Angewandte Chemie 2001
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George De Hevesy in America
Journal of Nuclear Medicine, published on July 13, 2019 as doi:10.2967/jnumed.119.233254 George de Hevesy in America George de Hevesy was a Hungarian radiochemist who was awarded the Nobel Prize in Chemistry in 1943 for the discovery of the radiotracer principle (1). As the radiotracer principle is the foundation of all diagnostic and therapeutic nuclear medicine procedures, Hevesy is widely considered the father of nuclear medicine (1). Although it is well-known that he spent time at a number of European institutions, it is not widely known that he also spent six weeks at Cornell University in Ithaca, NY, in the fall of 1930 as that year’s Baker Lecturer in the Department of Chemistry (2-6). “[T]he Baker Lecturer gave two formal presentations per week, to a large and diverse audience and provided an informal seminar weekly for students and faculty members interested in the subject. The lecturer had an office in Baker Laboratory and was available to faculty and students for further discussion.” (7) There is also evidence that, “…Hevesy visited Harvard [University, Cambridge, MA] as a Baker Lecturer at Cornell in 1930…” (8). Neither of the authors of this Note/Letter was aware of Hevesy’s association with Cornell University despite our longstanding ties to Cornell until one of us (WCK) noticed the association in Hevesy’s biographical page on the official Nobel website (6). WCK obtained both his undergraduate degree and medical degree from Cornell in Ithaca and New York City, respectively, and spent his career in nuclear medicine. JRO did his nuclear medicine training at Columbia University and has subsequently been a faculty member of Weill Cornell Medical College for the last eleven years (with a brief tenure at Memorial Sloan Kettering Cancer Center (affiliated with Cornell)), and is now the program director of the Nuclear Medicine residency and Chief of the Molecular Imaging and Therapeutics Section. -
Europe's Favorite Chemists?
ability and on uncertainty evaluation of chemical mea- surement results. Participants can take this expertise back to their home countries and/or become regional coordinators for IMEP in their respective countries. In collaboration with EUROMET and CCQM, IMEP samples are offered for the organization of EUROMET key or supplementary comparisons and, where appro- priate, for the organization of CCQM key comparisons or pilot studies. In its role as a neutral, impartial international evalu- ation program, IMEP displays existing problems in chemical measurement. IRMM is dedicated to tackling this problem and will, where possible, collaborate with international bodies, education and accreditation au- thorities, and NMIs to achieve more reliable measure- ments and contribute to setting up an internationally structured measurement system. Ellen Poulsen (Denmark) preparing graphs for the IMEP-9 participants’ report on trace elements in water. Europe’s Favorite Chemists? Choosing Europe’s Top 100 Chemists: birth of Christ is quite forgotten in general. An addi- A Difficult Task tional irony lies in the fact that recent evidence from history, archaeology, and astronomy suggests a birthdate This article by Prof. Colin Russell (Department of His- about seven years earlier, so the real millennium came tory of Science and Technology, Open University, and went unnoticed in the early 1990s. However that Milton Keynes, England MK6 7AA, UK) was com- may be, the grand spirit of revelry and bonhomie can- missioned by Chemistry in Britain and published by not be quenched by such mundane considerations, and that magazine in Vol. 36, pp. 50–52, February 2000. celebration there shall be. Nor are societies to be left The list of Europe’s 100 distinguished chemists was behind in the general euphoria. -
THEODOR Ft5rster 1910
