Silicon City: Computer History Made in New York November 13, 2015 – April 17, 2016 Selected PR Images
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Weeel for the IBM 704 Data Processing System Reference Manual
aC sicru titi Wane: T| weeel for the IBM 704 Data Processing System Reference Manual FORTRAN II for the IBM 704 Data Processing System © 1958 by International Business Machines Corporation MINOR REVISION This edition, C28-6000-2, is a minor revision of the previous edition, C28-6000-1, but does not obsolete it or C28-6000. The principal change is the substitution of a new discussion of the COMMONstatement. TABLE OF CONTENTS Page General Introduction... ee 1 Note on Associated Publications Le 6 PART |. THE FORTRAN If LANGUAGE , 7 Chapter 1. General Properties of a FORTRAN II Source Program . 9 Types of Statements. 1... 1. ee ee ee we 9 Types of Source Programs. .......... ~ ee 9 Preparation of Input to FORTRAN I Translatorcee es 9 Classification of the New FORTRAN II Statements. 9 Chapter 2. Arithmetic Statements Involving Functions. ....... 10 Arithmetic Statements. .. 1... 2... ew eee . 10 Types of Functions . il Function Names. ..... 12 Additional Examples . 13 Chapter 3. The New FORTRAN II Statements ......... 2 16 CALL .. 16 SUBROUTINE. 2... 6 ee ee te ew eh ee es 17 FUNCTION. 2... 1 ee ee ww ew ew ww ew ew ee 18 COMMON ...... 2. ee se ee eee wee . 20 RETURN. 2... 1 1 ew ee te ee we wt wt wh wt 22 END... «4... ee we ee ce ew oe te tw . 22 PART Il, PRIMER ON THE NEW FORTRAN II FACILITIES . .....0+2«~W~ 25 Chapter 1. FORTRAN II Function Subprograms. 0... eee 27 Purpose of Function Subprograms. .....445... 27 Example 1: Function of an Array. ....... 2 + 6 27 Dummy Variables. -
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. -
Computer Pioneer / Kim Todd
Copyright © 2015 Truman State University Press, Kirksville, Missouri, 63501 All rights reserved tsup.truman.edu Cover art: Betty Jean Jennings, ca. 1941; detail of ENIAC, 1946. Cover design: Teresa Wheeler Library of Congress Cataloging-in-Publication Data Todd, Kim D., author. Jean Jennings Bartik : computer pioneer / Kim Todd. pages cm—(Notable Missourians) Summary: “As a young girl in the 1930s, Jean Bartik dreamed of adventures in the world beyond her family’s farm in northwestern Missouri. After college, she had her chance when she was hired by the U.S. Army to work on a secret project. At a time when many people thought women could not work in technical fields like science and mathematics, Jean became one of the world’s first computer programmers. She helped program the ENIAC, the first successful stored-program computer, and had a long career in the field of computer science. Thanks to computer pioneers like Jean, today we have computers that can do almost anything.”—Provided by publisher. Audience: Ages 10-12. Audience: Grades 4 to 6. Includes bibliographical references and index. ISBN 978-1-61248-145-6 (library binding : alk. paper)—ISBN 978-1-61248-146-3 (e-book) 1. Bartik, Jean--Juvenile literature. 2. Women computer scientists—United States—Biography—Juvenile literature. 3. Computer scientists— United States—Biography—Juvenile literature. 4. Women computer programmers— United States—Biography—Juvenile literature. 5. Computer programmers—United States—Biography—Juvenile literature. 6. ENIAC (Computer)—History—Juvenile literature. 7. Computer industry—United States—History—Juvenile literature. I. Title. QA76.2.B27T63 2015 004.092--dc23 2015011360 No part of this work may be reproduced or transmitted in any format by any means without written permission from the publisher. -
Working on ENIAC: the Lost Labors of the Information Age
Working on ENIAC: The Lost Labors of the Information Age Thomas Haigh www.tomandmaria.com/tom University of Wisconsin—Milwaukee & Mark Priestley www.MarkPriestley.net This Research Is Sponsored By • Mrs L.D. Rope’s Second Charitable Trust • Mrs L.D. Rope’s Third Charitable Trust Thanks for contributions by my coauthors Mark Priestley & Crispin Rope. And to assistance from others including Ann Graf, Peter Sachs Collopy, and Stephanie Dick. www.EniacInAction.com CONVENTIONAL HISTORY OF COMPUTING www.EniacInAction.com The Battle for “Firsts” www.EniacInAction.com Example: Alan Turing • A lone genius, according to The Imitation Game – “I don’t have time to explain myself as I go along, and I’m afraid these men will only slow me down” • Hand building “Christopher” – In reality hundreds of “bombes” manufactured www.EniacInAction.com Isaacson’s “The Innovators” • Many admirable features – Stress on teamwork – Lively writing – References to scholarly history – Goes back beyond 1970s – Stresses role of liberal arts in tech innovation • But going to disagree with some basic assumptions – Like the subtitle! www.EniacInAction.com Amazon • Isaacson has 7 of the top 10 in “Computer Industry History” – 4 Jobs – 3 Innovators www.EniacInAction.com Groundbreaking for “Pennovation Center” Oct, 2014 “Six women Ph.D. students were tasked with programming the machine, but when the computer was unveiled to the public on Valentine’s Day of 1946, Isaacson said, the women programmers were not invited to the black tie event after the announcement.” www.EniacInAction.com Teams of Superheroes www.EniacInAction.com ENIAC as one of the “Great Machines” www.EniacInAction.com ENIAC Life Story • 1943: Proposed and approved. -
