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español Biocombustibles, biodiesel
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Biofuels
Spanish
version -- Versión en español
Why make
biofuels? Food or
fuel? How much fuel can
we grow? How much land will it take? Cutting fuel
costs Food
miles Car facts and
transportation Join the
Biofuel mailing list
"How can you say you're
environmentalists?" asked a local sceptic in Hong Kong. "Your Land Rovers
aren't green at all -- one runs on leaded petrol and the other's a dirty
diesel."
"Um," we said, thinking fast... "but if everyone had cars
like ours, there'd be no need for roads."
In fact no car built
today has such low manufacturing eco-costs as a Series Land Rover. And
these old Land Rovers last and last: "My Land Rover is 41 years old and
has prevented the need to build at least five replacements during that
time." -- Series I owner, England, Land Rover Owners Internet mailing
list, December 1999.
Land Rover stopped building the Series models
in 1985. (See Project vehicles. See also The best car in the world.) The motor
industry now produces 100,000 new vehicles a day worldwide. (See Car
facts.)
But our critic had a point: the vehicles were green
enough (even the blue one), but their fuel certainly wasn't. But we don't
plan to pollute the atmosphere with dirty fossil-fuel exhaust fumes all
the way from Hong Kong to Cape Town. There are better, cleaner, fuels --
and you can make them yourself!
Why make biofuels?
We had three main aims in
learning to make biodiesel and ethanol:
- Using renewable
fuels for our journey and publicising them
- As an
environmental project for schools participating in Journey to
Forever
- As a means of
improving energy self-reliance in rural communities.
Both biodiesel and ethanol
are clean, grow-your-own fuels that can be made on-site in small villages
from renewable, locally available resources, for the most part using
simple equipment that a village blacksmith can make and
maintain.
These fuels are among a wide range of sustainable rural
energy options. Others are methane (biogas) digesters that turn livestock
and crop wastes into cooking and heating gas, solar energy (see Solar box
cookers), wood gas, charcoal and fuelwood (good
fuels unless overharvesting destroys the trees themselves), wind power,
water power.
Usually the "answer" is in a mix of technologies.
Biofuels can be used to power small-scale farm and workshop machinery and
electricity generators as well as local vehicles. Knowing how to make them
provides a useful set of ecological questions in investigating local
energy options which makes it more than worthwhile even if the final
answer is "No".
For instance, should a crop such as peanuts be used
to make fuel, or would the villagers be better off eating the peanuts? Or
selling them? Or should they press them to make oil, for cooking or for
selling, and feed the high-protein residue "cake" to livestock, which in
turn they can either eat or sell, while using the livestock wastes (and
the crop wastes) to make compost to renew the soil, or to generate biogas
for cooking and heating? (The heat generated by the composting process can
also be harnessed for heating.) Or should they grow a different crop
altogether?
Should a grain crop be distilled to make ethanol fuel
or should the villagers eat the grain? If they use the grain for livestock
feed, it can be used for ethanol and still feed the livestock:
the distillation process to produce ethanol converts the carbohydrates in
the grain while leaving the protein. The protein residue is excellent
stockfeed, which can be supplemented by forage crops which humans can't
eat. This could mean improved utilization of the available
resources.
This is the sort of question we'll have to find answers
for in our work in rural villages. As always, it will be the villagers'
views that decide the issue.
Foundation for
Alternative Energy, Slovakia -- a good summary of the
various ways to derive useful energy from biomass (34,000-word
article): http://www.seps.sk/zp/fond/dieret/biomass.html
Food or Fuel?
A common objection to
biomass energy production is that it could divert agricultural production
away from food crops in a hungry world -- even leading to mass starvation
in the poor countries.
True or not? Not true: at best it's an
oversimplification of a complex issue. It just doesn't work that way, and
neither does hunger.
See: Food or
Fuel?
How much fuel can we grow? How much land will it
take?
Two very frequently asked
questions.
Frequently given
answers: "Not
enough" and "Too much."
Are they the right answers?
Seeking
to bridge the seemingly unbridgeable gap, there's widespread fascination
with high-yielding oil crops, particularly oil-bearing algae,
with oil palms running second.
It seems obvious that the
highest-yielding crops will produce the most energy from the least amount
of land.
But high yield is not the only factor in farming, and it
may not always be the most important factor. It can make more sense for a
farmer to grow a lower-yielding crop if it has more useful by-products or
requires fewer inputs or less labour or it fixes more soil nitrogen for
fertiliser or it fits a crop rotation better. Or if it fits an integrated
on-farm biofuels production system better. The how-much-land estimates
don't seem to include such things as integrated on-farm biofuels
production systems. There are quite a lot of things they don't
include.
