A Saint in the History of Cardiology
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Notes to the Note on the Text and Introduction
Notes Notes to the Note on the Text and Introduction i. Mandeville’s address is repeated at the end of the Preface: “From my House in Manchester-Court, Channel-Row, Westminster.” ii. A Treatise of the Hypochondriack and Hysterick Passions, vulgarly call’d the hypo in men and vapours in women; In which the Symptoms, Causes, and Cure of those Diseases are set forth after a Method intirely new. The whole interspers’d, with Instructive Discourses on the Real art of Physick it self; And Entertaining Remarks on the Modern Practice of Physicians and Apothecaries; Very useful to all, that have the Misfortune to stand in need of either. In three dialogues. By B. de Mandeville, M.D. (London, printed for and to be had of the author, at his house in Manchester-Court, in Channel- Row, Westminster; and D. Leach, in the Little-Old-Baily, and W. Taylor, at the Ship in Pater-Noster-Row, and J. Woodward in Scalding-Alley, near Stocks-Market, 1711). The second 1711 issue bears the following publica- tion details: “London, printed and sold by Dryden Leach, in Elliot’s Court, in the Little-Old-Baily, and W. Taylor, at the Ship in Pater-Noster-Row, 1711”. The 1715 reprint bears the same title with different publication details (London, printed by Dryden Leach, in Elliot’s Court, in the Little Old-Baily, and sold by Charles Rivington, at the Bible and Crown, near the Chapter-House in St. Paul’s Church Yard, 1715). A Treatise of the Hypochondriack and Hysterick Diseases. In three dialogues. -
Il Microscopio Di Galileo Antologia
Il microscopio di Galileo Antologia Qui di seguito sono stati raccolti alcuni brani antologici relativi al microscopio di Galileo e alla microscopia del Seicento a cura dell’ Istituto e Museo di Storia della Scienza di Firenze. 1 Indice John Wedderburn: una preziosa testimonianza sul microscopio di Galileo (1610).............................3 Galileo Galilei: "un Telescopio accomodato per veder gli oggetti vicinissimi" (1623) ......................4 Giovanni Faber: Galileo "è un altro Creatore" (1624).........................................................................5 Galileo Galilei: descrizione del microscopio (1624) ...........................................................................6 Giovanni Faber: il nome “microscopio” (1625) ..................................................................................7 Vincenzo Viviani: Galileo inventore del microscopio (1654).............................................................8 Accademia del Cimento: un’osservazione al microscopio (1657).......................................................9 Carlo Antonio Manzini, le conquiste del microscopio (1661)...........................................................10 Robert Hooke: un ampliamento del dominio dei sensi (1665) ..........................................................11 Anonimo: "Modo di adoperare il microscopio" (1665-1667)............................................................13 Lorenzo Magalotti: la digestione d’alcuni animali (1667).................................................................14 Francesco -
Evolutionoftherm00boltrich.Pdf
Evolution of the Thermometer Dalence's Thermometer 1688. Evolution of the Thermometer^ 3> BY HENRY CARRINGTON BOLTON Author of Scientific Correspondence of Joseph Priestley EASTON, PA.: THE CHEMICAL PUBLISHING Co. 1900. COPYRIGHT, 1900, BY EDWARD HART. CONTENTS. I. The Open Air-thermometer of Galileo, . 5 II.. Thermoscopes of the Accademia del Cimento, 25 III. Attempts to obtain a scale from Boyle to Newton, 41 IV. Fahrenheit and the first reliable Thermom- eters 61 V. Thermometers of Reaumur, Celsius, and others 79 Table of Thirty-five Thermometer Scales,. 