Machine Intelligence and Robotics Report of the NASA Study Group

Total Page:16

File Type:pdf, Size:1020Kb

Machine Intelligence and Robotics Report of the NASA Study Group 730-51 Machine Intelligence and Robotics Report of the NASA Study Group EXECUTIVE SUMMARY September 1979 National Aeronautics and Space Administration Jet Propulsion Laboratory California Institute of Technology Pasadena, California MACHINE INTELLIGENCE AND ROBOTICS Members of the NASA Study Group September 1979 Dr. Carl Sagan (Chairman) Dr. Elliott C. Levinthal David Duncan Professor of Adjunct Professor of Genetics Astronomy and Space Sciences Stanford University Medical School Cornell University Dr. Jack Minker, Department Chairman Dr. Raj Reddy (Vice Chairman) and Professor of Computer Science Professor of Computer Science University of Maryland Carnegie-Mellon University Dr. Marvin Minsky Dr. Ewald Heer (Executive Secretary) Donner Professor of Science Program Manager for Autonomous Systems Massachusetts Institute of Technology and Space Mechanics Jet Propulsion Laboratory Dr. Donald A. Norman Professor of Psychology Dr. James S. Albus University of California at San Diego Project Manager for Sensor and Computer Control Technology Dr. Charles J. Rieger National Bureau of Standards Associate Professor of Computer Science University of Maryland Dr. Robert M. Balzer, Project Leader and Associate Professor of Computer Science Dr. Thomas B. Sheridan Professor of Engineering University of Southern California and Applied Psychology Massachusetts Institute of Technology Dr. Thomas O. Binford, Research Associate Artificial Intelligence Laboratory Dr. William M. Whitney Department of Computer Science Manager for Information Systems Research Stanford University Jet Propulsion Laboratory Dr. Ralph C. Gonzalez Dr. Patrick H. Winston, Director Professor of Electrical Engineering Artificial Intelligence Laboratory and Computer Science Massachusetts Institute of Technology University of Tennessee Dr. Stephen Yerazunis Dr. Peter Hart, Director Associate Dean of Engineering Artificial Intelligence Center Rennselaer Polytechnic Institute Stanford Research Institute Ex-Offlcio Members: Dr. John Hill, Staff Member Artificial Intelligence Center Dr. William B. Gevarter Stanford Research Institute Program Manager for Guidance and Control NASA Headquarters B. Gentry Lee Manager of Mission Operations Stanley R. Sadin, Program Manager and Engineering, Galileo Project, Space Systems Studies and Planning Jet Propulsion Laboratory NASA Headquarters iii Preface The NASA Office of Aeronautics and Space Technology (OAST) has established the goal of providing a technology base so that NASA can accomplish future missions with a several-orders-of-magnitude increase in mission effectiveness at reduced cost. To realize this goal, a highly focused program must be established advancing technologies that promise substantial increases in capability and/or substantial cost savings. The Study Group on Machine Intelligence and Robotics was established to assist NASA technology program planners to determine the potential in these areas. Thus, the Study Group had the following objectives: (1) To identify opportunities for the application of machine intelligence and robotics in NASA missions and systems. (2) To estimate the benefits of successful adoption of machine intelligence and robotics techniques and to prepare forecasts of their growth potential. (3) To redommend program options for research, advanced devel- opment and implementation of machine intelligence and robot technology for use in program planning, (4) To brbaden communication among NASA Centers and uni- versities and other research organizations currently engaged in machine intelligence and robotics research. iv Acknowledgement The Study Group on Machine Intelligence and Robotics is grateful to a very large number of NASA personnel and other scientists and engineers for essential help in this study. The Study Gjroup especially appreciates the contributions by the following indi- viduals at the various Workshop meetings. Albee, Ardejn L. Manson, Simon V. Alsberg, Harold B. McCandless, Samuel W. Avizienis, Algirdas A. McGhee, Robert B. Blanchard, David McReynolds, Stephen R.. Burke, James D. Mead, Carver Milgram, David Calio, Anthony J. Mills, Harlan Carey, Ted Mitchell, O. R. Casler, V. Chapman, Robert D. Newell, Allen Claussen, B. A. Norris, Henry W. Clarke, Victor C. Nudd, Graham