BE A SCIENTIST -- SAVE THE WORLD

Slides:



Advertisements
Similar presentations
Energy Efficiency and Renewable Energy G. Tyler Miller’s Living in the Environment 14 th Edition Chapter 18 G. Tyler Miller’s Living in the Environment.
Advertisements

Can Energy Production Scale? Choices and Challenges for the Current Century Our Waveform of Consumption.
MIT Enterprise Forum ® of Texas Sponsors Baker Botts, LLP Cognitas Technologies, Inc. Fulbright & Jaworski, LLP Haynes & Boone, LLP Houston Business.
Nanotechnology – the Key to Keeping Houston the Energy Capital of the World Wade Adams and Rick Smalley Rice University Houston Technology Center University.
Our Energy Challenge R. E. Smalley Rice University Woodrow Wilson Institute Washington, DC. June 10, 2003.
Nanotechnology and Our Energy Challenge R. E. Smalley Rice University Ohio Nanotechnology Summit March 2, 2005.
China’s Future Limited by Energy Terry A. Ring University of Utah.
Regional Emission-free Technology Implementation (RETI): Diversifying the U.S. Electricity Portfolio Marc Santos 2008 ASME WISE Intern University of Massachusetts.
The Environmental Impact of Agriculture and Energy Use Ideas for a Roadmap for Biomass Technologies Staur Gjestegård, Stange, Norge August 2004.
TDS The Energy Center Wabash Valley Power Association, April 18th, 2007 Nanotechnology and the Energy Challenge Building photographs by Steve Hall © Hedrich.
Can Energy Production Scale? Choices and Challenges for the Current Century.
Think Big, Really Big The Engineering view of the world is never very interesting, scalable or sustainable  manipulates nature: This needs to stop Replace.
Global Warming and Nuclear Power Dennis Silverman Physics and Astronomy U C Irvine.
Our Energy Challenge R. E. Smalley Rice University IEEE 31 st Photovoltaic, Specialist Conference Orlando, Fla. January 4, 2005.
Energy Energy- the capacity to do work –Work- force through a distance Joule- amount of work done –4 Joules = 1 calorie –Calorie- energy to heat 1 g of.
080125© M. Kostic Prof. M. Kostic Dean P. Vohra Mechanical Engineering NORTHERN ILLINOIS UNIVERSITY NIU-Engineering Energy Research Activities and Challenges.
Our Energy Challenge R. E. Smalley Rice University 27 th Illinois Junior Science & Humanities Symposium April 3, 2005.
WORLD ENERGY INVESTMENT OUTLOOK
CLEAN TECHNOLOGY. Contents Sustainable Energy Solar Power Plants Wind Power Plants Hydro Power Plants Biomass Biodiesel Tidal Power Plants Geothermal.
Renewable Energies for Transportation, Electricity and Energy Storage Technologies (Round Table 3) U.S. Policies and Programs John P. Millhone Representing.
Nanotechnology and Energy: Armchair Quantum Wires Wade Adams, Howard Schmidt, Bob Hauge, Amy Jaffe, and Rick Smalley*
The Energy Construct Ben Cipiti May 1, 2008 Mid-Town Brews.
Energy Dr Michael McCann Centre for Sustainable Technologies (Professor Neil J Hewitt)
Copyright © 2012 John Wiley & Sons, Inc. All rights reserved. 10 Energy Consumption.
Renewable Resources Unit 8. Electricity The production of most electricity depends on a spinning turbine which is connected to a generator made up of.
NANOTECHNOLGY, the S&T Workforce, ENERGY & Prosperity R. E. Smalley Rice University PCAST 03/03/03.
Welcome to the [r]evolution. imagine energy access. equity.
Renewable Energy Resources
Introducing nanotechnology and energy Neil Coville School of Chemistry University of the Witwatersrand Media Round Table 3 rd March 2011.