Sustainable farming
Biofuels crops have to be
grown, and there's a lot of common ground between growing sustainable fuel
and growing food sustainably.
Large-scale industrialised farms
claim to be the most efficient. They concentrate on growing high-yielding
monocrops (only one crop) by mass-production methods with a lot of inputs,
and they use a lot of fossil-fuel to do it.
A sustainable mixed
farm can produce all its own fuel, with much or possibly all of it coming
from crop by-products and waste products without any dedicated land use,
and with very low input levels.
That sheds a different light on how
much land is needed to grow "enough" biofuels: less land with sustainable farming, which also has
much lower fossil-fuels inputs. Sustainable farming is the fastest-growing
agricultural sector in many countries, millions of farmers worldwide are
turning to sustainable methods.
Although sustainable farms require
fewer inputs than "conventional" (factory-style) farms, yields and
production are not lower. See for instance this message to the Biofuel
mailing list from a large-scale organic farmer in the US, one of
many: http://www.mail-archive.com/biofuel@sustainablelists.org/msg12485.html
See:
Small
farms
The case for organics -- Scientific studies and
reports
City farming
Looking at it from a
different angle, according to the UN Food and Agriculture Organisation
more than 15% of the world's food supply was produced by city farms in 1993. That was enough
food for 900 million people, produced with few inputs other than urban
wastes, and with the use of no farming land at all.
City farming is
sweeping the world, in the industrialised countries as well as 3rd World
countries. Many cities would have difficulty handling their wastes without
the urban farms recycling them as livestock feed, compost and
fertiliser.
Such an approach suits localised biofuels production
very well, and it integrates well with city farming. For example, only
about 10% of the waste vegetable oil (WVO) produced in the industrialised
countries is collected, billions of gallons a year aren't collected. Apart
from the waste oil produced by restaurants and food outlets and food
processors, an estimated 1.5 million US gallons of grease and oil goes
into the sewage system every year for every one million people in some US
metropolitan areas. Extended nation-wide that's hundreds of millions of
gallons wasted every year. US restaurants produce about 300 million US
gallons of WVO a year, much of which ends up in landfills.
Like
newspapers, bottles and aluminium cans, waste cooking oil won't be
recycled effectively without locally based initiatives, it has to start at
the source. Local biodiesel brewers around the world are now reclaiming
millions of gallons of WVO and turning it into good, clean
fuel.
Similarly, large amounts of fuel ethanol can be produced from
city wastes by local micro-breweries, and the high-protein distillers mash
by-product fed to city-farm livestock (or micro-livestock). Large amounts
of biogas can be produced from wastes in backyard methane digesters for
cooking and heating, and the sludge composted for use as
fertiliser.
Could enough bio-energy be produced for 900 million
people this way? Probably it could. "How much land will it take?"
None.
Bio-regional energy -- India's
Talukas
Here's another response to
the "How much land" question, from the Biofuel mailing list:
"We did a study in India
where we showed that it is possible to take care of energy needs
completely by biomass and its various derivatives for a block of about
100 villages." -- Dr. Anil K. Rajvanshi, Director, Nimbkar Agricultural
Research Institute (NARI)
Here's Dr. Rajvanshi's
study:
Microchips to
Potato chips - Talukas can produce all, published as an editorial article
in the Economic Times 24 May, 1998, Anil K. Rajvanshi, Director,
Nimbkar Agricultural Research Institute (NARI), Maharashtra, INDIA. http://education.vsnl.com/nimbkar/taluka.html
Talukas
can provide critical mass for India’s sustainable
development,
Anil K. Rajvanshi, Current Science, Vol. 82, No. 6, 25 March
2002 http://education.vsnl.com/nimbkar/criticalmass.html
India's
food and energy self-sufficient Talukas are groupings of about 80-100
contiguous villages pooled together to achieve a critical mass
economically. A Taluka can be thought of as a closed biomass and rainwater
basin, with a combined population of about 200,000 people. There are
thousands of them in India. One Taluka studied produced 100,000 tons a
year of surplus agricultural residues available for biomass energy
production. In conjunction with energy plantations and energy crops this
could produce the energy equivalent of 30 million litres a year of
petroleum products, filling local energy needs and creating 30,000 local
jobs.