Cohen, Danhy O'Leary, Brian Cook, Henry Paine, Garrett Crum, Earle M. Perlis, Alan Cunningham, Robert Popma, Dan C. Cutts, James Porter, James des Jardins, Richard Powell, Robert V. Dobrotin, Boris M. Quann, John J. Dudley, Hugh J. Ratner, Justin Ebersole, Michael Rasool, Ichtiaque S. Elachi, Charles Rennels, David A. Fero, Lester V. Rose, Press Ferrell, William R. Rosenfeld, Azriel French, James R. Friedman, Leonard Schaeffer, David Fu, King S. Selfridge, Oliver Fuller, Samuel Shaw, Mary Smith, George W. Gilstad, Douglas A. Smith, William L. Goetz, Alexander F. H. Sos, John V. Greenblatt, Richard Steurer, W. H. Groth, Ed Ward J. Sutherland, Ivan Guttag, John V. Swain, Philip H. Haberman, Nico Swanlund, George Hall, E. L. Teitetman, Warren Hecht, Herbert Tenenbaum, Jay M. Henry, Richard C. Textor, George P. Herman, Daniel H. Horn, Berthold von Puttkamer, J. H. Hunt, B. R, von Tiesenhausen, George F. Ivie, Charles V. Weinstein, Meir Williams, Donald Knight, Thomas Williams, R- J. Kraft, C.C Loftus, Joseph P. Voung, A. Thomas Louviere, Allen J. Zegalia, John B. Section I Introduction The NASA Study Group on Machine Intelligence and sider especially significant because of JSC's central role in the Robotics including many of the leading researchers and almost development of manned spaceflight. all of the leading research groups in the fields of artificial intelligence, computer science, and autonomous systems in This report includes the conclusions and recommendations the United States, met to study the infliience of these subjects of the Study Group. A complete report with supporting docu- on the full range of NASA activities and; to make recommenda mentation will be published separately. The conclusions tions on how these subjects might in the future assist NASA in represent a group consensus, although occasionally there were its mission. The Study Group, chaired by Carl Sagan, was dissenting opinions on individual conclusions or recommenda organized by Ewald Heer, JPL, at the request of Stanley Sadin tions. While the report is critical of past NASA efforts in this of NASA Headquarters. It included NASA personnel, scientists field — and most often of the lack of such efforts — the cri- who have worked on previous NASA missions, and experts on ticisms are intended only as constructive. The problem is computer science who had little or no prior contact with government-wide, as the Federal Data Processing Reorgani NASA. The Group devoted about 2500 man-hours to this zation Project1 has stressed, and NASA has probably been study, meeting as a full working group or as subcommittees one of the least recalcitrant Federal agencies in accom- between June 1977 and December 1978. modating to this new technology. A number of NASA Centers and: facilities were visited The Study Group believes that the effective utilization of during the study. In all cases, vigorous support was offered for existing opportunities in computer science, machine intelli accelerated development and use of machine intelligence in gence, and robotics, and their applications to NASA-specific NASA systems, with particularly firm backing offered by the problems will enhance significantly the cost-effectiveness and Director of the Johnson Spaceflight Center, which we con- total information return from future NASA activities. Section II NASA Needs NASA is, to a significant degree, an agency devoted to the advances have been made in Earth resources and meteoro acquisition, processing, and analysis of information — about logical satellites, and across the full range of NASA activities. the Earth, the solar system, the stars,and the universe. The At the present time, the amount of data made available by principal goal of NASA's booster and space vehicle commit NASA missions is larger than scientists can comfortably sift ment is to acquire such scientific information for the benefit through. This is true, for example, of Landsat and other Earth of the human species. As the years have passed and NASA has resources technology satellite missions. A typical information mustered an impressive array of successful missions, the com acquisition rate in the 1980s is about 1012 bits per day for all plexity of each mission has increased as the instrumentation NASA systems. In two years, this is roughly the total non and scientific objectives have become more sophisticated; and pictorial information content of the Library of Congress. The the amount of data returned has also increased dramatically. The Mariner 4 mission to Mars in 1965 was considered a strik ing success when it returned a few million bits of in formation. 