Grand Challenges in Energy R. E. Smalley Rice University BES Science in 2018 Spirit of Iran Thomas Symposium Arlington, Va. May 29, 2003.
Chapter 17 Test Review Energy Efficiency and Renewable Energy Test Review Energy Efficiency and Renewable Energy.
Energy Efficiency and Renewable Energy Chapter 16.
Solar Energy Physics 52. Outline Basics of today’s power generation The Sun Photovoltaic Cell Modules and systems A little economics Conclusion Quiz.
California’s Greenhouse Gas Emission Reduction Law and Nuclear Power California State Assemblyman Chuck DeVore January 26, 2009 Presented in the California.
CUNY Energy Institute City College of New York 160 Convent Avenue, ST-329 New York, NY Sustainable Energy Futures Sanjoy Banerjee.
Making Sense of President Bush’s New Advanced Energy Initiative Kelly Sims Gallagher, Ph.D. Energy Technology Innovation Project February 23, 2006 (updated.
ACHIEVING SUSTAINABILITY Unit 3-2a Understanding Energy.
Our Energy Challenge Columbia University NYC September 23, 2003
Hydrogen, fueling the sun today, fueling our cars tomorrow.
Energy Efficiency and Renewable Energy Resources.
How Will America Survive Without Foreign Oil? Ideas for Today and Tomorrow.
An Introduction to Energy. Why do we care? 1. Fossil fuels are finite a fuel (as coal, oil, or natural gas) formed in the earth from plant or animal.
WHEN THE LIGHTS GO OUT MAXWELL IRVINE GUILDFORD OCTOBER 2005.
US Priorities for New and Renewable Energy Technologies Cary Bloyd Argonne National Laboratory APEC Expert Group on New and Renewable Energy Technologies.
Energy and the Environment: A Global perspective Reza Toossi, CSULB 1Copyrights (c) 2008.
Sustainability at NMSU A part of the integrated planning process.
DO NOW Journal Entry – answer the following: Journal Entry – answer the following: What is environmental science?
A Sustainable Energy Future Renewable, Reliable, Clean, Efficient.
Chapter 26 Energy Resources. Transfer of Solar Energy The energy that humans and The energy that humans and.
Global Warming: Emissions Sources and Solutions J. Drake Hamilton Science Policy Director Fresh Energy October 17, 2015.
Clean Energy Solutions Milton L. Charlton Chief for Environment, Science, Technology and Health Affairs U.S. Embassy Seoul.
Managing the Environmental Considerations of Power Generation Canada Europe Round Table for Business Brussels September 20, 2004 Frederick W. Firlotte.
Energy Efficiency and Renewable Energy Chapter 16.
Solar Energy Resources. Energy Usage US95,000 kWh/person/year Japan 46,000 Germany57,000 France50,000 China 7,400 Brazil10,200 Mexico17,100 US accounts.
ENERGY Energy is the capacity of a system to do work Energy is always conserved but … … can be transformed from one form to another Energy, E (unit: 1.
Our Energy Challenge R. E. Smalley Rice University IEEE 2004 International Electron Devices Meeting, San Francisco, December 14, 2004.
Fig , p. 415 More Renewable Energy Increase renewable energy to 20% by 2020 and 50% by 2050 Provide large subsidies and tax credits for renewable.
ENERGY R. E. Smalley Rice University TCSAM Distinguished Lecture University of Houston March 17, 2003.
Natural Resources. Two Types of Natural Resources Nonrenewable- limited Renewable-”unlimited”
AP Environmental Science Net Energy & Energy Efficiency © Brooks/Cole Publishing Company / ITP.
Chapter 8: Energy Sources and the Environment
Renewable energy Types of energy used Evaluating energy What is net energy Energy efficiency Ways to improve efficiency Solar Hydro Wind Biomass Hydrogen.