THEODOR Ft5RSTER 1910 - 19714 Journal of Luminescence 12/13 (1976) 8—12 © North-Holland Publishing Company MEMORIAL FOR THE LATE PROFESSOR THEODOR FORSTER A. WELLER Max-Planck-Institut für Biophysikalische Chemie Göttingen, Fed. Rep. Germany On the 20th of May 1974 Theodor Forster died of a heart attack at the age of 64 while he was on his way to the Institute of Physical Chemistry at the University of Stuttgart whose director he had been for 23 years. In view of his numerous important and fundamental contributions to almost all aspects of luminescence, it is indeed appropriate to pay honour to the man and his work today. Theodor Forster was born on May 15, 1910, in Frankfurt, Germany. He went to school there (the same school which about 30 years before Otto Hahn had attended), and after completing his Abitur in 1929, he became a student of physics and mathe- matics at Frankfurt University. At that time there was very little red tape at German Universities. It was for in- stance possible to study physics and/or mathematics without an examination except for the final oral examination after having finished the PhD thesis. As a consequence the good student, in general, was able to finish the University in surprisingly short time; and so in 1933 at the age of 23 Theodor Förster was promoted to Dr. phil. with a thesis entitled “ZurPolarisation von Elektronen durch Reflexion” under the tutelage of E. Madelung. Still before having finished his thesis he had become an Assistant (scientific co- worker) of ProfessorKarl-Friedrich Bonhoeffer. -
4. Marie Curie, Ethics and Research
CATHERINE MILNE 4. MARIE CURIE, ETHICS AND RESEARCH INTRODUCTION Recently Chemistry and Engineering News (Bard, Prestwich, Wight, Heller, & Zimmerman, 2010) carried a series of commentaries on the culture of academic research in chemistry with a focus on the role of funding in research. Initially, Alan Bard decried how decisions about tenure seem more and more to focus on grant getting rather than consideration of the applicant’s accomplishments generated because of access to this funding. Bard argued further that often this funding was based, not on the quality of the proposed research but on a researcher’s ability to “hype their research” and damming truth in the process (Bard et al., 2010, p. 27). According to him, there was a disturbing trend in universities for researchers to be encouraged, almost expected, to generate patents and from there, even to be involved in initiating “start up” companies. Other researchers responded. Glen Prestwich and Charles Wight (Bard et al., 2010) argue that if researchers were able to present a clear connection between “taxpayer dollars” and funded research, the public would realize the value that science delivers. Prestwich and Wight argue further that a new cadre of researchers is involved in identifying real world problems, translating basic research into applications, and creating products as well as publications. Moving from basic research to applications that address real world problems is called translational research, and Prestwich and Wight see this research as a positive development in chemistry. Adam Heller (Bard et al., 2010) weighs in claiming that the pursuit of “patent-protected, people-serving products” was not “a sad sign of our times but a reawakening of the proud history of academic chemistry and chemical engineering” (p. -
Enriching the Earth: Fritz Haber, Carl Bosch, and the Transformation of World Food Production. by Vaclav Smil. Cambridge: MIT Press, 2004
Book Reviews / 383 nessing water power to produce scythes for farmers, spindles for textile mills, and cotton thread. Small emphasizes that these were not the activities of ab- sentee investors but of local men and women who mixed manufacturing with agriculture. Beauty and Convenience focuses on a farming community that has received scant attention from historians, but Small makes a convincing case that the way in which the farmers of Sutton fashioned and re-fashioned their houses and landscape reveals their full participation in the historic transformations of their era. Kenneth Hafertepe Baylor University Enriching the Earth: Fritz Haber, Carl Bosch, and the Transformation of World Food Production. By Vaclav Smil. Cambridge: MIT Press, 2004. 360 pp., $19.95, paperback, ISBN 0-262-69313-5. What is the most important technological invention in the twentieth century? Vaclav Smil makes the cogent argument that it is the discovery and industrial- ization of ammonia synthesis by Fritz Haber and Carl Bosch. Without indus- trial N-fixation, as much as two-fifths of the world’s population would starve for want of available protein in their diet, and major advances in high-pressure industrial processes would have been delayed. Likewise, the Haber-Bosch process facilitated world munitions production; encouraged agricultural ex- pansion onto marginal lands, leading to greater greenhouse emissions and soil degradation; and (because of inherent inefficiencies in nitrogen recovery by plants) has led to an unbalanced enrichment of natural ecosystems by nitrogen. It is an odd book given the title. History and society would be unalterably different without Haber and Bosch, but these protagonists do not appear un- til chapters four and five, respectively; then their lives are described in the most perfunctory manner. -
