Nanotechnology in the Age of Posthuman Engineering: Science Fiction As Science
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Meso/Micro/Nano Scale Technologies
Meso/Micro/Nano Scale Technologies Clayton Teague, Chief, APTD, MEL John Evans, Chief, ISD, MEL June 8, 1999 Contents of Presentation • What we (MEL) have done in meso-scale area • What is nanotechnology • Nanotechnology is important • Principal message • Why is it important to industry and NIST? – Examples of industry/NIST work at all scales • Challenges for NIST • Long term needs at the nano-scale • Short term needs at the meso/micro-scales • Priorities • Ideas • Discussion topics Background • During past 9 months, MEL has explored measurements and standards needs of meso and micro-scale manufacturing • Visited 20 companies • Conducted and participated in three workshops jointly sponsored with DARPA and NSF • Organized informal NIST-wide co-ordinating group for meso/micro/nano scale activities • All feedback from these efforts points toward an exploding growth of nanotechnology • We see a continuum of needs for NIST efforts from the macro-scale to the nano-scale What is Nanotechnology? • Technology on the scale of atoms -100 pm- up to biomolecular systems as large as cells - 10’s mm • “Top-down” - achieving increased miniaturization through extension of existing microfabrication schemes • “Bottom-up” - capability to construct functional components, devices, and systems from building blocks of atoms and molecules Nanotechnology Strategies Nanotechnology is important! • “We’ve got to learn how to build machines, materials, and devices with the ultimate finesse that life has always used: atom by atom, on the same nanometer scale as the machinery in living cells.” Richard Smalley, Nobel Laureate, 1995 • “I believe nanoscience and nanotechnology will be central to the next epoch of the information age …” John Armstrong, formerly Chief Scientist of IBM, 1991 • “If I were asked for an area of science and engineering that will most likely produce the breakthroughs of tomorrow, I would point to nanoscale science and engineering.” Neal Lane, Director OSTP, 1998 • “Nanotechnology has given us the tools to make contact with the world of the molecule and the atom. -
Diamondoid Mechanosynthesis Prepared for the International Technology Roadmap for Productive Nanosystems
IMM White Paper Scanning Probe Diamondoid Mechanosynthesis Prepared for the International Technology Roadmap for Productive Nanosystems 1 August 2007 D.R. Forrest, R. A. Freitas, N. Jacobstein One proposed pathway to atomically precise manufacturing is scanning probe diamondoid mechanosynthesis (DMS): employing scanning probe technology for positional control in combination with novel reactive tips to fabricate atomically-precise diamondoid components under positional control. This pathway has its roots in the 1986 book Engines of Creation, in which the manufacture of diamondoid parts was proposed as a long-term objective by Drexler [1], and in the 1989 demonstration by Donald Eigler at IBM that individual atoms could be manipulated by a scanning tunelling microscope [2]. The proposed DMS-based pathway would skip the intermediate enabling technologies proposed by Drexler [1a, 1b, 1c] (these begin with polymeric structures and solution-phase synthesis) and would instead move toward advanced DMS in a more direct way. Although DMS has not yet been realized experimentally, there is a strong base of experimental results and theory that indicate it can be achieved in the near term. • Scanning probe positional assembly with single atoms has been successfully demonstrated in by different research groups for Fe and CO on Ag, Si on Si, and H on Si and CNHCH3. • Theoretical treatments of tip reactions show that carbon dimers1 can be transferred to diamond surfaces with high fidelity. • A study on tip design showed that many variations on a design turn out to be suitable for accurate carbon dimer placement. Therefore, efforts can be focused on the variations of tooltips of many kinds that are easier to synthesize. -
A Framework for Web Science
