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Dear
Subscriber,
Happy Earth
Day! Our lead story (#1) on
"Good to the Last Volt" follows along with an IRI
position that electric cars will soon replace
fossil fuel burning cars in the next few years,
for many synergistic reasons. IEEE
Spectrum offers a concern that is
voiced by other magazines like Portfolio bizjournal,
(April 5, 2010) that "range anxiety" is the
chief reason for consumer hesitancy about electric
cars. Our lead story may surprise you since it
reveals a "limp mode" that allows a driver to go
past the limit on discharge, once in a while, to
get extra mileage (and to get home). However, the
good news is that the Electric Transportation
Engineering Corp. (eTec), a subsidiary of
Ecotality ( http://ecotality.com/), just
received a $99.8 million grant from the U.S.
Energy Department to install 11,210
charging stations in homes and public
places in five states: Arizona, California,
Oregon, Tennessee, and Washington, which is a big
boost to the electric car infrastructure. We
are also keeping an eye on the water
electrolysis developments, such as MIT's
Professor Belcher who (see #3 story below) has
bacteria providing energy for splitting water.
This seems to revive the old anecdotal
belief that someday we can run a car on
water. Both of these developments are great
news for Earth Day supporters and a
serious cause for Shell and other oil
companies to prepare for the day when their
product will be obsolete, based on superior,
essentially fueless cars, as well as CO2 and
NO2 pollution fines issued by the
future, empowered EPA under the existing
Clean Air Act.
Sincerely,
Thomas Valone,
President
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1) Good to the Last
Volt |
http://spectrum.ieee.org/green-tech/advanced-cars/reva-electric-car-co-lets-you-overdraw-your-battery
BY Peter Fairley
// IEEE Spectrum, April 2010
Bank cards let you overdraw your account when
you must on the understanding that you'll pay it
back when you can. If you could do the same for
your electric car by overdrawing the battery, it'd
sure alleviate range anxiety-the fear that you
might get stranded far from an electric plug.
Overdrawing your battery simply means taking
advantage of a power reserve that today's control
systems deliberately build in to preserve the
electrodes and thus extend battery life. The
reserve can amount to 30 percent of the
battery's capacity. In the Chevrolet Volt, a
plug-in hybrid that will use a gasoline engine as
a range extender-and thus can afford to protect
the battery's life very carefully-the
pure-electric reserve will reportedly come to 40
percent.
Reva Electric Car Co., based in Bangalore,
India, and the world's leader in electric vehicle
(EV) sales, is parlaying data from the 135 million
kilometers (84 million miles) logged by its EVs
into an expert system that can give drivers an
extra 10 km. The system, called REVive, uses
remote communications to enable the system to
determine how much extra charge can be accessed
without doing harm.
"This is really a very complex problem," says
Chetan Maini, Reva's chief technology officer.
"This is not something that you could fix in an
algorithm that meets all situations."
Photo: Reva Electric Car Co.
Doubly Green The Reva NXR
runs on volts alone.
When REVive receives a text or voice message
from the driver, it remotely accesses the
vehicle's three-year store of data on such crucial
parameters as the battery's age, the number of
charge cycles, whether it's been scorching in
Mumbai or freeze-thawing in Oslo, and how
aggressively the car has been driven. REVive feeds
that data to algorithms, resets the range gauge,
and puts the car in a "limp mode" akin to that of
a laptop on a power-saving regime.
REVive will be a standard feature in future
Reva EVs, starting with a lithium-ion-battery
version of its NXR subcompact to be released later
this year in India and Europe. The car comes with
an already substantial 160-km range, double that
of the carmaker's EVs powered by traditional
lead-acid batteries.
Reva's solution has merit, according to Andrew
Burke, a research engineer and battery expert at
the Institute of Transportation Systems, at the
University of California, Davis. He says that
although deep discharges are in general bad for
battery life, they can be allowed once in a while
without causing real damage, given that the extra
range is profoundly reassuring to customers.
Photo: Daimler
Enough to Limp Home: The
Daimler Smart ForTwo electric car lets you get
below the red line.
Burke was himself reassured a decade ago, when
he drove an electric car that Honda marketed
briefly under California's zero-emissions vehicle
program. On three or four occasions he
miscalculated how far he'd be driving but
nevertheless made it home, thanks to the car's
limp mode. Inching along was no fun, recalls
Burke, but "I was happy to get home any way."