Visions of Electric Media Electric of Visions
TELEVISUAL CULTURE Roberts Visions of Electric Media Ivy Roberts Visions of Electric Media Television in the Victorian and Machine Ages Visions of Electric Media Televisual Culture Televisual culture encompasses and crosses all aspects of television – past, current and future – from its experiential dimensions to its aesthetic strategies, from its technological developments to its crossmedial extensions. The ‘televisual’ names a condition of transformation that is altering the coordinates through which we understand, theorize, intervene, and challenge contemporary media culture. Shifts in production practices, consumption circuits, technologies of distribution and access, and the aesthetic qualities of televisual texts foreground the dynamic place of television in the contemporary media landscape. They demand that we revisit concepts such as liveness, media event, audiences and broadcasting, but also that we theorize new concepts to meet the rapidly changing conditions of the televisual. The series aims at seriously analyzing both the contemporary specificity of the televisual and the challenges uncovered by new developments in technology and theory in an age in which digitization and convergence are redrawing the boundaries of media. Series editors Sudeep Dasgupta, Joke Hermes, Misha Kavka, Jaap Kooijman, Markus Stauff Visions of Electric Media Television in the Victorian and Machine Ages Ivy Roberts Amsterdam University Press Cover illustration: ‘Professor Goaheadison’s Latest,’ Fun, 3 July 1889, 6. Cover design: Coördesign, Leiden -
Programming Women: Gender at the Birth of the Computing Age
Feras 1 Programming Women: Gender at the Birth of the Computing Age Allie Feras ID#: 1914546 Honors in History Honors Capstone Advisor: Kimberly Sim 29 April 2010 In the spring of 1946, the public got its first glimpse of the Electronic Numerical Integrator and Computer (ENIAC) at a press demonstration of a ballistics trajectory Feras 2 problem created by Frances Elizabeth Snyder Holberton and Betty Jean Bartik, who had labored all night in preparation. However, when stories of the first electronic computer, which was faster than any existing analog computer, made their way into the morning papers neither woman received any credit. Instead, reporters focused on the ENIAC’s male inventors, John Mauchly and J. Presper Eckert, who had built the machine to keep up with the demand World War II had created for faster and faster computation of firing tables to be used on the front. The omission of these women was the beginning of a long history in which women’s contributions to computing were marginalized. Holberton, a graduate of the University of Pennsylvania who had previously worked as a statistician for The Farm Journal , and Bartik, a graduate of Northwest Missouri State Teachers College in math and English, were among a group of women who were the first to program an electronic computer. 1 These women, all of whom had at least some mathematics experience, were drawn into the war effort to work compute firing tables by hand and were later assigned to the ENIAC where they shaped this newly created technological field. Although the ENIAC, housed at the Moore School of Engineering at the University of Pennsylvania, had been classified, when the war ended the “electronic brain” captured the public’s imagination and the computer age began. -
Computing Science Technical Report No. 99 a History of Computing Research* at Bell Laboratories (1937-1975)
Computing Science Technical Report No. 99 A History of Computing Research* at Bell Laboratories (1937-1975) Bernard D. Holbrook W. Stanley Brown 1. INTRODUCTION Basically there are two varieties of modern electrical computers, analog and digital, corresponding respectively to the much older slide rule and abacus. Analog computers deal with continuous information, such as real numbers and waveforms, while digital computers handle discrete information, such as letters and digits. An analog computer is limited to the approximate solution of mathematical problems for which a physical analog can be found, while a digital computer can carry out any precisely specified logical proce- dure on any symbolic information, and can, in principle, obtain numerical results to any desired accuracy. For these reasons, digital computers have become the focal point of modern computer science, although analog computing facilities remain of great importance, particularly for specialized applications. It