Church Presentations By Peter Boogaart Holland, MI
Renewable Energy Chapter 16. Energy Waste Need to improve –Energy Conservation –Energy Efficiency 4 Major Energy Wasters –Incandescent light bulbs –Motor.
Current Energy Use in America. How much energy we use The United States only makes up 5% of the worlds population however consumes 25% of the worlds total.
NONRENEWABLE vs RENEWABLE Renewable energy that comes from resources which are naturally replenished on a human timescale such as sunlight, wind, rain,
Chapter 4 An Enduring Energy Future. Cont. キ Central electric generating stations will continue to be part of the electricity supply system in order.
Australian Energy Scenarios Predicting Uncertainty
Conversations on Global Warming: Energy Sunday, April 30, 2006
Presentation transcript:

BE A SCIENTIST -- SAVE THE WORLD Nanotechnology and Energy Be a Scientist – Save the World! BE A SCIENTIST -- SAVE THE WORLD 1996 NOBEL PRIZE IN CHEMISTRY Slide 1 - Rice University File Format: Microsoft Powerpoint - View as HTML Professor Richard E. Smalley 1943 - 2005. Nobel Prize in Chemistry 1996. A 6 week summer project in 1985. 2 – page paper in Nature. C60. Buckminster- ... cohesion.rice.edu/.../630%20RTI%20Fellows%20Symp%20060403NEW.ppt Powerpoint Lectures by Nobel Laureates at Supercourse www.pitt.edu/~super1   Source: http://www.pitt.edu/~super1/Science/nobelprizelaureatesbyyear.htm Date: April 20, 2010 Author: Eric Marler M.D. http://www.pitt.edu/~super1/Science/main.htm#WHO

Professor Richard E. Smalley 1943 - 2005 Nobel Prize in Chemistry 1996 A 6 week summer project in 1985 2 – page paper in Nature C60 Buckminster- fullerene: Buckyballs with Robert F. Curl and Harold Kroto

National Nanotechnology Program White House – November 2003 Lonely Academic

Rick Smalley with his favorite students: anyone, any age!!

What is Nanotechnology? “Nanotechnology now represents no less than the next Industrial Revolution.” Red Herring, December 2001 “Nanotechnology is all the rage… but what the heck is it?” Scientific American, September 2001 “Anything is nanotechnology that, under the rubric of nanotechnology, makes money.” Rice Alliance Technology Entrepreneurship Workshop, October 2002

What is Nanotechnology? Molecular Engineering? Nanobots? Science Fiction

C60-wheel-assisted motions Pivot motion Pivot & Linear motion No lateral motion Pseudo-1D Brownian motion Y. Shirai, K. Kelly

Synthesis of G4 NanoCar “Z” Z NanoCar Y. Shirai

Random Thermal Motion (Brownian Motion) Pivot & rolling NanoCars are mobile at high temperature (~194ºC), and show random thermal motion. Pivot & rolling Lateral motion is parallel to NanoCar chassis. (Pseudo-1D Brownian motion) Supports the idea that NanoCar is rolling, not sliding via a stick slip mechanism Pivot & rolling NanoCollision! Y. Shirai K. Kelly

Nano-Hummer, The New H3

iPod Nano If your eyes are good enough to read them! Apple's new Nano music player has several features that are not found in other iPods, such as the ability to display the lyrics of whatever song is now playing. If your eyes are good enough to read them! Paul Sakuma/Associated Press

Reality of Nanotech Hard drives Sunscreens Automotive catalysts Car bumpers Paints and coatings Tennis balls and racquets Stain-resistant clothing New cancer therapies www.nanotechproject.org/consumerproducts

Sean Murdock, NanoBusiness Alliance, 2005

Nurturing Nanoscience into Nanotechnology NNI DOD Nano SRA DARPA ULTRA ONR PINS ARI Most people associate nanotechnology with the National Nanotechnology Initiative, that began in 2001. The Navy was already investing in nanoscience in the mid-1980s when a scientific field by that name didn’t exist. The combination of ONR nutured assets - program officer discretion and risk-taking to seek breakthroughs – kindled US interest in the European discovery of the Scanning Tunneling Microscope and Atomic Force Microscope. The commercialization of those instruments opened up the field of nanoscience and ultimately led to the NNI – a largely science focused investment of ~$850M in FY04. Since the Navy was in the area early, it has been able to identify and exploit technology opportunities. Two success stories are follow: Nanocoatings and Chemical Sensors. * Roco, Journal of Nanoparticle Research 2004 ** Science Citation Index Expanded, ISI Web of Science Murday, NRL #206 10/02

CY2002/03/04 PUBLICATION COUNT Global Participation in Nanoscience Sweden 297/320 Germany 1949/2282/2429 Canada 382/545 Russia 854/1025/1128 England 906/1000 Israel 273/253 Japan 2289/3002/3350 France 1317/1561 USA 5395/6149/7850 China 2474/3493/4618 Switzerland 372/369 Korea 760/1103/1466 Italy 631/829 Mexico 166/218 Taiwan 282/465/706 India 461/650/862 Singapore 209/277/439 Brazil 285/311 Australia 236/348/416 CY2002/03/04 PUBLICATION COUNT (By Keyword Nano*) Total Worldwide- 18539 /24208 /28177_ Science Citation Index of 5300 Journals

