Crucible of Science: the Story of the Cori Laboratory
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Alfred Nobel
www.bibalex.org/bioalex2004conf The BioVisionAlexandria 2004 Conference Newsletter November 2003 Volume 1, Issue 2 BioVisionAlexandria ALFRED NOBEL 2004 aims to celebrate the The inventor, the industrialist outstanding scientists and scholars, in a he Nobel Prize is one of the highest distinctions recognized, granting its winner century dominated by instant fame. However, many do not know the interesting history and background technological and T that led to this award. scientific revolutions, through its It all began with a chemist, known as Alfred Nobel, born in Stockholm, Sweden in 1833. Nobel Day on 3 April Alfred Nobel moved to Russia when he was eight, where his father, Immanuel Nobel, 2004! started a successful mechanical workshop. He provided equipment for the Russian Army and designed naval mines, which effectively prevented the British Royal Navy from moving within firing range of St. Petersburg during the Crimean War. Immanuel Nobel was also a pioneer in the manufacture of arms, and in designing steam engines. INSIDE Scientific awards .........3 Immanuel’s success enabled him to Alfred met Ascanio Sobrero, the Italian Confirmed laureates ....4 Lady laureates ............7 provide his four sons with an excellent chemist who had invented Nitroglycerine education in natural sciences, languages three years earlier. Nitroglycerine, a and literature. Alfred, at an early age, highly explosive liquid, was produced by acquired extensive literary knowledge, mixing glycerine with sulfuric and nitric mastering many foreign languages. His acid. It was an invention that triggered a Nobel Day is interest in science, especially chemistry, fascination in the young scientist for many dedicated to many of was also apparent. -
Biochemistrystanford00kornrich.Pdf
University of California Berkeley Regional Oral History Office University of California The Bancroft Library Berkeley, California Program in the History of the Biosciences and Biotechnology Arthur Kornberg, M.D. BIOCHEMISTRY AT STANFORD, BIOTECHNOLOGY AT DNAX With an Introduction by Joshua Lederberg Interviews Conducted by Sally Smith Hughes, Ph.D. in 1997 Copyright 1998 by The Regents of the University of California Since 1954 the Regional Oral History Office has been interviewing leading participants in or well-placed witnesses to major events in the development of Northern California, the West, and the Nation. Oral history is a method of collecting historical information through tape-recorded interviews between a narrator with firsthand knowledge of historically significant events and a well- informed interviewer, with the goal of preserving substantive additions to the historical record. The tape recording is transcribed, lightly edited for continuity and clarity, and reviewed by the interviewee. The corrected manuscript is indexed, bound with photographs and illustrative materials, and placed in The Bancroft Library at the University of California, Berkeley, and in other research collections for scholarly use. Because it is primary material, oral history is not intended to present the final, verified, or complete narrative of events. It is a spoken account, offered by the interviewee in response to questioning, and as such it is reflective, partisan, deeply involved, and irreplaceable. ************************************ All uses of this manuscript are covered by a legal agreement between The Regents of the University of California and Arthur Kornberg, M.D., dated June 18, 1997. The manuscript is thereby made available for research purposes. All literary rights in the manuscript, including the right to publish, are reserved to The Bancroft Library of the University of California, Berkeley. -
Changing the Face of Medicine Site Support Notebook—Contents Page
Changing the Face of Medicine Site Support Notebook—Contents Page (Note: The Site Support Notebook is also available at http://www.ala.org/publicprograms/changingthefaceofmedicine Click on “Site Support Notebook” ) Instructions for assembling exhibition units and replacing panels, and detailed instructions for operating the interactive kiosks will be distributed separately for later insertion into this notebook. Front notebook pocket: Information on The National Library of Medicine Front manila insert: Workshop agenda (front) ; coordinator contact list (back) Back notebook pocket: ALA Public Programs brochure; Cultural Programs survey; application forms for ALA Jewish literature reading and discussion program Section 1 (blue tab)----General Section 3 (green)-Programming Troubleshooting 1 Exhibition support materials 24 Exhibition itinerary 2 Exhibition themes 25 Electronic discussion list Programming ideas 26 for exhibit coordinators 4 Grants for programming 28 Security and insurance 5 Telling legislators 5 Section 4 (yellow)----Resources Americans with Disabilities Act 6 Books and videos 29 Web sites 30 Section 2 (clear)------ Publicity Films 31 (This section is also on CD and online) Exhibition text 32 Official exhibition credits 7 Publicity approval 8 Section 5 (red) --------Logistics Permitted publicity images 8 Exhibit shipping and receiving 54 PR image captions & credits 9 Exhibition/kiosk Guidelines for image use 10 condition report form 55 PR to announce library selection 11 Final report form 60 Calendar listing/media alert 13 -
Know About These Women Scientists?
