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Fred Sanger (FS) and I (GB) are seated in a recording studio at Imperial College, London. This is a slightly edited transcript of the first interview.
GB Those of us who have worked with you, Fred, know of your passion and vision for research and your interest in developing new methods. We also know you chose important scientific problems that were well ahead of their time. Less well known, but by no means less important, is your ability to get on with colleagues and students. You guided by example, not by dominating people, always encouraged and rarely criticising. You had, I suspect, a respect for people. You have a disarming natural modesty, rare in one so eminent.
For this reason many people, including me, would like to know something of your background, your parentage, your schooling and early influences.
FSI was born in 1918 and brought up in Gloucestershire, in a small Gloucester village, Rendcomb, in the Cotswolds, a very nice part of the world to live in. My father was the local doctor; he was a medical doctor. We have a picture of him here (Figure 1, left). Here is a picture of me (Figure 1, right) at about the same time, 1918, being held by my grandfather, Theodore Crewdson, on my mother’s side, and another picture of me, 8 months old (Figure 2).
Considered 'the father of genomics', Fred Sanger (1918–2013) paved the way for the modern revolution in our understanding of biology. His pioneering methods for sequencing proteins, RNA and, eventually, DNA earned him two Nobel Prizes. He remains one of only four scientists (and the only British scientist) ever to have achieved that distinction. In this, the first full biography of Fred Sanger to be published, Brownlee traces Sanger's life from his birth in rural Gloucestershire to his retirement in 1983 from the Medical Research Council's Laboratory of Molecular Biology in Cambridge. Along the way, he highlights the remarkable extent of Sanger's scientific achievements and provides a real portrait of the modest man behind them. Including an extensive transcript of a rare interview of Sanger by the author, this biography also considers the wider legacy of Sanger's work, including his impact on the Human Genome Project and beyond.
The Peking Man fossils discovered at Zhoukoudian in north-east China in the 1920s and 1930s were some of the most extensive palaeoanthropological finds of the twentieth century. This article examines their publicization and discussion in Britain, where they were engaged with by some of the world's leading authorities in human evolution, and a media and public highly interested in human-origins research. This international link – simultaneously promoted by scientists in China and in Britain itself – reflected wider debates on international networks; the role of science in the modern world; and changing definitions of race, progress and human nature. This article illustrates how human-origins research was an important means of binding these areas together and presenting scientific work as simultaneously authoritative and credible, but also evoking mystery and adventurousness. Examining this illustrates important features of contemporary views of both science and human development, showing not only the complexities of contemporary regard for the international and public dynamics of scientific research, but wider concerns over human nature, which oscillated between optimistic notions of unity and progress and pessimistic ones of essential differences and misdirected development.
Liber de orbe, attributed to Māshā'allāh (d. c.815), a court astrologer of the Abbasid dynasty, was one of the earliest Latin sources of Aristotelian physics. Until recently, its Arabic original could not be identified among Arabic works. Through extensive examination of Arabic manuscripts on exact sciences, I found two manuscripts containing the Arabic text of this Latin work, although neither of them is ascribed to Māshā'allāh: Berlin, Staatsbibliothek zu Berlin, Ms. or. oct. 273, and Philadelphia, Pennsylvania University Library, MS LJS 439. In this paper, I describe these two manuscripts in great detail, so that I confirm their originality of the Liber de orbe, and then by analysing the contents of the Arabic text, I deny the attribution to Māshā'allāh, and identify the title and author as Book on the Configuration of the Orb by Dūnash ibn Tamīm, a disciple of Isaac Israeli (c.855–c.955).
Born in Switzerland, Louis Agassiz (1807–73) distinguished himself as one of the most capable and industrious naturalists of the nineteenth century, working in fields as diverse as ichthyology and glaciology. In the late 1840s, he moved to North America, where he became a professor of zoology at Harvard and established the Museum of Comparative Zoology. His extensive bibliography of all known works relating to zoology and geology, which he had compiled for private use, was revised and substantially expanded by the English naturalist Hugh Edwin Strickland (1811–53) and published by the Ray Society in four volumes between 1848 and 1854. As such, it stands as the fullest record of the existing scientific literature just prior to the publication of Darwin's On the Origin of Species. Volume 4 (1854), completed by Sir William Jardine (1800–74) after the death of Strickland, concludes the list of works, arranged alphabetically by author, ranging here from Naccari to Zwinger.
A physician and medical reformer enthused by the scientific and cultural progress of the Enlightenment as it took hold in Britain, Thomas Percival (1740–1804) wrote on many topics, including public health and demography. His influential publication on medical ethics is considered the first modern formulation. In 1807, his son Edward published this four-volume collection of his father's diverse work. Some of the items here had never been published before, including a selection of Percival's private correspondence and a biographical account written by Edward. Volume 1 contains this biography and the full text of Percival's popular self-improvement book, A Father's Instructions, originally intended for his own children and then published in three parts between 1775 and 1800. His Medical Ethics (1803) and Essays Medical and Experimental (revised edition, 1772–3) have been reissued separately in this series.
