Gottfried Wilhelm Leibniz (1646 – 1716)
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An Introduction to Nonstandard Analysis 11
AN INTRODUCTION TO NONSTANDARD ANALYSIS ISAAC DAVIS Abstract. In this paper we give an introduction to nonstandard analysis, starting with an ultrapower construction of the hyperreals. We then demon- strate how theorems in standard analysis \transfer over" to nonstandard anal- ysis, and how theorems in standard analysis can be proven using theorems in nonstandard analysis. 1. Introduction For many centuries, early mathematicians and physicists would solve problems by considering infinitesimally small pieces of a shape, or movement along a path by an infinitesimal amount. Archimedes derived the formula for the area of a circle by thinking of a circle as a polygon with infinitely many infinitesimal sides [1]. In particular, the construction of calculus was first motivated by this intuitive notion of infinitesimal change. G.W. Leibniz's derivation of calculus made extensive use of “infinitesimal” numbers, which were both nonzero but small enough to add to any real number without changing it noticeably. Although intuitively clear, infinitesi- mals were ultimately rejected as mathematically unsound, and were replaced with the common -δ method of computing limits and derivatives. However, in 1960 Abraham Robinson developed nonstandard analysis, in which the reals are rigor- ously extended to include infinitesimal numbers and infinite numbers; this new extended field is called the field of hyperreal numbers. The goal was to create a system of analysis that was more intuitively appealing than standard analysis but without losing any of the rigor of standard analysis. In this paper, we will explore the construction and various uses of nonstandard analysis. In section 2 we will introduce the notion of an ultrafilter, which will allow us to do a typical ultrapower construction of the hyperreal numbers. -
The Spirit of Transformational Politics: Human Nature, Communication, and Community
THE SPIRIT OF TRANSFORMATIONAL POLITICS: HUMAN NATURE, COMMUNICATION, AND COMMUNITY Mary Elizabeth Domenico A dissertation submitted to the faculty at the University of North Carolina at Chapel Hill in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Department of Communication Studies. Chapel Hill 2017 Approved by: Christian Lundberg William Balthrop Elizabeth Grosz Randall Styers Eric King Watts @ 2017 Mary Elizabeth Domenico ALL RIGHTS RESERVED ii ABSTRACT Mary E. Domenico: The Spirit of Transformational Politics: Human Nature, Communication, and Community Under the Direction of Christian Lundberg This project in communication ethics explores the interrelations among views of human nature, theories of communicative action, and conceptualizations of the constitutive forces of community in Western thought. The central argument, that doctrines of human nature that include extra-material human capacities open avenues for rethinking contemporary political agency, is developed through a genealogy of doctrines of human nature intended to display how ideas of the self are historically configured and influential in thinking about human capacities. I begin with ancient Greek theories of a robust human spirit as portrayed by Homer, Plato, and Aristotle. The second cluster of theorists depicts the degradation of human spirit in religious (Augustine), philosophical (Descartes), and modern scientific doctrines. The third cluster addresses the recuperation of human spirit in the theories of Spinoza, Bergson, and Nancy. These genealogical clusters represent three distinct ways of viewing human nature and capacities for political agency. I challenge theories that presume ideational rationality and discourse are constitutive of community and reformulate the foundation of ethical community based on human spiritual capacities for knowledge beyond the empirical, the creation of new ways of relating to one another, and materializing our ontological connectedness. -
Biographies of Computer Scientists
1 Charles Babbage 26 December 1791 (London, UK) – 18 October 1871 (London, UK) Life and Times Charles Babbage was born into a wealthy family, and started his mathematics education very early. By . 1811, when he went to Trinity College, Cambridge, he found that he knew more mathematics then his professors. He moved to Peterhouse, Cambridge from where he graduated in 1814. However, rather than come second to his friend Herschel in the final examinations, Babbage decided not to compete for an honors degree. In 1815 he co-founded the Analytical Society dedicated to studying continental reforms of Newton's formulation of “The Calculus”. He was one of the founders of the Astronomical Society in 1820. In 1821 Babbage started work on his Difference Engine designed to accurately compile tables. Babbage received government funding to construct an actual machine, but they stopped the funding in 1832 when it became clear that its construction was running well over-budget George Schuetz completed a machine based on the design of the Difference Engine in 1854. On completing the design of the Difference Engine, Babbage started work on the Analytical Engine capable of more general symbolic manipulations. The design of the Analytical Engine was complete in 1856, but a complete machine would not be constructed for over a century. Babbage's interests were wide. It is claimed that he invented cow-catchers for railway engines, the uniform postal rate, a means of recognizing lighthouses. He was also interested in locks and ciphers. He was politically active and wrote many treatises. One of the more famous proposed the banning of street musicians. -
