Discontinuity Futures Simulation Swan

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    Discontinuity Futures Simulation Swan - Presentation Transcript

    1. Futures Frameworks Simulation Workshop Melanie Swan Principal MS Futures Group 415-505-4426 [email_address] www.melanieswan.com August 5, 2009 GA12: 2:30-5:30 Slides: http://slideshare.net/LaBlogga/slideshows Image: http://wall.alphacoders.com/ “ The future is something which every one reaches at the rate of sixty miles an hour, whatever he does, whoever he is.” - C. S. Lewis
    2. Summary
      • Futures thinking requires seeing the interlinkage and gestalt in multiple areas of rapid change
      • The ultimate future depends on the order in which advances are realized
      • Technology growth may be linear, exponential or discontinuous
      • The surprise is not the advent of the technology but the pervasiveness of its impact
      Image: Fausto de Martini
    3. Futures frameworks
      • Dimensional
      • Chronological
      • Growth paradigms
      • Historical trends
      • Conceptual shifts
      • Underlying drivers
      • Evolution
      Image: http://www.newsin3d.com Image: http://www.secondlife.com
    4. Singularity University: dimensional model Nanotechnology Biotechnology and Bioinformatics Medicine, Neuroscience and Human Enhancement AI and Robotics Space and Physical Sciences Energy and Ecological Systems Networks and Computing Systems Futures Studies Policy Law and Ethics Finance and Entrepreneurship
      • A unifying framework for track synthesis
    5. Chronological sequence of advances
      • The ultimate future depends on the order in which changes arrive
      Artificial intelligence Molecular nanotechnology Anti-aging therapies Whole human genome New computing paradigm Robotics Neural implants Electric vehicles Affordable space launch 3D printing Synthetic biology Space-based civilization New energy regime Uploading Modification of human biological drives time 2009-2020 2020-2030 2030-2050 +10 +20 +40 Brain emulation Room- temperature superconductivity Mechanosynthesis 1gb broadband Battery innovation
    6. Paradigms of growth and change
      • Linear
        • Economic, demographic, life span phenomena
      • Exponential
        • Technology: processors, memory, storage, communications, iPhone applications
      • Discontinuous
        • Plane, car, radio, wars, radar, nuclear weapons, satellites, computers, Internet, globalization
        • Difficult to predict
          • Rapid transition time and doubling capability
          • Adjacent technology advances
          • Level of engagement
      Exponential Discontinuous Linear
    7. First principles (implied by historical trends)
      • Increase in humaneness
        • Slavery, capital punishment
      • Increase in awareness
        • Smoking, trans fat
      • Increase in abundance
        • Segment expansion (TiVo wedge)
        • Multiple choices, not either/or
      • New possibilities
        • Ex: more habitable places: deserts, poles, seasteading, airsteading
      Image: http://aki54.wdfiles.com
    8. Evolving concept of science Model and simulate Enumerate and experiment Build BioSpice.org SimTK.org PartsRegistry.org GeneGo (pathway modeling) Entelos virtual patient biosimulation FabAtHome.org
    9. Evolving concept of health A consumer-centric model of health care Source: http://www.mdpi.com/1660-4601/6/2/492
    10. Underlying drivers: core technologies Penryn (45 nm) Core 2 (65 nm) Transistors per microprocessor 2010 Source: http://www.kurzweilai.net/pps/Unither Nehalem Core i7 (45 nm) Westmere i9 (32 nm) Sandy Bridge (est.)
    11. Computing paradigm shifts Electro-mechanical Relay Vacuum tube Transistor Integrated circuit Source: http://www.kurzweilai.net/pps/Unither ?
    12. Evolving computational models Current model extensibility Linear, von Neumann Parallel Cloud, grid, distributed Biological models Novel models Traditional model Quantum Optical computing Cell broadband engine Liquid computer New materials 3D chip stacking Molecular electronics Solar transistors DNA nanotech DNA computing Biosensors Cellular colonies Bacterial intelligence Bioparadigm discovery Space, not time-based
    13. ITRS semiconductor roadmap Source: http://download.intel.com/technology/silicon/Paolo_Semicon_West_071904.pdf
      • 2007: 32 nm 2009, 22 nm 2011
      • 2009: 32 nm shifted out to 2010
      2009 2010 X