Dr. Rajvanshi's study became the basis for India's National
Policy on Energy Self-sufficient Talukas in 1997 and is being implemented
nation-wide by the Ministry of Non-conventional Energy Sources
(MNES).
Meanwhile India's railways are planting oil-bearing jatropha curcas trees along the railway lines.
That's a lot of jatropha curcas trees producing a lot of oil for
fuel, again without using any farming land.
Negawatts
"Using existing technology we
can save three fourths of all electricity used today. The best energy
policy for the nation, for business, and for the environment is one that
focuses on using electricity efficiently," says Amory
Lovins of the
Rocky Mountain
Institute in
the US.
"More efficient use is
already America's biggest energy source -- not oil, gas, coal, or
nuclear power. By 2000, reduced 'energy intensity' (compared with 1975)
was providing 40 percent of all U.S. energy services. It was 73 percent
greater than U.S. oil consumption, five times domestic oil production,
three times total oil imports, and 13 times Persian Gulf oil imports.
The lower intensity was mostly achieved by more productive use of energy
(such as better-insulated houses, better-designed lights and motors, and
cars that were safer, cleaner, more powerful, and got more miles per
gallon), partly by shifts in the economic mix, and only slightly by
behavioral change. Since 1996, saved energy has been the nation's
fastest-growing major 'source.'" -- Amory B. Lovins
"Negawatts powerplant"
energy efficiency programs can save large amounts of energy and large
amounts of money. 2.1 jobs are created in energy efficiency/conservation
in comparison to one new job for an equivalent amount of BTUs in new
energy production.
From a message to the Biofuel mailing
list:
"I remember canvassing the
Orlando, Florida area attempting to generate public support for a
'negawatts powerplant' rather than Orlando Utilities Commission
expanding Curtis Stanton I into Curtis Stanton II (both coal fired). The
most conservative calculations were that a modest to robust energy
efficiency program could forestall the need for Stanton II for at
minimum 10 years, in turn saving the public literally hundreds of
millions of dollars. (Mind you this is a publicly owned utility, with
the supposed obligation to serve the public interests.)..."
For
the rest of the message see: http://snipurl.com/iesa 'Energy Efficiency and "Stuff"
in general' (the whole message thread is linked at the end of the
page).
The
Negawatt Revolution, Amory B. Lovins, The Conference
Board Magazine, Vol. XXVII No. 9, September 1990, 232kb PDF. http://www.rmi.org/images/other/Energy/E90-20_NegawattRevolution.pdf
Mobilizing
Energy Solutions, Amory B. Lovins and L. Hunter
Lovins, The American Prospect, Volume 13, Issue 2, January 28, 2002 --
Part 1: http://www.prospect.org/print/V13/2/lovins-a.html Part
2: Energy
Forever http://www.prospect.org/print/V13/3/lovins-a.html
Energy
Library --
articles and studies by Amory B. Lovins of the Rocky Mountain
Institute http://www.rmi.org/sitepages/pid171.php
Invisible farming
Industrial hemp is a
high-yielding multi-purpose "fuel and fibre" crop that has great potential
for biomass energy. Hemp yields four times as much biomass as a forest can
yield. An acre of hemp yields 10 tons of biomass in four months, enough to
make 1,000 gallons of methanol fuel, with about 300 lb of oil from the
seed (about the same as soy).
Hemp is widely grown in many
countries but not in the US, where it's illegal because of a stubborn
confusion with the plant's cousin, the drug marijuana. Industrial hemp is
the same species of plant but without the drug. In fact hemp contains
another chemical (CBD) that actually blocks marijuana's drug effect --
hemp is not only not marijuana, it could be called
"anti-marijuana".
The US previously acknowledged the distinction
and hemp was widely grown there -- the US State Department still
acknowledges the difference internationally. But domestically, growing
hemp is banned in the US. In Europe it's subsidised, like oilseed rape and
flax. Canada, Russia, Japan, China and dozens of other countries grow
large quantities of hemp, while Americans pay $25 million a year for
imported hemp fibre and oil products.
Meanwhile an estimated 32
million law-breaking Americans smoke marijuana, probably a lot more than
that, and that's not counting Canada. Most of the drug is locally
produced, not imported. We've no idea what acreage that represents, but
it's obviously a major agricultural industry, and it's invisible. How can
you hide a crop for 32 million people? It's produced with no extension
agencies, no subsidies, no bureaucrats, no chemical corporations, no
marketing boards, no Big Agriculture, and with no apparent use of farming
land.