THEODORE WILLIAM RICHARDS January 31, 1868-April 2, 1928
NATIONAL ACADEMY OF SCIENCES T H E O D O R E W I L L I A M R ICHARDS 1868—1928 A Biographical Memoir by JAMES BRYANT CONANT Any opinions expressed in this memoir are those of the author(s) and do not necessarily reflect the views of the National Academy of Sciences. Biographical Memoir COPYRIGHT 1974 NATIONAL ACADEMY OF SCIENCES WASHINGTON D.C. THEODORE WILLIAM RICHARDS January 31, 1868-April 2, 1928 BY JAMES BRYANT CONANT HEODORE WILLIAM RICHARDS was a precocious son of distin- Tguished parents. He was born in Philadelphia on January 31, 1868, the third son and fifth child of William Trost Richards and Anna Matlack Richards, who had been married on June 30, 1856. As strict members of the Society of Friends, the Matlack family looked askance at a young man who earned his living painting pictures. Anna was "read out of meeting." The Quaker marriage ceremony took place in the house of a friend. The first months of the honeymoon were devoted to the com- position and illustration of a manuscript volume of poems for the lady who had first brought the young couple together. A mutual interest in Browning and Tennyson had started an acquaintanceship which rapidly became a romance. An old friend and fellow artist of Philadelphia reminiscing long after W. T. Richards had established his reputation as a landscape painter said, "He amazed me by getting married and resigning his position as designer [in a local firm manufacturing gas fixtures] in order to devote himself entirely to his art. -
Wilhelm Ostwald – the Scientist
ARTICLE-IN-A-BOX Wilhelm Ostwald – The Scientist Friedrich Wilhelm Ostwald was born on September 2, 1853 at Riga, Latvia, Russia to Gottfried Ostwald, a master cooper and Elisabeth Leuckel. He was the second son to his parents who both were descended from German immigrants. He had his early education at Riga. His subsequent education was at the University of Dorpat (now Tartu, Estonia) where he enrolled in 1872. At the university he studied chemistry under the tutelage of Carl ErnstHeinrich Schmidt (1822– 1894) who again was a pupil of Justus von Liebig. Besides Schmidt, Johannes Lemberg (1842– 1902) and Arthur von Oettingen (1836–1920) who were his teachers in physical chemistry were also principal influences. It was in 1877 that he defended his thesis ‘Volumchemische Studien über Affinität’. Subsequently he taught as Privatdozent for a couple of years. During this period, his personal life saw some changes as well. He wedded Helene von Reyher (1854–1946) in 1880. With Helene, he had three sons, and two daughters. Amongst his children, Wolfgang went on to become a famous colloid chemist. On the strength of recommendation from Dorpat, Ostwald was appointed as a Professor at Riga Polytechnicum in 1882. He worked on multiple applications of the law of mass action. He also conducted measurements in chemical reaction kinetics as well as conductivity of solutions. To this end, the pyknometer was developed which was used to determine the density of liquids. He also had a thermostat built and both of these were named after him. He was prolific in his teaching and research which helped establish a school of science at the university. -
Total Knowledge? Encyclopedic Handbooks in the Twentieth-Century Chemical and Life Sciences
BJHS Themes (2020), 5, 187–203 doi:10.1017/bjt.2020.11 RESEARCH ARTICLE Total knowledge? Encyclopedic handbooks in the twentieth-century chemical and life sciences Mathias Grote* Institut für Geschichtswissenschaften, Unter den Linden 6, 10099 Berlin, Germany *Email: [email protected] Abstract Encyclopedic handbooks have been household names to scientists – Gmelins Handbuch der anorga- nischen Chemie to chemists, Bergey’s Manual of Determinative Bacteriology to microbiologists. Their heavy tomes were consulted for reference, and their contents taken as authoritative. This paper ana- lyses the development of this genre as well as of ‘handbook science’. Handbooks and their claim to provide comprehensive factual knowledge on a subject should be understood as a reaction to the scattering of knowledge in modern periodical print as discussed by Wilhelm Ostwald or Ludwik Fleck. A comparative analysis of the actors, the institutions and practices of compiling and editing a German and an American handbook project around mid-century reveals commonalities and differ- ences