Augustin-Louis Cauchy Brandon Lukas

Total Page:16

File Type:pdf, Size:1020Kb

Augustin-Louis Cauchy Brandon Lukas Augustin-Louis Cauchy Brandon Lukas Cauchy's life On August 21, 1789, Augustin-Louis Cauchy was born in Paris. He was born just one month after the beginning of the French Revolution. His father, Francois Cauchy, was a senior French government officer who feared for his life in Paris and lost his job due to France's political turmoil during the Reign of Terror. As a result, his father moved the family to the village of Arcueil, a commune in the southern suburbs of Paris, and homeschooled Cauchy and his two brothers, Alexandre Laurent Cauchy and Eugene Francois Cauchy. Arcueil is where Cauchy first met mathematician Laplace and chemist Berthollet. Cauchy and his family returned to Paris when the atmosphere had calmed down following the guillotine of Robespierre in 1794. His father worked in Napoleon Bonaparte's bureaucracy as Secretary-General of the Senate with Laplace. Another mathematician, Lagrange, was a friend of the family. Laplace and Lagrange often visited Cauchy's home. Intrigued with Cauchy's mathematical education, Lagrange suggested that Cauchy be educated in classical languages before seriously studying mathematics. And so, Lagrange helped Cauchy pursue an education at the Ecole Centrale du Pantheon, arguably the best secondary school of Paris, in 1802. Cauchy excelled in his studies of mathematics and classical languages as demonstrated by winning multiple prizes in Latin and Humanities. Despite his talent with humanities, Cauchy's passion was with engineering. Cauchy finished his secondary education in 1804 and immediately began preparing for the entrance exam to enter the elite French institute of higher education and research, the Ecole Polytechnique in Palaiseau. The Ecole Polytechnique was a very prestigious military engineering school taught by some of the world's greatest mathematicians. Cauchy took the entrance exam (he was examined by mathematician Biot) and not only passed, but impressively placed second out of 293 applicants. At the Ecole Polytechnique, Cauchy took engineering courses by Lacroix, de Prony, and Hachette. At the same time, Ampere was his analysis tutor and the two had a close relationship with each other. Cauchy graduated Ecole Polytechnique and continued his education at the Ecole des Ponts et Chaussees (School for Bridges and Roads). For his practical, Cauchy worked on the Ourcq Canal project under Pierre Girard. He also worked on the Saint-Cloud bridge. In 1810, Cauchy began his three year long work in Cherbourg on the harbors and fortifications for Napoleon's English invasion fleet. Despite having an extremely busy managerial job, Cauchy undertook heavy research in mathematics on the side. He prepared several important mathematical papers. One paper contained the solution to a Lagrange problem which established that the faces determine the angles of a convex polyhedron. Another paper solved Fermat's problem on polygonal numbers. In another paper, Cauchy gave determinants its current definition. Cauchy submitted three mathematical papers to the Premiere Classes (First Class) of the Institut de France. Two of them about polyhedra were accepted but the third about conic sections was not. Cauchy fell ill with severe depression from being overworked and losing interest with his engineering job and wanted to move back to Paris where he could devote himself to mathematics in 1813. Cauchy's payroll was transferred from the Ministry of the Marines to the Ministry of the Interior and for three years, Cauchy was on unpaid sick leave. He worked on symmetric functions and symmetric groups as well as the theory of higher- order algebraic equations. He also set the basis of the theory of complex functions after publishing a memoir on definite integrals. Meanwhile, Cauchy wanted to pursue an academic career. Cauchy applied to several posts, positions, and chairs in the Bureau des Longitudes, the Institute, and the Ecole Polytechnique but was continually denied until Napoleon was defeated at Waterloo in 1815 and the new Bourbon king Louis XVIII removed Monge, considerably the greatest mathematician of France at the time, from the Academie des Sciences for political reasons and appointed Cauchy assistant professor of a second year course in analysis at the Academy after Cauchy lost a mechanics chair to mathematician Binet. A membership in the academy is one of the highest honors a scientist could receive. Cauchy's unreserved acceptance of the membership earned him many enemies within the mathematic and scientific community. Nonetheless, Cauchy continued his work and by the next year, he won the Grand Prix of the French Academy of Sciences for a paper on wave propagation used in hydrodynamics. In the fall of 1815, mathematician and professor Louis Poinsot left his position at the Ecole Polytechnique for health issues. Cauchy fully quit his engineering job and took over for him. His mathematical ability qualified him for the position but it was his loyalty to the Bourbons that guaranteed his spot. He received a one-year contract, and when several professors were fired for being too liberal in the Bonapartist school, Cauchy was promoted to full professor in 1816. 