From Abraham De Moivre to Johann Carl Friedrich Gauss
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Cavendish the Experimental Life
Cavendish The Experimental Life Revised Second Edition Max Planck Research Library for the History and Development of Knowledge Series Editors Ian T. Baldwin, Gerd Graßhoff, Jürgen Renn, Dagmar Schäfer, Robert Schlögl, Bernard F. Schutz Edition Open Access Development Team Lindy Divarci, Georg Pflanz, Klaus Thoden, Dirk Wintergrün. The Edition Open Access (EOA) platform was founded to bring together publi- cation initiatives seeking to disseminate the results of scholarly work in a format that combines traditional publications with the digital medium. It currently hosts the open-access publications of the “Max Planck Research Library for the History and Development of Knowledge” (MPRL) and “Edition Open Sources” (EOS). EOA is open to host other open access initiatives similar in conception and spirit, in accordance with the Berlin Declaration on Open Access to Knowledge in the sciences and humanities, which was launched by the Max Planck Society in 2003. By combining the advantages of traditional publications and the digital medium, the platform offers a new way of publishing research and of studying historical topics or current issues in relation to primary materials that are otherwise not easily available. The volumes are available both as printed books and as online open access publications. They are directed at scholars and students of various disciplines, and at a broader public interested in how science shapes our world. Cavendish The Experimental Life Revised Second Edition Christa Jungnickel and Russell McCormmach Studies 7 Studies 7 Communicated by Jed Z. Buchwald Editorial Team: Lindy Divarci, Georg Pflanz, Bendix Düker, Caroline Frank, Beatrice Hermann, Beatrice Hilke Image Processing: Digitization Group of the Max Planck Institute for the History of Science Cover Image: Chemical Laboratory. -
Maty's Biography of Abraham De Moivre, Translated
Statistical Science 2007, Vol. 22, No. 1, 109–136 DOI: 10.1214/088342306000000268 c Institute of Mathematical Statistics, 2007 Maty’s Biography of Abraham De Moivre, Translated, Annotated and Augmented David R. Bellhouse and Christian Genest Abstract. November 27, 2004, marked the 250th anniversary of the death of Abraham De Moivre, best known in statistical circles for his famous large-sample approximation to the binomial distribution, whose generalization is now referred to as the Central Limit Theorem. De Moivre was one of the great pioneers of classical probability the- ory. He also made seminal contributions in analytic geometry, complex analysis and the theory of annuities. The first biography of De Moivre, on which almost all subsequent ones have since relied, was written in French by Matthew Maty. It was published in 1755 in the Journal britannique. The authors provide here, for the first time, a complete translation into English of Maty’s biography of De Moivre. New mate- rial, much of it taken from modern sources, is given in footnotes, along with numerous annotations designed to provide additional clarity to Maty’s biography for contemporary readers. INTRODUCTION ´emigr´es that both of them are known to have fre- Matthew Maty (1718–1776) was born of Huguenot quented. In the weeks prior to De Moivre’s death, parentage in the city of Utrecht, in Holland. He stud- Maty began to interview him in order to write his ied medicine and philosophy at the University of biography. De Moivre died shortly after giving his Leiden before immigrating to England in 1740. Af- reminiscences up to the late 1680s and Maty com- ter a decade in London, he edited for six years the pleted the task using only his own knowledge of the Journal britannique, a French-language publication man and De Moivre’s published work. -
Carl Friedrich Gauss Seminarski Rad
SREDNJA ŠKOLA AMBROZA HARAČIĆA PODRUČNI ODJEL CRES CARL FRIEDRICH GAUSS SEMINARSKI RAD Cres, 2014. SREDNJA ŠKOLA AMBROZA HARAČIĆA PODRUČNI ODJEL CRES CARL FRIEDRICH GAUSS SEMINARSKI RAD Učenice: Marina Kučica Giulia Muškardin Brigita Novosel Razred: 3.g. Mentorica: prof. Melita Chiole Predmet: Matematika Cres, ožujak 2014. II Sadržaj 1. UVOD .................................................................................................................................... 1 2. DJETINJSTVO I ŠKOLOVANJE ......................................................................................... 2 3. PRIVATNI ŽIVOT ................................................................................................................ 5 4. GAUSSOV RAD ................................................................................................................... 6 4.1. Prvi znanstveni rad .......................................................................................................... 6 4.2. Teorija brojeva ................................................................................................................ 8 4.3. Geodezija ......................................................................................................................... 9 4.4. Fizika ............................................................................................................................. 11 4.5. Astronomija ................................................................................................................... 12 4.6. Religija -
