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power
& energy
no
way out?
The barriers to developing
an alternative fuels industry are not technical, but social.
by Galen J. Suppes and Truman S. Storvick
During
last year's political season, the topic of outsourcing became a
hot-button issue. America's manufacturing base, we were told, was
being shut down and reestablished in places such as southern India and
eastern China. Some people fretted that it was close to impossible to
find backers for investment in new plants or industrial projects in the
United States.
If that were true, it would be a certified disaster. Infrastructure investment
is debatably the most important step a democratic and free society can
take to assure prosperity and security. The absence of domestic infrastructure
investment already has led to the near extinction of the U.S. steel and
textile industries. And due to lower wages and less stringent environmental
regulations abroad, the consensus is that garnering investment into major
energy or chemical process infrastructure on U.S. soil is all but futile.
Essentially giving up on the prospects of attracting new manufacturing
industries, many states are working to attract early-stage, high-tech
companies. Michigan has created a $150 million high-tech venture capital
fund, and California recently passed a multibillion dollar stem cell research
initiative.
Fortunately, the obituary for the U.S. manufacturing industry need not
be writtenat least not yet. There is more to this story, and it
resides in the driving forces for investment and, specifically, the profitability
analysis estimates on which corporations base investment decisions. Investment
in industries such as transportation and synthetic fuels production can
make business sense even in a First World setting, but only if we are
honest about the true barriers to infrastructure investment.
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To find out where the true barriers lie, we conducted a case study on
the investment in a hypothetical project that used the Fischer-Tropsch
process for converting Wyoming coal into a synthetic oil alternative to
imported petroleum. The impact of technology cost was compared to the
following four non-technical barriers: petroleum reserves, intangible
costs, tax structures, and the expected return on investment.
Unlike imported petroleum, which is brought to American refineries with
relatively little labor, synthetic fuels are made through a manufacturing
process. That means that labor costssalaries, benefits, payroll
taxes, insurance, and the likemake up a major component of the
price needed to support synthetic fuel production. Does that put manufactured
fuel at a disadvantage when trying to compete with fossil fuels?
The measuring stick we used to determine profitability was the investment
rate of return because it will provide the "threshold" price
of the synthetic oil product. Petroleum prices above this threshold price
would justify investment. In our calculation, the "threshold"
price for the synthetic oil is adjusted until the net present value of
the process is $0 at the end of the process life (15 years for the base
case). That means any price above the threshold will yield a profit above
the demanded return on investment.
After preparing a base case investment rate of return, the sensitivity
of the threshold synthetic fuel price to the four non-technical barriers
was determined by repeating the calculation for the upper or lower limits
of each of the non-technical barriers.
The base case yielded a threshold price of $41 per barrel of synthetic
oil. However, this base case assumed no intangible costs and zero years
of oil reserves for the corporation making the investment. But neither
of those assumptions is realistic. Today's reality is that vested
interests in oil reserves and intangible costs rapidly increase threshold
petroleum prices to more than $150 per barrel. Indeed, we found that the
ownership of oil reserves was the biggest barrier to a corporation's
investment in synthetic fuels. Oil corporations will invest in a U.S.
alternative fuel industry only when their petroleum reserves are depleted
to about the time it takes to build the alternative fuel infrastructure,
or about two years of reserves.
Reserves will not fall to this level any time soon. Even if investing
in such a project were seen by society as necessary, the United States
cannot rely on oil corporations to make the investment. Corporations make
investments based on corporate profitability, not the greater good.
As an alternative, society (through the government) could select energy
options that do not rely on the refineries or distribution networks of
major oil corporations. Increasing the fuel economy of vehicles is such
an approach, but it has limited potential. A new technology referred to
as plug-in hybrid-electric vehicle technology has the potential to substantially
displace oil with domestic electricity and may be a technology that displaces
petroleum. Hydrogen gas would be used on fuel cell versions of plug-in
HEVs, but no hydrogen distribution infrastructure will be required. (Hydrogen
could be produced via an onboard electrolysis system.)
Intangible costs are the second greatest barrier to investment in a domestic
alternative fuel industry. Anti-trust laws tend not to cross international
boundaries. Needed investments in a U.S. domestic fuel industry are not
made (in part) because OPEC could flood the world oil market with low-price
petroleum and drive domestic synthetic production out of business. Factoring
in such a potential oil glut raises the threshold price for synthetic
crude to between $67 and $97 a barrel.