2 Single and still living with his parents, Cauchy was encouraged to marry at age 28 by his father. His father found him a suitable bride named Aloise de Bure whose family were printers and booksellers. In fact, the de Bure family published most of Cauchy's works, helping him become the one of the most published mathematician in the world. The couple was married with in the Roman Catholic church Saint-Sulpice in 1818. One year later, the couple's first daughter, Marie Francoise Alicia was born. Following in 1823, the couple's second daughter, Marie Mathilde was born. During the 1820s, Cauchy's production was at an all time high and he received cross appointments at the College de France and the Faculte des sciences de Paris. After the French July Revolution of 1830, the oath of allegiance was required by the new king, Louis-Philippe. However, Cauchy remained loyal to the old political regime, so he refused to accept the oath and thereby lost most of his positions at the institutes. With practically no positions in Paris anymore, Cauchy decided to leave France and his family behind and went into exile. He moved to Turin, a city in northern Italy, to teach mathematical and theoretical physics after a chair was created by the King of Piedmont for him at the University of Turin. He was a brilliant and eccentric professor, but many of his students could not grasp his teachings. In 1833, he received and invitation from the dethroned Charles X to tutor his grandson, the Duke of Bordeaux in Prague. So Cauchy traveled to Prague to tutor his grandson. One year later, in 1834, his wife and daughters joined him in Prague. Even though Cauchy was a brilliant mathematician, he was not a very good tutor (or even professor in some cases). He was known to expect too much from his students and assumed that his students understood him. Additionally, Cauchy was unorganized, he rambled on, and he tried to crunch too much information into a small period. Moreover, the Duke was far from interested in mathematics. The Duke and Cauchy were a perfect mismatch and they often got frustrated with each other. Cauchy's mathematic output was slow during the five years he tutored the Duke because he hardly done any research. Meanwhile, the Duke acquired a lifelong disliked of mathematics. However, Cauchy was promoted to the title Baron and finished tutoring the Duke when the Duke turned 18. Near the end of the 1830s, Cauchy moved back to Paris. He wanted to return to his teaching positions, but because he persistently refused to swear an oath of allegiance, Cauchy was denied his formal position in Parisian science. He was, however, able to have an informal position at the Academy of Sciences. Cauchy tried to apply for the Bureau des Longitudes when a position became available. The Bureau was an organization that aimed to solve the problem of determining position on sea, and it resembled the academy but was less strict in a sense that the members do not have to take the oath of allegiance so seriously. Cauchy was elected to the Bureau, but was surprised and disappointed when he realized that the oath was still required. He still refused to take the oath, and so the king could not approve his election. In essence, Cauchy was in the position of being elected but not approved. He was able to be part of the Bureau, but as a nonmember, he could not participate, receive payment, or submit papers. Even though Cauchy could not do much with his involvement within the Bureau, he still focused on his studies and research, exploring the topic of celestial mechanics. Although he wasn't able to submit papers, Cauchy was able to present papers, and in fact, he presented dozens of papers on the matter of celestial mechanics in 1840 to the Academy. Cauchy's time at the Bureau ended when he was replaced by Poinsot at the end of 1843. After leaving the Bureau, Cauchy worked with the Catholic Church to help establish its own branch of edu- cation. As a very religious man, Cauchy willingly helped the Catholic Ecole Normale Ecclesiastique train the teachers for their colleges. Furthermore, he helped the Catholic Chuch with his help establishing the Institut Catholique. Even though Cauchy was doing these actions out of the goodness in his heart, his colleagues were offended because they went against the Enlightenment ideals of the French Revolution and so Cauchy was further ostracized from the intellectual community and became harder, almost impossible, for him to be approved for chairs. For example, Cauchy applied for a chair of mathematics at the College de France but 3 only got three out of the 45 votes casted despite his impressive mathematical prowess.