Limp mode is a feature on the updated
electric-drive version of the Smart ForTwo, which
Daimler began test-leasing in December, according
to Pitt Moos, the vehicle's product manager. But
Moos sees no need to proceed further to the
"hassle" of a system such as REVive, betting
instead that time and consumer experience will
dispel range anxiety. "People who are very scared
of getting stopped by zero percent [state of
charge] won't buy or lease battery EVs," says
Moos. "Those who [do] will learn the cars and feel
perfectly safe after a while. They will pass their
experience along, and the market will grow."
Still, if REVive can assuage range anxiety, it
will boost the sales of the Reva, push other
manufacturers into similar battery-management
schemes, and expand the EV market that much
faster.
|
2) A Green Machine for
Exercising |
Washington Post/Express, Vicky Hallett,
April 20, 2010
ALL GROUP EXERCISE instructors want to
have a high-energy class. But usually they can't
measure it in watts.
That changed Monday when Washington Sports
Clubs' Columbia Heights location (3100
14th St. NW; 202-986-2281) held its 6:30 a.m.
spinning session. Just in time for Earth Day, the
bikes have been retrofitted with Green Revolution
technology so that riders generate power with
every turn of the pedals. The harder the class
works, the less energy the club needs.
"Keep the music pumping," jokingly commanded
Karl Baumgart, national training director
for Green Revolution, who taught the class and
introduced riders to the new interface. Instead of
turning the knob clockwise to up resistance, you
adjust to your desired level - from 0 to 20 - with
a touch-pad screen that also shows how much energy
you've sent to the grid. (There's a dimmer on
there, too, so you can make sure your data stay
private.)
No single cyclist generates that much power in
45 minutes, "but add in the next bike and the one
next to that," Baumgart says. Once you have a room
of bikes being used regularly, you can see real
results - the company estimates an average class
over a year would be able to light 72 homes for a
month.
The club plans to get a scoreboard for the
front of the spinning studio soon so students can
see the combined total.
But looking at just your personal output has an
impact on your workout because you have
"specificity." If you did 65 watts one class,
you'll know you worked harder the next time if you
managed to eke out 67. It also instantly shows you
how much more energy you're creating at higher
levels, so you have extra incentive to kick it up
a notch.
Having access to that metric excites cycling
regular Natasha Bonhomme, 26, who was one
of the first to try the bikes. "It's nice that
it's not calories or fat. But it's something you
can use to gauge where you are," she says.
As for where this technology is, this is just
the beginning, promises Baumgart. The company's
first installation was a year ago. Now they're in
12 facilities across North America (including this
one, which is the first in the
D.C. area). The company also has
ellipticals, treadmills and rowing machines in
development. The vision: a gym that creates all
its own energy.
More power to them.
Photos by Lawrence Luk for Express
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3) Viruses Harnessed To
Split
Water |
MIT team's biologically
based system taps the power of sunlight directly,
with the aim of turning water into hydrogen fuel.
.A computer visualization of the
biologically based system shows the virus
itself (in yellow) with molecules of
pigment (in pink) and of the metal catalyst
(brown spheres) attached to its surface.
The pigment and catalyst cause water molecules
to split apart when they come in contact.
Grpahic courtesy of Angela
Belcher.
|
A team of MIT researchers has found a novel
way to mimic the process by which plants use the
power of sunlight to split water and make chemical
fuel to power their growth. In this case, the team
used a modified virus as a kind of biological
scaffold that can assemble the nanoscale
components needed to split the hydrogen and oxygen
atoms of a water molecule. Splitting water
is one way to solve the basic problem of solar
energy: It's only available when the sun shines.