Foundations and TrendsR in Web Science Vol. 1, No 1 (2006) 1–130 c 2006 T. Berners-Lee, W. Hall, J.A. Hendler, K. O’Hara, N. Shadbolt and D.J. Weitzner DOI: 10.1561/1800000001 A Framework for Web Science Tim Berners-Lee1, Wendy Hall2, James A. Hendler3, Kieron O’Hara4, Nigel Shadbolt4 and Daniel J. Weitzner5 1 Computer Science and Artificial Intelligence Laboratory, Massachusetts Institute of Technology 2 School of Electronics and Computer Science, University of Southampton 3 Department of Computer Science, Rensselaer Polytechnic Institute 4 School of Electronics and Computer Science, University of Southampton 5 Computer Science and Artificial Intelligence Laboratory, Massachusetts Institute of Technology Abstract This text sets out a series of approaches to the analysis and synthesis of the World Wide Web, and other web-like information structures. A comprehensive set of research questions is outlined, together with a sub-disciplinary breakdown, emphasising the multi-faceted nature of the Web, and the multi-disciplinary nature of its study and develop- ment. These questions and approaches together set out an agenda for Web Science, the science of decentralised information systems. Web Science is required both as a way to understand the Web, and as a way to focus its development on key communicational and representational requirements. The text surveys central engineering issues, such as the development of the Semantic Web, Web services and P2P. Analytic approaches to discover the Web’s topology, or its graph-like structures, are examined. Finally, the Web as a technology is essentially socially embedded; therefore various issues and requirements for Web use and governance are also reviewed. -
The Future Impact of Molecular Nanotechnology on Textile Technology and on the Textile Industry
The Future Impact of Molecular Nanotechnology on Textile Technology and on the Textile Industry David R. Forrest1 Discover Expo ’95 Industrial Fabric & Equipment Exposition Charlotte, North Carolina 12 October 1995 1 Business address: Research Specialist, Allegheny Ludlum Steel, Technical Center, Alabama & Pacific Aves., Brackenridge, PA 15014-1597. Voice: 412-226-6434, FAX: 412-226-6452, Internet: [email protected] Table of Contents Introduction 1 Part 1: Technical Issues 1 Definition of Terms 1 Designing Molecular Machines and Devices 3 Calculating Geometries and Forces in Nanomechanical 4 Devices Nanomechanical Computational Systems 6 Molecular Sorting, Processing, and Assembly 7 Design for Reliability 8 Theoretical Properties of Materials 10 Applications of Nanotechnology to Industrial Fabrics 11 Smart Materials and Nanotechnology 12 Conclusions 13 Part 2: Economic and Social Policy Issues 14 The Origins of Molecular Nanotechnology 14 State-of-the-Art 17 Driving Forces for (and against) Development 18 Time Frame, Rate of Progress 19 Conclusions 20 Introduction Molecular nanotechnology is an emerging, interdisciplinary field combining princi- ples of molecular chemistry and physics with the engineering principles of mechani- cal design, structural analysis, computer science, electrical engineering, and systems engineering. Molecular manufacturing is a method conceived for the processing and rearrangement of atoms to fabricate custom products. It would rely on the use of a large number of molecular electro-mechanical subsystems working in parallel and using commonly available chemicals. Built to atomic specification, the products would exhibit order-of-magnitude improvements in strength, toughness, speed, and efficiency, and be of high quality and low cost. In Part 1: Technical Issues, I pro- vide an overview of molecular nanotechnology and explore ways in which molecu- lar manufacturing could be applied to improve textile products. -
Nanoscience and Nanotechnologies: Opportunities and Uncertainties