Know About These Women Scientists? SHOILI PAL 1. How many women have 7. Jane Goodall is the got the Nobel Prize till world’s leading Knowledge date? expert on which a) 24 animal? b) 3 4 a) Crabs c) 44 b) Chimpanzees d) 54 c) Storks d) Ants 2. In what branch of science did Nobel Laureate Barbara McClintock work? a) Astrophysics b) Genetics 8. Who is considered to be Test Your Test c) Inorganic Chemistry d) Neurology the world’s first computer programmer? 3. Caroline a) George Stibitz Herschel b) Grace Hopper was the c) Charles Babbage first woman d) Augusta Ada King to find which heavenly object? 9. Who developed the first a) A planet compiler for a computer b) A satellite programming language, c) A galaxy instrumental for d) A comet developing COBOL? a) Grace Hopper b) Charles Babbage c) Augusta Ada King d) George Stibitz 4. Who was the first woman in space? a) Kathryn D. Sullivan 10. Ada Yonath is known for her b) Svetlana Savitskaya work on which of the c) Sally Ride following? d) Valentina Tereshkova a) Ribosomes b) Telescopes c) Semiconductors 5. Who was the first civilian d) Animal Conservation in space? a) Judith Resnik b) Valentina Tereshkova c) Yuri Gagarin 11.Which of the d) Neil Armstrong following children’s authors was also an expert on fungi? 6. Who was the first woman a) Beatrix Potter to be granted a patent by b) J.K. Rowling the USPTA? c) Holly Black a) Ellen Ochoa d) Enid Blyton b) Grace Hopper c) Mary Kies d) Sarah Boone SCIENCE REPORTER, JANUARY 2012 24 Point Counterpoint 17. -
Selma Lagerlof Mårbacka , 1858 - 1940 )
1903 Marie Curie (Polonia, 1867- Francia 1934), FISICA/FISIKA 1905 Bertha von Suttner (Praga, j Viena, j1914 ), PAZ/PAKEA 1909 Selma Lagerlof Mårbacka , 1858 - 1940 ), LITERATURA Marie Curie (Polonia, 1867- Francia , 1934), KIMIKA/QUIMICA 1911 1926 Grazia Deledda (Cerdeña, 1871 - Roma, 1936) LITERATURA Sigrid Undset (Dinamarca , 1882 -Lillehammer , 1949 ) LITERATURA 1928 Jane Addams (Illinois, 1860—Chicago, 1935) PAKEA/PAZ 1935 Irène Joliot-Curie (Francia, 1897/ 1956), KIMIKA/QUÍMICA Pearl S. Buck (West Virginia , 1892 Vermont , 1973 ) LITERATURA 1945 Gabriela Mistral (Chile, 1889 - Estados Unidos, 1957) LITERATURA 1946 Emily Greene Balch (Estados Unidos 1867 - 1961 ) PAZ/PAKEA 1947 Gerty Cori (Estados Unidos 1896 – 21957 ) MEDIKUNTZA/MEDICINA 1963 María Goeppert-Mayer Katowice, 1906 - California, 1972), FISICA /FISIKA Dorothy Crowfoot Hodgkin 1964 (Inglaterra, 1910 - 1994) QUIMICA/KIMIKA 1966. Nelly Sachs Alemania , 1891 - Suecia ,1970 ) LITERATURA 1976 Betty Williams ( Belfast , Irlanda del Norte 1943 ) PAKEA/PAZ 1976 Mairead Maguire (Belfast , Irlanda del Norte , 1944 ) PAZ/PAKEA Rosalyn Yalow (EE. UU 1921 - 2011) MEDIKUNTZA/MEDICINA 1977 Agnes Gonxha Bojaxhiu 1979 (Teresa de Calcuta) (Macedonia, 1910- India, 1997) PAZ/PAKEA 1982 Alva Myrdal Relmer (1902 – 1986 ) PAZ/PAKEA Barbara McClintock 1983 (Estados Unidos, 1902- 1992) MEDIKUNTZA/MEDICINA 1986 Rita Levi-Montalcini (Italia, 1909- 1986). MEDIKUNTZA/MEDICINA Gertrude B. Elion 1988 (Estados Unidos, 1918 - 1999), MEDIKUNTZA/MEDICINA Aung San Suu Kyi 1991 (Burma, 1945) PAZ/PAKEA 1991 -
Edwin G. Krebs 73 Ed in Skeletal Muscle in Two Different Forms That They Designated a S Phos- Phorylase B and Phosphorylase a (2,3)
72 PROTEIN PHOSPHORYLATION AND CELLULAR REGULATION, I Nobel Lecture, December 8, 1992 by E DWIN G. K R E B S Departments of Pharmacology and Biochemistry, School of Medicine, SL-15, University of Washington, Seattle, WA 98195, USA. INTRODUCTION This presentation and the one to be given immediately thereafter will be concerned with the reversible phosphorylation of proteins and the role of this process in biological regulation. In addition to discussing our own early contributions to this field, Ed Fischer and I will describe some of the developments that have occurred subsequently. These developments