By using sunlight to make hydrogen from water, the
hydrogen can then be stored and used at any time
to generate electricity using a fuel cell, or to
make liquid fuels (or be used directly) for cars
and trucks. Other researchers have made
systems that use electricity, which can be
provided by solar panels, to split water
molecules, but the new biologically based system
skips the intermediate steps and uses sunlight to
power the reaction directly. The advance is
described in a paper published on April 11 in
Nature Nanotechnology. The Italian energy
company Eni supported the research through the MIT
Energy Initiative (MITEI). The team, led
by Angela Belcher, the Germeshausen Professor of
Materials Science and Engineering and Biological
Engineering, engineered a common, harmless
bacterial virus called M13 so that it would
attract and bind with molecules of a catalyst (the
team used iridium oxide) and a biological pigment
(zinc porphyrins). The viruses became wire-like
devices that could very efficiently split the
oxygen from water molecules. Over time,
however, the virus-wires would clump together and
lose their effectiveness, so the researchers added
an extra step: encapsulating them in a microgel
matrix, so they maintained their uniform
arrangement and kept their stability and
efficiency. While hydrogen obtained from
water is the gas that would be used as a fuel, the
splitting of oxygen from water is the more
technically challenging "half-reaction" in the
process, Belcher explains, so her team focused on
this part. Plants and cyanobacteria (also called
blue-green algae), she says, "have evolved highly
organized photosynthetic systems for the efficient
oxidation of water." Other researchers have tried
to use the photosynthetic parts of plants directly
for harnessing sunlight, but these materials can
have structural stability issues. Belcher
decided that instead of borrowing plants'
components, she would borrow their methods. In
plant cells, natural pigments are used to absorb
sunlight, while catalysts then promote the
water-splitting reaction. That's the process
Belcher and her team, including doctoral student
Yoon Sung Nam, the lead author of the new paper,
decided to imitate. In the team's system,
the viruses simply act as a kind of scaffolding,
causing the pigments and catalysts to line up with
the right kind of spacing to trigger the
water-splitting reaction. The role of the pigments
is "to act as an antenna to capture the light,"
Belcher explains, "and then transfer the energy
down the length of the virus, like a wire. The
virus is a very efficient harvester of light, with
these porphyrins attached. "We use
components people have used before," she adds,
"but we use biology to organize them for us, so
you get better efficiency." Using the virus
to make the system assemble itself improves the
efficiency of the oxygen production fourfold, Nam
says. The researchers hope to find a similar
biologically based system to perform the other
half of the process, the production of hydrogen.
Currently, the hydrogen atoms from the water get
split into their component protons and electrons;
a second part of the system, now being developed,
would combine these back into hydrogen atoms and
molecules. The team is also working to find a more
commonplace, less-expensive material for the
catalyst, to replace the relatively rare and
costly iridium used in this proof-of-concept
study. Thomas Mallouk, the DuPont Professor
of Materials Chemistry and Physics at Pennsylvania
State University, who was not involved in this
work, says, "This is an extremely clever piece of
work that addresses one of the most difficult
problems in artificial photosynthesis, namely, the
nanoscale organization of the components in order
to control electron transfer rates." He
adds: "There is a daunting combination of problems
to be solved before this or any other artificial
photosynthetic system could actually be useful for
energy conversion." To be cost-competitive with
other approaches to solar power, he says, the
system would need to be at least 10 times more
efficient than natural photosynthesis, be able to
repeat the reaction a billion times, and use less
expensive materials. "This is unlikely to happen
in the near future," he says. "Nevertheless, the
design idea illustrated in this paper could
ultimately help with an important piece of the
puzzle." Belcher will not even speculate
about how long it might take to develop this into
a commercial product, but she says that within two
years she expects to have a prototype device that
can carry out the whole process of splitting water
into oxygen and hydrogen, using a self-sustaining
and durable system.
Dr. Angela Belcher, Prof of
Material Science and Engineering &
Biological Engineering, demonstrates a
virus-templated catalyst solution used in
harnessing energy from water. Photo: Dominick
Reuter.
| .
Last week my rueful exposition on the state of
applying nanotechnology to mobile phones received
support and encouragement from Kristen Kulinowski,
who was recently highlighted over at Andrew Maynardâ''s 20/20
blog.
In addition to the encouragement, I was asked
about my supposition on the possibility of virus-enabled lithium-ion
batteries being commercially available by the
end of this year.
These batteries build on Angela Belcherâ''s
research at MIT of getting organic materials,
like a man-made virus, to attract inorganic
materials like gold, or in the case of this
battery technology the viruses coat themselves
with iron phosphate.
But as far as this technology being in
batteries by the end of year, I have to say I have
not heard that. If I did hear someone say that I
would have to laugh quietly (or silently) to
myself.
You see, Dr. Belcher along with Evelyn Hu of
the University of California, Santa Barbara set up
Cambrios Technologies
Corp. in 2002 to commercialize the early work
that Hu and Belcher did in this area. Let me
repeat: in 2002. And as far as I know, and
I am open to correction here, there is no
commercial use of their technology at this
point.