1 U.S. Office of Management and Budget, Federal Data Processing The Viking mission to Mars, launched a decade later, acquired Reorganization Study, Available from National Technical Information almost ten thousand times more information. Comparable Service, Washington, D.C. problem is clearly getting much worse. We have reached a intelligence technology is fully capable of dealing with more severe limitation in the traditional way of acquiring and reliably and less expensively than if human beings were in the analyzing data. loop. This, in turn, frees human experts for more difficult judgmental tasks. In addition, existing and projected advances in robot technology
Recommended publications
  • Out There Somewhere Could Be a PLANET LIKE OURS the Breakthroughs We’Ll Need to find Earth 2.0 Page 30
    September 2014 Out there somewhere could be A PLANET LIKE OURS The breakthroughs we’ll need to find Earth 2.0 Page 30 Faster comms with lasers/16 Real fallout from Ukraine crisis/36 NASA Glenn chief talks tech/18 A PUBLICATION OF THE AMERICAN INSTITUTE OF AERONAUTICS AND ASTRONAUTICS Engineering the future Advanced Composites Research The Wizarding World of Harry Potter TM Bloodhound Supersonic Car Whether it’s the world’s fastest car With over 17,500 staff worldwide, and 2,800 in or the next generation of composite North America, we have the breadth and depth of capability to respond to the world’s most materials, Atkins is at the forefront of challenging engineering projects. engineering innovation. www.na.atkinsglobal.com September 2014 Page 30 DEPARTMENTS EDITOR’S NOTEBOOK 2 New strategy, new era LETTER TO THE EDITOR 3 Skeptical about the SABRE engine INTERNATIONAL BEAT 4 Now trending: passive radars IN BRIEF 8 A question mark in doomsday comms Page 12 THE VIEW FROM HERE 12 Surviving a bad day ENGINEERING NOTEBOOK 16 Demonstrating laser comms CONVERSATION 18 Optimist-in-chief TECH HISTORY 22 Reflecting on radars PROPULSION & ENERGY 2014 FORUM 26 Electric planes; additive manufacturing; best quotes Page 38 SPACE 2014 FORUM 28 Comet encounter; MILSATCOM; best quotes OUT OF THE PAST 44 CAREER OPPORTUNITIES 46 Page 16 FEATURES FINDING EARTH 2.0 30 Beaming home a photo of a planet like ours will require money, some luck and a giant telescope rich with technical advances. by Erik Schechter COLLATERAL DAMAGE 36 Page 22 The impact of the Russia-Ukrainian conflict extends beyond the here and now.
    [Show full text]
  • Information Technology R&D: Critical Trends And
    Information Technology R&D: Critical Trends and Issues February 1985 NTIS order #PB85-245660 — Recommended Citation: Information Technology and R&D: Critical Trends and Issues (Washington, DC: U.S. Congress, Office of Technology Assessment, OTA-CIT-268, February 1985). Library of Congress Catalog Card Number 84-601150 For sale by the Superintendent of Documents U.S. Government Printing Office, Washington, DC 20402 Foreword New computer and communications technologies are obviously transforming American life. They are the basis of many of the changes in our telecommunica- tions system and also a new wave of automation on the farm, in manufacturing and transportation, and in the office. They are changing the form and delivery of government services such as education and the judicial system. Information products and services have become a major and still rapidly growing component of our economy. A strong U.S. research and development effort has, in the past, been the source of much of this new technology. However, recent events, such as the restructur- ing of the U.S. telecommunications industry and the emergence of strong foreign competition for some technologies, have changed the environment for R&D. Con- sequently, the House Committee on Science and Technology, the House Commit- tee on Energy and Commerce, and its Subcommittee on Telecommunications, Con- sumer Protection, and Finance asked OTA to conduct an assessment of the current state of R&D in these critical areas. In this report, OTA examines four specific areas of research as case studies: computer architecture, artificial intelligence, fiber optics, and software engineer- ing. It discusses the structure and orientation of some selected foreign programs.
