1 Evolution of Drug Discovery
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Nobel Prizes
W W de Herder Heroes in endocrinology: 1–11 3:R94 Review Nobel Prizes Open Access Heroes in endocrinology: Nobel Prizes Correspondence Wouter W de Herder should be addressed to W W de Herder Section of Endocrinology, Department of Internal Medicine, Erasmus MC, ’s Gravendijkwal 230, 3015 CE Rotterdam, Email The Netherlands [email protected] Abstract The Nobel Prize in Physiology or Medicine was first awarded in 1901. Since then, the Nobel Key Words Prizes in Physiology or Medicine, Chemistry and Physics have been awarded to at least 33 " diabetes distinguished researchers who were directly or indirectly involved in research into the field " pituitary of endocrinology. This paper reflects on the life histories, careers and achievements of 11 of " thyroid them: Frederick G Banting, Roger Guillemin, Philip S Hench, Bernardo A Houssay, Edward " adrenal C Kendall, E Theodor Kocher, John J R Macleod, Tadeus Reichstein, Andrew V Schally, Earl " neuroendocrinology W Sutherland, Jr and Rosalyn Yalow. All were eminent scientists, distinguished lecturers and winners of many prizes and awards. Endocrine Connections (2014) 3, R94–R104 Introduction Endocrine Connections Among all the prizes awarded for life achievements in In 1901, the first prize was awarded to the German medical research, the Nobel Prize in Physiology or physiologist Emil A von Behring (3, 4). This award heralded Medicine is considered the most prestigious. the first recognition of extraordinary advances in medicine The Swedish chemist and engineer, Alfred Bernhard that has become the legacy of Nobel’s prescient idea to Nobel (1833–1896), is well known as the inventor of recognise global excellence. -
Amanita Muscaria (Fly Agaric)
J R Coll Physicians Edinb 2018; 48: 85–91 | doi: 10.4997/JRCPE.2018.119 PAPER Amanita muscaria (fly agaric): from a shamanistic hallucinogen to the search for acetylcholine HistoryMR Lee1, E Dukan2, I Milne3 & Humanities The mushroom Amanita muscaria (fly agaric) is widely distributed Correspondence to: throughout continental Europe and the UK. Its common name suggests MR Lee Abstract that it had been used to kill flies, until superseded by arsenic. The bioactive 112 Polwarth Terrace compounds occurring in the mushroom remained a mystery for long Merchiston periods of time, but eventually four hallucinogens were isolated from the Edinburgh EH11 1NN fungus: muscarine, muscimol, muscazone and ibotenic acid. UK The shamans of Eastern Siberia used the mushroom as an inebriant and a hallucinogen. In 1912, Henry Dale suggested that muscarine (or a closely related substance) was the transmitter at the parasympathetic nerve endings, where it would produce lacrimation, salivation, sweating, bronchoconstriction and increased intestinal motility. He and Otto Loewi eventually isolated the transmitter and showed that it was not muscarine but acetylcholine. The receptor is now known variously as cholinergic or muscarinic. From this basic knowledge, drugs such as pilocarpine (cholinergic) and ipratropium (anticholinergic) have been shown to be of value in glaucoma and diseases of the lungs, respectively. Keywords acetylcholine, atropine, choline, Dale, hyoscine, ipratropium, Loewi, muscarine, pilocarpine, physostigmine Declaration of interests No conflicts of interest declared Introduction recorded by the Swedish-American ethnologist Waldemar Jochelson, who lived with the tribes in the early part of the Amanita muscaria is probably the most easily recognised 20th century. His version of the tale reads as follows: mushroom in the British Isles with its scarlet cap spotted 1 with conical white fl eecy scales. -
Pancreatic Organotherapy for Diabetes, 1889-1921
