On Intelligence – Jeff Hawkins Presented by: Melanie Swan, Futurist MS Futures Group 650-681-9482 Chapter.

Slides:



Advertisements
Similar presentations
Learning in Neural and Belief Networks - Feed Forward Neural Network 2001 년 3 월 28 일 안순길.
Advertisements

Introduction to Artificial Neural Networks
Blue brain Copyright © cs-tutorial.com.
A new approach to Artificial Intelligence.  There are HUGE differences between brain architecture and computer architecture  The difficulty to emulate.
The Brain is Embodied and the Body is Embedded in the Environment Jeff Krichmar Department of Cognitive Sciences University of California, Irvine.
EE141 1 Broca’s area Pars opercularis Motor cortexSomatosensory cortex Sensory associative cortex Primary Auditory cortex Wernicke’s area Visual associative.
Carla P. Gomes CS4700 CS 4700: Foundations of Artificial Intelligence Prof. Carla P. Gomes Module: Intro Neural Networks (Reading:
Mind, Brain & Behavior Friday March 14, What to Study for the Final Exam  Chapters 26 & 28 – Motor Activity Know what kind of info the two main.
SENSOR FUSION LABORATORY Thad Roppel, Associate Professor AU Electrical and Computer Engineering Dept. EXAMPLES Distributed networks.
Memory Systems Chapter 23 Friday, December 5, 2003.
 For many years human being has been trying to recreate the complex mechanisms that human body forms & to copy or imitate human systems  As a result.
The Singularity Is Near Presented by: Melanie Swan, Futurist MS Futures Group Chapter 6: Impact.
August 19 th, 2006 Computational Neuroscience Group, LCE Helsinki University of Technology Computational neuroscience group Laboratory of computational.
Introduction to Neural Networks. Neural Networks in the Brain Human brain “computes” in an entirely different way from conventional digital computers.
IE 585 Introduction to Neural Networks. 2 Modeling Continuum Unarticulated Wisdom Articulated Qualitative Models Theoretic (First Principles) Models Empirical.
Towards Cognitive Robotics Biointelligence Laboratory School of Computer Science and Engineering Seoul National University Christian.
Advances in Modeling Neocortex and its impact on machine intelligence Jeff Hawkins Numenta Inc. VS265 Neural Computation December 2, 2010 Documentation.
NEURAL NETWORKS FOR DATA MINING
A New Theory of Neocortex and Its Implications for Machine Intelligence TTI/Vanguard, All that Data February 9, 2005 Jeff Hawkins Director The Redwood.
What is Biophysics? Biophysics is that branch of knowledge that applies the principles of physics and chemistry and the methods of mathematical analysis.
Chapter 17 Challenges & The Future The Future Technologies - what we can do Desires - what we want Emerging Technologies - what we think we can.
Brain Computer Interface
CS344 : Artificial Intelligence Pushpak Bhattacharyya CSE Dept., IIT Bombay Lecture 29 Introducing Neural Nets.
Autonomous Virtual Humans Tyler Streeter April 15, 2004.
Prepared By :. CONTENTS 1~ INTRODUCTION 2~ WHAT IS BLUE BRAIN 3~ WHAT IS VIRTUAL BRAIN 4~ FUNCTION OF NATURAL BRAIN 5~ BRAIN SIMULATION 6~ CURRENT RESEARCH.
SENINAR ON BLUE BRAIN PRESENTED BY BINAYAK SWAIN MCA 4 TH SEM REGD NO:
Presentation on. Human brain, the most valuable creation of God. The man is called intelligent because of the brain. But we loss the knowledge of a brain.
AI on the Battlefield: an Experimental Exploration Alexander Kott BBN Technologies Robert Rasch US Army Battle Command Battle Lab Views expressed in this.
Artificial intelligence