It is difficult to do the kind of
ground-breaking science Belcher and others have
done, but its difficulty pales in comparison to
getting lab work into a commercially available
product. In other words, let's be prepared to hold
our breaths past the end of this
year
By using man-made viruses
to organize components into a precise
nanoscaleorganization, MIT researchers mimic
photosynthesis
Preliminary research
performed by Angela Belcher and her team at the
Massachusetts Institute of Technology (MIT) has
demonstrated a new way for breaking water down
into hydrogen and oxygen-a sort of artificial
photosynthesis-that departs from other methods by
borrowing the methods plants use rather than their
components.
Belcher, the Germeshausen
Professor of Materials Science and Engineering and
Biological Engineering at MIT, and her team used a
man-made virus to serve as a scaffold that
attracts molecules of the catalyst iridium oxide
and a biological pigment (zinc porphyrins). The
viruses then become "wire-like" and are able to
split the water molecules into hydrogen and oxygen
by having just the right spacing to induce the
reaction.
While other artificial
photosynthesis methods have attempted to used the
photosynthetic parts of plants, Belcher and the
lead author of the paper in Nature Nanotechnology,
Yoon Sung Nam, followed the method plants use of
having a natural pigment attract the sunlight and
then using a catalyst to split the water into
hydrogen and oxygen.
In the MIT article
cited above Thomas Mallouk, the DuPont Professor
of Materials Chemistry and Physics at Pennsylvania
State University, describes the work as ".an
extremely clever piece of work that addresses one
of the most difficult problems in artificial
photosynthesis, namely, the nanoscale organization
of the components in order to control electron
transfer rates."
The idea behind artificial
photosynthesis is to create a method of energy
conversion using sunlight. But this preliminary
research is a long way from providing an
alternative energy source. At the end of the
article when Belcher is prodded to provide a
timetable for a commercial product she is wisely
reluctant, offering only that "within two years
she expects to have a prototype device that can
carry out the whole process of splitting water
into oxygen and hydrogen, using a self-sustaining
and durable system."
Well done, Professor
Belcher. I have noted before when discussing the
potential for virus-enabled lithium-ion batteries
to make it into commercial markets within a year,
that often times people neglect to take into
account that business sometimes much longer than
science. A phenomenon with which Professor Belcher
is herself aware with one of her own companies,
I'm sure.
|
4) Smart Engineering brings
LED Lights Where There Is No
Electricity |
by Chris Mallinos, The Epoch
Times, October 2009 http://www.theepochtimes.com/n2/content/view/24539/
Smart
engineering and market-driven approach help the
poorest.
And Dave said,
"Let there be light."
Trekking among snow-capped
mountains in Nepal's Thorung La pass, Dr. Dave
Irvine-Halliday remembers being struck by the
poverty there as much as he was by the natural
beauty.
The villagers lived very
basic, antiquated lives. People were overworked,
underfed, and had few opportunities. Perhaps not
surprisingly, many of them looked old for their
age.
Being a professor of
electrical engineering, he noticed something else,
too.
"I looked into the window
of a schoolhouse, and it was just so dark,"
Irvine-Halliday explains from his home in Calgary.
"I wondered how kids could read and study."
In a
remote area of the country and with little money,
the villagers there had no electricity. They
relied on dim kerosene lamps that were expensive
to refill and gave off toxic fumes.
So
Irvine-Halliday set off to help, eager to find a
safe and affordable lighting alternative for those
Nepalese villagers. What he didn't realize is that
he'd soon be embarking down a much larger path,
one of development and
empowerment.
After two years of
tinkering, Irvine-Halliday was back in Nepal to
test a solar-powered white LED lighting system,
one he developed to fit the needs of impoverished
communities. The trial run was an immediate
success. Before long, locals were basking in
something they had never seen before-indoor
light.
"The response was
incredible," Irvine-Halliday says. "People were in
tears, begging us not to take the light
away."
For the first time,
children could study at night without getting sick
from dangerous kerosene fumes. Parents could work
full days knowing they didn't have to cook and do
chores before sundown. Disposable income could go
toward food, instead of refilling those dirty
kerosene lamps.
Literally with the flick
of a switch, lives changed.