A physician and medical reformer enthused by the scientific and cultural progress of the Enlightenment as it took hold in Britain, Thomas Percival (1740–1804) wrote on many topics, including public health and demography. His influential publication on medical ethics is considered the first modern formulation. In 1807, his son Edward published this four-volume collection of his father's diverse work. Some of the items here had never been published before, including a selection of Percival's private correspondence and a biographical account written by Edward. Volume 2 contains essays on moral and literary subjects, notably a Socratic discourse on truth as well as miscellaneous observations on the influence of habit and association. Also included are a memoir of the philanthropist Thomas Butterworth Bayley and the text of Percival's Medical Ethics (1803), which has been reissued separately in this series along with his Essays Medical and Experimental (revised edition, 1772–3).
A physician and medical reformer enthused by the scientific and cultural progress of the Enlightenment as it took hold in Britain, Thomas Percival (1740–1804) wrote on many topics, including public health and demography. His influential publication on medical ethics is considered the first modern formulation. In 1807, his son Edward published this four-volume collection of his father's diverse work. Some of the items here had never been published before, including a selection of Percival's private correspondence and a biographical account written by Edward. Volume 3 contains the first two parts of Essays Medical and Experimental, the revised edition of which has been reissued separately in this series in one volume in addition to his Medical Ethics (1803). The essays reflect Percival's wide range of interests, such as the application of philosophical methods to medical questions, the importance of accurate record keeping, and the risks of inoculating very young children against smallpox.
Abandoning a military career, Richard Beamish (1798–1873) decided to become a civil engineer. His suitability as a biographer of Sir Marc Isambard Brunel (1769–1849) stems from the period he spent working closely with the Brunels on the Thames Tunnel. Published in 1862, this memoir recounts the elder Brunel's eventful life and work, including his youth in France, his flight to America in the aftermath of the French Revolution, his lesser-known ventures in the early nineteenth century, and the tunnelling project which would consume much of the second half of his life. An informed portrait of a figure who has since been outshone by his more famous son, this book includes first-hand accounts of the ill-fated early attempt to build the Thames Tunnel, which was abandoned in 1828 due to flooding and lack of funds, and of Brunel's vindication upon its eventual completion in 1843.
A physician and medical reformer enthused by the scientific and cultural progress of the Enlightenment as it took hold in Britain, Thomas Percival (1740–1804) wrote on many topics, including public health and demography. His influential Medical Ethics (also reissued in this series) is considered the first modern formulation. In 1807, his son Edward published this four-volume collection of his father's diverse work. Some of the items here had never been published before, including a selection of Percival's private correspondence and a biographical account written by Edward. Volume 4 contains the third and fourth parts of Percival's Essays Medical and Experimental, which were completed following the revised edition that is reissued separately in one volume in the Cambridge Library Collection. The essays reflect Percival's wide range of interests, such as the regulation of hospitals and prisons, and the medical abnormalities he sometimes observed in his patients.
Is not this medium much rarer within the dense bodies of the Sun, stars, planets and comets, than in the empty celestial spaces between them? And in passing from them to great distances, does it not grow denser and denser perpetually, and thereby cause the gravity of those great bodies towards one another, and of their parts towards the bodies; every body endeavouring to go from the denser parts of the medium towards the rarer? For if this medium be rarer within the Sun’s body than at its surface, and rarer there than at the hundredth part of an inch from its body, and rarer there than at the fiftieth part of an inch from its body, and rarer there than at the orbit of Saturn; I see no reason why the increase of density should stop anywhere, and not rather be continued through all distances from the Sun to Saturn, and beyond. And though this increase of density may at great distances be exceeding slow, yet if the elastic force of this medium be exceeding great, it may suffice to impel bodies from the denser parts of the medium towards the rarer, with all that power which we call gravity. And that the elastic force of this medium is exceeding great, may be gathered from the swiftness of its vibrations. Sounds move about 1140 English feet in a second minute of time, and in seven or eight minutes of time they move about one hundred English miles. Light moves from the Sun to us in about seven or eight minutes of time, which distance is about 70000000 English miles, supposing the horizontal parallax of the Sun to be about 12”. And the vibrations or pulses of this medium, that they may cause the alternate fits of easy transmission and easy reflection, must be swifter than light, and by consequence above 700000 times swifter than sounds. And therefore the elastic force of this medium, in proportion to its density, must be above 700000 x 700000 (that is, above 490000000000) times greater than the elastic force of the air is in proportion to its density.