    [Show full text]
  • Copy of Scan258
    Ninetieth Annual Commencement June 8) 1984 CALIFORNIA INSTITUTE OF TECHNOLOGY CALIFORNIA INSTITUTE OF TECHNOLOGY Ninetieth Annual Commencement FRIDAY MORNING AT TEN O'CLOCK JUNE EIGHTH, NINETEEN EIGHTY-FOUR The Commencemen t Ceremony These tribal rites have a very long history. They go back to the ceremony of initiation for new university teachers in mediaeval Europe. It was then customary for s tudents, after an appropriate apPfl'nticeship to learning and the prcsl~ntation of a thesis as their masterpiece, to be admi tted to the Guild of Masters of Arts and granted the license to teach. In the ancient University of Bologna this right was granted by authority of the Pope and in the name o f the Iioly Trini ty. We do not this day claim such hig h authori ty. As in any other g uild, whether craft Of merchant, the master's status was crucial. In theory at I~ ast, it sepa rated the men from th e boys, the competent from the incom­ petent, O n the way to hi s mas ter's degree, a student migh t coll ect a bachelor's degree in recognition of the faci that he was half-trained, Of p.utially equ ipped . The doctor's degree was somewha t different. Originall y indis tinguishable from the mas ters, the docto rs g radually emerged by a process of escalation into a supermagisterial role-first of all in the higher facu lties of theo logy, law, and medicine. It wi ll come as no surprise that the lawyers had a pa rtic ular and early yen for this special distinction.
    [Show full text]
  • Andproblemsolving Volume I- Executive Summary by Ewald Heer
    NASA Conference Publication 2180 NASA-CP-2180-VOL- 1 Automated DecisionMaking andProblemSolving Volume I- Executive Summary By _ Ewald Heer i Proceedings of a conference held at NASA Langley Research Center • Hampton, Virginia May 19-21, 1980 NASA Conference Publication 2180 Automated Dec.isionMaking andProblemSolving Volume I- Executive Summary By Ewald Heer University of Southern California Los Angeles Proceedings of a conference held at NASA Langley Research Center Hampton, Virginia May 19-21, 1980 National Aeronautics and Space Administration ScientificandTechnical Information Branch 1981 PREFACE On May 19-21, 1980, NASA Langley Research Center hosted a Conference on Auto- mated Decision Making and Problem Solving. The purpose of the conference was to explore related topics in artificial intelligence, operations research, and control theory and, in particular, to assess existing techniques, determine trends of development, and identify potential for appl_cation in automation technology programs at NASA. The first two days consisted of formal presentations by experts in the three disciplines. The third day was a workshop in which the invited speakers and NASA personnel discussed current technology in automation and how NASA can and should interface with the academic community to advance this technology. The conference proceedings are published in two volumes. Volume I gives a readable and coherent overview of the subject area of automated decision making and problem solving. This required interpretation, synthesizing, and summarizing, and in some cases expansion of the material presented at the conference. Volume II contains the vugraphs with various annotations extracted from videotape records and also written papers submitted by several authors. In addition, a summary of the issues discussed on the third day has been published separately in NASA Technical Memorandum 81846.
    [Show full text]
  • JET PROPULSION LAIORATO CALIFORNIA Iwsfltute of Ttcmwol ?ASA DEW A, CAII for W I A