Recommended publications
  • Jean-Baptiste Charles Joseph Bélanger (1790-1874), the Backwater Equation and the Bélanger Equation
    THE UNIVERSITY OF QUEENSLAND DIVISION OF CIVIL ENGINEERING REPORT CH69/08 JEAN-BAPTISTE CHARLES JOSEPH BÉLANGER (1790-1874), THE BACKWATER EQUATION AND THE BÉLANGER EQUATION AUTHOR: Hubert CHANSON HYDRAULIC MODEL REPORTS This report is published by the Division of Civil Engineering at the University of Queensland. Lists of recently-published titles of this series and of other publications are provided at the end of this report. Requests for copies of any of these documents should be addressed to the Civil Engineering Secretary. The interpretation and opinions expressed herein are solely those of the author(s). Considerable care has been taken to ensure accuracy of the material presented. Nevertheless, responsibility for the use of this material rests with the user. Division of Civil Engineering The University of Queensland Brisbane QLD 4072 AUSTRALIA Telephone: (61 7) 3365 3619 Fax: (61 7) 3365 4599 URL: http://www.eng.uq.edu.au/civil/ First published in 2008 by Division of Civil Engineering The University of Queensland, Brisbane QLD 4072, Australia © Chanson This book is copyright ISBN No. 9781864999211 The University of Queensland, St Lucia QLD JEAN-BAPTISTE CHARLES JOSEPH BÉLANGER (1790-1874), THE BACKWATER EQUATION AND THE BÉLANGER EQUATION by Hubert CHANSON Professor, Division of Civil Engineering, School of Engineering, The University of Queensland, Brisbane QLD 4072, Australia Ph.: (61 7) 3365 3619, Fax: (61 7) 3365 4599, Email: [email protected] Url: http://www.uq.edu.au/~e2hchans/ REPORT No. CH69/08 ISBN 9781864999211 Division of Civil Engineering, The University of Queensland August 2008 Jean-Baptiste BÉLANGER (1790-1874) (Courtesy of the Bibliothèque de l'Ecole Nationale Supérieure des Ponts et Chaussées) Abstract In an open channel, the transition from a high-velocity open channel flow to a fluvial motion is a flow singularity called a hydraulic jump.
    [Show full text]
  • GYRODYNAMICS Introduction to the Dynamics of Rigid Bodies
    2 GYRODYNAMICS Introduction to the dynamics of rigid bodies Introduction. Though Newton wrote on many topics—and may well have given thought to the odd behavior of tops—I am not aware that he committed any of that thought to writing. But by Euler was active in the field, and it has continued to bedevil the thought of mathematical physicists. “Extended rigid bodies” are classical abstractions—alien both to relativity and to quantum mechanics—which are revealed to our dynamical imaginations not so much by commonplace Nature as by, in Maxwell’s phrase, the “toys of Youth.” That such toys behave “strangely” is evident to the most casual observer, but the detailed theory of their behavior has become notorious for being elusive, surprising and difficult at every turn. Its formulation has required and inspired work of wonderful genius: it has taught us much of great worth, and clearly has much to teach us still. Early in my own education as a physicist I discovered that I could not understand—or, when I could understand, remained unpersuaded by—the “elementary explanations” of the behavior of tops & gyros which are abundant in the literature. So I fell into the habit of avoiding the field, waiting for the day when I could give to it the time and attention it obviously required and deserved. I became aware that my experience was far from atypical: according to Goldstein it was in fact a similar experience that motivated Klein & Sommerfeld to write their 4-volume classic, Theorie des Kreisels (–). In November I had occasion to consult my Classical Mechanics II students concerning what topic we should take up to finish out the term.