ISBN 0 85403 604 0 © The Royal Society 2004 Apart from any fair dealing for the purposes of research or private study, or criticism or review, as permitted under the UK Copyright, Designs and Patents Act (1998), no part of this publication may be reproduced, stored or transmitted in any form or by any means, without the prior permission in writing of the publisher, or, in the case of reprographic reproduction, in accordance with the terms of licences issued by the Copyright Licensing Agency in the UK, or in accordance with the terms of licenses issued by the appropriate reproduction rights organization outside the UK. Enquiries concerning reproduction outside the terms stated here should be sent to: Science Policy Section The Royal Society 6–9 Carlton House Terrace London SW1Y 5AG email [email protected] Typeset in Frutiger by the Royal Society Proof reading and production management by the Clyvedon Press, Cardiff, UK Printed by Latimer Trend Ltd, Plymouth, UK ii | July 2004 | Nanoscience and nanotechnologies The Royal Society & The Royal Academy of Engineering Nanoscience and nanotechnologies: opportunities and uncertainties Contents page Summary vii 1 Introduction 1 1.1 Hopes and concerns about nanoscience and nanotechnologies 1 1.2 Terms of reference and conduct of the study 2 1.3 Report overview 2 1.4 Next steps 3 2 What are nanoscience and nanotechnologies? 5 3 Science and applications 7 3.1 Introduction 7 3.2 Nanomaterials 7 3.2.1 Introduction to nanomaterials 7 3.2.2 Nanoscience in this area 8 3.2.3 Applications 10 3.3 Nanometrology -
Politics and Metaphysics in Three Novels of Philip K. Dick
EUGÊNIA BARTHELMESS Politics and Metaphysics in Three Novels of Philip K. Dick Dissertação apresentada ao Curso de Pós- Graduação em Letras, Área de Concentra- ção Literaturas de Língua Inglesa, do Setor de Ciências Humanas, Letras e Artes da Universidade Federai do Paraná, como requisito parcial à obtenção do grau de Mestre. Orientadora: Prof.3 Dr.a BRUNILDA REICHMAN LEMOS CURITIBA 19 8 7 OF PHILIP K. DICK ERRATA FOR READ p -;2011 '6:€h|j'column iinesllll^^is'iiearly jfifties (e'jarly i fx|fties') fifties); Jl ' 1 p,.2Ò 6th' column line 16 space race space race (late fifties) p . 33 line 13 1889 1899 i -,;r „ i i ii 31 p .38 line 4 reel."31 reel • p.41 line 21 ninteenth nineteenth p .6 4 line 6 acien ce science p .6 9 line 6 tear tears p. 70 line 21 ' miliion million p .72 line 5 innocence experience p.93 line 24 ROBINSON Robinson p. 9 3 line 26 Robinson ROBINSON! :; 1 i ;.!'M l1 ! ! t i " i î : '1 I fi ' ! • 1 p .9 3 line 27 as deliberate as a deliberate jf ! •! : ji ' i' ! p .96 lin;e , 5! . 1 from form ! ! 1' ' p. 96 line 8 male dis tory maledictory I p .115 line 27 cookedly crookedly / f1 • ' ' p.151 line 32 why this is ' why is this I 1; - . p.151 line 33 Because it'll Because (....) it'll p.189 line 15 mourmtain mountain 1 | p .225 line 13 crete create p.232 line 27 Massachusetts, 1960. Massachusetts, M. I. T. -
Nanotechnology and Picotechnology to Increase Tissue Growth: a Summary of in Vivo Studies
Nanotechnology and picotechnology to increase tissue growth: a summary of in vivo studies Ece Alpaslan1 and Thomas J Webster1,2 Author information ► Copyright and License information ► Go to: Abstract The aim of tissue engineering is to develop functional substitutes for damaged tissues or malfunctioning organs. Since only nanomaterials can mimic the surface properties (ie, roughness) of natural tissues and have tunable properties (such as mechanical, magnetic, electrical, optical, and other properties), they are good candidates for increasing tissue growth, minimizing inflammation, and inhibiting infection. Recently, the use of nanomaterials in various tissue engineering applications has demonstrated improved tissue growth compared to what has been achieved until today with our conventional micron structured materials. This short report paper will summarize some of the more relevant advancements nanomaterials have made in regenerative medicine, specifically improving bone and bladder tissue growth. Moreover, this short report paper will also address the continued potential risks and toxicity concerns, which need to be accurately addressed by the use of nanomaterials. Lastly, this paper will emphasize a new field, picotechnology, in which researchers are altering electron distributions around atoms to promote surface energy to achieve similar increased tissue growth, decreased inflammation, and inhibited infection without potential nanomaterial toxicity concerns. Keywords: nanomaterials, tissue engineering, toxicity Go to: Introduction Bone tissue and other organ dysfunction can be provoked by poor eating habits, stress, age-related diseases such as osteoarthritis or osteoporosis, as well as accidents.1 To date, common procedures to restore or enhance life expectancy involve medical device insertion or organ transplantation.1 However, due to the low number of donors and its high cost, organ transplantation is limited. -
