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Richard
K Shepherd and Maarten van Mourik |
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2020 ENERGY |
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World oil supply faces a capacity squeeze within
five years and a long term downturn within a decade |
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Most energy planning assumes no downturn before
2030 |
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Most alternative fuel options cannot achieve the
scale for a global transport fuel continuum within two decades |
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Therefore energy security demands the use of
liquids that can fuel the current transport infrastructure within a decade |
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Only alcohol fuels and bio-diesels can achieve
that goal |
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Key strategy is to manage gas for highest value
markets |
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To impact the energy market in 2015, any new
fuel or power source must be LARGE SCALE AND SOON |
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Fuel cells, hydrogen and many other options can make NO
significant impact before 2020. |
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The key issues are SCALE, TIMING and PROFIT |
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Remember, big new technologies always bring
large numbers of business failures because of technical risk, competition
and changing markets |
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Significant energy market changes must use
current manufacturing and distribution infrastructure |
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Nature: are the resources there? |
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Technology: can we get at them? |
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Scale: can we make a difference? |
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Timing: before it’s too late |
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Economics: where are best profits? |
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Policy: what’s best for the people? |
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Availability issues |
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Incentive issues |
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Population = Consumers |
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Wealth = Appetite |
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Technology = Efficiency |
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Infrastructure = Access |
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Price = Choice |
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Determines volume potential |
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Determines limits to potential |
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Beyond oil from the Persian Gulf and FSU, most
or all growth in liquid hydrocarbons demand can and will be met from gas
liquids, alcohols or deep water oil rather than from conventional crude oil |
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While liquids from gas can grow further with
current fuels and new GTL technologies, some alternative oil is costly,
risky and uncertain |
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An orderly transition to new energies will be
too little, too late because of huge existing industrial and distribution
infrastructure |
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Evolutionary transportation fuels are a large
scale, viable, accessible option right now |
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Change comes easiest in response to crisis
rather than reason, but is not the planners’ best option |
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Once demand gets going again, new oil must come
mainly from the Persian Gulf, the FSU or deep water |
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Oil supply delays mean high prices and high
spending |
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Field by field “bottom-up” research suggests,
any or all 3 sources may deliver too little too late to balance demand |
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Deep water is already late and cannot compensate
for decline in old fields outside Persian Gulf |
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The Persian Gulf has the oil but new capacity
cannot keep pace with new demand and old oil |
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The heralded Russian oil recovery may not last
long |
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Both old worlds and new worlds are swinging into
severe imported energy dependence, especially for oil and particularly for
transportation fuels |
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But slower economic growth and slower oil demand
opens a time window for vigorous new energy policies, especially in nations
with high consumer fuel prices and a fuel tax share of +/- 80% of pump
price |
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Good policy is the art of the possible, not of
wishful thinking |
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Oil production capacity expansion in the Persian
Gulf cannot physically grow fast enough 2010 through 2020 |
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But decline will accelerate elsewhere except FSU |
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Remaining non-OPEC growth prospects are fragile |
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A global capacity squeeze arrives by 2007-8 if
oil demand resumes a 1.5-2.0% growth rate during 2004-2006 |
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Without policy change, high oil prices follow
for 3-5 years |
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Capacity expands by 2012, briefly allowing
softer prices |
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Another price spike risk after 2015, much longer
this time |
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The opportunity for flexible fuel energy policy
is enhanced by slower demand growth because there is more time to act |
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Economic growth in the “old” economies (Europe
and Japan) still leaves oil demand growth at virtually zero |
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Yet the global automotive market still grows
yearly |
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Mature market fuel growth can be curbed by
simple and current fuel efficiency policies, within reach of everybody |
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It takes very small policy adjustments to reduce
oil demand, without damaging economic growth |
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But most policy changes come through reaction to
crisis |
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There is NO global shortage of energy, only an
absence of far-sighted and courageous state policies |
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The major and ONLY medium term energy bottleneck
is for liquid transportation fuels |
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The energy supply threat is not primarily from
resource shortage, nor technology, nor economics, but from vested and valid
commercial and financial interests |
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Liquid fuel supply CAN grow without changes to
transport manufacturing and distribution infrastructure |
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Demand will later level out worldwide as it has
in Europe |
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FLARED GAS: We burn the equivalent of nearly 3
million barrels of oil a day as waste |