Medical History, 1995, 39: 288-316 Pancreatic Organotherapy for Diabetes, 1889-1921 ROBERT TATTERSALL* Introduction The isolation of insulin by Banting and Best in 1921 and its rapid commercial exploitation revolutionized the treatment of diabetes. The story, frequently told as a romance of medicine, is that a young orthopaedic surgeon, Frederick Banting, went to the local Professor of Physiology, J J R Macleod, asking for facilities to try to isolate the internal secretion of the pancreas. Macleod was sceptical but provided a lab, dogs and a student assistant to measure blood sugar. After only three months, Banting and Charles Best isolated a potent anti-diabetic substance which was first used on a human diabetic in January 1922. Controversy followed when Banting and Macleod, not Banting and Best, were awarded the 1923 Nobel Prize. Much has been written about the events in Toronto in 1921-1922l as well as about the priority disputes which followed.2 Two editorials in the Lancet in 1923 questioned why this discovery had taken so long.3 The seductively simple critique ran as follows: in 1869, Paul Langerhans described his eponymous islands, in 1889 Oskar Minkowski produced severe diabetes in dogs by pancreatectomy, in 1891 George Murray cured myxoedema by injections of thyroid extract and in 1893 Gustave-Edouard Laguesse suggested that the islands of Langerhans produced "an endocrine secretion" which controlled carbohydrate metabolism. How could it have taken thirty years for therapeutics to exploit the physiological suggestion? The origins of the hormone concept and the history of organotherapy in general have been explored in detail by Merriley Borell.4 Her work focuses on the role of physiologists, *Professor Robert Tattersall, Diabetes Unit, 1954, 9: 281-9, and W R Feasby, 'The discovery of University Hospital, Nottingham NG7 2UH. -
Editorial Udc: 615:378 Doi: 10.18413/2313-8971-2017-3-4-3
Pokrovskii M.V., Avtina T.V., Zakharova E.V., Belousova Yulia V. Oswald Schmiedeberg – the “father” of experimental pharmacology. Research Result: Pharmacology and Clinical 3 Pharmacology. 2017;3(4):3-19. EDITORIAL Rus. UDC: 615:378 DOI: 10.18413/2313-8971-2017-3-4-3-19 Mikhail V. Pokrovskii1 Tatyana V. Avtina T. OSWALD SCHMIEDEBERG –THE “FATHER” OF Elena V. Zakharova EXPERIMENTAL PHARMACOLOGY Yulia. V. Belousova Belgorod State National Research University, 85 Pobedy St., Belgorod, 308015 Russia Corresponding author, 1e-mail: [email protected] “Our tribute to the memory of the Teachers and those who were pioneers of pharmacology is an invaluable gift to our descendants” Abstract Biography. Oswald Schmiedeberg (1838-1921) was a son of a bailiff and a maid of honour, the eldest of the six children in the family. He was born and educated in the Russian Empire. Scientific activity. All his life he was completely devoted to science, making experimental pharmacology an independent scientific discipline, and was able to bring it to the international level. O. Schmiedeberg studied the action of muscarine and nicotine, digitoxin, hypnotics and analeptics. He was the first to introduce the concept of ―pharmacodynamics‖ and ―pharmacokinetics‖ of a drug. With his participation, the world‘s first pharmacological journal was founded, which is still published today. Science school. Working for many years at the University of Strasbourg, Schmiedeberg managed to educate about 120 students – professors from 20 countries of the world, many of whom later founded experimental pharmacology in their countries, for example, Abel in the USA, and N.P. Kravkov in Russia. -
The Development of Concepts of Mechanisms of Anesthesia
1 The Development of Concepts of Mechanisms of Anesthesia Donald Caton and Joseph F. Antognini INTRODUCTION Even before Morton's demonstration of surgical anesthesia in Boston, on October 16, 1846, phy sicians and scientists had begun to explore mechanisms by which drugs affect the central nervous system. In large part, this was an outgrowth of a revolution in therapeutics that had begun in wake of the Enlightenment. As philosophers and politicians threw out old patterns of religious, political, and economic thought, so physicians discarded a system of medical practice that had been in place for almost fifteen hundred years. Modem medicine began during this era and with it new disciplines such as physiology, pharmacology, and biochemistry (1). The discarded system of practice, called "Galenic Medicine", for the early Greek physician who established it, maintained that the body was composed of four elements (earth, air, fire, and water), which combined in various proportions to produce four humours (blood, black bile, yellow bile, and phlegm). Health was a state in which humours stayed in proper balance: disease a condition in which that balance had been upset by some internal or external disturbance. Physicians were to discern the character of the imbalance and institute appropriate restorative measures such as bleeding, purging, or cupping (2,3). In the centuries following Galen's death, physicians modified his original scheme in response to new discoveries in other areas of science. As engineers began to exploit hydraulics, for example, physicians attributed all disease to fluctuations of hydrostatic pressure. After the discovery of elec tricity, they exchanged hydraulics for energy imbalance to explain disease. -