Simulacra of Social Desire: Reflection on Collecting and the “Lost Toy Archive”
SIMON ORPANA siMulacrA oF soCiAl desire: reFleCtion on ColleCtinG And the “lost toy ArChive” In 2009, I started to construct an archive that records traces of the toys I collected and played with as a child. While most of these toys have been lost in various garage sales, moves and purges, I started to search out photographic records of my collections, and used these to evoke reflection regarding the role that toys have played in shaping my memories, identity and modes of relating to the world. Rather than simply amassing images, I started to make drawings of them in a sketchbook. This process was aided by my mother’s unearthing of a family photo album, spanning from the late seventies to the early eighties, which contained the originals of many of the images included in my archive. The act of re-drawing these images into my sketchbook expanded the microsecond of time captured in the photograph into a longer meditation through which details in the photos summoned memories and affect. This exercise challenged the abstract, spectacularized place the toys held in my adult imagination and placed the artifacts back into a context of 211 family, friends and personal history, offering a remedy to the “archive fever” SIMULACRA OF SOCIAL DESIRE that overtook me in early adulthood, when recollecting the physical toys I owned as a child became an obsessive preoccupation. The process by which the mass-produced toys of my youth were translated from mere simulacra into a meaningful personal narrative by employing the same logic of simulation is the general theme this paper explores. -
Is EE Right for You?
Erik Jonsson School of Engggineering and The Un ivers ity o f Texas a t Da llas Computer Science Is EE Right for You? • “Toto, I have a feeling we’re not in Kansas anymore.” • Now that you are here, diii?id you make the right choice? • Electrical engineering is a challenging and satisfying profession. That does not mean it is easy. In fact, with the possible exceptions of medicine or law, it is the MOST difficult. • There are some things you need to consider if you really, really want to be an engineer. • We will consider a few today. EE 1202 Lecture #1 – Why Electrical Engineering? 1 © N. B. Dodge 01/12 Erik Jonsson School of Engggineering and The Un ivers ity o f Texas a t Da llas Computer Science Is EE Right for You (2)? • Why did you decide to be an electrical engineer? – Parents will pay for engineering education (it’s what they want). – You like math and science. – A relative is an engineer and you like him/her. – You want to challenge yourself, and engineering seems challenging. – You think you are creative and love technology. – You want to make a difference in society . EE 1202 Lecture #1 – Why Electrical Engineering? 2 © N. B. Dodge 01/12 Erik Jonsson School of Engggineering and The Un ivers ity o f Texas a t Da llas Computer Science The High School “Science Student” Problem • In high school, you were FAR above the average. – And you probably didn’t study too hard, right? • You liked science and math, and they weren’t terribly hard. -
Robotics Engineer
CONTENTS Robotics Engineer at a Glance 6 Introduction 7 Turning Science Fiction into Reality Chapter One 11 What Does a Robotics Engineer Do? Chapter Two 18 How Do You Become a Robotics Engineer? Chapter Three 26 What Skills and Personal Qualities Matter Most —and Why? Chapter Four 31 What Is It Like to Work as a Robotics Engineer? Chapter Five 37 Advancement and Other Job Opportunities Chapter Six 42 What Does the Future Hold for Robotics Engineers? Chapter Seven 49 Interview with a Robotics Engineer Source Notes 53 Find Out More 56 Index 59 Picture Credits 63 About the Author 64 5 ROBOTICS ENGINEER AT A GLANCE te’s Ba cia che so ee de lo As gr gr r’s de ee l D o r o o o t d c h n e t c o a le g s r r m a e a h v t o e l i e g i p u i q H d e Personal Minimum Educational Qualities Requirements Problem solving Creativity