Sean Murdock, NanoBusiness Alliance, 2005

Sean Murdock, NanoBusiness Alliance, 2005

Sean Murdock, NanoBusiness Alliance, 2005

Can be combined to form larger structures Nanotechnology* Material or system with at least one constituent or phase exhibiting a scalar dimension between 1-100 nm Designed through processes that exhibit fundamental control over the chemical and physical attributes of molecular scale structures Can be combined to form larger structures *Mike Roco, definitions from NNI at www.nano.gov

How small is nano, really? Mountain 1 km Child 1 m 1/1000 of mountain Ant 1 mm 1/1000 of child 1/1,000,000 of mountain Extend it upwards: 1 Mm : Texas 1 Gm : Orbit of moon 1 Tm : Orbit of Jupiter End with: Show different types of nanotechnology. Not necessarily exhaustive, but representative. Bacteria 1 mm 1/1000 of ant 1/1,000,000 of child Sugar Molecule 1 nm 1/1000 of bacteria 1/1,000,000 of ant 1/1,000,000,000 of child

Nanotechnology Size Numbers Surface Area (S/V) Quantum Effects Bulk Gold = Yellow Size Numbers Surface Area (S/V) Quantum Effects Nanogold = Red R x bulk scaling atomic

Nanoshell-Assisted Tumor Ablation Professors Naomi Halas and Jennifer West 20nm

Nanoshell-Assisted Tumor Ablation Antibody ligands on nanoshells match receptor sites specific to targeted cancer cells. PI: Dr. Jennifer West (Rice Bioengineering) Dr. Naomi Halas (Rice ECE ) Dr. John Hazle (MDACC) Investigating use of Rice invention (nanoshells) for highly specific, minimally invasive cancer therapy Funded by NSF Licensed by Nanospectra Biosciences, Inc. Y Y External Laser Y Y Target Cancer Cell Y Y Y Y Nanoshells Absorb in IR Y Demonstrated in Mice The inside joke is that the treated mice lived much longer than budgeted and have become a financial and accounting embarrassment.

Effect of Nanoshells on Mouse Tumor Direction of infrared laser beam

Nanoshell Treatment Increases Survival Time CBEN: www.rice.edu/cben

The future(s) of nanotechnology Bad news futures Good news futures

Technologies: From Wow to Yuck? DDT cured malaria Pesticides improved crop yields Refrigerants made houses cool Asbestos improved insulation Endangered birds Toxic to animals Lead to ozone hole Liability expenses Benefits Risks The Public

The future of nanotechnology DDT cured malaria Pesticides improved crop yields Refrigerants made houses cool Toxic to animals Human carcinogens Lead to ozone hole Nanotechnology …… Nanotechnology provides us with the ideal opportunity to rewrite how emerging technologies handle the public question of risk

Nanotechnology for the Long Haul What will be nanotechnology’s impact on the world’s environment? Nanomaterials Nanostructured Membranes Fate and Transport of Nanomaterials

ICON Website http://icon.rice.edu/ International partnership which includes many stakeholders Pooled resources for risk assessment of nanotechnology Effective risk management policies through standards Shared risk communication strategies Nano Coalition Unveils Environmental, Health and Safety Database - ICON Collects Diverse Scientific Findings http://icon.rice.edu/

Humanity’s Top Ten Problems for next 50 years ENERGY WATER FOOD ENVIRONMENT POVERTY TERRORISM & WAR DISEASE EDUCATION DEMOCRACY POPULATION 2003 6.5 Billion People 2050 8-10 Billion People

“Our Energy will be primarily from fossil fuels for the next 50 years” Energy Industry “Our Energy will be primarily from fossil fuels for the next 50 years” Lewis Norman Halliburton Energy Services Economides, M. and Oligney, R.: The Color of Oil, Round Oak Publishing Company, Inc., Katy, TX, 2000

Halliburton Energy Services 795,000 million bbls (80 %) Lewis Norman Halliburton Energy Services G180-Oil & Gas

“This galaxy he’s from---ask him if it’s got oil.”

Hubbert’s Peak

U.S. Oil Production Hubbert’s Peak (2001)

WORLD OIL PRODUCTION Hubbert’s Peak (2001)

Recent Newspaper Ad

All I’m saying is now is the time to develop the technology to deflect an asteroid.