BY PLATO• ARISTOTLE • .AND AQUINAS I
i / REF1,l!;CTit.>NS ON ECONOMIC PROBLEMS / BY PLATO• ARISTOTLE • .AND AQUINAS ii ~FLECTIONS ON ECONO:MIC PROBLEMS 1 BY PLA'I'O, ARISTOTLE, JJJD AQUINAS, By EUGENE LAIDIBEL ,,SWEARINGEN Bachelor of Science Oklahoma Agricultural and Mechanical Collage Stillwater, Oklahoma 1941 Submitted to the Depertmeut of Economics Oklahoma Agricultural and Mechanical College In Partial Fulfillment of the Requirements for the Degree of MASTER OF SCIENCE 1948 iii f.. 'I. I ···· i·: ,\ H.: :. :· ··: ! • • ~ ' , ~ • • !·:.· : i_ ·, 1r 1i1. cr~~rJ3t L l: i{ ,\ I~ Y , '•T •)() 1 0 ,1 8 API-'HOV~D BY: .J ,.· 1.., J l.;"t .. ---- -··- - ·- ______.,.. I 7 -.. JI J ~ L / \ l v·~~ u ' ~) (;_,LA { 7 {- ' r ~ (\.7 __\ _. ...A'_ ..;f_ ../-_" ...._!)_.... ..." ___ ......._ ·;...;;; ··-----/ 1--.,i-----' ~-.._.._ :_..(__,,---- ....... Member of the Report Committee 1..j lj:,;7 (\ - . "'·- -· _ .,. ·--'--C. r, .~-}, .~- Q_ · -~ Q.- 1Head of the Department . · ~ Dean of the Graduate School 502 04 0 .~ -,. iv . r l Preface The purpose and plan of this report are set out in the Introduction. Here, I only wish to express my gratitude to Professor Russell H. Baugh who has helped me greatly in the preparation of this report by discussing the various subjects as they were in the process of being prepared. I am very much indebted to Dr. Harold D. Hantz for his commentaries on the report and for the inspiration which his classes in Philosophy have furnished me as I attempted to correlate some of the material found in these two fields, Ecor!.Omics and Philosophy. I should like also to acknowledge that I owe my first introduction into the relationships of Economics and Philosophy to Dean Raymond Thomas, and his com~ents on this report have been of great value. -
Plotting, Derivatives, and Integrals for Teaching Calculus in R
Plotting, Derivatives, and Integrals for Teaching Calculus in R Daniel Kaplan, Cecylia Bocovich, & Randall Pruim July 3, 2012 The mosaic package provides a command notation in R designed to make it easier to teach and to learn introductory calculus, statistics, and modeling. The principle behind mosaic is that a notation can more effectively support learning when it draws clear connections between related concepts, when it is concise and consistent, and when it suppresses extraneous form. At the same time, the notation needs to mesh clearly with R, facilitating students' moving on from the basics to more advanced or individualized work with R. This document describes the calculus-related features of mosaic. As they have developed histori- cally, and for the main as they are taught today, calculus instruction has little or nothing to do with statistics. Calculus software is generally associated with computer algebra systems (CAS) such as Mathematica, which provide the ability to carry out the operations of differentiation, integration, and solving algebraic expressions. The mosaic package provides functions implementing he core operations of calculus | differen- tiation and integration | as well plotting, modeling, fitting, interpolating, smoothing, solving, etc. The notation is designed to emphasize the roles of different kinds of mathematical objects | vari- ables, functions, parameters, data | without unnecessarily turning one into another. For example, the derivative of a function in mosaic, as in mathematics, is itself a function. The result of fitting a functional form to data is similarly a function, not a set of numbers. Traditionally, the calculus curriculum has emphasized symbolic algorithms and rules (such as xn ! nxn−1 and sin(x) ! cos(x)). -
Women in Computing
History of Computing CSE P590A (UW) PP190/290-3 (UCB) CSE 290 291 (D00) Women in Computing Katherine Deibel University of Washington [email protected] 1 An Amazing Photo Philadelphia Inquirer, "Your Neighbors" article, 8/13/1957 2 Diversity Crisis in Computer Science Percentage of CS/IS Bachelor Degrees Awarded to Women National Center for Education Statistics, 2001 3 Goals of this talk ! Highlight the many accomplishments made by women in the computing field ! Learn their stories, both good and bad 4 Augusta Ada King, Countess of Lovelace ! Translated and extended Menabrea’s article on Babbage’s Analytical Engine ! Predicted computers could be used for music and graphics ! Wrote the first algorithm— how to compute Bernoulli numbers ! Developed notions of looping and subroutines 5 Garbage In, Garbage Out The Analytical Engine has no pretensions whatever to originate anything. It can do whatever we know how to order it to perform. It can follow analysis; but it has no power of anticipating any analytical relations or truths. — Ada Lovelace, Note G 6 On her genius and insight If you are as fastidious about the acts of your friendship as you are about those of your pen, I much fear I shall equally lose your friendship and your Notes. I am very reluctant to return your admirable & philosophic 'Note A.' Pray do not alter it… All this was impossible for you to know by intuition and the more I read your notes the more surprised I am at them and regret not having earlier explored so rich a vein of the noblest metal. -
