“Without Such Freedom There Would Have Been No Shakespeare
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Rolf Tomas Nossum Oscar Buneman
Rita Meyer-Spasche; Rolf Tomas Nossum Oscar Buneman (1913-1993), Persecutions and Patronages: a Case Study of Political Impact on Research IPP 5/136 April, 2015 Oscar Buneman (1913-1993), Persecutions and Patronages: a Case Study of Political Impact on Research Rita Meyer-Spasche, Max Planck Institute for Plasma Physics, Boltzmannstr. 2, 85748 Garching, Germany [email protected] and Rolf Tomas Nossum, Department of Mathematics University of Agder, P.O.Box 422, N-4604 Kristiansand, Norway [email protected] Abstract We study scientific migration and patronage before and during the Second World War in the case of the student Oscar Buneman (1913-93), an eminent sci- entist later on. Our main source is the archive of the SPSL1. For those interested in Buneman2 these records are important because of informations not available elsewhere, for other historians because Buneman belonged to a minority, not well known and not investigated much: non-Jewish and non-communist, anti-Nazi active before and after emigration like Willy Brandt (1913-92) and others, but mainly interested in mathematics and its applications, not politics. Keywords: Scientific migration, scientific patronage, alien internment, Society for the Protection of Science and Learning, Oscar Buneman, computer simulation. MSC classification codes: 01A60, 01A74, 01A99, 65-03, 65Z05, 1 Introduction We study scientific migration and scientific patronage before and during the Second World War in the case of Oscar Buneman (n´eOscar B¨unemann, 1913-93), pioneer of the numerical simulation of plasmas and of the visualisation of computed results, still and animated, and founder of the field of computer simulation using particles. -
FNRS 1 Balloon
Technical Data Sheet 1 FNRS 1 BALLOOn Balloon External diameter : 30 metres Payload : 1000 kg Materials : cotton and rubber Fuel : hydrogen Construction : Riedinger Ballon Fabrik (A), in 1931 The balloon was inflated with hydrogen, since the production of helium was too expensive in 1930. The diameter of the inflated balloon was 30 metres, its volume 14,130 m3. The balloon’s payload was 1000 kg and it was therefore clearly oversized in relation to the load to be carried. Its capacity theoretically enabled it to lift a locomotive! The balloon’s envelope consisted of two layers of cotton bonded by an intermediate layer of rubber. The fabric was dyed yellow (chloramine). This colour absorbs part of the sun’s blue, violet and ultraviolet rays. On take-off the balloon took the shape of a pear. It was only at altitude, when the pressure fell, that the balloon became spherical. Gondola External diameter : 2.10 metres Empty weight : 136 kg Crew : 2 men Endurance : 24 hours Thickness : 3.5 mm Materials : aluminium Portholes : glass Average on board temperature : -2 to + 40°C! Manufacturer of gondola : Georges L’Hoir, Liège (B) Interior equipment : Jacques Destappes, mechanic, Brussels (B) In structural terms, the sphere offers the highest volume for the smallest surface area, and therefore the lowest weight. The 2.10 metre diameter meanwhile, according to Auguste Piccard, is “(…) the smallest dimension in which two observers and a great deal of instrumentation can be accommodated”. The first gondola was painted in two colours. It was thus able to present a light or a dark side to the sun. -
Sequencing As a Way of Work
Edinburgh Research Explorer A new insight into Sanger’s development of sequencing Citation for published version: Garcia-Sancho, M 2010, 'A new insight into Sanger’s development of sequencing: From proteins to DNA, 1943-77', Journal of the History of Biology, vol. 43, no. 2, pp. 265-323. https://doi.org/10.1007/s10739-009- 9184-1 Digital Object Identifier (DOI): 10.1007/s10739-009-9184-1 Link: Link to publication record in Edinburgh Research Explorer Document Version: Peer reviewed version Published In: Journal of the History of Biology Publisher Rights Statement: © Garcia-Sancho, M. (2010). A new insight into Sanger’s development of sequencing: From proteins to DNA, 1943-77. Journal of the History of Biology, 43(2), 265-323. 10.1007/s10739-009-9184-1 General rights Copyright for the publications made accessible via the Edinburgh Research Explorer is retained by the author(s) and / or other copyright owners and it is a condition of accessing these publications that users recognise and abide by the legal requirements associated with these rights. Take down policy The University of Edinburgh has made every reasonable effort to ensure that Edinburgh Research Explorer content complies with UK legislation. If you believe that the public display of this file breaches copyright please contact [email protected] providing details, and we will remove access to the work immediately and investigate your claim. Download date: 28. Sep. 2021 THIS IS AN ADVANCED DRAFT OF A PUBLISHED PAPER. REFERENCES AND QUOTATIONS SHOULD ALWAYS BE MADE TO THE PUBLISHED VERION, WHICH CAN BE FOUND AT: García-Sancho M. -
History of Scuba Diving About 500 BC: (Informa on Originally From