in how twentieth-century sciences have attempted to cope with the acceleration and disper- sion of knowledge generation before computing. These attempts have resulted in different conceptions of a book, from compilation to organic whole. Moreover, the handbook’s claim to com- prise lasting facts makes it a fitting case in point to reflect on the temporality of knowledge and the relevance of books to the sciences. In 2018, the shelves dedicated to displaying Gmelins Handbuch der anorganischen Chemie in a science reference section at Berlin’s Staatsbibliothek at Potsdamer Platz were cleared. The hundreds of heavy tomes of this register of inorganic chemistry (detailing the names, properties and uses of thousands of substances) were on their way to the depot. -
From Physical Chemistry to Chemical Physics, 1913-1941
International Workshop on the History of Chemistry 2015 Tokyo From Physical Chemistry to Chemical Physics, 1913-1941 Jeremiah James Ludwig-Maximillian University, Munich, Germany There has never been one unique name for the intersection of chemistry and physics. Nor has it ever been defined by a single, stable set of methods. Nevertheless, it is possible and arguably rewarding to distinguish changes in the constellation of terms and techniques that have defined the intersection over the years. I will speak today about one such change, the advent and ascendancy of chemical physics in the interwar period. When the young Friedrich Wilhelm Ostwald first began to formulate his campaign for “physical chemistry” in 1877, he used the term almost interchangeably with two others, “general chemistry” and “theoretical chemistry.” According to his vision of what would soon become a new chemical discipline, physical chemistry would investigate and formulate the general principles that underlie all chemical reactions and phenomena. The primary strategy that he and his allies used to generate these principles was to formulate mathematical “laws” or “rules” generalizing the results of numerous experiments, often performed using measuring apparatus borrowed from physics. Their main fields of inquiry were thermochemistry and solution theory, and they avoided and often openly maligned speculations regarding structures or mechanisms that might underlie the macroscopic regularities embodied in their laws.1 In the first decades of the 20th-century, the modern atomic theory was firmly established, and with only a slight delay, the methods of 19th-century physical chemistry lost a considerable proportion of their audience. Theories relying upon atomistic thinking began to reshape the disciplinary intersections of chemistry and physics, and by the end of the 1930s, cutting-edge research into the general principles of chemistry looked quite different than it had at the turn of the century. -
Fritz Arndt and His Chemistry Books in the Turkish Language
42 Bull. Hist. Chem., VOLUME 28, Number 1 (2003) FRITZ ARNDT AND HIS CHEMISTRY BOOKS IN THE TURKISH LANGUAGE Lâle Aka Burk, Smith College Fritz Georg Arndt (1885-1969) possibly is best recog- his “other great love, and Brahms unquestionably his nized for his contributions to synthetic methodology. favorite composer (5).” The Arndt-Eistert synthesis, a well-known reaction in After graduating from the Matthias-Claudius Gym- organic chemistry included in many textbooks has been nasium in Wansbek in greater Hamburg, Arndt began used over the years by numerous chemists to prepare his university education in 1903 at the University of carboxylic acids from their lower homologues (1). Per- Geneva, where he studied chemistry and French. Fol- haps less well recognized is Arndt’s pioneering work in lowing the practice at the time of attending several in- the development of resonance theory (2). Arndt also stitutions, he went from Geneva to Freiburg, where he contributed greatly to chemistry in Turkey, where he studied with Ludwig Gattermann and completed his played a leadership role in the modernization of the sci- doctoral examinations. He spent a semester in Berlin ence (3). A detailed commemorative article by W. Walter attending lectures by Emil Fischer and Walther Nernst, and B. Eistert on Arndt’s life and works was published then returned to Freiburg and worked with Johann in German in 1975 (4). Other sources in English on Howitz and received his doctorate, summa cum laude, Fritz Arndt and his contributions to chemistry, specifi- in 1908. Arndt remained for a time in Freiburg as a cally discussions of his work in Turkey, are limited. -
Who Did Science Anyway?