is no accident that Bell Labs was deeply involved with the origins of both analog and digital com- puters, since it was fundamentally concerned with the principles and processes of electrical communication. Electrical analog computation is based on the classic technology of telephone transmission, and digital computation on that of telephone switching. Moreover, Bell Labs found itself, by the early 1930s, with a rapidly growing load of design calculations. These calculations were performed in part with slide rules and, mainly, with desk calculators. The magnitude of this load of very tedious routine computation and the necessity of carefully checking it indicated a need for new methods. The result of this need was a request in 1928 from a design department, heavily burdened with calculations on complex numbers, to the Mathe- matical Research Department for suggestions as to possible improvements in computational methods. -
The Social Imaginary of Telephony
The Social Imaginary of Telephony Fictional Dispositives in Albert Robida’s Le Vingtième Siècle and the Archeology of “Talking Cinema”1 Alain Boillat What I propose to do here, within a perspective involving both epistemology and the archaeology of media, is to approach “talking cinema” through the examination of discourses produced in the last two decades of the nineteenth century, that is, almost fifty years prior to the generalization of talkies and the institutionalization of practices related to sound in the domain of cinema.2 Beyond this specific medium, I will examine the series of machines of audiovisual representation, one of whose many actualiza- tions was “talking cinema” (which is why quotation marks are fitting here, with regard to “cinema” as well as “talking”). Among the many inventions from which various experimentations with “talking cinema” may be said to derive, I will emphasize the technique of telephony. Indeed, its study presents the advantage of encompassing a number of auditive or audiovisual dispositives that are often much more difficult to reduce to their place in the genealogy of (institutionalized) cinema than viewing dispositives. On a methodological level, de-centering the point of view is precisely what appears productive to me, as the discussion of the place given to the voice within various audio(visual) dispositives constitutes the theoretical horizon of my observations.3 1 Translator’s note: the French expression “cinéma parlant” (literally, “talking cinema”) is usually translated as “sound cinema” in English, but given the focus of this chapter and the existence of the term “talkies” in English, it is translated as “talking cinema” here. -
MTS on Wikipedia Snapshot Taken 9 January 2011
MTS on Wikipedia Snapshot taken 9 January 2011 PDF generated using the open source mwlib toolkit. See http://code.pediapress.com/ for more information. PDF generated at: Sun, 09 Jan 2011 13:08:01 UTC Contents Articles Michigan Terminal System 1 MTS system architecture 17 IBM System/360 Model 67 40 MAD programming language 46 UBC PLUS 55 Micro DBMS 57 Bruce Arden 58 Bernard Galler 59 TSS/360 60 References Article Sources and Contributors 64 Image Sources, Licenses and Contributors 65 Article Licenses License 66 Michigan Terminal System 1 Michigan Terminal System The MTS welcome screen as seen through a 3270 terminal emulator. Company / developer University of Michigan and 7 other universities in the U.S., Canada, and the UK Programmed in various languages, mostly 360/370 Assembler Working state Historic Initial release 1967 Latest stable release 6.0 / 1988 (final) Available language(s) English Available programming Assembler, FORTRAN, PL/I, PLUS, ALGOL W, Pascal, C, LISP, SNOBOL4, COBOL, PL360, languages(s) MAD/I, GOM (Good Old Mad), APL, and many more Supported platforms IBM S/360-67, IBM S/370 and successors History of IBM mainframe operating systems On early mainframe computers: • GM OS & GM-NAA I/O 1955 • BESYS 1957 • UMES 1958 • SOS 1959 • IBSYS 1960 • CTSS 1961 On S/360 and successors: • BOS/360 1965 • TOS/360 1965 • TSS/360 1967 • MTS 1967 • ORVYL 1967 • MUSIC 1972 • MUSIC/SP 1985 • DOS/360 and successors 1966 • DOS/VS 1972 • DOS/VSE 1980s • VSE/SP late 1980s • VSE/ESA 1991 • z/VSE 2005 Michigan Terminal System 2 • OS/360 and successors -
Doing Mathematics on the ENIAC. Von Neumann's and Lehmer's