History of Scuba Diving nature", that would have taken advantage of this technique to sink ships and even commit murders. Some drawings, however, showed different kinds of snorkels and an air tank (to be carried on the breast) that presumably should have no external connecons. Other drawings showed a complete immersion kit, with a plunger suit which included a sort of About 500 BC: (Informaon originally from mask with a box for air. The project was so Herodotus): During a naval campaign the detailed that it included a urine collector, too. Greek Scyllis was taken aboard ship as prisoner by the Persian King Xerxes I. When Scyllis learned that Xerxes was to aack a Greek flolla, he seized a knife and jumped overboard. The Persians could not find him in the water and presumed he had drowned. Scyllis surfaced at night and made his way among all the ships in Xerxes's fleet, cung each ship loose from its moorings; he used a hollow reed as snorkel to remain unobserved. Then he swam nine miles (15 kilometers) to rejoin the Greeks off Cape Artemisium. 15th century: Leonardo da Vinci made the first known menon of air tanks in Italy: he 1772: Sieur Freminet tried to build a scuba wrote in his Atlanc Codex (Biblioteca device out of a barrel, but died from lack of Ambrosiana, Milan) that systems were used oxygen aer 20 minutes, as he merely at that me to arficially breathe under recycled the exhaled air untreated. water, but he did not explain them in detail due to what he described as "bad human 1776: David Brushnell invented the Turtle, first submarine to aack another ship. -
The History of Dräger Johann Heinrich Dräger (1847–1917) Dr
D The History of Dräger Johann Heinrich Dräger (1847–1917) Dr. Bernhard Dräger (1870–1928) Dr. Heinrich Dräger (1898–1986) Contents 04 The Early Years: From Inventor’s Workshop to Medical and Safety Technology Specialist 10 Turbulent Times: Between Innovation Challenges and Political Constraints 20 New Beginnings: Transformation to a Modern Technology Group 30 Globalization: Realignment as a Global Technology Leader Dr. Christian Dräger (*1934) Theo Dräger (*1938) Stefan Dräger (*1963) Technology for Life for over 120 years Dräger is technology for life. Every day we take on the responsibility and put all our passion, know-how and experience into making life better: With outstanding, pioneering technology which is 100 percent driven by life. We do it for all the people around the world who entrust their lives to our technology, for the environment and for our common future. The key to the continued success of the Company, based in Lübeck, Germany, is its clear focus on the promising growth industries of medical and safety technology, its early expansi- on to international markets, and above all, the trust it has built and maintains with custo- mers, employees, shareholders, and the general public. The Company has always been managed by entrepreneurial members of the Dräger family, who have responsibly met new challenges while never losing sight of the vision: Johann Heinrich Dräger, Dr. Bernhard Dräger, Dr. Heinrich Dräger, Dr. Christian Dräger, Theo Dräger, and now Stefan Dräger. Healthy growth has consistently remained the main objective of the family business and shapes decisions within the Company even now. Founded in 1889 by Johann Heinrich Dräger, the family business has been headed in the fifth generation by CEO Stefan Dräger since 2005. -
Voluntary Refugee Work in Britain, 1933–39
Voluntary Refugee Work in Britain, 1933–39. An Overview by Susan Cohen Zusammenfassung Im Artikel wird die Arbeit von Flüchtlingskomitees untersucht, die sich in Großbritan- nien vor und während des Zweiten Weltkriegs gründeten und dort betätigten. Abstract The focus of this paper is of the work undertaken by refugee committees which were established and operating in Britain before and during the Second World War. The refugee crisis in Britain Following Hitler’s accession to power as German Chancellor in January 1933, many Germans, especially Jews, began to leave their homeland for safe havens abroad. Britain was one country where they sought refuge, and British offi- cials soon became concerned about the financial implications of an influx of destitute foreigners. In response, the Anglo-Jewish community, including the recently formed Central British Fund and the Jewish Refugees Committee (JRC), relieved the British government of all responsibility for refugees from Europe, by guaranteeing to take on the financial and social burden themselves. The situation was manageable until March 1938, when, following the An- schluss (annexation of Austria), there was a huge increase in the number of would-be refugees, putting an unsustainable burden on the community or- ganisations. In order to conserve their dwindling resources, they were forced to exclude future applicants, and to impose a selections process.1 There were already official restrictions in place to control the numbers allowed into the country, besides which a £50 guarantee was required for every person, to fund 1 London, Louise: Whitehall and the Jews 1933–48: British Immigration Policy and the Holocaust. (Cambridge: Cambridge University Press, 2000) pp. -
Downloaded From