2 a Revolutionary Science
2 A Revolutionary Science When the Parisian crowds stormed the Bastille fortress and prison on 14 July 1789, they set in motion a train of events that revolutionized European political culture. To many contem- porary commentators and observers of the French Revolution, it seemed that the growing disenchantment with the absolutist regime of Louis XVI had been fostered in part by a particular kind of philosophy. French philosophes condemning the iniqui- ties of the ancien regime´ drew parallels between the organization of society and the organization of nature. Like many other En- lightenment thinkers, they took it for granted that science, or natural philosophy,could be used as a tool to understand society as well as nature. They argued that the laws of nature showed how unjust and unnatural the government of France really was. It also seemed, to some at least, that the French Revolution pro- vided an opportunity to galvanize science as well as society. The new French Republic was a tabula rasa on which the reform- ers could write what they liked. They could refound society on philosophical principles, making sure this time around that the organization of society really did mirror the organization of nature. Refounding the social and intellectual structures of sci- ence itself was to be part of this process. In many ways, therefore, the storming of the Bastille led to a revolution in science as well. To many in this new generation of radical French natu- ral philosophers, mathematics seemed to provide the key to 22 A Revolutionary Science 23 understanding nature. This was nothing new in itself, of course. -
Newton's Notebook
Newton’s Notebook The Haverford School’s Math & Applied Math Journal Issue I Spring 2017 The Haverford School Newton’s Notebook Spring 2017 “To explain all nature is too difficult a task for any one man or even for any one age. ‘Tis much better to do a little with certainty & leave the rest for others that come after you.” ~Isaac Newton Table of Contents Pure Mathematics: 7 The Golden Ratio.........................................................................................Robert Chen 8 Fermat’s Last Theorem.........................................................................Michael Fairorth 9 Math in Coding............................................................................................Bram Schork 10 The Pythagoreans.........................................................................................Eusha Hasan 12 Transfinite Numbers.................................................................................Caleb Clothier 15 Sphere Equality................................................................................Matthew Baumholtz 16 Interesting Series.......................................................................................Aditya Sardesi 19 Indirect Proofs..............................................................................................Mr. Patrylak Applied Mathematics: 23 Physics in Finance....................................................................................Caleb Clothier 26 The von Bertalanffy Equation..................................................................Will -
The Astronomical Work of Carl Friedrich Gauss
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Elsevier - Publisher Connector HISTORIA MATHEMATICA 5 (1978), 167-181 THE ASTRONOMICALWORK OF CARL FRIEDRICH GAUSS(17774855) BY ERIC G, FORBES, UNIVERSITY OF EDINBURGH, EDINBURGH EH8 9JY This paper was presented on 3 June 1977 at the Royal Society of Canada's Gauss Symposium at the Ontario Science Centre in Toronto [lj. SUMMARIES Gauss's interest in astronomy dates from his student-days in Gattingen, and was stimulated by his reading of Franz Xavier von Zach's Monatliche Correspondenz... where he first read about Giuseppe Piazzi's discovery of the minor planet Ceres on 1 January 1801. He quickly produced a theory of orbital motion which enabled that faint star-like object to be rediscovered by von Zach and others after it emerged from the rays of the Sun. Von Zach continued to supply him with the observations of contemporary European astronomers from which he was able to improve his theory to such an extent that he could detect the effects of planetary perturbations in distorting the orbit from an elliptical form. To cope with the complexities which these introduced into the calculations of Ceres and more especially the other minor planet Pallas, discovered by Wilhelm Olbers in 1802, Gauss developed a new and more rigorous numerical approach by making use of his mathematical theory of interpolation and his method of least-squares analysis, which was embodied in his famous Theoria motus of 1809. His laborious researches on the theory of Pallas's motion, in whi::h he enlisted the help of several former students, provided the framework of a new mathematical formu- lation of the problem whose solution can now be easily effected thanks to modern computational techniques. -
Abraham De Moivre R Cosθ + Isinθ N = Rn Cosnθ + Isinnθ R Cosθ + Isinθ = R