Diabetes Research and Care Through the Ages Diabetes Care Volume 40, October 2017
1302 Diabetes Care Volume 40, October 2017 SYMPOSIUM Bernard Zinman,1 Jay S. Skyler,2 Diabetes Research and Care Matthew C. Riddle,3 and Ele Ferrannini 4 DIABETES CARE Through the Ages Diabetes Care 2017;40:1302–1313 | https://doi.org/10.2337/dci17-0042 As has been well established, the Diabetes Care journal’s most visible signature event is the Diabetes Care Symposium held each year during the American Diabetes Association’s Scientific Sessions. Held this past year on 10 June 2017 in San Diego, California, at the 77th Scientific Sessions, this event has become one of the most attended sessions during the Scientific Sessions. Each year, in order to continue to have the symposium generate interest, we revise the format and content of this event. For this past year, our 6th annual symposium, I felt it was time to provide a compre- hensive overview of our efforts in diabetes care to determine, first and foremost, how we arrived at our current state of management. I also felt the narrative needed to include the current status of management, especially with a focus toward cardiovas- cular disease, and finally, we wanted to ask what the future holds. Toward this goal, I asked four of the most noted experts in the world to provide their opinion on this topic. The symposium started with a very thoughtful presentation by Dr. Jay Skyler entitled “A Look Back as to How We Got Here.” That was followed by two lectures on current concepts by Dr. Bernard Zinman entitled “Current Treatment Paradigms TodaydHow Well Are We Doing?” and by Dr. -
Early Drug Discovery and the Rise of Pharmaceutical Chemistry in a Classic Monograph (Figure 5)
Drug Testing Historical and Analysis Received: 15 April 2011 Revised: 28 April 2011 Accepted: 28 April 2011 Published online in Wiley Online Library (www.drugtestinganalysis.com) DOI 10.1002/dta.301 Early drug discovery and the rise of pharmaceutical chemistry Alan Wayne Jones∗ Studies in the field of forensic pharmacology and toxicology would not be complete without some knowledge of the history of drug discovery, the various personalities involved, and the events leading to the development and introduction of new therapeutic agents. The first medicinal drugs came from natural sources and existed in the form of herbs, plants, roots, vines and fungi. Until the mid-nineteenth century nature’s pharmaceuticals were all that were available to relieve man’s pain and suffering. The first synthetic drug, chloral hydrate, was discovered in 1869 and introduced as a sedative-hypnotic; it is still available today in some countries. The first pharmaceutical companies were spin-offs from the textiles and synthetic dye industry and owe much to the rich source of organic chemicals derived from the distillation of coal (coal-tar). The first analgesics and antipyretics, exemplified by phenacetin and acetanilide, were simple chemical derivatives of aniline and p-nitrophenol, both of which were byproducts from coal-tar. An extract from the bark of the white willow tree had been used for centuries to treat various fevers and inflammation. The active principle in white willow, salicin or salicylic acid, had a bitter taste and irritated the gastric mucosa, but a simple chemical modification was much more palatable. This was acetylsalicylic acid, better known as Aspirin, the first blockbuster drug. -
La Obra Farmacológica De Amalio Gimeno Y Cabañas (1850-1936)*