bioRxiv preprint doi: https://doi.org/10.1101/250399; this version posted January 19, 2018. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-NC-ND 4.0 International license. Charting the cross-functional map between transcription factors and cancer metabolism Karin Ortmayr 1, Sébastien Dubuis 1 and Mattia Zampieri 1,* Affiliations: 1 Institute of Molecular Systems Biology, ETH Zurich, Auguste-Piccard-Hof 1, CH-8093 Zurich, Switzerland. *To whom correspondence should be addressed: [email protected] Abstract Transcriptional reprogramming of cellular metabolism is a hallmark feature of cancer. However, a systematic approach to study the role of transcription factors (TFs) in mediating cancer metabolic rewiring is missing. Here, we chart a genome-scale map of TF-metabolite associations in human using a new combined computational-experimental framework for large-scale metabolic profiling of adherent cell lines, and the integration of newly generated intracellular metabolic profiles of 54 cancer cell lines with transcriptomic and proteomic data. We unravel a large space of dependencies between TFs and central metabolic pathways, suggesting that the regulation of carbon metabolism in tumors may be more diverse and flexible than previously appreciated. This map provides an unprecedented resource to predict TFs responsible for metabolic transformation in patient-derived tumor samples, opening new opportunities in designing modulators of oncogenic TFs and in understanding disease etiology. Introduction Transcription factors (TFs) are at the interface between the cell’s ability to sense and respond to external stimuli or changes in internal cell-state1. -
Professor Michael Neuberger: Biochemist Behind Life-Saving
Professor Michael Neuberger: Biochemist behind life-saving ... http://www.independent.co.uk/news/obituaries/professor-mich... THE INDEPENDENT FRIDAY 08 NOVEMBER 2013 NEWS VOICES SPORT TECH LIFE PROPERTY ARTS + ENTS TRAVEL MONEY INDYBEST BLOGS UK World Business People Science Environment Media Technology Education Obituaries Diary 1 of 15 08/11/2013 10:36 Professor Michael Neuberger: Biochemist behind life-saving ... http://www.independent.co.uk/news/obituaries/professor-mich... News > Obituaries Professor Michael Neuberger: Biochemist behind life-saving work on the immune system He was seen as an outstanding mentor, with his sharp intellect and ability to get to the core issue Friday 01 November 2013 Shares: 28 PRINT A A A FOOD+DRINK Professor Michael Neuberger was pivotal to the ADS BY GOOGLE great advances in biomedical research, with his You Could Be Owed unravelling of the mysteries of human £2400 If You've Ever Had A Loan antibodies. A Fellow of Trinity College, You Could Be Owed A Cambridge where he was a director of studies in Refund Natural Sciences, he was also deputy director of LloydsTSB.BankRefunds.ne t Cambridge’s Medical Research Council FreeWatt Solar PV Laboratory of Molecular Biology (LMB). Biomass Lincs Renewable Energy With the demand for a new class of drugs to Matcha the day: Company of 2012. Heard about the fight diseases, such as cancer, as well as immune Commercial & Domestic soft drink set to be Systems disorders such as rheumatoid arthritis, the the next big thing? www.freewatt.co.uk bio-tech industries have shown rapid growth. Buddhist monks Top10 Broadband in the Over 25 years, Neuberger made significant certainly have – they've UK been enjoying this Broadband From £2.50. -
Esther Simpson - the Unknown Heroine
From The Jewish Chronicle, 11 May 2017 https://www.thejc.com/news/news-features/esther-simpson-the-unknown-heroine- 1.438317?highlight=Simpson David Edmonds May 11, 2017 Esther Simpson - the unknown heroine The extraordinary story of how one woman offered refuge to philosophers, scientists and musicians fleeing from the Nazis, and in doing so reshaped the cultural and intellectual landscape of the Western World. It’s not clear how Professor Stanislaus Jolles died. The year was 1943 and he was in his mid-eighties. But did he die from natural causes, did he kill himself, or was he killed? He was a Jew living in Berlin, after the systematic extermination of Jews had already begun, so anything is possible. The fate of his wife, Adele, is documented. In the year of her husband’s passing, she was transported south from the German capital to Theresienstadt concentration camp in Czechoslovakia. She perished in 1944. She was Miss Simpson to strangers, Esther to colleagues, Tess to some of her close friends. And she had many, many friends, among whom she counted Ludwig Wittgenstein, often described as the greatest philosopher of the twentieth century. Wittgenstein had been acquainted with Stanislaus Jolles for over three decades, ever since he’d left his palatial Viennese home in 1906 to study engineering in Berlin. Professor and Mrs Jolles had been his hosts. Stanislaus was a mathematician who came to look upon Ludwig like a son; he and his wife called him ‘little Wittgenstein’. During World War I, when Wittgenstein was fighting for the Austrians on the Eastern Front, they furnished him with a constant supply of bread, fruit-cake, and cigarettes. -
Journal BAS ^ Association of Jewish Refugees the Rescue of Refugee Scholars
