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- Why we need faster action. It is literally a matter of life and death –
your life and mine!
- How we can do it in the real world of real technology
- www.ieeeusa.org/policy/energy_strategy.ppt (To see text, click on “Notes”
under “View” or print with Notes option in print box).
- No one on earth is doing enough yet!
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- 1. Gas $ pre-Katrina already $200b/year> methanol alternative
- 2. Katrina exposed extreme vulnerability. What if it hits Houston next?
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- What would we save if used methanol in cars, if US wholesale price of
$220/tonne? (Strong 2004 price)
- 216 b. gallons/yr of gasolineº 418 b. gal. methanol
- EIA Primer on Gasoline Prices: $1.56 in ’03, 14% distribution, 15%
refining&profits, 27% all tax
- To $220/tonne, add same distribution cost cost per physical gallon, same
profit and tax per Btu
- At pre-Katrina $2.50/gallon-gasoline, using methanol would have cost $324b,
versus $540b!
- New methanol costs well under $220/tonne! (Google on “Canaccord
methanol”)
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- Besides $3.50/gallon, a mere 10% shortfall in natural gas can raise its
price (and electricity?) 75% for as long as it lasts. Watch your bills
next month!
- 10% is like what we import now of natural gas, because of growing use to
make peak-time electricity. A new dependency, growing very fast!
- We can/should stop this growing dependency fast, with new sources of
electricity. See IEEE-USA slides.
- Efficiency/conservation for world natural gas is doable and urgent.
Saving gasoline is urgent and necessary – but not enough by itself. But
time today is limited.
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- Cavallo projections assume USGS numbers of undiscovered oil. Such
estimates are no longer so debatable, due to new geoinformatics.
(Bulletin of Atomic Scientists, Jan. 2004, www.thebulletin.org). World
imports ¹ total
production.
- Can non-OPEC production really continue to grow when reserves are not being replaced?
- Gulf Institute for Strategic Studies projects 2/3 of world oil imports
from Persian Gulf by 2025, and big political changes!
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- If output falls, free market raises prices enough to force you cut your
use in half or more.
- The only question: how? Lower income? Small car? Or market-friendly new
technology?
- Antimarket tricks like price caps, hi interest rates, pressures on Arab
states only lead to worse outcomes (Nash)
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- How do we keep our cars running?
- The big problem: the car fleet takes 15 years to turn over. Thus new
cars must be >50% gasoline independent in 5 years to make it
possible.
- Giving up would be crazy – but where is there hope? (But: fuel has more
time to catch up.)
- Where does the new fuel or electricity come from? Sources? Distribution?
- Rapid growth in imports of LNG
- Serious hope of avoiding a crisis of dependency in time but no guarantee
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- START by asking the right question!
- Many ask “What can we do with well-known certain technology with
predictable results?” Answer – not enough to stay alive!
- Many ask “What does the ideal energy utopia look like?” Nice start but not
soon enough!
- We need a middle way, rooted in technology reality, focused on big
numbers, not distracted by red herrings or mind-numbing statistics or
magnetic but self-centered vested interests
- There is hope but no guaranteed path or 10-year plan. New laws and
R&D plans must be high
flexible and design to be highly adaptive as news keeps coming.
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- Hydrogen Carriers – proven tested fuels that easily release hydrogen for
use on-board a car
- Methanol, our best hope (next slide)
- Ammonia & other carbon-free fuels (but chicken&egg problem
again)
- Electric Cars – Cleanest, most efficient, but needs R&D; can’t yet
beat C; new batteries in lab exciting, but not yet… PLUG-IN HYBRIDS
COULD GET US THERE.
- Thermal Batteries (Long-term option if Stirling grows)
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- Carry methanol in the gas tank
- Small “steam reformers” (proven known technology) to convert methanol to
hydrogen in car
- Carbon-tolerant alkaline fuel cell
- Unlike PEM fuel cell, no peroxide loss of energy and erosion; can be
made cheaper
- Realistic hope of twice the miles/Btu of hybrids
- Recent proof of carbon tolerance both at air and fuel electrodes (NSF
funded)
- Can use carbon black electrodes and “Jiffy Lube” electrolyte refreshing
- See http://arxiv.org/abs/physics/0504130
- Also radical new hi-efficiency options, like truly solid electrolyte
fuel cells that really conduct p not hydronium
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- The maximum conventional ethanol supply from US corn is only a tiny
fraction of US needs, and only a tiny fraction of biofuel potential
revenue
- Can we expand it by an order of magnitude?