A Prologue to Charles Sanders Peirce's Theory of Signs
In Lieu of Saussure: A Prologue to Charles Sanders Peirce’s Theory of Signs E. San Juan, Jr. Language is as old as consciousness, language is practical consciousness that exists also for other men, and for that reason alone it really exists for me personally as well; language, like consciousness, only arises from the need, the necessity, of intercourse with other men. – Karl Marx, The German Ideology (1845-46) General principles are really operative in nature. Words [such as Patrick Henry’s on liberty] then do produce physical effects. It is madness to deny it. The very denial of it involves a belief in it. – C.S. Peirce, Harvard Lectures on Pragmatism (1903) The era of Saussure is dying, the epoch of Peirce is just struggling to be born. Although pragmatism has been experiencing a renaissance in philosophy in general in the last few decades, Charles Sanders Peirce, the “inventor” of this anti-Cartesian, scientific- realist method of clarifying meaning, still remains unacknowledged as a seminal genius, a polymath master-thinker. William James’s vulgarized version has overshadowed Peirce’s highly original theory of “pragmaticism” grounded on a singular conception of semiotics. Now recognized as more comprehensive and heuristically fertile than Saussure’s binary semiology (the foundation of post-structuralist textualisms) which Cold War politics endorsed and popularized, Peirce’s “semeiotics” (his preferred rubric) is bound to exert a profound revolutionary influence. Peirce’s triadic sign-theory operates within a critical- realist framework opposed to nominalism and relativist nihilism (Liszka 1996). I endeavor to outline here a general schema of Peirce’s semeiotics and initiate a hypothetical frame for interpreting Michael Ondaatje’s Anil’s’ Ghost, an exploratory or Copyright © 2012 by E. -
Epistemology As a Foundation for Epicurean Thought Emma E
Florida State University Libraries Electronic Theses, Treatises and Dissertations The Graduate School 2012 Epistemology as a Foundation for Epicurean Thought Emma E. Hughes Follow this and additional works at the FSU Digital Library. For more information, please contact [email protected] THE FLORIDA STATE UNIVERSITY COLLEGE OF ARTS AND SCIENCES EPISTEMOLOGY AS A FOUNDATION FOR EPICUREAN THOUGHT By EMMA E. HUGHES A Thesis submitted to the Department of Classics in partial fulfillment of the requirements for the degree of Master of Arts Degree Awarded: Spring Semester, 2012 Emma E. Hughes defended this thesis on March 26th, 2012. The members of the supervisory committee were: Svetla Slaveva-Griffin Professor Directing Thesis Timothy Stover Committee Member Nathanael Stein Committee Member The Graduate School has verified and approved the above-named committee members, and certifies that the thesis has been approved in accordance with university requirements. ii TABLE OF CONTENTS Abstract.......................................................................................................................................... iv INTRODUCTION...................................................................................................................1 CHAPTER ONE: A NEW LOOK AT AN OLD SCHOOL ..................................................5 CHAPTER TWO: PROBLEMS IN EPICUREAN EPISTEMOLOGY ...............................18 CHAPTER THREE: AN EPISTEMOLOGICAL FOUNDATION......................................30 CHAPTER FOUR: CONCLUSION .....................................................................................38 -
0.999… = 1 an Infinitesimal Explanation Bryan Dawson
0 1 2 0.9999999999999999 0.999… = 1 An Infinitesimal Explanation Bryan Dawson know the proofs, but I still don’t What exactly does that mean? Just as real num- believe it.” Those words were uttered bers have decimal expansions, with one digit for each to me by a very good undergraduate integer power of 10, so do hyperreal numbers. But the mathematics major regarding hyperreals contain “infinite integers,” so there are digits This fact is possibly the most-argued- representing not just (the 237th digit past “Iabout result of arithmetic, one that can evoke great the decimal point) and (the 12,598th digit), passion. But why? but also (the Yth digit past the decimal point), According to Robert Ely [2] (see also Tall and where is a negative infinite hyperreal integer. Vinner [4]), the answer for some students lies in their We have four 0s followed by a 1 in intuition about the infinitely small: While they may the fifth decimal place, and also where understand that the difference between and 1 is represents zeros, followed by a 1 in the Yth less than any positive real number, they still perceive a decimal place. (Since we’ll see later that not all infinite nonzero but infinitely small difference—an infinitesimal hyperreal integers are equal, a more precise, but also difference—between the two. And it’s not just uglier, notation would be students; most professional mathematicians have not or formally studied infinitesimals and their larger setting, the hyperreal numbers, and as a result sometimes Confused? Perhaps a little background information wonder . -