Abraham de Moivre May 26, 1667 in Vitry-le-François, Champagne, France – November 27, 1754 in London, England) was a French mathematician famous for de Moivre's formula, which links complex numbers and trigonometry, and for his work on the normal distribution and probability theory. He was elected a Fellow of the Royal Society in 1697, and was a friend of Isaac Newton, Edmund Halley, and James Stirling. The social status of his family is unclear, but de Moivre's father, a surgeon, was able to send him to the Protestant academy at Sedan (1678-82). de Moivre studied logic at Saumur (1682-84), attended the Collège de Harcourt in Paris (1684), and studied privately with Jacques Ozanam (1684-85). It does not appear that De Moivre received a college degree. de Moivre was a Calvinist. He left France after the revocation of the Edict of Nantes (1685) and spent the remainder of his life in England. Throughout his life he remained poor. It is reported that he was a regular customer of Slaughter's Coffee House, St. Martin's Lane at Cranbourn Street, where he earned a little money from playing chess. He died in London and was buried at St Martin-in-the-Fields, although his body was later moved. De Moivre wrote a book on probability theory, entitled The Doctrine of Chances. It is said in all seriousness that De Moivre correctly predicted the day of his own death. Noting that he was sleeping 15 minutes longer each day, De Moivre surmised that he would die on the day he would sleep for 24 hours. -
The Birth of Calculus: Towards a More Leibnizian View
The Birth of Calculus: Towards a More Leibnizian View Nicholas Kollerstrom [email protected] We re-evaluate the great Leibniz-Newton calculus debate, exactly three hundred years after it culminated, in 1712. We reflect upon the concept of invention, and to what extent there were indeed two independent inventors of this new mathematical method. We are to a considerable extent agreeing with the mathematics historians Tom Whiteside in the 20th century and Augustus de Morgan in the 19th. By way of introduction we recall two apposite quotations: “After two and a half centuries the Newton-Leibniz disputes continue to inflame the passions. Only the very learned (or the very foolish) dare to enter this great killing- ground of the history of ideas” from Stephen Shapin1 and “When de l’Hôpital, in 1696, published at Paris a treatise so systematic, and so much resembling one of modern times, that it might be used even now, he could find nothing English to quote, except a slight treatise of Craig on quadratures, published in 1693” from Augustus de Morgan 2. Introduction The birth of calculus was experienced as a gradual transition from geometrical to algebraic modes of reasoning, sealing the victory of algebra over geometry around the dawn of the 18 th century. ‘Quadrature’ or the integral calculus had developed first: Kepler had computed how much wine was laid down in his wine-cellar by determining the volume of a wine-barrel, in 1615, 1 which marks a kind of beginning for that calculus. The newly-developing realm of infinitesimal problems was pursued simultaneously in France, Italy and England. -
Carl Friedrich Gauss Papers
G. Waldo Dunnington, who taught German at Northwestern State University from 1946 until his retirement in 1969, collected these resources over a thirty year period. Dunnington wrote Carl Friedrich Gauss, Titan of Science, the first complete biography on the scientific genius in 1955. Dunnington also wrote an Encyclopedia Britannica article on Gauss. He bequeathed his entire collection to the Cammie Henry Research Center at Northwestern. Titan of Science has recently been republished with additional material by Jeremy Gray and is available at the Mathematical Society of America ISBN: 0883855380 Gauss was appointed director of the University of Göttingen observatory and Professor. Among his other scientific triumphs, Gauss devised a method for the complete determination of the elements of a planet’s orbit from three observations. Gauss and Physicist Wilhelm Weber collaborated in 1833 to produce the electro-magnetic telegraph. They devised an alphabet and could transmit accurate messages of up to eight words a minute. The two men formulated fundamental laws and theories of magnetism. Gauss and his achievements are commemorated in currency, stamps and monuments across Germany. The Research Center holds many examples of these. After his death, a study of Gauss' brain revealed the weight to be 1492 grams with a cerebral area equal to 219,588 square centimeters, a size that could account for his genius Göttingen, the home of Gauss, and site of much of his research. Links to more material on Gauss: Dunnington's Encyclopedia Article Description of Dunnington Collection at the Research Center Gauss-Society, Göttingen Gauss, a Biography Gauß site (German) References for Gauss Nelly Cung's compilation of Gauss material http://www.gausschildren.org This web site gathers together information about the descendants of Carl Friedrich Gauss Contact Information: Cammie G. -
Secession and Survival: Nations, States and Violent Conflict by David S