Doing Mathematics on the ENIAC. Von Neumann's and Lehmer's different visions.∗ Liesbeth De Mol Center for Logic and Philosophy of Science University of Ghent, Blandijnberg 2, 9000 Gent, Belgium [email protected] Abstract In this paper we will study the impact of the computer on math- ematics and its practice from a historical point of view. We will look at what kind of mathematical problems were implemented on early electronic computing machines and how these implementations were perceived. By doing so, we want to stress that the computer was in fact, from its very beginning, conceived as a mathematical instru- ment per se, thus situating the contemporary usage of the computer in mathematics in its proper historical background. We will focus on the work by two computer pioneers: Derrick H. Lehmer and John von Neumann. They were both involved with the ENIAC and had strong opinions about how these new machines might influence (theoretical and applied) mathematics. 1 Introduction The impact of the computer on society can hardly be underestimated: it affects almost every aspect of our lives. This influence is not restricted to ev- eryday activities like booking a hotel or corresponding with friends. Science has been changed dramatically by the computer { both in its form and in ∗The author is currently a postdoctoral research fellow of the Fund for Scientific Re- search { Flanders (FWO) and a fellow of the Kunsthochschule f¨urMedien, K¨oln. 1 its content. Also mathematics did not escape this influence of the computer. In fact, the first computer applications were mathematical in nature, i.e., the first electronic general-purpose computing machines were used to solve or study certain mathematical (applied as well as theoretical) problems. -
Inventing Television: Transnational Networks of Co-Operation and Rivalry, 1870-1936
Inventing Television: Transnational Networks of Co-operation and Rivalry, 1870-1936 A thesis submitted to the University of Manchester for the degree of Doctor of Philosophy In the faculty of Life Sciences 2011 Paul Marshall Table of contents List of figures .............................................................................................................. 7 Chapter 2 .............................................................................................................. 7 Chapter 3 .............................................................................................................. 7 Chapter 4 .............................................................................................................. 8 Chapter 5 .............................................................................................................. 8 Chapter 6 .............................................................................................................. 9 List of tables ................................................................................................................ 9 Chapter 1 .............................................................................................................. 9 Chapter 2 .............................................................................................................. 9 Chapter 6 .............................................................................................................. 9 Abstract .................................................................................................................... -
The Early History of Music Programming and Digital Synthesis, Session 20
Chapter 20. Meeting 20, Languages: The Early History of Music Programming and Digital Synthesis 20.1. Announcements • Music Technology Case Study Final Draft due Tuesday, 24 November 20.2. Quiz • 10 Minutes 20.3. The Early Computer: History • 1942 to 1946: Atanasoff-Berry Computer, the Colossus, the Harvard Mark I, and the Electrical Numerical Integrator And Calculator (ENIAC) • 1942: Atanasoff-Berry Computer 467 Courtesy of University Archives, Library, Iowa State University of Science and Technology. Used with permission. • 1946: ENIAC unveiled at University of Pennsylvania 468 Source: US Army • Diverse and incomplete computers © Wikimedia Foundation. License CC BY-SA. This content is excluded from our Creative Commons license. For more information, see http://ocw.mit.edu/fairuse. 20.4. The Early Computer: Interface • Punchcards • 1960s: card printed for Bell Labs, for the GE 600 469 Courtesy of Douglas W. Jones. Used with permission. • Fortran cards Courtesy of Douglas W. Jones. Used with permission. 20.5. The Jacquard Loom • 1801: Joseph Jacquard invents a way of storing and recalling loom operations 470 Photo courtesy of Douglas W. Jones at the University of Iowa. 471 Photo by George H. Williams, from Wikipedia (public domain). • Multiple cards could be strung together • Based on technologies of numerous inventors from the 1700s, including the automata of Jacques Vaucanson (Riskin 2003) 20.6. Computer Languages: Then and Now • Low-level languages are closer to machine representation; high-level languages are closer to human abstractions • Low Level • Machine code: direct binary instruction • Assembly: mnemonics to machine codes • High-Level: FORTRAN • 1954: John Backus at IBM design FORmula TRANslator System • 1958: Fortran II 472 • 1977: ANSI Fortran • High-Level: C • 1972: Dennis Ritchie at Bell Laboratories • Based on B • Very High-Level: Lisp, Perl, Python, Ruby • 1958: Lisp by John McCarthy • 1987: Perl by Larry Wall • 1990: Python by Guido van Rossum • 1995: Ruby by Yukihiro “Matz” Matsumoto 20.7.