Memoria IMV 1979_2009 ok:Memoria IMV 1979_2009 ok.qxd 29/9/2010 15:28 Página 159 159 La obra farmacológica de Amalio Gimeno y Cabañas (1850-1936)* José L. Fresquet Febrer La situación de la terapéutica farmacológica en la segunda mitad del siglo XIX Durante el siglo XIX las que llamamos ciencias de la naturaleza y la medicina, esta última tanto en sus aspectos biológicos como sociales, iniciaron un cambio decisi- vo. Las transformaciones tuvieron lugar en los aspectos conceptuales y también metodológicos. En el terreno de la biología, por ejemplo, esto permitió acabar con la crisis en la que habían entrado los sistemas interpretativos. En esta mudanza jugaron un papel fundamental diferentes aspectos sociales y económicos, especial- mente un importante cambio institucional. En el campo de la farmacología se produjeron dos hechos de gran transcenden- cia: el descubrimiento progresivo de los principios activos de los remedios vegeta- les y la línea que inició Magendie de investigar la acción de los fármacos mediante la experimentación en animales. Esto fue posible en buena medida a que la quími- ca reconstruyó su metodología y penetró en el estudio de la composición de los seres vivos.1 Uno de los principales escenarios donde tuvieron lugar estos cambios fue Fran- cia. A mediados del siglo XIX Alemania irrumpió con fuerza en la investigación far- macológica. Sin embargo, en el país vecino también surgió un movimiento que * Del proyecto de trató de moderar el excesivo optimismo que tenía lugar en los laboratorios. Una investigación HAR2008-04023. cosa era la fisiología, y otra, la farmacología. La terapéutica debía racionalizarse para los defensores de esta idea, es decir, adaptarse al enfermo. -
Franz Volhard and Theodor Fahr: Achievements and Controversies in Their Research in Renal Disease and Hypertension
Journal of Human Hypertension (2001) 15, 5–16 2001 Macmillan Publishers Ltd All rights reserved 0950-9240/01 $15.00 www.nature.com/jhh REVIEW ARTICLE Franz Volhard and Theodor Fahr: achievements and controversies in their research in renal disease and hypertension A Heidland1, W Gerabek2 and K Sebekova3 1Department of Internal Medicine, 2Institute of History of Medicine, University of Wuerzburg, Germany; 3Institute of Preventive and Clinical Medicine, Bratislava, Slovakia The clinician, Franz Volhard, and the pathologist, ischaemic kidney(s) contributing – via a vicious circle – Theodor Fahr, worked closely together in Mannheim to a further rise in blood pressure with subsequent reno- from 1909 until 1915 and introduced a novel classi- vascular injury and aggravation of hypertension. This fication of renal diseases. In the monograph entitled ‘Die hypothesis was supported in 1930 by initial experiments Bright’sche Nierenkrankheit, Klinik, Pathologie und of his collaborator, Hartwich (demonstrating in dogs a Atlas’ (1914) they differentiated between degenerative mild rise in blood pressure after ligation of branches of (nephroses), inflammatory (nephritides) and arterio- the renal artery) and definitively proven by Goldblatt sclerotic (scleroses) diseases. Nephrosclerosis was div- (1934) in dogs by induction of severe and persistent ided into the benign and malignant form, of which the hypertension after clamping of both renal arteries. The latter stood the test of time as a new disease entity. Fahr consequent detection of the renin angiotensin system further divided benign nephrosclerosis into the com- was the final confirmation of Volhard’s postulated renal pensated and decompensated form – depending on the pressor substance. In the pathogenesis of red presence or absence of glomerular injury. -
GENERAL PRINCIPLES of TOXICOLOGY 2996R Ch01 001-010 4/11/01 7:32 AM Page 3
2996R_ch01_001-010 4/11/01 7:32 AM Page 1 UNIT 1 GENERAL PRINCIPLES OF TOXICOLOGY 2996R_ch01_001-010 4/11/01 7:32 AM Page 3 CHAPTER 1 HISTORY AND SCOPE OF TOXICOLOGY Michael A. Gallo HISTORY OF TOXICOLOGY MODERN TOXICOLOGY Antiquity AFTER WORLD WAR II Middle Ages Age of Enlightenment Toxicology has been defined as the study of the adverse effects of the facts generated by the science of toxicology are used to de- xenobiotics and thus is a borrowing science that has evolved from velop extrapolations and hypotheses to explain the adverse effects ancient poisoners. Modern toxicology goes beyond the study of the of chemical agents in situations where there is little or no infor- adverse effects of exogenous agents to the study of molecular bi- mation. For example, the observation that the administration of ology, using toxicants as tools. Historically, toxicology formed the TCDD (2,3,7,8-tetrachlorodibenzo-p-dioxin) to female Sprague- basis of therapeutics and experimental medicine. Toxicology in this Dawley rats induces hepatocellular carcinoma is a fact. However, century (1900 to the present) continues to develop and expand by the conclusion that it will also do so in humans is a prediction or assimilating knowledge and techniques from most branches of bi- hypothesis. It is important to distinguish facts from predictions. ology, chemistry, mathematics, and physics. A recent addition to When we fail to distinguish the science from the art, we confuse the field of toxicology (1975 to the present) is the application of facts with predictions and argue that they have equal validity, which the discipline to safety evaluation and risk assessment. -