Indian light up a kerosene
petromax lamp in their home in the tribal hamlet
of Wada, in Thane, outskirts of Mumbai on
November 18, 2007.
|
So began Light Up
the World, an organization started by
Irvine-Halliday and dedicated to
illuminating the lives of the 1.6 billion
people who have no electricity. In the
decade since those first tests in Nepal, 17,000
homes in 51 countries have been
lit.
In fact, Irvine-Halliday's
white LED lights can now be found from Afghanistan
to Zambia.
It's difficult to imagine
just what this means. For most of us, simple
indoor lighting is something we take for granted.
But for someone who has never had it, light opens
up a whole new world.
Light Up the
World's projects are often greeted by singing and
dancing villagers, people who are overjoyed to
finally "have eyes," as one put it. At an
orphanage in Tibet, organizers had to turn off
their new lights because the children were so
excited they didn't want to sleep.
"It's
so emotional," Irvine-Halliday explains. "On
almost every trip, you're rubbing your eyes, your
heart rate goes up."
But Light Up the World is
no charity. Instead, it prescribes to an
increasingly innovative form of development where
recipients are not given handouts. Instead, they
are expected to be active
participants.
Villagers purchase their
lights for as little as $150. That may seem
expensive, but when you consider that families in
developing countries can spend one-third or more
of their income on kerosene for their lamps,
solar-powered white LEDs are a welcome financial
relief.
In two years or less, most
villagers are able to pay off their lights just
from the money they save on kerosene. And with no
further fuel purchases needed, the savings
continue long after the lights are paid in full.
What's more, Light Up the
World trains locals to install and repair the
lights, creating jobs where there were few before.
"We
have to get these villages to light themselves,"
Irvine-Halliday says. "Ultimately, it has to be a
market-driven solution."
That approach, pioneered
by Nobel laureate Muhammad Yunus, is now being
duplicated around the world. Partnerships like
these give impoverished villagers a sense of
pride, empowerment, and ownership over their own
future-something mere aid cannot do.
Most
importantly, it shows that global poverty is not
simply a lack of income. It's a lack of
opportunity.
These days,
Irvine-Halliday has turned his attention to
improving his white LED technology. He's even
founded a company in India, where a staggering 400
million people live without electricity, which he
hopes will produce even better lights at half the
cost.
Despite his success,
Irvine-Halliday sounds more like a man who's just
getting started.
"I hope I do this until
the day I die," he says. "Once you start thinking
about this, as human beings, it gets to you. For a
few dollars, spent in the right place and in the
right way, you can change peoples'
lives."
Chris Mallinos is
a Toronto-based journalist whose work has appeared
on six continents and in seven languages. You can
reach him at www.chrismallinos.com
|
5) Can Geothermal
Power Compete with Coal on
Price?
|
Although the
environmental benefits of burning less fossil fuel
by using renewable sources of energy-such as
geothermal, hydropower, solar and wind-are clear,
there's been a serious roadblock in their
adoption: cost per kilowatt-hour. That
barrier may be opening, however-at least for one
of these sources. Two recent reports, among
others, suggest that geothermal may actually
be cheaper than every other source, including
coal. Geothermal power plants work by pumping
hot water from deep beneath Earth's surface, which
can either be used to turn steam turbines
directly or to heat a second, more volatile
liquid such as isobutane (which then turns a steam
turbine). Combine a new U.S. president
pushing a stimulus package that includes $28
billion in direct subsidies for renewable energy
with another $13 billion for research and
development, and the picture for
renewable energy-geothermal power among the
options-is brightening. The newest report, from
international investment bank Credit Suisse, says
geothermal power costs 3.6 cents per
kilowatt-hour, versus 5.5 cents per kilowatt-hour
for coal. That does not mean companies are
rushing to build geothermal plants: There are a
number of assumptions in the geothermal figure.
First, there are the tax incentives, which save
about 1.9 cents per kilowatt-hour. Those won't
necessarily last forever, however-although the
stimulus bill extended them through
2013. Second, the Credit Suisse analysis
relied on what is called the "levelized cost of
energy," or the total cost to produce a given unit
of energy. Embedded within this figure is an
assumption that the money to build a
new geothermal plant is available at reasonable
interest rates-on the order of
8 percent.
In today's economic climate, that just isn't
the case. "In general, there is financing out
there for geothermal, but it's difficult to get
and it's expensive," Geothermal Energy Association
director Karl Gawell
told ScientificAmerican.com recently. "You have
to have a really premium project to get even
credit card interest rates."