    [Show full text]
  • Augustin-Louis Cauchy - Wikipedia, the Free Encyclopedia 1/6/14 3:35 PM Augustin-Louis Cauchy from Wikipedia, the Free Encyclopedia
    Augustin-Louis Cauchy - Wikipedia, the free encyclopedia 1/6/14 3:35 PM Augustin-Louis Cauchy From Wikipedia, the free encyclopedia Baron Augustin-Louis Cauchy (French: [oɡystɛ̃ Augustin-Louis Cauchy lwi koʃi]; 21 August 1789 – 23 May 1857) was a French mathematician who was an early pioneer of analysis. He started the project of formulating and proving the theorems of infinitesimal calculus in a rigorous manner, rejecting the heuristic Cauchy around 1840. Lithography by Zéphirin principle of the Belliard after a painting by Jean Roller. generality of algebra exploited by earlier Born 21 August 1789 authors. He defined Paris, France continuity in terms of Died 23 May 1857 (aged 67) infinitesimals and gave Sceaux, France several important Nationality French theorems in complex Fields Mathematics analysis and initiated the Institutions École Centrale du Panthéon study of permutation École Nationale des Ponts et groups in abstract Chaussées algebra. A profound École polytechnique mathematician, Cauchy Alma mater École Nationale des Ponts et exercised a great Chaussées http://en.wikipedia.org/wiki/Augustin-Louis_Cauchy Page 1 of 24 Augustin-Louis Cauchy - Wikipedia, the free encyclopedia 1/6/14 3:35 PM influence over his Doctoral Francesco Faà di Bruno contemporaries and students Viktor Bunyakovsky successors. His writings Known for See list cover the entire range of mathematics and mathematical physics. "More concepts and theorems have been named for Cauchy than for any other mathematician (in elasticity alone there are sixteen concepts and theorems named for Cauchy)."[1] Cauchy was a prolific writer; he wrote approximately eight hundred research articles and five complete textbooks. He was a devout Roman Catholic, strict Bourbon royalist, and a close associate of the Jesuit order.
    [Show full text]
  • The Logarithmic Tables of Edward Sang and His Daughters
    View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Elsevier - Publisher Connector Historia Mathematica 30 (2003) 47–84 www.elsevier.com/locate/hm The logarithmic tables of Edward Sang and his daughters Alex D.D. Craik School of Mathematics & Statistics, University of St Andrews, St Andrews, Fife KY16 9SS, Scotland, United Kingdom Abstract Edward Sang (1805–1890), aided only by his daughters Flora and Jane, compiled vast logarithmic and other mathematical tables. These exceed in accuracy and extent the tables of the French Bureau du Cadastre, produced by Gaspard de Prony and a multitude of assistants during 1794–1801. Like Prony’s, only a small part of Sang’s tables was published: his 7-place logarithmic tables of 1871. The contents and fate of Sang’s manuscript volumes, the abortive attempts to publish them, and some of Sang’s methods are described. A brief biography of Sang outlines his many other contributions to science and technology in both Scotland and Turkey. Remarkably, the tables were mostly compiled in his spare time. 2003 Elsevier Science (USA). All rights reserved. Résumé Edward Sang (1805–1890), aidé seulement par sa famille, c’est à dire ses filles Flora et Jane, compila des tables vastes des logarithmes et des autres fonctions mathématiques. Ces tables sont plus accurates, et plus extensives que celles du Bureau du Cadastre, compileés les années 1794–1801 par Gaspard de Prony et une foule de ses aides. On ne publia qu’une petite partie des tables de Sang (comme celles de Prony) : ses tables du 1871 des logarithmes à 7-places décimales.
    [Show full text]
  • An Appreciation and Discussion of Paul Germain’S “The Method of Virtual Power in the Mechanics of Continuous Media I: Second-Gradient Theory”
    NISSUNA UMANA INVESTIGAZIONE SI PUO DIMANDARE VERA SCIENZIA S’ESSA NON PASSA PER LE MATEMATICHE DIMOSTRAZIONI LEONARDO DA VINCI vol. 8 no. 2 2020 Mathematics and Mechanics of Complex Systems MARCELO EPSTEIN AND RONALD E. SMELSER AN APPRECIATION AND DISCUSSION OF PAUL GERMAIN’S “THE METHOD OF VIRTUAL POWER IN THE MECHANICS OF CONTINUOUS MEDIA I: SECOND-GRADIENT THEORY” msp MATHEMATICS AND MECHANICS OF COMPLEX SYSTEMS Vol. 8, No. 2, 2020 dx.doi.org/10.2140/memocs.2020.8.191 ∩ MM AN APPRECIATION AND DISCUSSION OF PAUL GERMAIN’S “THE METHOD OF VIRTUAL POWER IN THE MECHANICS OF CONTINUOUS MEDIA I: SECOND-GRADIENT THEORY” MARCELO EPSTEIN AND RONALD E. SMELSER Paul Germain’s 1973 article on the method of virtual power in continuum me- chanics has had an enormous impact on the modern development of the disci- pline. In this article we examine the historical context of the ideas it contains and discuss their continuing importance. Our English translation of the French original appears elsewhere in this volume (MEMOCS 8:2 (2020), 153–190). Introduction Among the many contributions of Paul Germain (1920–2009) to mechanics, this classical 1973 article[1973a] on the method of virtual power in continuum mechan- ics stands out for its enormous impact on the modern development of the discipline, as evidenced by hundreds of citations and by its direct or indirect influence in establishing a paradigm of thought for succeeding generations. In this article we examine the historical antecedents of the ideas contained in the article and discuss their continuing relevance. The article was published in French in the Journal de Mécanique.