International treaties or price-dependent tariffs that effectively extend
anti-trust laws across international boundaries are one potential fix
to this problem. But such treaties or policies must be in place at the
time investment decisions are made, which means they need to be established
now, not tomorrow.
Corporate demands for high return on investment had the third greatest
impact on the threshold price. To lower this barrier, states could encourage
corporations to invest by providing tax credits or land for plant sites.
For example, Alabama has used incentives to attract automotive industries.
State-negotiated incentives work. a more direct approach, however, would
be for local and state governments to provide capital with government
bonds. If such a direct investment approach were used, communities would
be able to match their capabilities and needs with the industry that the
community is trying to attract. The underlying message here is that communities
realize value from local industry beyond the return on investment realized
by the corporation, and it is often good policy to provide incentives
to attract industry. In this approach there must be assistance to communities
to help them make smart incentive decisions.
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| Remove economic barriers and coal
could be profitably turned into oil. |
Domestic taxes have a greater impact on investment decisions than the
cost of the technology. Under present conditions, about half the price
of a barrel of synthetic petroleum produced from Wyoming coal would be
taxes (corporate income, personal income, property, FICA, and so on) while
imported oil is scarcely taxed at all. About 10 cents per barrel is charged
to imported petroleum, basically to cover docking or harbor fees.
It makes no sense to burden domestic industry with taxes while foreign
producers are allowed to enter the U.S. market without paying a similar
tax to do business. While it is true that imported petroleum can have
similar taxes paid to a foreign country, the key qualifier is can.
If imported oil is produced in a country where taxes are primarily a value-added
tax paid on domestic sales, a foreign producer could export to the United
States with little or no tax burden.
The American tax system is a hodge-podge that has been implemented piecemeal
over the past century. In almost every case, the taxes once seemed like
a good idea. However, today's tax structure is not a good idea in a global
market. Tax reform is needed. A solution could start with replacing all
corporate taxes with a value-added tax applied to imported and domestic
items alike. To eventually create a truly level playing field, many of
the personal income, property, and FICA taxes could also be converted
to value-added tax.
Taxing domestic and foreign products alike is fairer than selectively
taxing either domestic or foreign producers. By contrast, the Chinese
government levies a 17 percent value-added tax on all sales of semiconductors
and integrated circuits, but as much as a third of this tax is rebated
for those chips made in China. The U.S. policy of continuing to apply
century-old tax policies is undermining the country's entire industrial
base by increasing the incentive to invest abroad.
U.S. leaders and economists generally have overlooked the huge impact
of allowing "tariff-free trade" in view of the U.S. tax structure. In
his seminal work, The Wealth of Nations, the philosophical father
of free trade, Adam Smith, considered two legitimate exceptions to free
trade: When industry was necessary to the defense of the country and when
tax was imposed on domestic production. Taxing domestic synthetic fuel
production while importing crude oil duty-free fits Adam Smith's exception.
And the solution does not lie in subsidies. Selectively providing 55-cent-per-gallon
incentives for domestic ethanol production (or $1 per gallon for domestic
biodiesel production) to correct a poor tax structure displaces capitalism
with political prejudice. Two wrongs do not make a right.
Often, experts assure us that the technology just isn't advanced enough
for synthetic fuel to be a viable alternative to fossil oil. But this
isn't the case, or at least not the whole story. On a level playing field,
a barrel of synthetic oil made with off-the-shelf technology could be
sold for as little as $13 and still make a profit. Even further technological
advances can't overcome the headwinds of the non-technical barriers to
commercialization we have identified.
There are yet more roadblocks: Even if a non-petroleum company were able
to produce an inexpensive synthetic fuel, the producer would have to sell
to existing oil corporations or face tens of billions of dollars of additional
investment. In view of possible agreements with foreign producers, it
is not certain that the major U.S. petroleum corporations would displace
contracted petroleum with a synthetic oil alternative.
To see one way of successfully commercializing synthetic fuels, one should
look north to the Canadian oil sand (formerly referred
to as tar sand) industry. At $9 to $15 per barrel, oil sand production
costs are more than Fischer-Tropsch production costs. But even at these
higher costs, large-scale mining of oil sands in Canada began in 1967
when oil prices were less than $10 per barrel. It took the better part
of a decade to make a profit from the oil sands.
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Commercialization was made possible by the Canadian National Oil Policy
that, when introduced in 1961, established a protected market for Canadian
oil west of the Ottawa Valley and freed the industry from foreign competition.