have led to the realization that protein phosphorylation constitutes a major mechanism by which cellular processes are controlled. My own remarks will review the historical background that provided the setting in which our joint work was carried out in the 1950s and early 1960s. Then I’ll turn to a discussion of this work itself, to be followed by comments on the cyclic AMP-dependent protein kinase. Finally I will talk about the intracellular transmission of hormone and growth factor signals through protein kinase cascades. BACKGROUND By 1940, which is the year in which I entered medical school at Washington University in St Louis, it was well established that the breakdown of glyco- gen in skeletal muscle and other types of cells occurs by the process of phosphorolysis, catalyzed by the enzyme phosphorylase (for review, see ref. 1). Carl Cori was Professor and Chairman of the Department of Pharmacol- ogy at Washington University, when I started my training there, but he was soon to take over the Department of Biological Chemistry. -
Earl W. Sutherland Lecture Earl W
EARL W. SUTHERLAND LECTURE EARL W. SUTHERLAND LECTURE The Earl W. Sutherland Lecture Series was established by the SPONSORED BY: Department of Molecular Physiology and Biophysics in 1997 DEPARTMENT OF MOLECULAR PHYSIOLOGY AND BIOPHYSICS to honor Dr. Sutherland, a former member of this department and winner of the 1971 Nobel Prize in Physiology or Medicine. This series highlights important advances in cell signaling. MICHAEL S. BROWN, M.D NOBEL LAUREATE IN PHYSIOLOGY OR MEDICINE 1985 SPEAKERS IN THIS SERIES HAVE INCLUDED: SCAP: ANATOMY OF A MEMBRANE STEROL SENSOR Edmond H. Fischer (1997) Alfred G. Gilman (1999) Ferid Murad (2001) Louis J. Ignarro (2003) APRIL 25, 2013 Paul Greengard (2007) 4:00 P.M. 208 LIGHT HALL Eric Kandel (2009) Roger Tsien (2011) FOR MORE INFORMATION, CONTACT: Department of Molecular Physiology & Biophysics 738 Ann and Roscoe Robinson Medical Research Building Vanderbilt University Medical Center Nashville, TN 37232-0615 Tel 615.322.7001 [email protected] EARL W. SUTHERLAND, 1915-1974 MICHAEL S. BROWN, M.D. REGENTAL PROFESSOR Earl W. Sutherland grew up in Burlingame, Kansas, a small farming community that nourished his love for the outdoors and fishing, which he retained throughout DIRECTOR OF THE JONSSON CENTER FOR MOLECULAR GENETICS UNIVERSITY OF TEXAS his life. He graduated from Washburn College in 1937 and then received his M.D. SOUTHWESTERN MEDICAL CENTER AT DALLAS from Washington University School of Medicine in 1942. After serving as a medi- NOBEL PRIZE IN PHYSIOLOGY OR MEDICINE, 1985 cal officer during World War II, he returned to Washington University to train with MEMBER, NATIONAL ACADEMY OF SCIENCES Carl and Gerty Cori. -
Gerty Theresa Cori
NATIONAL ACADEMY OF SCIENCES G ERTY THERESA C ORI 1896—1957 A Biographical Memoir by J OSEPH LARNER 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 1992 NATIONAL ACADEMY OF SCIENCES WASHINGTON D.C. GERTY THERESA CORI August 8, 1896-October 26, 1957 BY JOSEPH LARNER ERTY AND CARL CORI'S most significant contributions Gwere the establishment of the cycle of carbohydrates known as "the Cori Cycle," the isolation of glucose 1-phos- phate, and the discovery of phosphorylase and phospho- glucomutase. These discoveries established the enzymatic pathways of glycogenolysis and glycolysis. In glycogen metabolism, Gerty Cori pioneered in the discovery of the debranching enzyme amylo-l,6-glucosidase and its use in the elucidation of glycogen structure by se- rial enzymatic degradation. This pioneering work led to the elucidation of the enzymatic defects in the glycogen storage diseases. Her studies, therefore, extended funda- mental scientific discoveries into the clinical arena, most particularly in the field of pediatrics, her original area of clinical interest and