Pancreatic Organotherapy for Diabetes, 1889-1921
Medical History, 1995, 39: 288-316 Pancreatic Organotherapy for Diabetes, 1889-1921 ROBERT TATTERSALL* Introduction The isolation of insulin by Banting and Best in 1921 and its rapid commercial exploitation revolutionized the treatment of diabetes. The story, frequently told as a romance of medicine, is that a young orthopaedic surgeon, Frederick Banting, went to the local Professor of Physiology, J J R Macleod, asking for facilities to try to isolate the internal secretion of the pancreas. Macleod was sceptical but provided a lab, dogs and a student assistant to measure blood sugar. After only three months, Banting and Charles Best isolated a potent anti-diabetic substance which was first used on a human diabetic in January 1922. Controversy followed when Banting and Macleod, not Banting and Best, were awarded the 1923 Nobel Prize. Much has been written about the events in Toronto in 1921-1922l as well as about the priority disputes which followed.2 Two editorials in the Lancet in 1923 questioned why this discovery had taken so long.3 The seductively simple critique ran as follows: in 1869, Paul Langerhans described his eponymous islands, in 1889 Oskar Minkowski produced severe diabetes in dogs by pancreatectomy, in 1891 George Murray cured myxoedema by injections of thyroid extract and in 1893 Gustave-Edouard Laguesse suggested that the islands of Langerhans produced "an endocrine secretion" which controlled carbohydrate metabolism. How could it have taken thirty years for therapeutics to exploit the physiological suggestion? The origins of the hormone concept and the history of organotherapy in general have been explored in detail by Merriley Borell.4 Her work focuses on the role of physiologists, *Professor Robert Tattersall, Diabetes Unit, 1954, 9: 281-9, and W R Feasby, 'The discovery of University Hospital, Nottingham NG7 2UH. -
Die Anfänge Der Physiologischen Chemie: Ernst Felix Immanuel Hoppe-Seyler (1825-1895)
Die Anfänge der physiologischen Chemie: Ernst Felix Immanuel Hoppe-Seyler (1825-1895) vorgelegt von Diplom-Biochemikerin Anja Vöckel aus Wiesbaden Von der Fakultät I - Geisteswissenschaften - der Technischen Universität Berlin zur Erlangung des akademischen Grades Doktorin der Philosophie -Dr. phil.- genehmigte Dissertation Promotionsausschuß: Vorsitzender: Prof. Dr. Klaus Meister Berichter: Prof. Dr. Hans-Werner Schütt Berichter: Dr. Sven Dierig (MPIWG) Tag der wissenschaftlichen Aussprache: 8.05.2003 Berlin 2003 D 83 Vorwort Die vorliegende Arbeit entstand am Institut für Philosophie, Wissenschaftstheorie, Wissenschafts- und Technikgeschichte der Technischen Universität Berlin. Sie stellt einen Beitrag zur Biochemiegeschichte des 19. Jahrhunderts dar, ein Arbeitsgebiet, das mich als Biochemikerin besonders interessierte. Die Zielsetzung der Arbeit bestand darin, den wissenschaftlichen Werdegang des physiologischen Chemikers Felix Hop- pe-Seyler darzustellen und in diesem Zusammenhang die inner- und außerwissen- schaftlichen Faktoren der Disziplinengenese der physiologischen Chemie im 19. Jahr- hundert zu untersuchen. Der vorgegebene inhaltliche Rahmen der Studie machte nach einer kritischen Sichtung des zugänglichen Quellenmaterials zunächst eine sinnvolle Beschränkung desselben notwendig. In den Mittelpunkt der vorliegenden Arbeit wurden daher die wissen- schaftshistorisch noch unerschlossenen Briefe Hoppe-Seylers an seinen Lehrer Rudolf Virchow, an Emil Du Bois-Reymond, Wilhelm Ostwald, Heinrich Caro, Emil Erlen- meyer und den Verleger Karl Trübner, Schreiben Eduard Pflügers an Emil Du Bois- Reymond und Willy Kühnes an Rudolf Virchow sowie weitere handschriftliche Quel- len zum institutionengeschichtlichen Hintergrund aus dem Archiv der Berlin- Brandenburgischen Akademie der Wissenschaften, den Straßburger Archives départe- mentales du Bas-Rhin, dem Geheimen Staatsarchiv Preußischer Kulturbesitz Berlin, der Staatsbibliothek zu Berlin, dem Deutschen Museum München und dem Universi- tätsarchiv der Humboldt-Universität zu Berlin gestellt.