88 Chronological Epitome, 90 Authorities, 92 Index, 97 91629 EVOLUTION OF THE THERMOMETER I. THE OPEN AIR-THERMOMETER OF GALILEO. Discoveries and inventions are sometimes the product of the genius or of the intelligent in- dustry of a single person and leave his hand in a perfect state, as was the case with the ba- rometer invented by Torricelli, but more often the seed of the invention is planted by one, cultivated by others, and the fruit is gathered only after slow growth by some one who ig- nores the original sower. In studying the ori- gin and tracing the history of certain discov- eries of scientific and practical value one is often perplexed by encountering several claim- ants for priority, this is partly due to the cir- " cumstance that coincidence of independent thought is often the cause of two or more per- " sons reaching the same result about the same time and to the effort of each nation ; partly to secure for its own people credit and renown. Again, the origin of a prime invention is some- i 6 EVOLUTION OF THE THERMOMETER, times obscured by the failure of the discoverer to claim definitely the product of his inspira- tion owing to the fact that he himself failed to appreciate its high importance and its utility. -
The Frog in Taffeta Pants
Evolutionary Anthropology 13:5–10 (2004) CROTCHETS & QUIDDITIES The Frog in Taffeta Pants KENNETH WEISS What is the magic that makes dead flesh fly? himself gave up on the preformation view). These various intuitions arise natu- Where does a new life come from? manded explanation. There was no rally, if sometimes fancifully. The nat- Before there were microscopes, and compelling reason to think that what uralist Henry Bates observed that the before the cell theory, this was not a one needed to find was too small to natives in the village of Aveyros, up trivial question. Centuries of answers see. Aristotle hypothesized epigenesis, the Tapajos tributary to the Amazon, were pure guesswork by today’s stan- a kind of spontaneous generation of believed the fire ants, that plagued dards, but they had deep implications life from the required materials (pro- them horribly, sprang up from the for the understanding of life. The vided in the egg), that systematic ob- blood of slaughtered victims of the re- 5 phrase spontaneous generation has servation suggested coalesced into a bellion of 1835–1836 in Brazil. In gone out of our vocabulary except as chick. Such notions persisted for cen- fact, Greek mythology is full of beings an historical relic, reflecting a total turies into what we will see was the spontaneously arising—snakes from success of two centuries of biological critical 17th century, when the follow- Medusa’s blood, Aphrodite from sea- research.1 The realization that a new ing alchemist’s recipe was offered for foam, and others. Even when the organism is always generated from the production of mice:3,4 mix sweaty truth is known, we can be similarly one or more cells shed by parents ex- underwear and wheat husks; store in impressed with the phenomena of plained how something could arise open-mouthed jar for 21 days; the generation. -
A Phenomenology of Galileo's Experiments with Pendulums
BJHS, Page 1 of 35. f British Society for the History of Science 2009 doi:10.1017/S0007087409990033 A phenomenology of Galileo’s experiments with pendulums PAOLO PALMIERI* Abstract. The paper reports new findings about Galileo’s experiments with pendulums and discusses their significance in the context of Galileo’s writings. The methodology is based on a phenomenological approach to Galileo’s experiments, supported by computer modelling and close analysis of extant textual evidence. This methodology has allowed the author to shed light on some puzzles that Galileo’s experiments have created for scholars. The pendulum was crucial throughout Galileo’s career. Its properties, with which he was fascinated from very early in his career, especially concern time. A 1602 letter is the earliest surviving document in which Galileo discusses the hypothesis of pendulum isochronism.1 In this letter Galileo claims that all pendulums are isochronous, and that he has long been trying to demonstrate isochronism mechanically, but that so far he has been unable to succeed. From 1602 onwards Galileo referred to pendulum isochronism as an admirable property but failed to demonstrate it. The pendulum is the most open-ended of Galileo’s artefacts. After working on my reconstructed pendulums for some time, I became convinced that the pendulum had the potential to allow Galileo to break new ground. But I also realized that its elusive nature sometimes threatened to undermine the progress Galileo was making on other fronts. It is this ambivalent nature that, I thought, might prove invaluable in trying to understand crucial aspects of Galileo’s innovative methodology. -
A Saint in the History of Cardiology