specialization. Gerty Theresa Radnitz was born on August 8, 1896, in Prague, at that time part of the Austro-Hungarian empire. Otto Radnitz, her father, was director general of a sugar refinery in Bohemia. Her mother's brother was professor of pediatrics at the University of Prague. Gerty studied at home until the age of ten, when she went to a girls' prepa- ratory school, from which she graduated in 1912. In 1914, after passing her final examination (matura) at the Tetschen 111 112 BIOGRAPHICAL MEMOIRS Real Gymnasium, she enrolled as a medical student at the Carl Ferdinand University, the German university of Prague. -
5. Bioenergetics
Life Sciences - LS (Molecules and their interaction relevant to Biology) 5. BIOENERGETICS Oxidative Phosphorylation Oxidative phosphorylation (or OXPHOS in short) is the metabolic pathway in which the mitochondria in cells use their structure, enzymes, and energy released by the oxidation of nutrients to reform ATP. Although the many forms of life on earth use a range of different nutrients, ATP is the molecule that supplies energy to metabolism. Almost all aerobic organisms carry out oxidative phosphorylation. Oxidative phosphorylation began with the report in 1906 by Arthur Harden of a vital role for phosphate in cellular fermentation, but initially only sugar phosphates were known to be involved. 1940s, Herman Kalckar work on this between the oxidation of sugars and the generation of ATP was firmly established, confirming the central role of ATP in energy transfer that had been proposed by Fritz Albert Lipmann in 1941. Later, in 1949, Morris Friedkin and Albert L. Lehninger proved that the coenzyme NADH linked metabolic pathways such as the citric acid cycle and the synthesis of ATP. This pathway is probably so pervasive because it is a highly efficient way of releasing energy, compared to alternative fermentation processes such as anaerobic glycolysis. 5.1 Electron Transport Chain The electron transport chain (aka ETC) is a process in which the NADH and [FADH ] produced 2 during glycolysis, -oxidation, and other catabolic processes are oxidized thus releasing energy in the form of ATP. The mechanism by which ATP is formed in the ETC is called chemiosmotic phosphorylation. Fig. : Electron Transport Chain Overview The electron transport chain is present in multiple copies in the inner mitochondrial membrane of eukaryotes and the plasma membrane of prokaryotes. -
KALCKAR, HERMAN MORITZ (B
ndsbv4_K 9/25/07 1:11 PM Page 71 K KALCKAR, HERMAN MORITZ (b. ily members were “mainly free-thinkers” and his father Copenhagen, Denmark, 26 March 1908; d. Cambridge, was primarily secular, his mother was more observant and Massachusetts, 17 May 1991), biochemistry, enzymology, encouraged some religious education. Thus, Kalckar molecular biology. learned “a minimum of Hebrew” at the Copenhagen main synagogue (Kalckar, 1991, p. 2). Kalckar’s biochemical contributions were multifac- eted. His initial work opened an investigative pathway to Kalckar attended the Østre Borgerdyd Skole, located what has come to be called oxidative phosphorylation. As a short distance from home, which he described as “inter- a mature investigator, his utilized his laboratory to play a esting and rewarding” and having an “Athenian flavor,” a characteristic that arose from the headmaster, a world- significant role in the rapidly evolving field of enzymol- renowned Greek scholar. His early scientific education ogy, and Kalckar introduced innovative ways of measuring also benefited from “a formidable and passionately enzymatic activity. A significant part of his enzymological devoted teacher in mathematical physics,” who signifi- work focused on galactose metabolism, and he was one of cantly influenced Kalckar’s decision to pursue a career in the first investigators to clarify the nature of the genetic research and teaching. The Danish Nobel Prize–winning disorder galactosemia. Like many twentieth-century bio- (Physiology or Medicine, 1920) physiologist August chemists, Kalckar did not restrict his work to any single Krogh shaped Kalckar’s biological interests by some organism or tissue, and he contributed equally to the human physiology demonstrations. -