Who Did Science Anyway? Some of the Men and Women Who Shape Our Worldview Arabic Scientists • When Feudalism reduced the demand for science in Europe, scholars fled to Arabic-Islamic lands • Mathematics, Astronomy, Health and Medicine, Optics, and Chemistry flourished there during Europe’s Dark Ages Famous Arabic-Islamic Scientists • Ibn al-Shatir • Abu Ibn-Sina (Avicenna) • Ibn al-Haytham • Abu Al-Razi Arabic Astronomy Texts The Emerald Stone • Hermes Trismegistus – Legendary Founder of Alchemy The Emerald Tablet The goal of the Alchemists Translation by Isaac Newton • …Separate the Earth from the Fire, the subtle from the gross, sweetly with great industry…By this means you shall have the glory of the whole world and thereby all obscurity shall fly from you. Tools of the Alchemist Often Hidden from View Science Becomes Respectable • August the Strong and other leaders support science. Primarily for their own gain– to make porcelain Wilhelm Ostwald • Born in Riga, Latvia, in 1853 • Chemistry and Physics teacher at University of Leipzig • Pioneer in Electrochemistry • Nobel Prize 1909 The House of Energy The Home of Wilhelm Ostwald Ostwald’s Laboratory Ostwald’s Color Experiments As Explained by his Grandaughter William Perkins and the Chemistry of Dyeing • William Perkins • At the age of 18, this English youth invented the dye, Mauve. • His synthetic dye forever changed how we color fabrics Technical University of Dresden Professor Hartmann Early dyes were from plant pigments Blaise Pascal • Invented first digital calculator at age 19 • Did experiments with atmospheric pressure • Argued for the existence of vacuums • Brilliant mathematician The First Mechanical Calculator – The Pascaline Zwinger Museum – Dresden The Curies • Marie Curie Born in Poland Coined term ’’radioactivity” Discovered two new elements in pitchblende ore Nobel Prize Physics (1903) Chemistry (1911) Pierre Curie Research in magnetic effects Nobel Prize 1903 Physics Uranium came from mines in Jachimov, C.R. -
Book Review Tuxedo Park, by Jennet Conant (Simon & Schuster, 2002), 330 Pp., ISBN 0684872870, $26.00
Book Review Tuxedo Park, by Jennet Conant (Simon & Schuster, 2002), 330 pp., ISBN 0684872870, $26.00 Reviewed by Jane A. Roman Department of Chemistry, Regis College, Weston, MA In the early chapters of this book, Jennet Conant, granddaughter of James Conant former President of Harvard and esteemed scientist, describes brilliantly the life of Alfred Lee Loomis, philanthropist, scientist and Wall Street tycoon. Prompted by the mysterious circumstances surrounding the suicide of her granduncle, William Richards, son of Nobel laureate Theodore William Richards, Jennet using her granduncles’ notes and letters, wrote this biography, which is a small but significant chapter in the history of American science. Her accounts of Loomis depict his relationships with many Nobel Laureates in science and also detail an illicit love affair Loomis had with Manette Hobart, the wife of Garrett A. Hobart III, his protégé and secretary at Tuxedo Park. The setting for most of the book is the region of Tuxedo Park in Orange County, New York where Loomis established a research laboratory, funded solely by his personal fortune. Very important discoveries in radar detection, atomic fission, and other wartime inventions that led the allies to victory over the Germans were made there. Because the circumstances surrounding her granduncle’s death and the hush-up carried out by her family were indicative of the gentry at that time, Ms. Conant was prompted to reveal in her novel the relationship her granduncle had with Loomis in Tuxedo Park. From his papers and letters, she describes how Richards and his friend at Princeton, George Kistiakowsky, came to work at Tuxedo Park, often referring to it as a private scientific playground in the Ramapo Mountains.