    https://ntrs.nasa.gov/search.jsp?R=19750009027 2020-03-22T22:52:38+00:00Z NATIONAL AERONAUTICS AND SPACE AOYINISTRATION JET PROPULSION LAIORATO CALIFORNIA IWSflTUtE OF TtCMWOL ?ASA DEW A, CAII FOR W I A J8MV 1,1975 PREFACE The work described in this report was performed by the Advanced Technical Studies Office of the Jet Propulsion Laboratory. JPL Technical Memorandum 33-721 iii CONTENTS Introduction ................................. 1 Major Problem Areas ............................ 1 Command inputs ............................... 2 Sensory Feedback .............................. 4 Autonomous Capability ........................... 4 Performance ................................. 4 Overview of Teleoperator/Robot Work at JPL ............... 4 A. Manipulator Systems at JPL ..................... 4 B. Remote Control Experiments at JPL ................. 7 Aids to the Severely Handicapped ...................... 10 Conclusions ................................. 13 References ................................. 13 TABLE 1. Estimate of disabled persons in the USA as of 1971 ...... 2 FIGURES 1. Schematic of teleoperator/robot system with essential elements and communication links ............... 5 2. JPL KOELSCH robot ...................... 6 3. N EVADA/CUf.V system including manipulator and control station with stereo and mono tv display ........ 4. JPL/AMES ARM system .................... 5. Humanoid hand attached to JPL/AMES ARM . , . , , . 6. Humanoid hand with control interface and different grasping positions .................. 7, Proximity sensor
    [Show full text]
  • 1 Computer Engineering I Division
    1 COMPUTER 0ENGINEERING I DIVISION SEPTEMBER 1982 EDITOR: R. ARVIKAR in Engineering Conference and Exhibit to be held in Chicago, Illinois on August 7-11, 1983. One of the exciting new directions that our division is pursu- ing in support of our objectives is the creation of a new journal, "Computers in Mechanical Engineering" (CIME). This journal is the brainchild of Ali Seireg who has shepherded it through all the gates from the initial idea to its successful start up.This ef- fort will certainly pay off in helping engineers understand com- puter aaolications to their dailv practice of engineering on a very practical level. If you haven't subscribed tothis journal, I urge you to do so! The present and future success of the Computer Engineer- i ing Division is the direct result of the vision and enthusiasm of I many engineers. In addition to the enormous contributions of t the individuals cited above, the work done by the members of the executive committee and the operating technical commit- tees has been vital in the functioning of the division. The DR. EUGENE HtJLBERT organizational structure of the division for the year 82-83 is Chairman, 1981-82 shown on the last page of this newsletter. To all of these in- dividuals, my thanks for all of this work. For me it has been an CHAIRMAN'S MESSAGEIREPORT exciting and challenging year. The second year of our history saw a continuation of the I do believe that the best is yet to come. The CED must and growth in deoth and breadth of our activities.
    [Show full text]
  • The Impacts of Industrial Robots
    The Impacts of Industrial Robots November 1981 Robert Ayres and Steve Miller Department of Engineering and Public Policy and The Robotics Institute Carnegie-Mellon University Pittsburgh, PA 15213 (41 2)-578-2670 Abstract: This report briefly describes robot technology and goes into more depth about where robots are used, and some of the anticipated social and economic impacts of their use. A number of short term transitional issues, including problems of potential displacement, are discussed. The ways in which robots may impact the economics of batch production are described. A framework for analyzing the impacts of robotics on ecnomywide economic growth and employment is presented. Human resource policy issues are discussed. A chronology of robotics technology is also given. This research was supported by the Industrial Affiliates Program of the CMU Robotics Institute and by the Department of Engineering and Public Policy. A version of this paper will appear in Technology Review in the spring of 1982. I 1 What Are Industrial Robots? 1 2 Chronology of Robot Developments 1. 3 Robot Use in the United States I 2 4 Robot Technology- A Brief Review 4 5 Robot Applications in Standard Indushl Tasks 8 6 The Role of Robotics in Manufacturing 10 7 Integration of Robots into CAD/CAM Systems in Metal\Norking 15. 8 The Potential for Prorluctivity Improvement 20 ' 9 Societal Benefits Beyond Productivity 25 10 Motivations For Using Robots 25 11 Uses of Future Robots 26' 12 Short Term Transitional Problems 27 12.1 Potential Displacement 28 13 Union Responses to Technological Change 30 14 Broader Economy Wide Issues .