Working Conditions Attention to detail Indoors Strong science, math, and computer- programming skills Median Salary $81,591 Percent job increase by 278,000* 2024 Number of jobs *Numbers are for mechanical 5% engineers, a group that includes robotics engineers. Future Job Outlook Source: Bureau of Labor Statistics, Occupational Outlook Handbook. www.bls.gov. 6 CHAPTER 3 What Skills and Personal Qualities Matter Most—and Why? First and foremost, robotics engineers must be very good prob- lem solvers. They must have suffi cient technical skill to recognize and understand a problem and enough creativity to think up an original solution. -
Photonic Design Engineer
Photonic Design Engineer Are you looking for the ultimate startup challenge? Have you always wanted to transform innovative technology into real products? Are you ready to join OPTIUS among the first employees with all the advantages and opportunities? Optius is a new startup with the vision to transform the field of efficient AI computations by using optical computing. By joining OPTIUS, you are contributing to a growing team of motivated entrepreneurs and researchers passionate about bringing this vision into reality. The Photonic Design Engineer role will involve the design, optimization, and layout of photonic integrated circuits (PICs) and photonic devices. Your opportunity and benefits: • Solve problems by commercializing cutting edge technology – Major impact! • Mentorship, coaching and support – we are here for you! • Cool Startup environment – celebrations, endless lattes, healthy snacks What we offer: • Competitive compensation package • Opportunity for growth and personal development • Insurance benefits such as health, dental and vision • Cool Startup environment – celebrations, endless coffee, healthy snacks • Lunch and Learns What your day-today will look like: • Design and optimize photonic integrated circuits (PIC’s) • Layout photonic devices with common EDA • Conduct numerical electromagnetic simulation of photonic devices • Interacting with photonic foundries to understand design environment and rules • Designing optical bench experiments for device characterization • Collaborating with the team on research and development -
Breakthrough Technologies
21ST INTERNATIONAL CONFERENCE ON ENGINEERING DESIGN, ICED17 21-25 AUGUST 2017, THE UNIVERSITY OF BRITISH COLUMBIA, VANCOUVER, CANADA BREAKTHROUGH TECHNOLOGIES: PRINCIPLE FEASIBILITY DEBATES Hein, Andreas Makoto (1); Jankovic, Marija (1); Condat, Hélène (2) 1: CentraleSupélec, Université Paris Saclay, France; 2: Initiative for Interstellar Studies, United Kingdom Abstract Designing new technologies involves creating something that did not exist before. In particular, designing technologies with a low degree of maturity usually involves an assessment of its feasibility or infeasibility. Assessing the feasibility of a technology is of vital importance in many domains such as technology management and policy. Despite its importance, few publications actually deal with the fundamentals of technological feasibility such as feasibility proofs or proposing different feasibility categories. This paper addresses this gap by reviewing the existing literature on the feasibility of low- maturity technologies, proposes a framework for assessing feasibility issues, and reconstructs past and ongoing feasibility debates of four exemplary technologies. For the four technologies analysed, we conclude that sufficient expected performance is a key feasibility criteria to all cases, whereas physical effects and working principles were issues for more speculative technologies. For future work, we propose the further development of feasibility categories for different technologies of different degrees of maturity. Keywords: Systems Engineering (SE), Technology, Conceptual design, Early design phases, Uncertainty Contact: Andreas Makoto Hein CentraleSupélec, Université Paris-Saclay Laboratoire Génie Industriel France [email protected] Please cite this paper as: Surnames, Initials: Title of paper. In: Proceedings of the 21st International Conference on Engineering Design (ICED17), Vol. 2: Design Processes | Design Organisation and Management, Vancouver, Canada, 21.-25.08.2017.