STUDY Matthew Simmon’s Presentations on Saudi Arabian Oil (www STUDY Matthew Simmon’s Presentations on Saudi Arabian Oil (www.simmons-intl.com) and his new book “Twilight in the Desert” John Wiley & Sons publishers, May 2005 When Saudi Arabia Peaks So does the World. GHAWAR, by far the world’s Largest and most prolific oil field may have already peaked. The days of cheap oil are over. Also Google “peak oil” and look at sites such as “peakoil.com”

2 Billion Poor – No Electricity 2 Billion Poor – Biomass Heating http://www.undp.org/energy

Global warming over the past millennium Slide from Marty Hoffert NYU Very rapidly we have entered uncharted territory -– what some call the anthropocene climate regime. Over the 20th century, human population quadrupled and energy consumption increased sixteenfold. Near the end of the last century, we crossed a critical threshold, and global warming from the fossil fuel greenhouse became a major, and increasingly dominant, factor in climate change. Global mean surface temperature is higher today than it’s been for at least a millennium. Slide from Marty Hoffert NYU

World Energy Millions of Barrels per Day (Oil Equivalent) 300 200 100 Very Conservative! 1860 1900 1940 1980 2020 2060 2100 Source: John F. Bookout (President of Shell USA) ,“Two Centuries of Fossil Fuel Energy” International Geological Congress, Washington DC; July 10,1985. Episodes, vol 12, 257-262 (1989).

Uh Oh – China!! 1 Billion + people! Energy Growth Rate ~10%!! National Geographic June 2004

From bicycles……. to Buicks!! Gee, this isn’t my mother-in-law’s Buick!! From bicycles……. to Buicks!!

A Much Better Use for Oil than Gasoline! Professor Mark Foster and Family (Univ. of Akron Polymer Science Department) with all their oil-based polymer belongings! -- Nat. Geog. June 2004

(The Terawatt Challenge) The ENERGY REVOLUTION (The Terawatt Challenge) 14 Terawatts 210 M BOE/day 30 -- 60 Terawatts 450 – 900 MBOE/day Energy: The Basis of Prosperity 20st Century = OIL 21st Century = ??

Energy-efficient Commuting

Small efficiencies matter! National Geographic August 2005

Big efficiencies matter, too!

Boeing 787 Going in the right direction – Efficiency and economy

Hydrogen – Not a Primary Fuel

PRIMARY ENERGY SOURCES Alternatives to Oil TOO LITTLE Conservation / Efficiency -- not enough Hydroelectric -- not enough Biomass -- not enough Wind -- not enough Wave & Tide -- not enough CHEMICAL Natural Gas -- sequestration?, cost? Gas Hydrates -- sequestration?, cost? Clean Coal -- sequestration?, cost? NUCLEAR Nuclear Fission -- radioactive waste?, terrorism?, cost? Nuclear Fusion -- too difficult?, cost? Geothermal HDR -- cost ? , enough? Solar terrestrial -- cost ? Solar power satellites -- cost ? Lunar Solar Power -- cost ?

165,000 TW of sunlight hit the earth every day

Nathan S. Lewis, California Institute of Technology PV Land Area Requirements Nathan S. Lewis, California Institute of Technology 3 TW 20 TW

Nathan S. Lewis, California Institute of Technology Solar Cell Land Area Requirements Nathan S. Lewis, California Institute of Technology 6 Boxes at 3.3 TW Each = 20 TWe

≥ 20 TWe from the Moon “Harvested Moon” David Criswell Univ. Houston

Energy Nanotech Grand Challenges from Meeting at Rice University May 2003 Report available! Photovoltaics -- drop cost by 100 fold. Photocatalytic reduction of CO2 to methanol. Direct photoconversion of light + water to produce H2. Fuel cells -- drop the cost by 10-100x + low temp start. Batteries and supercapacitors -- improve by 10-100x for automotive and distributed generation applications. H2 storage -- light weight materials for pressure tanks and LH2 vessels, and/or a new light weight, easily reversible hydrogen chemisorption system Power cables (superconductors, or quantum conductors) with which to rewire the electrical transmission grid, and enable continental, and even worldwide electrical energy transport; and also to replace aluminum and copper wires essentially everywhere -- particularly in the windings of electric motors and generators (especially good if we can eliminate eddy current losses).