Arch Cardiol Mex. 2014;84(1):47---50 www.elsevier.com.mx SPECIAL ARTICLE A saint in the history of Cardiology Alfredo de Micheli ∗, Raúl Izaguirre Ávila National Institute of Cardiology Ignacio Chavez, Tlalpan, DF, Mexico Received 19 December 2012; accepted 22 January 2013 KEYWORDS Abstract Niels Stensen (1638---1686) was born in Copenhagen. He took courses in medicine Niels Stensen; at the local university under the guidance of Professor Thomas Bartholin and later at Leiden Anatomy; under the tutelage of Franz de la Boë (Sylvius). While in Holland, he discovered the existence of Physiology; the parotid duct, which was named Stensen’s duct or stenonian duct (after his Latinized name Muscular fibers; Nicolaus Stenon). He also described the structural and functional characteristics of peripheral Heart muscles and myocardium. He demonstrated that muscular contraction could be elicited by appropriate nerve stimulation and by direct stimulation of the muscle itself and that during contraction the latter does not increase in volume. Toward the end of 1664, the Academic Senate of the University of Leiden awarded him the doctor in medicine title. Later, in Florence, he was admitted as a corresponding member in the Academia del Cimento (Experimental Academy) and collaborated with the Tuscan physician Francesco Redi in studies relating to viviparous development. In the Tuscan capital, he converted from Lutheranism to Catholicism and was shortly afterwards ordained in the clergy. After a few years, he was appointed apostolic vicar in northern Germany and died in the small town of Schwerin, capital of the Duchy of Mecklenburg- Schwerin on November 25, 1686. -
History and Scope of Microbiology the Story of Invisible Organisms
A study material for M.Sc. Biochemistry (Semester: IV) Students on the topic (EC-1; Unit I) History and Scope of Microbiology The story of invisible organisms Dr. Reena Mohanka Professor & Head Department of Biochemistry Patna University Mob. No.:- +91-9334088879 E. Mail: [email protected] MICROBIOLOGY 1. WHAT IS A MICROBIOLOGY? Micro means very small and biology is the study of living things, so microbiology is the study of very small living things normally too small that are usually unable to be viewed with the naked eye. Need a microscope to see them Virus - 10 →1000 nanometers Bacteria - 0.1 → 5 micrometers (Human eye ) can see 0.1 mm to 1 mm Microbiology has become an umbrella term that encompasses many sub disciplines or fields of study. These include: - Bacteriology: The study of bacteria - Mycology: Fungi - Protozoology: Protozoa - Phycology: Algae - Parasitology: Parasites - Virology: Viruses WHAT IS THE NEED TO STUDY MICROBIOLOGY • Genetic engineering • Recycling sewage • Bioremediation: use microbes to remove toxins (oil spills) • Use of microbes to control crop pests • Maintain balance of environment (microbial ecology) • Basis of food chain • Nitrogen fixation • Manufacture of food and drink • Photosynthesis: Microbes are involved in photosynthesis and accounts for >50% of earth’s oxygen History of Microbiology Anton van Leeuwenhoek (1632-1723) (Dutch Scientist) • The credit of discovery of microbial world goes to Anton van Leeuwenhoek. He made careful observations of microscopic organisms, which he called animalcules (1670s). • Antoni van Leeuwenhoek described live microorganisms that he observed in teeth scrapings and rain water. • Major contributions to the development of microbiology was the invention of the microscope (50-300X magnification) by Anton von Leuwenhoek and the implementation of the scientific method. -
2. Scientific Inquiry-S
Scientific Inquiry What do scientists do? Why? Science is a unique way of learning about the natural world. Scientists work hard to explain events, living organisms, and changes we see around us every day. Model 1 depicts typical activities or stages scientists engage in when conducting their work. The design of the model shows how various steps in scientific inquiry are connected to one another. None of the activities stands alone—they are all interdependent. Model 1 – Scientific Inquiry Observe Communicate Define the with the wider problem community Form a Reflect study on the question findings Questions Research Analyze the problem the results State the Experiment expectations and gather (hypothesis) data Scientific Inquiry 1 1. What is the central theme of all scientific inquiry as shown in Model 1? 