    [Show full text]
  • Hist-Math.Fr 0 La Manufacture À Logarithmes 1 Lazare Carnot
    Une histoire de mathématiques à écouter sur hist-math.fr 0 La manufacture à logarithmes Le calcul des grandes Tables du Cadastre, pendant la Révolution, est un épisode majeur dans l’histoire de l’informatique. Rendez-vous compte : des centaines de milliers de logarithmes calculés avec 25 décimales exactes ! Ce qui a poussé Babbage à inventer l’ordi- nateur ! Euh ça, c’est ce qui se raconte. Qu’en est-il vrai- ment ? 1 Lazare Carnot (1753–1823) Un personnage clé dans cette histoire, comme d’ailleurs dans l’Histoire tout court de la Révolution française, est Lazare Carnot. Il était membre du co- mité de Salut Public en 1793, et il n’avait pas hésité à aller lui-même soutenir le moral des troupes de la République qui se battaient dans le Nord, quitte à destituer le général et prendre lui-même le com- mandement lors de la bataille de Wattignies, alors qu’il n’en avait pas le grade. Fêté comme l’organi- sateur de la victoire, il était intouchable sur le plan politique, du moins jusqu’à la restauration en 1815. 2 Métaphysique du calcul infinitésimal (1797) C’était aussi un scientifique, reconnu depuis son Es- sai sur les machines en 1783. Avec Monge, il est à l’origine de la création de l’École polytechnique et aussi du développement de la géométrie de situation. Il a en plus écrit cette « Métaphysique du calcul in- finitésimal », publiée en 1797, et rééditée plusieurs fois ensuite. Voici les premiers mots : 3 Métaphysique du calcul infinitésimal (1797) « Il y a quelques années que l’auteur de ces réflexions les a rédigées dans la forme où on les présente aujour- d’hui.
    [Show full text]
  • La Notion De Couple En Mécanique : Réhabiliter Poinsot
    La notion de couple en mécanique : réhabiliter Poinsot par Ivor Grattan-Guinness Historien des mathématiques et philosophe des sciences Professeur émérite à l’université du Middlesex (UK) Figure 1: Louis Poinsot, gravure de Boilly. Jules Boilly (1796-1874) est un peintre et lithographe spécialisé dans la gravure de personnalités, dont les membres de l’Institut (P.S. Girard, J.D. Cassini, Alexis Bouvard). Il était le fils d’un peintre plus renommé, Léopold Boilly (1761-1845), auteur de peintures de genre et de portraits, notamment de Sadi Carnot. I - PRÉLIMINAIRES En 1803, Louis Poinsot publia un traité de statique, à caractère révolutionnaire puisqu’il posait clairement le sujet non seulement en termes de forces mais aussi en terme de « couples » (c’est son expression), c’est-à-dire des paires de forces non colinéaires égales en amplitude et en direction mais en sens opposés. Plus tard, il adapta cette notion pour induire en dynamique une relation 1 nouvelle entre mouvement linéaire et mouvement de rotation. Le présent article résume ces développements et examine leur réception, qui fut lente parmi ses contemporains mathématiciens et quasi inexistante parmi les « historiens » de la mécanique plus tard. 1. Les organisations Un beau jour, lors des années révolutionnaires II ou III, période à présent plus connue sous le nom d’année 1794, un adolescent orphelin, étudiant au collège Louis le Grand à Paris, tomba sur un prospectus annonçant la création d’une nouvelle institution d’enseignement supérieur. Intrigué, il se porta candidat et fut accepté, ce qui détermina la suite de sa longue carrière. Cette institution constituait un des deux projets du gouvernement français pour résoudre l’une des crises sociales causées par cinq années de révolution et de ruptures.