- Can we find technologies that work off a much wider varieties of plants,
more efficiently, at an acceptable price? Can we find technologies well
enough proven that they could really scale up fast?
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- FFV hybrids cut liquid fuel use 50% already. Plug-ins cut 50% of that.
- “Researchers have shown that (batteries) offering.. electric range of
32 km will yield… 50% reduction..” (IEEE Spectrum, July/05). Shown in
working Prius.
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- Ethanol+Methanol Fuel flexibility (up to M85) should be MANDATORY in new
gasoline-using cars from 2006/7/8. Hybrids or advanced Stirling can also
use GEM fuel tanks easily.
- Plug-in with >30km range should be mandatory in new hybrids, and
incentivized for national security reasons
- Incentives and research opportunities
for bio-methanol should be the same as for bioethanol,
biohydrogen or better
- Zoning rules discouraging Distributed Generation should be modified to
simplify renewable or alcohol fuel use
- Grid regulation needs to be made to fit "intelligence“
- Leak proof tanks in gas stations for ALL fuels. Tanks/pumps selling
nonbiological M85 should be able to supply pure enough methanol for fuel
cell cars.
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- Outside US, cost of new methanol is $98/ton from remote gas (Google
“Canaccord methanol”), much of which is now wasted (vented and flared).
- For oil companies, new remote methanol plant will be equivalent to new
proved reserves! Free market will supply methanol if FFVS, as they
accumulate.
- Don’t burn CH4 to electricity! There are better new electricity sources!
- Near-Term R&D: CH4-to-Methanol: small $ to follow up Catalytica,
could cut cost in half. Much better investment than new refineries when
proved reserves are not growing!
- Reduce irrational political pressures to limit natural price growth of
oil products and natural gas. New technology can create a “bigger pie,”
and a bigger slice both for producers and consumers – win, win, Pareto
optimum…
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- Two scenarios: Base-Case-Present-Trends Versus Real-Hope-If-We-Act-More
- Base Case:
- Iran, China, eventually everyone builds fission as fast as they can.
Bin Laden Construction Co. and its less savory competitors grow very
rich, very fast. 4-8¢/kwh
- Little guys (wind, rooftop solar, Anwar, ethanol) make big $ but don’t
plug half the supply-demand gap
- Supply-demand gap still widens. Old coal fills the gap, filling half
the world with barely survivable air (worse than China’s cities today).
Not so much methanol.
- “Santa Claus drowns” Arctic Ice Cap Double or Nothing
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- THREE TEAM A TECHNOLOGIES
- We know that all three CAN WORK
and CAN provide all the world’s energy needs cleanly
- “IGCC” (Cool Water/Texaco/Eastmann/GE) Clean Coal Technology, Good for
carbon sequestration, efficiency, wants to produce electricity and
methanol together
- “solar farms” on earth with mirror or lenses: but breakthru needed on
cost, new workshops?
- Space solar power – new designs from NASA-NSF-EPRI
- Need better (agile, international?) funding vehicle for high risk
breakthrough TEAM B hopes, like advanced large-scale biomethanol
biotechnology.
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- DOE 10-year targets: 14¢/kwh PV, intermittent power, can’t compete with
coal 4¢ baseload. Cost of “balance of system” is stubborn with solar
farms -- & worse for lo efficiency (now 3%) “nano-based” PVs this
decade. World Bank (GEF): solar thermal “Luz” still 12¢/kwh.
- Recent breakthru: Business Week (9/12/5) reports SES unsubsidized sale
of 500 megawatt Stirling/dish farm to SCE, “well under” today’s 11¢/kwh
– probably near Sandia’s 6¢/kwh estimate. Mojave enough for all US.