2. What are the nine activities that scientists engage in as part of scientific inquiry? 3. Which of the activities would require a scientist to make some observations? 4. Which of the steps would require a scientist to gather data? 5. Considering the activity described as “communicating with the wider community,” in what ways might a scientist communicate? 6. Remembering that scientists often work in teams, which activities would require a scientist to communicate with others? 7. Given your responses to Questions 1–6, do you think these activities must be carried out in a specific order or can multiple activities be carried out at the same time? Justify your response by giving examples to support your answer. 2 POGIL™ Activities for High School Biology Model 2 – Redi’s Experiment Meat Fly eggs and maggots Fly Solid cover Screen cover Container 1 Container 2 Container 3 The table below represents the ideas the Italian scientist Francesco Redi (1626–1698) might have had as he was carrying out his experiments. -
Section 1–2 How Scientists Work (Pages 8–15)
BIO_ALL IN1_StGd_tese_ch01 8/7/03 5:42 PM Page 181 Name______________________________ Class __________________ Date ______________ Section 1–2 How Scientists Work (pages 8–15) This section explains how scientists test hypotheses. It also describes how a scientific theory develops. Designing an Experiment (pages 8–10) 1. The idea that life can arise from nonliving matter is called spontaneous generation . 2. What was Francesco Redi’s hypothesis about the appearance of maggots? Flies produce maggots. 3. What are variables in an experiment? They are factors that can change. 4. Ideally, how many variables should an experiment test at a time? It should test only one variable at a time. 5. When a variable is kept unchanged in an experiment, it is said to be controlled . 6. What is a controlled experiment? A controlled experiment is an experiment in which one variable is changed while the other variables are controlled. 7. The illustration below shows the beginning of Redi’s experiment. Complete the illustration by showing the outcome. Redi’s Experiment on Spontaneous Generation Uncovered jars Covered jars Several days pass. © Pearson Education, Inc. All rights reserved. Maggots appear No maggots appear BIO_ALL IN1_StGd_tese_ch01 8/7/03 5:42 PM Page 182 Name______________________________ Class __________________ Date ______________ 8. Complete the table about variables. VARIABLES Type of Variable Definition Manipulated variable The variable that is deliberately changed in an experiment Responding variable The variable that is observed and changes in response to the manipulated variable 9. In Redi’s experiment, what were the manipulated variable and the responding variable? The manipulated variable was the presence or absence of the gauze covering, and the responding variable was whether maggots appear. -
Spontaneous Generation & Origin of Life Concepts from Antiquity to The
SIMB News News magazine of the Society for Industrial Microbiology and Biotechnology April/May/June 2019 V.69 N.2 • www.simbhq.org Spontaneous Generation & Origin of Life Concepts from Antiquity to the Present :ŽƵƌŶĂůŽĨ/ŶĚƵƐƚƌŝĂůDŝĐƌŽďŝŽůŽŐLJΘŝŽƚĞĐŚŶŽůŽŐLJ Impact Factor 3.103 The Journal of Industrial Microbiology and Biotechnology is an international journal which publishes papers in metabolic engineering & synthetic biology; biocatalysis; fermentation & cell culture; natural products discovery & biosynthesis; bioenergy/biofuels/biochemicals; environmental microbiology; biotechnology methods; applied genomics & systems biotechnology; and food biotechnology & probiotics Editor-in-Chief Ramon Gonzalez, University of South Florida, Tampa FL, USA Editors Special Issue ^LJŶƚŚĞƚŝĐŝŽůŽŐLJ; July 2018 S. Bagley, Michigan Tech, Houghton, MI, USA R. H. Baltz, CognoGen Biotech. Consult., Sarasota, FL, USA Impact Factor 3.500 T. W. Jeffries, University of Wisconsin, Madison, WI, USA 3.000 T. D. Leathers, USDA ARS, Peoria, IL, USA 2.500 M. J. López López, University of Almeria, Almeria, Spain C. D. Maranas, Pennsylvania State Univ., Univ. Park, PA, USA 2.000 2.505 2.439 2.745 2.810 3.103 S. Park, UNIST, Ulsan, Korea 1.500 J. L. Revuelta, University of Salamanca, Salamanca, Spain 1.000 B. Shen, Scripps Research Institute, Jupiter, FL, USA 500 D. K. Solaiman, USDA ARS, Wyndmoor, PA, USA Y. Tang, University of California, Los Angeles, CA, USA E. J. Vandamme, Ghent University, Ghent, Belgium H. Zhao, University of Illinois, Urbana, IL, USA 10 Most Cited Articles Published in 2016 (Data from Web of Science: October 15, 2018) Senior Author(s) Title Citations L. Katz, R. Baltz Natural product discovery: past, present, and future 103 Genetic manipulation of secondary metabolite biosynthesis for improved production in Streptomyces and R. -