VOLUME 9 NO.2 FEBRUARY 2009 journal BAS ^ Association of Jewish Refugees The rescue of refugee scholars eventy-five years ago, in 1933, Robbins on the spot. The AAC, which was the Academic Assistance Council, essentially mn from within the academic known from 1936 as the Society for community in Britain, then came into being the Protection of Science and very quickly. SLeaming, was founded. The AAC/SPSL was In May 1933, a letter signed by a list of a remarkable body that played a unique part leading figures in British university and in the rescue of scholars and scientists, intellectual life was published in The Times, mostly Jewish, who had been dismissed by proposing the establishment of an organi the Nazis from their posts at German and sation to rescue the careers and lives of Austrian universities and whose livelihoods, displaced academics. The Council's initial and lives, were endangered. declaration was signed by over 40 of Brit After the passing of the Gesetz zur ain's most eminent men of scholarship, Wiederherstellung des Bemfsbeamtentums including John Maynard Keynes, Gilbert of 7 April 1933, aimed at removing racially Murray, the Presidents of the Royal Society and politically undesirable persons from and the British Academy, and 9 Chancel the civil service, something like a quarter Esther Simpson OBE lors or Vice-Chancellors of universities and of the academic staff at German sciences), an extraordinary record of 7 Masters or Directors of colleges. The universities and research institutes were academic achievement. celebrated scientist Lord Rutherford became dismissed, of whom some 2,000, or about The two principal initiators of the AAC the AAC's first president. -
European Influences in the Fine Arts: Melbourne 1940-1960
INTERSECTING CULTURES European Influences in the Fine Arts: Melbourne 1940-1960 Sheridan Palmer Bull Submitted in total fulfilment of the requirements of the degree ofDoctor ofPhilosophy December 2004 School of Art History, Cinema, Classics and Archaeology and The Australian Centre The University ofMelbourne Produced on acid-free paper. Abstract The development of modern European scholarship and art, more marked.in Austria and Germany, had produced by the early part of the twentieth century challenging innovations in art and the principles of art historical scholarship. Art history, in its quest to explicate the connections between art and mind, time and place, became a discipline that combined or connected various fields of enquiry to other historical moments. Hitler's accession to power in 1933 resulted in a major diaspora of Europeans, mostly German Jews, and one of the most critical dispersions of intellectuals ever recorded. Their relocation to many western countries, including Australia, resulted in major intellectual and cultural developments within those societies. By investigating selected case studies, this research illuminates the important contributions made by these individuals to the academic and cultural studies in Melbourne. Dr Ursula Hoff, a German art scholar, exiled from Hamburg, arrived in Melbourne via London in December 1939. After a brief period as a secretary at the Women's College at the University of Melbourne, she became the first qualified art historian to work within an Australian state gallery as well as one of the foundation lecturers at the School of Fine Arts at the University of Melbourne. While her legacy at the National Gallery of Victoria rests mostly on an internationally recognised Department of Prints and Drawings, her concern and dedication extended to the Gallery as a whole. -
Guide to the Martin Klein Collection
Guide to The Martin Klein Collection The Francis Russell Hart Nautical Collections Compiled by Anna Britton The Francis Russell Hart Nautical Collection MIT Museum Cambridge, Massachusetts 1 © 2019 Massachusetts Institute of Technology All rights reserved. No portion of this book may be reproduced without written permission of the publisher. Published by The MIT Museum 265 Massachusetts Avenue Cambridge, Massachusetts 02139 TABLE OF CONTENTS 2 Acknowledgments 4 Biographical Note 5 Scope and Content 6 Series Description I: Technical Literature and Archival Material 7 Series Description II: Manuals 27 Series Description III: Slides 30 Appendix A: Artifacts 37 Appendix B: Sonar and Personal Files 38 Appendix C: Reference Books 40 Appendix D: Interviews and Transcripts 44 Acknowledgments The MIT Museum wishes to thank Martin Klein for his long service to the MIT Museum as a member of the Collections Committee and for his interest in assisting the Museum to acquire significant collections documenting undersea sensing technologies. Klein’s own extensive professional and personal collection of archives and slides is the core collection defined in this guide. 3 We also acknowledge Martin Klein’s major support in providing resources to catalog and digitize substantial elements of the Martin Klein Collection. He has also maintained a keen interest in the work and advised on priorities for digitization. The majority of the collection was processed and entered in the Museum’s database by Freya Levett between 2016 and 2017. Additional archival materials were digitized and added to the database by Anna Britton from 2018 to 2019. Anna Britton organized and compiled the content in this guide based on her knowledge of the collection, its database records, and related materials not yet cataloged.