- Inventor of that engine plus former GM DD for Advanced Products have
credible plan to cut that cost in half – as yet unfunded.
High-efficiency heat to torque or kwh also useful in space nucs, cars,
etc. Scales to 50kwh: could provide cheap secure electricity to sunny
DOD bases! Reduce EU dependence on Russia, Chile’s on Bolivia?
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- 98 proposals, $21 million recommended after tough merit review, $3
million funded
- Previous NASA SERT program: first
well-validated designs but 17¢/kwh even assuming $200/lb earth-to-LEO
(Low Earth Orbit)
- Now 4 designs may achieve cost breakthrus, merit follow-up. One – hybrid
light-to-light laser with D-D inertial fusion and microwave beaming
might get well under 1¢/kwh for kwh at central point in space.
- Little of Texas A&M claims he can demo ability to avoid
communications interference. Current designs cost about 4¢/kwh just to
get power from space to earth grids, but many believe this could be cut
a lot with new R&D.
- “Near-term vehicle” design 1st wi real hope <$200/lb
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- Mankins’ new version of solar cells to electricity to microwave
- Fork/Werbos (TIM 2002) “spinal cord” laser, light lenses/mirrors to light-to-light
laser to earth
- Werbos solar/fusion hybrid lenses, laser, D-D pellets
- Nonterrestrial materials (NTM)
- Idea not new; Gerard O’Neill & Criswell still vital
- Engineering needs major fleshing out, testing, multiple iterations etc.
Lower TRL than the others, but high potential and relevance to
President’s Program
- All designs require a flexible “decision theory” vision
- Need honesty and toughness about uncertainty to make it real
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- Partnership with NASA
- New Big Laser (2/4 cheap ways)
- Affordable launch (follow-on to ECS-funded plasma hypersonics – requires
US proprietary technology, $10-15 billion)
- Improved Robotics – REQUIRES MORE USE OF COMPUTATIONAL INTELLIGENCE!!!
(NSF/DARPA??)
- Cheaper rectennas – PES/MTT partnership
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- As Gas Prices Ý
Imports Ý
& Nuclear Tech in unstable areas Ý, human extinction is a serious risk. Need to move
faster.
- Optimal time-shifting – big boost to rapid adjustment, $
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- DSOPF02 workshop started from EPRI question: can we optimally manage&plan the
whole grid as one system, with foresight, etc.?
- Closest past precedent: Momoh’s OPF integrates &optimizes many grid
functions – but deterministic and without foresight. UPGRADE!
- Can be done using real math, but traditional R&D, fuzzy “complexity
science” and big iron are not on course to do the job. See IEEE-USA
slides
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- Basic thrust is scientific. Bellman gives exact optima for 1 or 2
continuous state vars. New work allows 50-100 (thousands sometimes).
Goal is to scale up in space and time -- the math we need to know to
know how brains do it. And unify the recent progress.
- Low lying fruit -- missile interception, vehicle/engine control,
strategic games
- New book from ADP02 workshop in Mexico www.eas.asu.edu/~nsfadp (IEEE
Press, 2004, Si et al eds)
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- IEEE Computational Intelligence (CI) Society, new to 2004, about 2000
people in meetings.
- Central goal: “end-to-end learning” from sensors to actuators to
maximize performance of plant over future, with general-purpose learning
ability.
- This is DARPA’s “new cogno” in the new nano-info-bio-cogno convergence
- This is end-to-end cyberinfrastructure
- See hot link at bottom of www.eng.nsf.gov/ecs
- What’s new is a path to make it real
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- Brain-like intelligence is embodied intelligence; sensors, actuators and
feedback on performance are essential parts of the new designs.
- Reduce world CH4 to kwh: sell and
upgrade Brazil’s superior transmission technology (Pilotto, Watanabe:
could save California billions quickly, allow cheap electricity from
underused Utah coal plants)
- EPRI plan to add more communications, sensors, intelligent appliances
(e.g. car chargers to turn on at quiet times at night, to exploit times
of strong wind)
- Interface of intelligent grid with human users, markets and regulations.
(www.pserc.cornell.edu; “EPNES” at www.nsf.gov.)
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