Secession and Survival: Nations, States and Violent Conflict by David S. Siroky Department of Political Science Duke University Date: Approved: Dr. Donald L. Horowitz, Supervisor Dr. David L. Banks Dr. Alexander B. Downes Dr. Bruce W. Jentleson Dr. Erik Wibbels Dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Department of Political Science in the Graduate School of Duke University 2009 abstract (Political Science) Secession and Survival: Nations, States and Violent Conflict by David S. Siroky Department of Political Science Duke University Date: Approved: Dr. Donald L. Horowitz, Supervisor Dr. David L. Banks Dr. Alexander B. Downes Dr. Bruce W. Jentleson Dr. Erik Wibbels An abstract of a dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Department of Political Science in the Graduate School of Duke University 2009 Copyright c 2009 by David S. Siroky All rights reserved Abstract Secession is a watershed event not only for the new state that is created and the old state that is dissolved, but also for neighboring states, proximate ethno-political groups and major powers. This project examines the problem of violent secession- ist conflict and addresses an important debate at the intersection of comparative and international politics about the conditions under which secession is a peaceful solution to ethnic conflict. It demonstrates that secession is rarely a solution to ethnic conflict, does not assure the protection of remaining minorities and produces new forms of violence. To explain why some secessions produce peace, while others generate violence, the project develops a theoretical model of the conditions that produce internally coherent, stable and peaceful post-secessionist states rather than recursive secession (i.e., secession from a new secessionist state) or interstate dis- putes between the rump and secessionist state. -
Games As Bedouin Heritage for All Generations
CHAPTER 10 GAMES AS BEDOUIN HERITAGE FOR ALL GENERATIONS Man plays only when he is in the full sense of the word a human being, and he is only fully a human being when he plays. (Friedrich Schiller, 1795) 10.1. GAMES PEOPLE PLAY Games are part of being human across generations, across ethnicities, and occupy man in each of his life stages. They cause pleasure, except for gambling games usually a non-material reward, and enable the player to leave the real world into a world of illusion, and simultaneously dwell in the experiential and imaginary worlds alike. Perhaps activities of even give rise to a feeling of spiritual elevation as a creative and a cultural being. In his book Homo Ludens: A Study of the Play-Element in Culture, Johan Huizinga (1984), a Dutch historian and cultural theorist, refers to play as the root of culture, arguing that every culture rests on foundation of play and that pre-modern cultures always included play in their daily lives. As he said (1984, p. ix) “Culture arises and unfolds in and as play.” Play, in this sense, is an activity integrally connected to cultural heritage and to the world that surrounds the players, and foremost, play can provide possibilities to examine and enhance knowledge about a group’s culture. (Roberts, Arth, & Bush, 1959) find in games relationships to activities of the societies or cultures in which they appear. For example, these authors relate certain games to “combat,” “hunt,” or “religious activity.” Roberts, Arth, and Bush (1959) deals with anthropological problems of the development of games, and their significance in various societies. -
Mathematical Apocrypha Redux Originally Published by the Mathematical Association of America, 2005
AMS / MAA SPECTRUM VOL 44 Steven G. Krantz MATHEMATICAL More Stories & Anecdotes of Mathematicians & the Mathematical 10.1090/spec/044 Mathematical Apocrypha Redux Originally published by The Mathematical Association of America, 2005. ISBN: 978-1-4704-5172-1 LCCN: 2005932231 Copyright © 2005, held by the American Mathematical Society Printed in the United States of America. Reprinted by the American Mathematical Society, 2019 The American Mathematical Society retains all rights except those granted to the United States Government. ⃝1 The paper used in this book is acid-free and falls within the guidelines established to ensure permanence and durability. Visit the AMS home page at https://www.ams.org/ 10 9 8 7 6 5 4 3 2 24 23 22 21 20 19 AMS/MAA SPECTRUM VOL 44 Mathematical Apocrypoha Redux More Stories and Anecdotes of Mathematicians and the Mathematical Steven G. Krantz SPECTRUM SERIES Published by THE MATHEMATICAL ASSOCIATION OF AMERICA Council on Publications Roger Nelsen, Chair Spectrum Editorial Board Gerald L. Alexanderson, Editor Robert Beezer Ellen Maycock William Dunham JeffreyL. Nunemacher Michael Filaseta Jean Pedersen Erica Flapan J. D. Phillips, Jr. Michael A. Jones Kenneth Ross Eleanor Lang Kendrick Marvin Schaefer Keith Kendig Sanford Segal Franklin Sheehan The Spectrum Series of the Mathematical Association of America was so named to reflect its purpose: to publish a broad range of books including biographies, acces sible expositions of old or new mathematical ideas, reprints and revisions of excel lent out-of-print books, popular works, and other monographs of high interest that will appeal to a broad range of readers, including students and teachers of mathe matics, mathematical amateurs, and researchers.