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STRANDED GAS: Much of the world’s gas resource
is out of reach of the market |
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POWER: About 40% of all new power generation
capacity 2000-2030 will burn the natural gas we badly need for other uses |
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USA: The world’s largest energy market is
running out of gas now |
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WAKE UP |
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Outside the USA, there is no early gas supply
threat and much wasted production or unused reserves |
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There are many routes to convert methane to
liquid fuel from methanol through GTL technologies |
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There are also many abundant resources for
electrical power generation, so use gas to resolve the transportation fuel
shortfall |
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The key enabling factors are |
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use of existing automotive and distribution
infrastructures |
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tax incentives applied through energy policy |
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A fuel continuum with no apparent switchover |
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The old liquids |
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the real expansion is not in conventional crude
oil supply but in various gas liquids and unconventional oil |
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Natural gas liquids (NGL) |
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Liquids from gas plants (LGP) |
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Liquefied petroleum gases (LPG) |
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Liquefied natural gas (LNG) |
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The new liquids |
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There plenty of other liquid fuels. Share is a
matter of policy and commercial strategy, not just technology |
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Methanol from gas |
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Ethanol from biomass |
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Coal liquefaction to M |
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Hydrogen fuel |
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Biodiesels |
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Gas to liquids (GTL) |
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Methanol is well to wheel cost competitive with
gasoline and diesel, probably cheaper over next 10-20 years |
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Gasoline blending with ethanol and methanol
works well |
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Most current gasoline engines can tolerate a 10%
methanol content without any modification |
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Modern electronic engine management systems can
enable varying fuel blends and variable calorific values +/-20% |
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Diesel engines will burn bio-diesels or methanol
easily |
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THERE IS NO BARRIER TO PRODUCTION OR
DISTRIBUTION OF THESE FUELS EXCEPT CAPACITY AND VESTED COMMERCIAL INTEREST |
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An automotive fuel continuum is viable,
immediate policy |
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1. Feedstock |
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2. Cost |
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3. Capacity |
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4. Interchangeability |
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5. Delivery |
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6. Industry incentive |
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7. Consumer incentive |
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8. Policy |
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1. Abundant gas for methanol, agri-feedstock for
ethanol, coal for the brave |
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2. Broadly gasoline equivalent outside the USA |
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3. Four year lead time, 10-15 year build-up |
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4. Gasoline and diesel mix or swap using same
engines |
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5. Existing filling station network |
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6. None without tax break for current players, but
opportunity for new investment players |
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7. Tax-enabled price break like French diesel |
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8. Energy supply security, investment can enable
bold policy initiative with green packaging |
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It is possible to relieve 10% of transportation
fuel demand growth by 2020 assuming policy decisions on alcohol fuel
blending soon |
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Fuel taxation and other efficiency policies
could remove at least another 10% of demand |
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We need to replace at least 10% of transport
fuel demand by 2020 to make a significant difference or 5 Mbdoe |
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World methanol capacity is tiny in oil supply
terms |
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It would take one half of currently committed
global capacity just to satisfy 3% of European transport fuel demand in
2010 (the allowable methanol content now) |
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A fivefold capacity hike is needed to meet 10%
of transport fuel demand ex-USA ten years from now or 225 million tonnes of
new annual production capacity |
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An investment of about $7 billion for 3 Mbdoe |
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“Hydrogen will displace fossil fuels as the
blood of our future energy infrastructure” |
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Amory Lovins, Rocky Mountain Institute |
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Nobody now in today’s energy business is
threatened by hydrogen fuel switching if it is still 20 years away |
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Nice work for researchers on fuel cells , but no
payback for today’s investors |
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Next generation nuclear power is needed first to
shift valuable gas away from power markets |
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Coal liquefaction and coal methane are big goals
too |
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Hydrogen is beautiful but remote, a next
generation fuel source like fast breeder reactors, hydrates and oil shales |
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Policy is the catalyst, but the driver is money |
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Oil companies are making a strategic investment
shift to gas, already well under way |
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Because returns on oil are weaker, investment
lags |
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They will stay in the transport fuel business |
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They will choose the most profitable option |
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Methanol fuel offers scale, profit and early
returns |
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Once begun, the trend will be large scale |
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