Leibniz' De Arte Combinatoria
Leibniz’ De arte combinatoria John N. Martin Department of Philosophy University of Cincinnati Cincinnati, OH 45221 [email protected] John N. Martin, 2003 Page 1 Leibniz’ De arte combinatoria I. INTRODUCTION Logicians, philosophers and to judge from the Internet even the general public are vaguely aware that Leibniz held views about logic that anticipate modern ideas of proof system and algorithm. Though there are many places in Leibniz’ works that might be cited as evidence for such claims, popular works cite virtually only two of Leibniz’ shorter papers, Characteristica universalis and De arte combinatoria. Curiously, though there are hundreds, maybe thousands, of references to these papers, nothing serious has been written in recent decades about the papers themselves that could be called a professional exegesis or discussion of their logical content. The purpose of this short paper is to remedy that lack by offering a “reconstruction” of the system Leibniz sketches in De arte combinatoria, which of the two essays is the one more focused on the notions of proof and algorithm. A point of caution about method should be made at the outset. Any modern “reconstruction” of views in the history of logic is by its nature a compromise. It is an attempt to preserve as much of the original content, including its terminology and formulas, as is possible while simultaneously meeting the standards of modern metatheory. For example, if it is possible to do justice to the original by observing standard formats, then they should be Page 2 followed. For example, if it is fair to the text, it is desirable to define the syntax inductively, state definitions set theoretically, develop notions of proof within an axiom or natural deduction system, and define semantic ideas in a recursive manner parallel to syntax. -
A Comprehension of Spinoza's God
A Comprehension of Spinoza's God Through the Dichotomy of Labels Tania Norell LUNDS UNIVERSITET | CENTRUM FÖR TEOLOGI OCH RELIGIONSVETENSKAP TLVM77 Philosophy of Religion Master Thesis 30 credits Supervisor: Jayne Svenungsson, Professor of Systematic Theology Examiner: Jesper Svartvik, Professor of Theology of Religions Autumn term 2015 Lund University Sweden Lund University Tania Norell Abstract: The 17 th century philosopher Spinoza is known for his concept of God as One Substance, God or Nature and therefore considered as a monist and categorized as a naturalist. He has been labeled an atheist and God-intoxicated man, as well as a determinist and pantheist, which I perceive to be dichotomies. The problem, as I see it, is that Spinoza’s philosophy and concept of God has mainly been interpreted through a dualistic mind-set, traditional to philosophers and theologians of the West, but Spinoza has a monistic worldview, and this has consequences in regards to the comprehension of what Spinoza’s concept of God entails and what a relationship “with” God implies . The labels panentheist and necessitarianist are discussed and the label of theologian argued. The thesis methodology is constructive because the purpose is to provide a theoretical foundation that has the potential to be applied in dialogues about God between the vast varieties of believers and non-believers alike, as well as across boundaries of contradicting worldviews and academic disciplines, and this focus on functionalism is inspired by a theory that calls for the furthering of inter-disciplinary dialogue between the subject areas philosophy of religion and theology specifically. My personal worldview is that there might well be One Substance, God or Nature, but that does not necessarily mean that there is one truth that is valid, but rather that all truth claims may be of value. -
Calculus Terminology
AP Calculus BC Calculus Terminology Absolute Convergence Asymptote Continued Sum Absolute Maximum Average Rate of Change Continuous Function Absolute Minimum Average Value of a Function Continuously Differentiable Function Absolutely Convergent Axis of Rotation Converge Acceleration Boundary Value Problem Converge Absolutely Alternating Series Bounded Function Converge Conditionally Alternating Series Remainder Bounded Sequence Convergence Tests Alternating Series Test Bounds of Integration Convergent Sequence Analytic Methods Calculus Convergent Series Annulus Cartesian Form Critical Number Antiderivative of a Function Cavalieri’s Principle Critical Point Approximation by Differentials Center of Mass Formula Critical Value Arc Length of a Curve Centroid Curly d Area below a Curve Chain Rule Curve Area between Curves Comparison Test Curve Sketching Area of an Ellipse Concave Cusp Area of a Parabolic Segment Concave Down Cylindrical Shell Method Area under a Curve Concave Up Decreasing Function Area Using Parametric Equations Conditional Convergence Definite Integral Area Using Polar Coordinates Constant Term Definite Integral Rules Degenerate Divergent Series Function Operations Del Operator e Fundamental Theorem of Calculus Deleted Neighborhood Ellipsoid GLB Derivative End Behavior Global Maximum Derivative of a Power Series Essential Discontinuity Global Minimum Derivative Rules Explicit Differentiation Golden Spiral Difference Quotient Explicit Function Graphic Methods Differentiable Exponential Decay Greatest Lower Bound Differential