    [Show full text]
  • La Notion De Couple En Mécanique : Réhabiliter Poinsot
    Bibnum Textes fondateurs de la science Physique La notion de couple en mécanique : réhabiliter Poinsot Ivor Grattan-Guiness Traducteur : Alexandre Moatti Édition électronique URL : http://journals.openedition.org/bibnum/725 ISSN : 2554-4470 Éditeur FMSH - Fondation Maison des sciences de l'homme Référence électronique Ivor Grattan-Guiness, « La notion de couple en mécanique : réhabiliter Poinsot », Bibnum [En ligne], Physique, mis en ligne le 01 janvier 2013, consulté le 19 avril 2019. URL : http:// journals.openedition.org/bibnum/725 © BibNum La notion de couple en mécanique : réhabiliter Poinsot par Ivor Grattan-Guinness Historien des mathématiques et philosophe des sciences Professeur émérite à l’université du Middlesex (UK) Figure 1: Louis Poinsot, gravure de Boilly. Jules Boilly (1796-1874) est un peintre et lithographe spécialisé dans la gravure de personnalités, dont les membres de l’Institut (P.S. Girard, J.D. Cassini, Alexis Bouvard). Il était le fils d’un peintre plus renommé, Léopold Boilly (1761-1845), auteur de peintures de genre et de portraits, notamment de Sadi Carnot. I - PRÉLIMINAIRES En 1803, Louis Poinsot publia un traité de statique, à caractère révolutionnaire puisqu’il posait clairement le sujet non seulement en termes de forces mais aussi en terme de « couples » (c’est son expression), c’est-à-dire des paires de forces non colinéaires égales en amplitude et en direction mais en sens opposés. Plus tard, il adapta cette notion pour induire en dynamique une relation 1 nouvelle entre mouvement linéaire et mouvement de rotation. Le présent article résume ces développements et examine leur réception, qui fut lente parmi ses contemporains mathématiciens et quasi inexistante parmi les « historiens » de la mécanique plus tard.
    [Show full text]
  • Applied Mathematics” Anyway?
    What Is \Applied Mathematics" Anyway? How the History of Fluid Mechanics Demonstrates the Role of Concepts in Applied Mathematics Stephen Perry April 2021 Submitted to the Graduate Faculty of the Philosophy Department at the University of Kentucky in partial fulfillment of the requirements for the degree of Bachelor of the Arts in Philosophy with Honors Contents 0 Introduction: Intepreting Physical Theory in Modern Science 1 0.1 The Syntactic and Semantic Views of Scientific Theories . .2 0.2 Scientific Theories and Metaphysics . .4 0.3 A Problem: Mathematics in Our Physical Theories . .5 0.4 Plan of the Paper . .6 0.5 Acknowledgments . .7 1 Accounting for Mathematics in Physical Theories 9 1.1 Pincock's Mapping Account of Applied Mathematics . .9 1.1.1 The Simple Mapping Account . 10 1.1.2 Idealization and Matching Models . 13 1.2 Mapping and Analytic Mathematics . 17 2 Case Study: Prantl's Boundary Layer Solution 23 2.1 An Interpretive Problem: Prandtl's Boundary Layer Solution . 23 2.2 The Derivation of the Navier-Stokes Equations and Prandtl's So- lution . 27 2.2.1 The Setting: French Mechanics at the Beginning of the 19th Century . 27 2.2.2 Practical Hydraulics vs. Rational Hydrodynamics . 31 2.2.3 Navier's and Others' Derivation . 34 2.2.4 Prandtl's Boundary Layer Solution . 42 2.3 Philosophical Analysis: Inventing Viscosity . 43 3 Building Mathematics: Historically-Motivated Analysis 49 3.1 The View From the History of Mathematics . 50 3.1.1 The Qibla Problem . 52 3.2 The Development of Mathematical Concepts: Complex Numbers 55 3.2.1 History of the Complex Numbers .
