A Reconstruction of Briggs' Logarithmorum Chilias
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Logarithms – a Journey of Their Tables to All Over the World 1
Logarithms – a Journey of their Tables to all over the World 1 Klaus Kühn, Nienstädt (Germany) 2 1 Introduction These days, nobody expects anything really new on the subject of logarithms. Surprisingly, however, there is still something to be written, something to be reviewed or something to be looked at again with fresh eyes. The history of logarithms has been described and dealt with on many occasions and is very clear. Nevertheless there are unnecessary discussions from time to time about who invented logarithms. Undeniably, a 7-place logarithmic table called "Mirifici Logarithmorum Canonis Descriptio" was published in 1614 for the very first time by John Napier (1550 – 1617). 6 years later "Aritmetische und Geometrische Progreß Tabulen / sambt gründlichem Unterricht / wie solche nützlich in allerley Rechnungen zugebrauchen / und verstanden werden soll " (translation see 3) was published by Jost Bürgi (1552 - 1632) – also known as Joost or Jobst Byrgius or Byrg. He published logarithms to 8 places; however this table failed to catch on because there were no instructions for its use included as mentioned. In the eyes of some of today’s contemporaries Bürgi is regarded as the inventor of logarithms, because he had been calculating his logarithms years before Napier, but he only published them on the insistence of Johannes Kepler (1571 – 1630). There is no information on the time it took John Napier to finish calculating his logarithms but in those times it would have been a matter of many years. The theories of the Babylonians (about 1600 B.C.), Euclid (365 – 300 B.C.), and Archimedes (287 – 212 B.C.) had already begun to move in the logarithmic direction. -
Napier's Ideal Construction of the Logarithms
Napier’s ideal construction of the logarithms Denis Roegel To cite this version: Denis Roegel. Napier’s ideal construction of the logarithms. [Research Report] 2010. inria-00543934 HAL Id: inria-00543934 https://hal.inria.fr/inria-00543934 Submitted on 6 Dec 2010 HAL is a multi-disciplinary open access L’archive ouverte pluridisciplinaire HAL, est archive for the deposit and dissemination of sci- destinée au dépôt et à la diffusion de documents entific research documents, whether they are pub- scientifiques de niveau recherche, publiés ou non, lished or not. The documents may come from émanant des établissements d’enseignement et de teaching and research institutions in France or recherche français ou étrangers, des laboratoires abroad, or from public or private research centers. publics ou privés. Napier’s ideal construction of the logarithms∗ Denis Roegel 6 December 2010 1 Introduction Today John Napier (1550–1617) is most renowned as the inventor of loga- rithms.1 He had conceived the general principles of logarithms in 1594 or be- fore and he spent the next twenty years in developing their theory [108, p. 63], [33, pp. 103–104]. His description of logarithms, Mirifici Logarithmorum Ca- nonis Descriptio, was published in Latin in Edinburgh in 1614 [131, 161] and was considered “one of the very greatest scientific discoveries that the world has seen” [83]. Several mathematicians had anticipated properties of the correspondence between an arithmetic and a geometric progression, but only Napier and Jost Bürgi (1552–1632) constructed tables for the purpose of simplifying the calculations. Bürgi’s work was however only published in incomplete form in 1620, six years after Napier published the Descriptio [26].2 Napier’s work was quickly translated in English by the mathematician and cartographer Edward Wright3 (1561–1615) [145, 179] and published posthu- mously in 1616 [132, 162]. -
Napier's Ideal Construction of the Logarithms
Napier’s ideal construction of the logarithms∗ Denis Roegel 12 September 2012 1 Introduction Today John Napier (1550–1617) is most renowned as the inventor of loga- rithms.1 He had conceived the general principles of logarithms in 1594 or be- fore and he spent the next twenty years in developing their theory [108, p. 63], [33, pp. 103–104]. His description of logarithms, Mirifici Logarithmorum Ca- nonis Descriptio, was published in Latin in Edinburgh in 1614 [131, 161] and was considered “one of the very greatest scientific discoveries that the world has seen” [83]. Several mathematicians had anticipated properties of the correspondence between an arithmetic and a geometric progression, but only Napier and Jost Bürgi (1552–1632) constructed tables for the purpose of simplifying the calculations. Bürgi’s work was however only published in incomplete form in 1620, six years after Napier published the Descriptio [26].2 Napier’s work was quickly