That means
very high up-front costs. As a result, companies
are more likely to spend money on things with
lower front-end costs, like natural gas-powered
plants, which are cheap to build but relatively
expensive to operate because of the cost of the
fuel needed to run them.
"Natural gas is
popular for this reason," says Kevin Kitz, an
engineer at Boise, Idaho-based U.S. Geothermal,
Inc, which owns and operates three geothermal
sites. "It has a low capital cost, and even if you
project cost of natural gas to be high in
future, if you use a high [interest rate in your
model] that doesn't matter very
much."
Natural gas, which came in at 5.2
cents per kilowatt-hour in the analysis, is also
popular because it can be deployed anywhere,
whereas only 13 U.S. states have identified
geothermal resources. Although this limits the
scalability of geothermal power, a 2008 survey by
the U.S. Geological Survey estimates that the U.S.
possesses 40,000 megawatts of geothermal energy
that could be exploited using today's technology.
(For comparison, the average coal-fired power
plant in the U.S. has a capacity of more than 500
MW.)
There's another significant issue:
finding geothermal resources. In that way, the
geothermal industry has the same challenges as the
oil and gas industry. The Credit Suisse analysis
doesn't factor in exploration costs, which can
run hundreds of thousands of dollars for per
well.
"The United States Geological Survey
estimates that 70 to 80 percent of U.S. geothermal
resources are hidden," Gawell says. "You can't see
it on the surface, and we don't have the
technology to find it without blind drilling. ...
Geothermal hasn't had the breakthroughs in
geophysical science that the oil industry had
in 1920s. We are still looking for where it's
leaking out of the ground."
Despite these
caveats, the new analysis is backed up by earlier
ones, such as a 2006 Western Governor's
Association (WGA) report on geothermal resources
in the U.S. Southwest. Using nearly the same
economic model, but assuming a higher cost of
capital than the one used in the Credit Suisse
analysis-in other words, the interest rate that is
so troublesome in today's economy-the WGA found
that geothermal could be produced from existing
resources, using existing technology, for around
6.5 cents per kilowatt-hour, once a 1.9 cent per
kilowatt-hour tax credit furnished by the federal
government is included.
Although the WGA
did not compare the cost of geothermal with coal
directly, applying their assumptions to other
forms of energy would boost prices across the
board, especially for coal-fired plants, which are
assumed to last for upward of 50 years. (The
assumed 50-year life of a coal-fired power plant
allows planners to spread the cost of their
construction across an even longer period of time
than geothermal plants, which are assumed to last
less than half that long.)
Another
potential stumbling block is reliability. Both the
Credit Suisse and WGA studies assume that
geothermal power plants are producing electricity
virtually 24 hours a day, seven days a week. Larry
Makovich, vice president and senior power advisor
at Cambridge Energy Research Associates,
believes this is an exaggeration. "They're
assuming that if you put a megawatt of geothermal
capacity in you're going to run over 95 percent of
the hours in the year," Makovich says. "Here's the
catch: if you look at actual electric production
of geothermal in the U.S., it runs 62 percent of
the time."
Other sources dispute this
number-Glitnir bank, a financier of geothermal in
Iceland and elsewhere, claims that geothermal
plants are operational up to 95 percent of the
time, and a 2005 paper (pdf) by academics in the
field claims that in aggregate, geothermal plants
in the U.S. produce power about 80 percent of the
time.
What prevents geothermal plants from
running continuously is the sometimes harsh nature
of the steam on which they depend. "When you take
steam out of the Earth it is different from taking
steam out of a boiler from a coal or natural gas
plant," Makovich says. "It's got a lot of other
stuff in it." That "stuff" can include everything
from silica and heavy metals to ammonia,depending
on the source.
Geothermal advocates hope
that many of these caveats become moot. A tax on
the carbon emitted by power plants that rely on
fossil fuel, for example, could increase the cost
of coal so much that geothermal's issues become
unimportant. A carbon cap-and-trade system similar
to the one used in Europe would do the
same.
And state mandates that a certain
percentage of energy come from green and renewable
sources already seem to be having an effect. "It's
been great to see a change in the market-the
enthusiasm," says Kitz, who has been an engineer
on geothermal projects since he graduated from
college in 1985. "Five years ago I said everyone
wants green power as long as it's not one
one-thousandth of a cent more expensive than coal.
Now people just want renewable power, period-It's
nice to be
loved."
|
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