WORLD OF THE VIRTUAL BRAIN
Mehdi Ghayoumi MSB rm 132 Ofc hr: Thur, a Machine Learning.
WEEK INTRODUCTION IT440 ARTIFICIAL INTELLIGENCE.
Artificial Intelligence, Expert Systems, and Neural Networks Group 10 Cameron Kinard Leaundre Zeno Heath Carley Megan Wiedmaier.
1 Discovery and Neural Computation Paul Thagard University of Waterloo.
Chapter 2. From Complex Networks to Intelligent Systems in Creating Brain-like Systems, Sendhoff et al. Course: Robots Learning from Humans Baek, Da Som.
Cognitive Modular Neural Architecture
Printing: This poster is 48” wide by 36” high. It’s designed to be printed on a large-format printer. Customizing the Content: The placeholders in this.
Why Can't A Computer Be More Like A Brain?. Outline Introduction Turning Test HTM ◦ A. Theory ◦ B. Applications & Limits Conclusion.
Chapter 2. From Complex Networks to Intelligent Systems in Creating Brain-Like Intelligence, Olaf Sporns Course: Robots Learning from Humans Park, John.
BLUE BRAIN Prepared by: Hardik Kanjariya.
Chapter 1 Principles of Life
Intelligent Control Methods Lecture 2: Artificial Intelligence Slovak University of Technology Faculty of Material Science and Technology in Trnava.
Chapter 15. Cognitive Adequacy in Brain- Like Intelligence in Brain-Like Intelligence, Sendhoff et al. Course: Robots Learning from Humans Cinarel, Ceyda.
Prepared by: Akash Agarwal
Brain Lab Mark A. Strother Cal Farley’s. Objectives Have fun Experience (learn) a little about the brain Gain new perspectives for program development.
Chapter 1 Principles of Life. All organisms Are composed of a common set of chemical components. Genetic information that uses a nearly universal code.
PRESENTATION BY :- SUVIL SHARMA 0832EC Introduction What is BLUE BRAIN?? What is VIRTUAL BRAIN ? Why do we need virtual brain? Function of brain.
BLUE BRAIN. CONTENTS:- 1# INTRODUCTION WHAT IS BLUE BRAIN 3$ WHAT IS VIRTUAL BRAIN 4% FUNCTION OF NATURAL BRAIN 5^^ BRAIN SIMULATION 6!!! CURRENT RESEARCH.
G.PULLAIAH COLLEGE OF ENGINEERING & TECHNOLOGY. BLUE BRAIN Prepared by, Prepared by, D. Sruthi Reddy, D. Sruthi Reddy, 08AT1A0521, 08AT1A0521, 2 nd CSE.
Simulation in Operational Research form Fine Details to System Analysis.
HIERARCHICAL TEMPORAL MEMORY WHY CANT COMPUTERS BE MORE LIKE THE BRAIN?
Decision Support and Business Intelligence Systems (9 th Ed., Prentice Hall) Chapter 12: Artificial Intelligence and Expert Systems.
CS621: Artificial Intelligence Lecture 10: Perceptrons introduction Pushpak Bhattacharyya Computer Science and Engineering Department IIT Bombay.
Department of Electronics & Communication CONTENTS INTRODUCTION WHAT IS BLUE BRAIN WHAT IS VIRTUAL BRAIN FUNCTION OF NATURAL BRAIN BRAIN SIMULATION CURRENT.
Blue Brain Technology Presented By Vipin.
Big data classification using neural network
Chapter 11: Artificial Intelligence
BLUE BRAIN The future technology
Teaching with the brain- Chapter 2 preparing the brain for school.
Memory Basics and Sensory Registers Psychology, Unit 5
به نام خدا Big Data and a New Look at Communication Networks Babak Khalaj Sharif University of Technology Department of Electrical Engineering.
Introduction to Neural Networks And Their Applications
WELCOME TO SEMINAR ZONE.
Course Outline Advanced Introduction Expert Systems Topics Problem
CS 5310 Data Mining Hong Lin.
CALM 20 February 27, 2012.
Introduction to Artificial Intelligence Instructor: Dr. Eduardo Urbina
Design of Experiments CHM 585 Chapter 15.
CS621 : Artificial Intelligence
Machine Learning.
Presentation transcript:

On Intelligence – Jeff Hawkins Presented by: Melanie Swan, Futurist MS Futures Group Chapter 8: The Future of Intelligence NIH BCIG April 27, 2006

NIH BCIG April 27, Building Intelligent Machines (IMs) Introduction What will IMs be like? Technological challenges and timing Moral/ethical issues Potential applications for IMs –Near-term –Longer-term Conclusion

NIH BCIG April 27, IMs can be built – but may not be like what we think Appearance and interaction not human-like Limited-application robots (smart cars, autonomous mini-submarines, self-guided vacuums/mowers) before androids/robots 1.Necessity: IMs only require cortex equivalent 2.Cost: Excessive cost/effort for humanoid robots Multiplicity of IM physical embodiments: cars, planes, computer room racks –Distributed sensors and memory system

NIH BCIG April 27, How to create an IM IM: Sensory input that is connected to a hierarchical memory system that models the world and predicts the future Recipe for building IMs –Set of senses to extract patterns from the world –Attach a cortex-like hierarchical memory system Training period builds a model of its world through its senses Result: With its own model of the world, the IM can analogize to past experiences and make predictions

NIH BCIG April 27, Largest IM technical challenges: memory capacity and connectivity Capacity –Cortex’s 32 trillion synapses ~= 80 hard-drives An entire cortex is not required IM memory chip error tolerance benefit vs. traditional silicon Connectivity –Speed and sharing substitutes for complexity A cortex cell might connect to 5,000 or 10,000 other cells Electrical pulses are 1 million times faster than neurons –Cortex dedicated axons can be IM shared connections –Many approaches to this brain chip connectivity problem underway When? years / “within my lifetime”

NIH BCIG April 27, Should we create IMs? Dark imaginings vs. potential benefits of new technology Unlikely for IMs to threaten large portions of the population (Matrix, Terminator) –IMs will be defined-capacity human-controlled tools Being intelligent is being intelligent, not being human –IMs (based on the neocortical algorithm) will not have emotions –Best application: where human intellect has difficulty, tedium Concludes –IM ethics, easy compared to genetics and nuclear energy –IMs are not self-replicating machines –No contemplated way for humans to copy minds into machines

NIH BCIG April 27, Why should we build IMs? What will IMs do in the near-term? Imagine near-term uses for brainlike memory systems –Auditory applications: speech recognition Multi-year training period –Visual applications: security camera (crowbar vs. gift) –Transportation applications: truly smart car

NIH BCIG April 27, Why should we build IMs? What will IMs do in the longer-term? Technique: Identify scalable aspects (cheaper, faster and smaller) Speed: IMs can do in 10 seconds what a human can do in a month Capacity: many times human capacity; no biological constraint Replicability: easy to copy, reprogram vs. human brains Sensory systems: any natural sense plus new senses Pattern-recognition: any input with non-random with a richness or statistical structure

NIH BCIG April 27, Why should we build IMs? Specific applications Application: any mismatch between human senses and the physical phenomena we want to understand –Protein folding –Mathematics and physics Distributed, globe-spanning sensory systems –Weather, animal migration, demographics, energy use Understanding and predicting human motivations and behavior Minute entity sampling Pattern representation in cells or large molecules Meta-IM: Collecting several IMs into one whole

NIH BCIG April 27, Conclusion, IMs… Think and learn a million times faster than humans Remember vast quantities of detailed information See incredibly abstract patterns Have (distributed) senses more sensitive than our own Think in three, four or more dimensions Are not limited Turing Test concepts but amazing tools that could dramatically expand our knowledge of the universe

Thank you! Presented by: Melanie Swan, Futurist MS Futures Group NIH BCIG April 27, 2006 Licensing: Creative Commons 3.0Creative Commons 3.0