translated in English by the mathematician and cartographer Edward Wright3 (1561–1615) [145, 179] and published posthu- mously in 1616 [132, 162]. A second edition appeared in 1618. Wright was a friend of Henry Briggs (1561–1630) and this in turn may have led Briggs to visit Napier in 1615 and 1616 and further develop the decimal logarithms. ∗This document is part of the LOCOMAT project, the LORIA Collection of Mathe- matical Tables: http://locomat.loria.fr. 1Among his many activities and interests, Napier also devoted a lot of time to a com- mentary of Saint John’s Revelation, which was published in 1593. One author went so far as writing that Napier “invented logarithms in order to speed up his calculations of the Number of the Beast.” [40] 2It is possible that Napier knew of some of Bürgi’s work on the computation of sines, through Ursus’ Fundamentum astronomicum (1588) [149]. -
A Concise History of Mathematics the Beginnings 3
A CONCISE HISTORY OF A CONCISE HISTORY MATHEMATICS STRUIK OF MATHEMATICS DIRK J. STRUIK Professor Mathematics, BELL of Massachussetts Institute of Technology i Professor Struik has achieved the seemingly impossible task of compress- ing the history of mathematics into less than three hundred pages. By stressing the unfolding of a few main ideas and by minimizing references to other develop- ments, the author has been able to fol- low Egyptian, Babylonian, Chinese, Indian, Greek, Arabian, and Western mathematics from the earliest records to the beginning of the present century. He has based his account of nineteenth cen- tury advances on persons and schools rather than on subjects as the treatment by subjects has already been used in existing books. Important mathema- ticians whose work is analysed in detail are Euclid, Archimedes, Diophantos, Hammurabi, Bernoulli, Fermat, Euler, Newton, Leibniz, Laplace, Lagrange, Gauss, Jacobi, Riemann, Cremona, Betti, and others. Among the 47 illustra- tions arc portraits of many of these great figures. Each chapter is followed by a select bibliography. CHARLES WILSON A CONCISE HISTORY OF MATHEMATICS by DIRK. J. STRUIK Professor of Mathematics at the Massachusetts Institute of Technology LONDON G. BELL AND SONS LTD '954 Copyright by Dover Publications, Inc., U.S.A. FOR RUTH Printed in Great Britain by Butler & Tanner Ltd., Frame and London CONTENTS Introduction xi The Beginnings 1 The Ancient Orient 13 Greece 39 The Orient after the Decline of Greek Society 83 The Beginnings in Western Europe 98 The -
FACULTAD De FILOSOFÍA Y LETRAS DEPARTAMENTO De FILOLOGÍA INGLESA Grado En Estudios Ingleses
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Repositorio Documental de la Universidad de Valladolid FACULTAD de FILOSOFÍA Y LETRAS DEPARTAMENTO de FILOLOGÍA INGLESA Grado en Estudios Ingleses TRABAJO DE FIN DE GRADO Seventeenth-Century Titles Relating to Science in the Historical Library of Santa Cruz, Valladolid: Toward a Study of their Circulation in Spain Marina Sánchez Zubiaurre Tutora: Anunciación Carrera de la Red 2018-2019 Abstract The study of the reception of seventeenth-century British scientists in Spain has been carried out only partially. Key figures representing early modern English and Scottish scientific thought are well researched, like Newton or Napier, but in general, the presence of their books in Spanish libraries remains to be precised. This BA Dissertation will use such bibliographical study to provide fresh evidence on the circulation of the works of British scientists within our libraries in the 1600s. It looks at the copies of the works of John Napier, Hugh Semple, John Selden, and Francis Bacon kept in the Historical Library of Santa Cruz, Valladolid, and describes their copy- specific features and marks of provenance. The aim is to confirm whether these authors only began to be studied in Spain in the late 1700s, as is generally sustained, and contribute new pieces on evidence of how and why that may have been. Keywords: early modern science, early modern Spain, circulation, Historical Library of Santa Cruz, bibliography, provenance Resumen El estudio de recepción de la obra de los científicos británicos del siglo diecisiete en España se ha llevado a cabo solamente de forma parcial. -
Chapter 8 Families of Functions