    [Show full text]
  • Lessons from the Avalanche of Numbers: Big Data in Historical Perspective
    I/S: A JOURNAL OF LAW AND POLICY FOR THE INFORMATION SOCIETY Lessons from the Avalanche of Numbers: Big Data in Historical Perspective MEG LETA AMBROSE, JD, PHD* Abstract: The big data revolution, like many changes associated with technological advancement, is often compared to the industrial revolution to create a frame of reference for its transformative power, or portrayed as altogether new. This article argues that between the industrial revolution and the digital revolution is a more valuable, yet overlooked period: the probabilistic revolution that began with the avalanche of printed numbers between 1820 and 1840. By comparing the many similarities between big data today and the avalanche of numbers in the 1800s, the article situates big data in the early stages of a prolonged transition to a potentially transformative epistemic revolution, like the probabilistic revolution. The widespread changes in and characteristics of a society flooded by data results in a transitional state that creates unique challenges for policy efforts by disrupting foundational principles relied upon for data protection. The potential of a widespread, lengthy transition also places the law in a pivotal position to shape and guide big data-based inquiry through to whatever epistemic shift may lie ahead. * Assistant Professor, Communication, Culture & Technology, Georgetown University. Many thanks to my Governing Algorithms course and Samantha Fried, whose thesis Quantify This: Statistics, The State, and Governmentality (on file at CCT, available upon request by emailing [email protected]) directed me to many of the wonderful historical secondary sources in this article. Additional thanks to John Grant at Palantir, Professor Paul Ohm, Solon Barocas and all the wonderful participants at the 2014 Privacy Law Scholars Conference for their insightful comments and suggestions.
    [Show full text]
  • On the Logical Status of the Virtual Work Law
    Meccanica 39: 159–173, 2004. © 2004 Kluwer Academic Publishers. Printed in the Netherlands. On the Logical Status of the Virtual Work Law DANILO CAPECCHI∗ Dipartimento di Scienza delle Costruzioni, Università di Napoli Federico II, Via Claudio 21, 80125 Napoli, Italy (Received: 19 February 2002; accepted in revised form: 8 November 2002) Abstract. The law of virtual work (VWL) is probably the first law in the history of mechanics; it is previous to the one on the lever, though not completely distinct from it. Here I will discuss the logical status of VWL, that is whether it is an autonomous principle or a theorem of some sort of mechanics. The problem is complicated by the fact that up to now no universally recognised expression has been accepted for it. From this article the problematical nature of VWL demonstrability is quite clear when the mechanics does not characterise completely the constraints. Italian schools in the XVIII century, even if we do not take Lagrange into consideration, had an important role, both in the development of VWL and in the discussion of its role. Key words: Virtual work, History of mechanics, Statics, Mechanics, Italian contribution. 1. Introduction The law of virtual work (VWL) is probably the first quantitative law in the history of me- chanics, even older than the law of the lever according to Duhem [1], though not completely distinct from it. Its utility became obvious only after the publication of Lagrange’s Mécanique analytique in 1788, in which it was both a theoretical instrument – a mechanical principle – and a method able to solve specific mechanical problems.
    [Show full text]
  • Project Aneurin
    The Aneurin Great War Project: Timeline Part 6 - The Georgian Wars, 1764 to 1815 Copyright Notice: This material was written and published in Wales by Derek J. Smith (Chartered Engineer). It forms part of a multifile e-learning resource, and subject only to acknowledging Derek J. Smith's rights under international copyright law to be identified as author may be freely downloaded and printed off in single complete copies solely for the purposes of private study and/or review. Commercial exploitation rights are reserved. The remote hyperlinks have been selected for the academic appropriacy of their contents; they were free of offensive and litigious content when selected, and will be periodically checked to have remained so. Copyright © 2013-2021, Derek J. Smith. First published 09:00 BST 30th May 2013. This version 09:00 GMT 20th January 2021 [BUT UNDER CONSTANT EXTENSION AND CORRECTION, SO CHECK AGAIN SOON] This timeline supports the Aneurin series of interdisciplinary scientific reflections on why the Great War failed so singularly in its bid to be The War to End all Wars. It presents actual or best-guess historical event and introduces theoretical issues of cognitive science as they become relevant. UPWARD Author's Home Page Project Aneurin, Scope and Aims Master References List BACKWARD IN TIME Part 1 - (Ape)men at War, Prehistory to 730 Part 2 - Royal Wars (Without Gunpowder), 731 to 1272 Part 3 - Royal Wars (With Gunpowder), 1273-1602 Part 4 - The Religious Civil Wars, 1603-1661 Part 5 - Imperial Wars, 1662-1763 FORWARD IN TIME Part
    [Show full text]