Energy Nanotech Grand Challenges Nanoelectronics to revolutionize computers, sensors and devices. Nanoelectronics based Robotics with AI to enable construction maintenance of solar structures in space and on the moon; and to enable nuclear reactor maintenance and fuel reprocessing. Super-strong, light weight materials to drop cost to LEO, GEO, and later the moon by > 100 x, to enable huge but low cost light harvesting structures in space; and to improve efficiency of cars, planes, etc. Thermochemical processes with catalysts to generate H2 from water that work efficiently at temperatures lower than 900 C. Nanotech lighting to replace incandescent and fluorescent lights NanoMaterials/ coatings that will enable vastly lower the cost of deep drilling, to enable HDR (hot dry rock) geothermal heat mining. CO2 mineralization schemes that can work on a vast scale, hopefully starting from basalt and having no waste streams.

One World Energy Scheme for 30-60TW in 2050: The Distributed Store-Gen Grid Energy transported as electrical energy over wire, rather than by transport of mass (coal, oil, gas) Vast electrical power grid on continental scale interconnecting ~ 100 million asynchronous “local” storage and generation sites, entire system continually innovated by free enterprise “Local” = house, block, community, business, town, … Local storage = batteries, flywheels, hydrogen, etc. Local generation = reverse of local storage + local solar and geo Local “buy low, sell high” to electrical power grid Local optimization of days of storage capacity, quality of local power Electrical grid does not need to be very reliable, but it will be robust Mass Primary Power input to grid via HV DC transmission lines from existing plants plus remote (up to 2000 mile) sources on TW scale, including vast solar farms in deserts, wind, NIMBY nuclear, clean coal, stranded gas, wave, hydro, space-based solar…”EVERYBODY PLAYS” Hydrogen is transportation fuel Transition technology – Plug-in Hybrids

The Blackout from Space Hoax Photo!! But it does nicely outline the black-out area!

Carbon Nanotechnology Laboratory “Making Buckytubes “Be All They Can Be” Founded by Rick Smalley in 2003 as a division of CNST Coordinates SWNT Research with 10 Faculty in 6 Departments Prof. James M. Tour – Director Prof. Matteo Pasquali – Co-Director Dr. Howard K. Schmidt - Executive Director Dr. Robert H. Hauge - Technology Director

If it ain’t tubes, we don’t do it!

Why Single Wall Carbon Nanotubes? MOLECULAR PERFECTION & EXTREME PERFORMANCE The Strongest Fiber Possible. Selectable Electrical Properties Metallic Tubes Better Than Copper Semiconductors Better Than InSb or GaAs Thermal Conductivity of Diamond. The Unique Chemistry of Carbon. The Scale and Perfection of DNA. The Ultimately Versatile Engineering Material.

Graphene Sheet Texas Chicken Wire

SWNT: ROLLED-UP SHEET OF GRAPHITE

(inside giant SWNT model) World’s largest SWNT model RAJAT DUGGAL (inside giant SWNT model) 22 April 2005, Guinness World Record Model of a 5-5 SWNT ~65,000 pieces 360 m long, 0.36 m wide about 100 builders over 1000 in attendance “Supremely Silly” (from Rick Smalley) Cost of the parts: $6,000 Building a 1000-ft SWNT: pRICEless

Types of SWNT Cylindrical graphene sheet Diameters of 0.7 – 3.0 nm Observed tubes typically < 2 nm Both metallic and semi-conductor species possible Length to diameter ratio as large as 104 – 105 can be considered 1-D nanostructures armchair (a = 30°) zigzag (a = 0°) intermediate (0  a  30°)

SWNT Quantum Wire Expected Features 1-10x Copper Conductivity 6x Less Mass Stronger Than Steel Zero Thermal Expansion Key Grid Benefits Reduced Power Loss Low-to-No Sag Reduced Mass Higher Power Density SWNT Technology Benefits Type & Class Specific Higher Purity Lower Cost Polymer Dispersible

Prototype Wire - SWNT Fibers Producing Neat SWNT Fibers Dry-Spun from Oleum 6 to 14 Wt. % SWNT Dope Extruded as 50 µm Dia. Fibers 109 Tubes in Cross Section 100 Meters Long Science 305, 1447-1450, 3 September 2004!!!