Chapter 8 Families of Functions One very important area of real analysis is the study of the properties of real valued functions. We introduced the general properties of functions earlier in Chapter 6. In this chapter we want to look at specific functions and families of functions to see what properties really belong to the area of analysis separate from algebra or topology. We will take on the functions in a somewhat orderly manner. 8.1 Polynomials The polynomials in the study of functions play a similar role to the integers in our study of numbers. They are our basic building blocks. Likewise, when we really start looking at the family of polynomials most of the questions we have are really algebraic in nature and not analytic, just like the study of integers. In general a polynomial is an expression in which a finite number of constants and variables are combined using only addition, subtraction, multiplication, and non- negative whole number exponents (raising to a power). A polynomial function is a function defined by evaluating a polynomial. For example, the function f defined by f(x)= x3 x is a polynomial function. Polynomial functions are an important class of smooth −functions — smooth meaning that they are infinitely differentiable, i.e., they have derivatives of all finite orders. Because of their simple structure, polynomials are easy to evaluate, and are used extensively in numerical analysis for polynomial interpolation or to numerically inte- grate more complex functions. Computationally, they require only multiplication and addition. Any division is division of coefficients and subtraction is just the addition of the additive inverse. -
A History of the Common Logarithmic Table with Proportional Parts 상용로그표의 비례부분에 대한 역사적 고찰
Journal for History of Mathematics http://dx.doi.org/10.14477/jhm.2014.27.6.409 Vol. 27 No. 6 (Dec. 2014), 409–419 A History of the Common Logarithmic Table with Proportional Parts 상용로그표의 비례부분에 대한 역사적 고찰 Kim Tae Soo 김태수 In school mathematics, the logarithmic function is defined as the inverse function of an exponential function. And the natural logarithm is defined by the integral of the fractional function 1/x. But historically, Napier had already used the concept of logarithm in 1614 before the use of exponential function or integral. The calcu- lation of the logarithm was a hard work. So mathematicians with arithmetic ability made the tables of values of logarithms and people used the tables for the estima- tion of data. In this paper, we first take a look at the mathematicians and mathe- matical principles related to the appearance and the developments of the logarith- mic tables. And then we deal with the confusions between mathematicians, raised by the estimation data which were known as proportional parts or mean differ- ences in common logarithmic tables. Keywords: Logarithms, Table of Common Logarithms, Proportional Part; 로그, 상 용로그표, 비례부분. MSC: 97-03 ZDM: A34 1 서론 일반적인 교육과정에서는 로그함수를 지수함수인 y = ax 의 역함수 y = log x 로 정의 R a x 1 한다. 특별히 밑이 e 인 자연로그는 적분을 이용하여 ln x = 1 t dt 로 정의한다. 그러나 역사적으로 살펴보면 로그의 개념은 지수함수와 적분의 사용 시기 이전인 1614년에 네이 피어(John Napier, 1550〜1617)에 의하여 사용되었다 [9]. 물론 네이피어에 의한 로그의 계산 방법은 지금의 방법과 일치하지는 않지만 현재의 로그함수의 성질을 유사하게 가지고 있었다. -
F Chapter.Indd
F. M. L. Erwin Tomash Library Faber, A. W. headquarters in Stein bie Nurnberg and factories in several other countries. By the time the slide rule was replaced by the electronic calculator, Faber-Castell had produced hundreds of different models. This instruction manual on the use of the slide rule is aimed at the sophisticated scientific user. While it opens with simple multiplication and division, it soon turns to advanced problems such as finding the seventh root of 1893. This manual is distinguished by having full- From Orance Fine, Protomathesis, 1532 size diagrams of the slide rule markings to illustrate the somewhat involved manipulations required. F 1 Illustrations available: F. M. L. Title page Example of the seventh root of 1893 Principi elementari d’aritmetica b/w: Coli, Gaudenzio; Trattato elementare del sistema metrico decimale, Bologna, 1859 Year: 1859 ? Place: San Domenico Publisher: Antonio Chierici Edition: unknown Language: Italian Binding: contemporary half-bound leather; wrappers bound in Pagination: pp. 16 Size: 167x110 mm Reference: Not in Rcdi BMI See also the main entry for Coli, Gaudenzio; Trattato… This is a very short work that explains elementary arithmetic. After dealing with simple numeration and the four basic arithmetic operations, it has a short sections on Roman numerals, tables for addition, subtraction and multiplication, and a few short tables relating metric equivalents of Italian measures. Illustrations available: First page F 2 F 2 F 3 Faber, A. W. Faber, A. W. Anleitung zum Gebrauche des Rechenstabes Instruction sur l’emploi de la règle à calcul de A. W. Faber à Stein près Nuremberg Year: n/d Place: Stein near Nürnberg Year: n/d Publisher: A.W. -
National Librarian's Report