    [Show full text]
  • ARAMIS) VOLUME T\\ APPLICATION of ARAMIS CAPABILITIES to SPACE PROJECT FUNCTIONAL ELEMENTS by Rene H
    https://ntrs.nasa.gov/search.jsp?R=19830002579 2020-03-21T06:38:51+00:00Z NASA CONTRACTOR REPORT (NASA-CE-162Q82-V01-U) SPACE APPLICATIONS N83-10349 OF AUTOHAIlOtf, BOBOTICS AND MACHINE INTELLIGENCE SYSTEMS (AfiAHIS) . VOLUME 4: APPLICATION OP ARAHIS CAPABILITIES TO SPACE Onclas PfiOJECT FUNCTIONAL (flassachusetts lust, of G3/63 38343 NASA CR-162082 SPACE APPLICATIONS OF AUTOMATION, ROBOTICS AND MACHINE INTELLIGENCE SYSTEMS (ARAMIS) VOLUME t\\ APPLICATION OF ARAMIS CAPABILITIES TO SPACE PROJECT FUNCTIONAL ELEMENTS By Rene H. Miller; Marvin L. Minsky, and David B. S. Smith Massachusetts Institute of Technology Space Systems Laboratory Artificial Intelligence Laboratory 77 Massachusetts Avenue Cambridge, Massachusetts 02139 Phase 1, Final Report August 1982 Prepared for NASA-GEORGE C. MARSHALL SPACE FLIGHT CENTER Marshall Space Flight Center, Alabama 35812 KPRODUCED BY TECHNICAL REPORT STANDARD TITLE PAGE 1. REPORT NO. 2. GOVERNMENT ACCESSION NO. 3. RECIPIENT'S CATALOG NO. NASA CR- 162082 4. TITLE AND SUBTITLE 5. REPORT DATE Space Applications of Automation, Robotics and Machine August 1982 Intelligence Systems (ARAMIS) , Volume 4: Application of 6. PERFORMING ORGANIZATION CODE ARAMIS Capabilities to Space Project Functional Elements 7. AUTHOR(S) 8. PERFORMING ORGANIZATION REPORT » Rene H. Miller, Marvin L. Minsky, and David B. S. Smith SSL Report #24-82 9. PERFORMING ORGANIZATION NAME AND ADDRESS 10. WORK UNIT NO. Massachusetts Institute of Technology Artificial Intelligence Laboratory 1 1. CONTRACT OR GRANT NO. 77 Massachusetts Avenue NAS8-34381 Cambridge, Massachusetts 02139 13. TYPE OF REPORT ft PERIOD COVERED 12. SPONSORING AGENCY NAME AND ADDRESS Contractor Report National Aeronautics and Space Administration Phase I Final Washington, DC 20546 1-1.
    [Show full text]
  • JET PROPULSION LAIORATO CALIFORNIA Iwsfltute of Ttcmwol ?ASA DEW A, CAII for W I A
    NATIONAL AERONAUTICS AND SPACE AOYINISTRATION JET PROPULSION LAIORATO CALIFORNIA IWSflTUtE OF TtCMWOL ?ASA DEW A, CAII FOR W I A J8MV 1,1975 PREFACE The work described in this report was performed by the Advanced Technical Studies Office of the Jet Propulsion Laboratory. JPL Technical Memorandum 33-721 iii CONTENTS Introduction ................................. 1 Major Problem Areas ............................ 1 Command inputs ............................... 2 Sensory Feedback .............................. 4 Autonomous Capability ........................... 4 Performance ................................. 4 Overview of Teleoperator/Robot Work at JPL ............... 4 A. Manipulator Systems at JPL ..................... 4 B. Remote Control Experiments at JPL ................. 7 Aids to the Severely Handicapped ...................... 10 Conclusions ................................. 13 References ................................. 13 TABLE 1. Estimate of disabled persons in the USA as of 1971 ...... 2 FIGURES 1. Schematic of teleoperator/robot system with essential elements and communication links ............... 5 2. JPL KOELSCH robot ...................... 6 3. N EVADA/CUf.V system including manipulator and control station with stereo and mono tv display ........ 4. JPL/AMES ARM system .................... 5. Humanoid hand attached to JPL/AMES ARM . , . , , . 6. Humanoid hand with control interface and different grasping positions .................. 7, Proximity sensor concept ................... 8. Mini-Proximity Sensor ....................