This policy protected companies from the greater intangible costs and
provided an environment for smaller companies (other than the major petroleum
companies) to develop the technology. In addition, in 1974 the Canadian
and provincial governments invested in Syncrude Canada Ltd.'s oil sand
project and provided assurances about financial terms. New refineries
were builtfor one, the Shell Canada Limited Complex at Fort Saskatchewan,
Alberta.
Today, with oil prices in excess of $40 per barrel, the Canadian oil sand
industry is profitable beyond most investors' expectations. It provides
energy, security, and quality jobs.
The conventional wisdom is wrong. It is neither cheaper foreign labor
nor less stringent foreign environmental regulations that ultimately prevent
new industrial infrastructure from being built in the United States.
Those trying to write the obituary for American manufacturing would be
better to claim that U.S. industry died because society's leaders
did not properly adapt policies for the global economy. National tax reform
and antitrust laws that do not end at the border could save many industries
and promote new U.S. infrastructure investment. Those policies would not
overcome barriers related to vested interests of petroleum corporations
in fuel reserves and distribution, but alternatives such as plug-in HEV
technology could be implemented independently of fuel distribution systems.
Plug-in hybrid-electric vehicles are similar to the many models of HEVs
on the market today. They allow extended battery packs (about 20 miles
of range) to charge from grid electricity during the night, providing
the first 15 minutes or so out of the garage each day without engine operation.
Gasoline is fully displaced with grid electricity for most of each day's
transit. Per-mile operating costs for grid electricity are about one-third
the cost of gasoline. Rather than going to petroleum producers, the majority
of the fuel operating revenues would go to local communities.
If a value-added tax were applied to imported fuels representative of
taxes on domestic synthetic fuel production, the annualized operating
costs of plug-in HEV technology should be less than a conventional gasoline-powered
vehicle. Less oil would be imported, domestic jobs would be created, and
the new demand for off-peak electricity would allow restructuring of the
electrical power grid to include base load generation with increased efficiency
for electrical power production and reduced greenhouse gas emissions.
The market alone cannot provide this positive result. But the market is
not the only factor at work: The thumb of tax policy, regulations, and
international agreements weighs heavily on the scale. But if we think
a domestic energy infrastructureindeed, a national manufacturing
baseis a worthy goal, then it is possible to make this happen,
if only we level the playing field.
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barriers
to investment
Why haven't corporations invested in creating a synthetic
fuels industry in the United States? Is the technology simply unprofitable?
To find out, we studied what happens to the price of fuel from a
hypothetical coal-to-oil plant when we varied four non-technological
factors:
Petroleum reserves are the number
of years of petroleum crude oil in proven reserves held by the corporation
considering an investment into an alternative fuel facility. A base
case of 0 years of reserves was assumed. The typical reserves for
an oil corporation are from 7 to 14 years, so conservative figures
of 5 and 11 years were used in the sensitivity analyses.
Intangible costs are the costs
of the risk associated with investing in a new technology. These
costs include the potential for OPEC lowering the price of crude
oil to drive the synthetic fuel facility out of business in order
to preserve its lock on the world energy market. Intangible costs
were incorporated into the sensitivity analysis by either assuming
that a higher return on investment and shorter payback period would
be required to attract investment capital or by assuming that the
price of the synthetic fuel would decrease to a very low value shortly
after start-up.
U.S. tax structure is the taxes
paid to the U.S. government and all local taxes and social benefits
paid in the United States before the worker or investor realizes
the buying power of any earnings. A base case of 34 percent corporate
income tax was assumed. The sensitivity analysis included an assumption
of 0 percent corporate income tax and an assumption that half of
the "threshold" price was due to taxes (corporate
income, personal income, property, FICA, and so on), and that the
threshold price would be reduced by half if these taxes were not
selectively placed on domestic production.
Return on investment is the
annual return and the time in years for payback of the investment
capital. A base case of 12.5 percent return on investment with a
15-year payback was assumed. For comparison, calculations were performed
for a 5 percent ROI and 30-year payback, since this is reflective
of today's municipal bonds for civil infrastructure investment.
Also considered were 10 percent ROI and 20-year payback.
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Galen J. Suppes is associate professor and Truman
S. Storvick emeritus professor of the department of chemical engineering
at the University of Missouri in Columbia. Their book, Energy Disclosed:
Abundant Resources and Unused Technology, was published in 2004.
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© 2005 by The American Society of Mechanical
Engineers
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