High Pressure CO (HiPCO) Process NASA Success Stories High Pressure CO (HiPCO) Process Tuesday, April 26th, 2005 -- NASA Announces new $16M Grant to Rice University and two NASA Centers –Research to develop the Quantum Wire CNL Actively building new collaborations to fund this critical research program!!! Fe, Ni Catalysts CO + CO CO2 + SWNT + impurities 900-1200 C 10-40 atm Continuous process 10-100’s g/day Small diameters (0.7nm) Company spin-off (CNI) Rice Univ.  Carbon Nanotechnologies, Inc. & NASA

Roadblocks Vision without funding is hallucination. Da Hsuan Feng – UT Dallas Vision without hardware is delusion. Lockheed engineer

From the age of Space to the age of Medicine

New Energy Research Program (Smalley’s Nickel & Dime Solution) For FY06-FY10 collect 5 cents from every gallon of oil product Invest the resultant > $10 Billion per year as additional funding in frontier energy research distributed among DOE, NSF, NIST, NASA, and DoD. For the next 10 years collect 10 cents from every gallon; invest the >$20 Billion per year in frontier energy research. Devote a third of this money to New Energy Research Centers located adjacent to major US Research Universities, especially Zip Code 77005. At worst this endeavor will create a cornucopia of new technologies and new industries. At best, we will solve the energy problem before 2020, and thereby lay the basis for energy prosperity & peace worldwide.

Leadership President Bush – State of the Union Address – Jan 31, 2006 “America is addicted to oil” Replace oil imports from Middle East by 75% by 2025 DOE Advanced Energy Initiative 22% increase in clean energy research Zero emission coal Solar and wind Clean, safe nuclear Batteries, Hydrogen, ethanol A BIG change from the 2001 Cheney Energy Report – drill our way to independence!

But… Are these ideas tough or aggressive enough? NO! Biofuels budget actually smaller than in FY06 No market signal for more efficient vehicles Fuel economy standards – regulatory 40 mpg in 10 years saves 2.5M BOE/day Substantial gas tax – market mechanism Up to Congress to execute programs Incentives for alternate fuel production/vehicles Funding for research initiatives

The biggest single challenge for the next few decades: ENERGY for 1010 people At MINIMUM we need 10 Terawatts (150 M BOE/day) from some new clean energy source by 2050 For worldwide energy prosperity and peace we need it to be cheap. We simply can not do this with current technology. We need Boys and Girls to enter Physical Science and Engineering as they did after Sputnik. Inspire in them a sense of MISSION ( BE A SCIENTIST --- SAVE THE WORLD ) We need a bold new APOLLO PROGRAM to find the NEW ENERGY TECHNOLOGY

By 2012, if current trends continue, over 90% of all physical scientists and engineers in the world will be Asians working in Asia.

Education American Competitiveness Initiative YEA! Double physical sciences research funding in ten years (including nanotech, supercomputing, alternative energy sources) Permanent R&D Tax Credit HS Math/Science teacher training (70,000) and add 30,000 M&S professional teachers YEA! But will Congress fund the initiatives? And will they sustain the funding??

2999

What Can YOU Do Now? Learn as much as possible about energy Learn as much as possible about nanotechnology Encourage kids to study science and engineering!!

Reading Assignments Twilight in the Desert, Matthew R. Simmons Winning the Oil Endgame, Amory Lovins Beyond Oil: The View from Hubbert’s Peak, Kenneth S. Deffeyes Out of Gas, Daniel Goodstein The End of Oil, Paul Roberts The Prize, Daniel Yergin Hubbert’s Peak, Kenneth S. Deffeyes The Hydrogen Economy, Jeremy Rifkin Twenty Hydrogen Myths, Amory Lovins (www.rmi.org) Matt Simmons, web site: (www.simmons-intl.com) M.I. Hoffert et. al., Science, 2002, 298, 981, DOE BES Workshop Report on Hydrogen (www.sc.doe.org/bes/hydrogen.pdf) 2003 State of the Future, (www.stateofthefuture.org) Nanotechnology and Energy, 2003 Report, (www.cnst.rice.edu) National Nanotechnology Program, (www.nano.gov)

Rick was a visionary, and his charisma and logic made those he worked with buy into the vision. Rick convinced us that we could be better, stronger and take more chances if we just tried. I hope that we don’t forget – then his legacy… will make a lasting transformative difference. -- Robert Curl October 28, 2005

BE A SCIENTIST -- SAVE THE WORLD