    [Show full text]
  • Remotely Inanned Systems ( Ms) •
    8e~oa :-d conference on remotely Inanned systems ( ms) • applicatio~s, ~~ ,. 9·11, 1975 17-29750 THBU Propulsion Lab.) 77-29787 CSCL 05a Unclas G3/54 0125 ,~=-."~ r Sponsored By ational Aeronautic and Space Admini tration California Institute of Technology !Jniversity of outhern California United tates Council for the Theory of Machine and Mechanisms Human Factors Society / remotely m ed technolo y an .. P RPO E 0 OP The main purpo e of the 'ECO 'f) CO 'ERE. CE 0 REMOTE MAN. 'D S TEM - Ii clmolo and pplications i to continue and expand t chni I interr.han and communication in a field that 110 experi nc d rapid ro th durin the last few years. Remotely Mann d yst ms extend man' n$Ory, manipulativ and cognitive capabiliti s to remote places and ar concem ed with the man-machine int rfa es and communications, manipulators and nd e ector , sen ors and data handlin , and " mote control and automation. Th scope of thi conferenc cover r c nt developm nts clo ely related to th ar as includin ne t chniqu s and d velopment , new concepts of system de ign and implementation, and developm nts in de i n analysis and evaluation. sy ( ms) applicntion • MMI r. Stanley Deutsch , Office of Life Sciences PROGR : Dr. Ewald Heer Jet Propulsion Laboratory OORDI : Dr. linton J. nc er. Jr. University of Suuthern California Dr. ntal Bejczy Dr. Bernard Roth Jet Propul ion Laboratory Stanford niver~ity Mr. Edward J. Brazill r. lvin SadoffY' Office of Manned Ames Research Center Space Flight Dr.
    [Show full text]
  • National Technical Information Service US DEPARTMENT OF
    OPTIMUM PRESSURE VESSEL ESICN BASED OM FRACTURE MECHANICS AND RELIABILITY CRITERIA Ewald Heer, et a1 California Institute of Technology Pasadena, California February 1978 DISTRIBUTED BY: National Technical Information Service U. S. DEPARTMENT OF COMMERCE 5285 Port Royal Road, Springfield Va. 22151 NATIONAL AERONAUTICS AND SPACE ADMINISTRATION Technical Memorandum 33- 470 Optimum Presswe Vessel Design Based on Fracture Mechanics and Reliability Criteria Ewald Heer Jann-Nan Yang /- LOION LAB CADIFORNsA INSTITUTE OF TECHNOLOGY PASADENA, CALlFORNlA February 1, 1970 Prepared Under Contract No. NAS 7-100 National Aeronautics and Space Administration PREFACE The work described in this report was performed by the Engineering Mechanics Division of the Jet Propulsion Laboratory. JpL Technical Memorandum 33-470 iii ACKNOWLEDGMENT This study was partly supported by the National Research Council, under whose sponsorship Dr. Jann-Nan Yang held a Resident Research Associateship at the Jet Propulsion Laboratory. The authors most gratefully acknowledge the valuable comments by Professor M. Shinozuka and Mr. J. C. Lewis during the course of this investigation. iv JPL Technical Memorandum 33-470 CONTENTS I. Introduction .................................... 1 11. Fracture Me chanic s C oncepts ........................ 4 UI. Statistical Aspects of Fracture. ....................... 7 IV. Time Effects.. .................................. 11 V. Probability of Failure .............................. 13 VI. Optimization. ................................... 15 VII.
    [Show full text]
  • COMPUTER ENGINEERING Divls
    COMPUTER Q ENGINEERING DIVlSION AUGUST 1984 EDITOR: R. ARVIKAR In addition to sponsoring the Annual Computers in Engi- neering Conference and Exhibit with participation from around the world, the Division also has sponsored various regional and special conferences, and participated in the ASME Winter Annual Meeting and In conferences sponsored by other divisions. Also, several short courses in robotics, CADICAM, microprocessors, and finite differencelfinitewere offered. I would like to take this opportunity to thank the many members of the Division who have given so freely of their time and energy during the past year. DR. RAMJIEE RAGHAVAN Chairman 1W1984 The fourth year of our Divfsion saw a continuation of the growth in depth and breadth of our actividies. Our membership is growing rapidly. We have over 1200 members and are still growing. Our Division rate of growth Is among fhe fastest sf any ASME DivisTon. ASME Membership kvelopment Council honored us with an award for our rapid growth. It is the primary goal of the CED to identify the oomputer enginerim needs of ASME and to inidfate means of com- municating to our members all of the developments in this exploding technology. As a technical division, and in support JAMES A. CALLAHAN of these goals#the Compu~terEngineering Diwisien is aGtively Chairman 1984-1985 organizing technical meetings. The 1- MME International Computers in Emginaering Conference and Exhibit, held in ChIoags on August 7-11,11W, under Ghairmon 6, Mulbert, INCOMING CHAIRMAN'S REMARKS Program Chairman, V.A. Tipnis anld Exhfbit Chairman, J. Cokanis, were both a technical and financial success.
    [Show full text]