BM/18/54 Fi on 1 National Librarian and Chief Executive’s Report to the Board 28 November 2018 LIBRARIAN’S KEY EVENTS THIS QUARTER 19 September 2018 20 September 2018 10 October 2018 Attended the Scottish Library Welcomed a group of visitors Attended the British Library & Information Council (SLIC) from George Washington’s Advisory Council (BLAC) Board Meeting in Glasgow; Mount Vernon in Virginia, USA; meeting at the British Library; 14 and 15 October 2018 24 October 2018 6 November 2018 Co-hosted Board recruitment Guest-lectured and conducted Attended The Institute for events with the Chair of the a seminar in the School of Advanced Studies in the Board Sir Kenneth Calman, at Creative and Cultural Business Humanities Board meeting at George IV Bridge and Kelvin at Robert Gordon University – the University of Edinburgh; Hall; annual event; 7 November 2018 12 November 2018 13 November 2018 Welcomed the Cabinet Met informally with the Was a guest at the launch of Secretary for Culture, Tourism Edinburgh-based Directors of Dear Mr Murray at St Cecilia’s and External Affairs (Fiona National Collections (NGS, Hall; Hyslop) together with patrons NMS, RBGS, HES) ; of the Donmar Warehouse (the group supporting the new MQS movie) to the Library for a special viewing of the last letter of Mary Queen of Scots; 14 November 2018 15 November 2018 20 – 21 November 2018 Hosted the event at Kelvin Hall Attended at the Scottish Attended the DCDC to formally sign a Parliament, together with the (Discovering Collections, Memorandum of Chair, for the Library’s annual Discovering Communities) Understanding between the strategic meeting with Cabinet Conference in Birmingham. -
Zum Stand Der Berechnungsmethoden Von Logarithmen Im 17
Zum Stand der Berechnungsmethoden von Logarithmen im 17. Jahrhundert Gerlinde Faustmann, Klaus Kühn In dieser Arbeit wird die Berechnung der ersten dekadischen Logarithmen von natürlichen Zahlen behandelt, wobei besonders die Tafeln von Ezechiel de Decker (1603-1643) thematisiert werden. Zusätzlich wird ein Überblick über die im 17. Jahrhundert erschienenen Logarithmentafeln sowie deren Berechnungs- methoden gegeben. Abschließend werden noch die „musikalischen Logarithmen“ von Juan Caramuel De Lobkowitz (1606-1682) entsprechend erläutert. 0. Historische Entwicklung des Logarithmus Die ersten Gedanken zur Entwicklung der Logarithmen kann man bei den Baby- loniern (~1600 v. Chr.) in ihren Tafeln der Potenzen erkennen. In Euklids (~300 v. Chr.) Elementen findet man eine allgemeine Aussage zur Division von Potenzen. Archimedes (~ 215 v. Chr.) hatte keine Potenzschreibweise, er kannte aber be- reits in seiner Sandkörnerrechnung das "Prinzip der Logarithmen". Einen Anfang für die Potenzbezeichnungen brachte um ca. 250 n. Chr. die Arithmetik des Dio- phant von Alexandria. Um 1200 n. Chr. findet man bei Jordanus Nemorarius eine schwache Spur von Archimedes' Gedanken, bei Nicole Oresme (1323-1382) kommen zum ersten Mal im Jahr 1360 gebrochene Exponenten vor. Nicolas Chuquets' (1445-1488) Werk "Triparty" (1484) enthält eine arithmetische und geometrische Folge mit positi- ven Exponenten und in Christoph Rudolff's (1500-1549) "Coß"(1525) ist ein Zu- sammenhang zwischen der Multiplikation der Glieder einer geometrischen Folge sowie der Addition arithmetischer Folgenglieder zu finden. Michael Stifel (1487? -1567) erweitert 1544 Chuquets Folge um negative Zahlen. In "Canon mathematicus" (1579) bevorzugt François Viète (1540-1603) Dezimalbrüche ge- genüber Sexagesimalbrüchen, Simon Stevin (1548-1620) ersetzt schließlich um 1600 die Brüche durch Dezimalzahlen und führt unendliche Dezimalzahlen ein. -
Pi and E, and the Most Beautiful Theorem in Mathematics
25 OCTOBER 2017 Pi and e, and the Most Beautiful Theorem in Mathematics PROFESSOR ROBIN WILSON Introduction Following John Barrow’s lecture on 0 (the nothingness number) and Raymond Flood’s lecture on i (the imaginary number), I’m now going to look at two other mathematical constants, π (the circle number) and e (the exponential number), before combining them all into what many have claimed is ‘the most beautiful theorem in mathematics’. One person featuring throughout this story is the Swiss mathematician Leonhard Euler, who spent most of his life in the Imperial courts of St Petersburg and Berlin. The most prolific mathematician of all time, Euler published over 800 books and papers in over 70 volumes. Ranging across almost all branches of mathematics and physics at the time, these amounted to about one-third of all the maths and physics publications of the 18th century. The ‘Circle Number’ π First we meet the number π which, as we learned at school, is a little bit more than 3.14 and a little bit less than 22 /7. It arises in two ways – first as the ratio of the circumference C of a circle to its diameter d – that is, π = C/d, so C = πd, or 2πr where r is the radius. This ratio is the same for circles of any size – from a pizza to the moon. But it’s also the ratio of the area A of a circle to the square of its radius r, π = A/r2, so A = πr2, or πd2/4. This ratio is also the same for all circles, as Euclid proved in the 3rd century BC.