Biological Thermodynamics~Tqw~ Darksiderg
Chapter 2 The First Law of Thermodynamics A. Introduction To gain a good understanding of the laws of thermodynamics, it will help to develop an appreciation of the meaning of the words law and thermodynamics. Let’s take a moment to think about these words before launching into a detailed discussion of how we might unpack the content of how the laws can be formulated. We are aided in this quest by the nature of science itself, which unlike ordinary prose and poetry aims to give words a more or less precise definition. We are familiar with the concept of law from our everyday experience. Laws are rules that we are not supposed to break; they exist to protect someone’s interests, possibly our own, and there may be a penalty to pay if the one who breaks a law gets caught. Such are civil and criminal laws. Physical laws are similar but dif- ferent. They are similar in that they regulate something, namely how matter behaves under given circumstances. They are different in that violations are not known to have occurred, and they describe what is considered to be a basic property of nature. If a violation of a physical law should ever seem to have occurred, you will think first that the experiment has gone wrong at some stage, and second that maybe the “law” isn’t a law after all. Here’s an example. Galileo,1 like Copernicus,2 believed that the orbits of the known planets were circles; the circle being the shaper of perfection and perfection being of the heavens. -
Conceptual Evolution of Cell Signaling
International Journal of Molecular Sciences Review Conceptual Evolution of Cell Signaling 1, 1, 1, 2, Arathi Nair y , Prashant Chauhan y , Bhaskar Saha * and Katharina F. Kubatzky * 1 National Center for Cell Science (NCCS), Ganeshkhind, Pune 411007, India 2 Zentrum für Infektiologie, Medizinische Mikrobiologie und Hygiene, Universitätsklinikum Heidelberg, Im Neuenheimer Feld 324, 69120 Heidelberg, Germany * Correspondence: [email protected] (B.S.); [email protected] (K.F.K.) Indicates Equal Contribution. y Received: 11 April 2019; Accepted: 28 June 2019; Published: 4 July 2019 Abstract: During the last 100 years, cell signaling has evolved into a common mechanism for most physiological processes across systems. Although the majority of cell signaling principles were initially derived from hormonal studies, its exponential growth has been supported by interdisciplinary inputs, e.g., from physics, chemistry, mathematics, statistics, and computational fields. As a result, cell signaling has grown out of scope for any general review. Here, we review how the messages are transferred from the first messenger (the ligand) to the receptor, and then decoded with the help of cascades of second messengers (kinases, phosphatases, GTPases, ions, and small molecules such as cAMP, cGMP, diacylglycerol, etc.). The message is thus relayed from the membrane to the nucleus where gene expression ns, subsequent translations, and protein targeting to the cell membrane and other organelles are triggered. Although there are limited numbers of intracellular messengers, the specificity of the response profiles to the ligands is generated by the involvement of a combination of selected intracellular signaling intermediates. Other crucial parameters in cell signaling are its directionality and distribution of signaling strengths in different pathways that may crosstalk to adjust the amplitude and quality of the final effector output.