Birth and Life of Scientific Collections in Florence
BIRTH AND LIFE OF SCIENTIFIC COLLECTIONS IN FLORENCE Mara Miniati 1 RESUMO: em Florença. Este artigo descreve as trans- formações ocorridas entre os séculos 18 e O artigo centra-se na história das coleções 19 na vida cultural da capital da Toscana: as científicas em Florença. Na era dos Medici, artes e ciências foram promovidos, e os flo- Florença foi um importante centro de pes- rentinos cultivados estavam interessadas no quisa científica e de coleções. Este aspecto desenvolvimento recente da física, na Itália e da cultura florentina é geralmente menos no exterior. Nesse período, numerosas co- conhecido, mas a ciência e coleções científi- leções científicas privadas e públicas de Flo- cas foram uma parte consistente da história rença existentes, que eram menos famosas, da cidade. O recolhimento de instrumentos mas não menos importantes do que as co- científicos era um componente importante leções Médici e Lorena se destacaram. Final- das estratégias políticas dos grão-duques flo- mente, o artigo descreve como as coleções rentinos, convencidos de que o conhecimen- florentinas se desenvolveram. A fundação to científico e controle tecnológico sobre do Instituto e Museu de História da Ciência a natureza conferiria solidez e prestígio ao deu nova atenção aos instrumentos cientí- seu poder político. De Cosimo I a Cosimo ficos antigos. Sua intensa atividade de pes- III, os grão-duques Médici concederam o seu quisa teve um impacto sobre a organização patrocínio e comissões sobre gerações de do Museu. Novos estudos levaram a novas engenheiros e cientistas, formando uma co- atribuições aos instrumentos científicos, as leção de instrumentos matemáticos e astro- investigações de arquivamento contribuiram nômicos, os modelos científicos e produtos para um melhor conhecimento da coleção, naturais, exibidos ao lado das mais famosas e os contactos crescentes com instituições coleções de arte na Galleria Uffizi, no Pala- italianas e internacionais feitas do Museu zzo Pitti, e em torno da cidade de Florença tornaram-no cada vez mais ativo em uma e outros lugares da Toscana. -
History of Microbiology: Spontaneous Generation Theory
HISTORY OF MICROBIOLOGY: SPONTANEOUS GENERATION THEORY Microbiology often has been defined as the study of organisms and agents too small to be seen clearly by the unaided eye—that is, the study of microorganisms. Because objects less than about one millimeter in diameter cannot be seen clearly and must be examined with a microscope, microbiology is concerned primarily with organisms and agents this small and smaller. Microbial World Microorganisms are everywhere. Almost every natural surface is colonized by microbes (including our skin). Some microorganisms can live quite happily in boiling hot springs, whereas others form complex microbial communities in frozen sea ice. Most microorganisms are harmless to humans. You swallow millions of microbes every day with no ill effects. In fact, we are dependent on microbes to help us digest our food and to protect our bodies from pathogens. Microbes also keep the biosphere running by carrying out essential functions such as decomposition of dead animals and plants. Microbes are the dominant form of life on planet Earth. More than half the biomass on Earth consists of microorganisms, whereas animals constitute only 15% of the mass of living organisms on Earth. This Microbiology course deals with • How and where they live • Their structure • How they derive food and energy • Functions of soil micro flora • Role in nutrient transformation • Relation with plant • Importance in Industries The microorganisms can be divided into two distinct groups based on the nucleus structure: Prokaryotes – The organism lacking true nucleus (membrane enclosed chromosome and nucleolus) and other organelles like mitochondria, golgi body, entoplasmic reticulum etc. are referred as Prokaryotes.