities for the Society, as well as for the London Annuity Society (founded by his father), he was nominated in 1831 as one of the medical officers for the City of London board of health, charged with taking precautions against an outbreak of cholera in the city. A lecturer and regular contributor to medical journals, Field is also the author of this history of the Chelsea Physic Garden, first published in 1820. The present reissue, published in 1878, was revised and extended by Robert Hunter Semple (1815–91). The garden was originally created by the Society as a professional resource in 1673 and the book covers its development up to 1878, and also includes a ground plan of the garden in that year.