    14. End of Moore’s Law problem: when does top-down meet bottom-up?
      • Top-down solutions
        • EUV and block copolymer lithography
        • CNT transistors
        • Memristor
        • Quantum-dot cellular automata
        • Plasmonic materials & spintronics
        • Quilt packaging & 3D stacking
      • Bottom-up solutions
        • DNA self-assembly
        • DNA computing
        • DNA-based transistors
        • 3D DNA nanocrystals
        • Molecular memory
      Structural DNA: Holliday junction Rotaxane Molecular propeller Source: http://futurememes.blogspot.com/2009/05/opportunities-in-level-two-nanoscience.html
    15. Evolution: arms race for the future of intelligence 1 Source: Top 500, June 2009, http://www.top500.org/lists/2009/06, http://www.crn.com/hardware/208403186 2 Source: http://paula.univ.gda.pl/~dokgrk/bre01.html
      • An estimated 20,000 trillion IPS and 1,000 TB memory 2
      • Limited operational/build knowledge
      • Slow upgrade cycles: 10,000 year evolutionary adaptations
      • Massively parallel architecture
      • Understands flexible, fuzzy language
      • General purpose problem solving, works well in new situations
      • Nucleotide chassis, no backup possible
      • IBM Roadrunner 1.105 petaflop/s (>1,100 trillion IPS) and 80 TB memory 1
      • Unlimited operational/build knowledge
      • Quick upgrade cycles: performance capability doubling every 18 months
      • Linear, von Neumann architecture
      • Understands rigid language
      • Special purpose problem solving (Deep Blue, Chinook, ATMs, fraud detection)
      • Metal chassis, easy to backup
      Human Machine
    16. Source: http://www.kurzweilai.net/pps/Unither Full human brain neural simulation est: 2018 Average human: an estimated 20,000 trillion IPS and 1,000 TB memory 2 IBM Roadrunner: 1.1 petaflop/s (>1,100 trillion IPS) and 80 TB memory 1 1 http://www.top500.org/lists/2009/06, http://www.top500.org/system/8968 2 http://paula.univ.gda.pl/~dokgrk/bre01.html
    17. Engineering life into technology 2029 Machine Human Human ′ ? Capability Year Biomolecular interface convergence
    18. Futures frameworks review 1. Dimensional 2. Chronological 3. Growth paradigms 4. Principles 5. Conceptual shifts 6. Drivers 7. Evolution
    19. Summary
      • Futures thinking requires seeing the interlinkage and gestalt in multiple areas of rapid change
      • The ultimate future depends on the order in which advances are realized
      • Technology growth may be linear, exponential or discontinuous
      • The surprise is not the advent of the technology but the pervasiveness of its impact
      Image: sjhoward.co.uk
    20. Discontinuity futures simulation workshop Nanotechnology Biotechnology and Bioinformatics Medicine, Neuroscience and Human Enhancement AI and Robotics Space and Physical Sciences Energy and Ecological Systems Networks and Computing Systems Futures Studies Policy Law and Ethics Finance and Entrepreneurship
      • Original ten Singularity University tracks
    21. Discontinuity futures simulation workshop STR - Futures, Policy, Law, Ethics and Finance NAN - Nanotechnology LIF - Life Sciences SPA - Space, Science, Energy and Ecology AIC - AI, Robotics, Computing and Communications
      • You are the world’s leading venture capitalist…
    22. Discontinuity futures simulation workshop
      • World’s top venture capitalists
        • 5 teams
      • Each team has $1b to invest
      • Round 1: 2009-2020
      • Each team creates two future technology ideas to pitch to the other teams
      • Each person votes by investing in the top technologies
      • Winning teams and technologies are those that garner the most investment
      Image: Natasha Vita-More, Primo Posthuman
    23. Prediction markets
      • Value: expose hidden information
        • Event prediction
        • Opinion
        • Risk preference
      • Question design
      • Requirements
        • Liquidity
      • Successful deployment
        • Specific use cases
        • Trader vs. friend
      • Structure
        • Event outcome (win/loss)
        • Market scoring
      Image: http://discovermagazine.com
    24. Thank you Melanie Swan Principal MS Futures Group 415-505-4426 [email_address] www.melanieswan.com Slides: http://slideshare.net/LaBlogga/slideshows Creative Commons 3.0 license Image: http://wall.alphacoders.com/

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