How would the Americans who claim there's not enough land to
grow biofuels explain that? Could enough bio-energy for 32 million people
also be produced that way, from harmless industrial hemp, tucked away out
of view off the agricultural map and nobody even notices it?
Of
course it's clandestine and hidden because the US marijuana growers are
under pressure from the law, but on the other hand the whole human race is
under much more pressure than that to find sustainable answers to its
energy problems, and so far we're not being very imaginative about
it.
However the illegal drug growers might be managing it, it's
obvious that people estimating how much land it will take to grow enough
biofuels aren't asking the right sorts of questions.
Hemp Biomass for
Energy http://www.fuelandfiber.com/Hemp4NRG/Hemp4NRG.htm
A
different approach
Replacing fossil fuels with
biofuels isn't the answer. Replacing fossil fuels isn't even an option --
current energy use, especially in the industrialised countries, is not
sustainable anyway, whatever the energy source.
A very large
portion of the energy we use is just wasted, and that's where to start,
not with the 60 billion gallons of petroleum diesel and 120 billion
gallons of gasoline the US consumes each year, not to mention the heating
oil and the power supply.
A sustainable energy future requires
great reductions in energy use, great improvements in energy efficiency,
and decentralisation of supply to the local-economy level, along
with the use of all ready-to-use renewable energy technologies in
combination as local circumstances require.
But instead people
chase the mirage of the highest biofuels crop yields in the hopes of
finding the right answer to the wrong question.
The powers-that-be
mostly toy with the problem and go right on hitting the good old massive
daily fix of fossil-fuel like it's a narcotic.
In most of the
industrialised countries biofuels are still treated more as an
agricultural commodities issue than an energy issue, and the industrial
farming lobby pulls the levers. Big Soy runs the National Biodiesel Board
in the US, Big Corn the fuel ethanol business.
But growing
supposedly clean green renewable and sustainable biofuels crops by means
of Big Agriculture's unsustainable industrialised agriculture monocropping
methods with their heavy dependence on fossil-fuel inputs is hardly the
best way of replacing fossil fuels.
Once grown, the stuff undergoes
the same insanities as the "food miles" fiasco, where food is transported thousands
of unnecessary miles before it reaches consumers, with huge waste of
energy and no good reason for it. Similarly, why waste energy trucking
energy crops to a distant large-scale central processing unit and then
waste even more energy trucking the finished fuel all the way back again,
instead of processing it and using it right there where it was
grown?
Small is beautiful
There are of course economies
of scale in fossil-fuels production, but that's no more the case with
biofuels production than it is with food, as we saw above with the example
of city farms. The farms of the future are highly productive,
low-input/high-output, integrated, mixed, sustainable farms, and they're
small farms -- family farms, small and local. All over the world small
farms are more efficient and productive than big farms and out-produce
them, including the US. See: Small farms fit. As with food crops, so
with fuel crops.
Also at the local level, the worldwide community
of biofuels homebrewers have developed cheap, effective and safe
small-scale production methods that produce high-quality fuel and that
anyone can use. There are now many kinds of independent small-scale local
operations producing and using millions and millions of gallons of
biofuels a year, growing fast. Most of it goes right under the official
radar, nobody calculates it, nobody has any clear idea of how much it is
or of quite who these people are. But they're forming active networks of
grassroots-level biofuels producers in many countries, and they have the
potential to expand very quickly.
The possibilities for localised
biofuels production are endless, but it's difficult to see them from the
perspective of the dying era of cheap and abundant fossil fuels with it's
top-down, centralised, capital-intensive approach, especially with energy
production and supply: "How do you make money out of this small-scale
stuff? It's bad for business!"
In fact it's very good for business
-- local business, and that's good for
everyone.
"Small-scale capitalism works out fine, but as scale
increases the departure from real capitalism becomes more
pronounced---profits are privatized, but costs are socialized. The
attendant repair and maintenance are left to succeeding generations if
possible, if not, to present low and middle income taxpayers," says
Tvoivozhd, the Wise Old Man of the Homestead
mailing list. Indeed so.
Coming off fossil-fuels doesn't have to be
cataclysmic. More likely the real disasters will come from global warming
rather than oil deprivation. The quaint idea that "life without oil" will
inevitably mean a massive human "die-off" and for the survivors a return
to the allegedly brutal and short lives of the Middle Ages etc etc just
because of oil deprivation as some people claim is just nonsense, there's
no more substance to it than the idea that there's not enough land to grow
"enough" biofuels. We have everything we need to live rich and fruitful
lives in a sustainable future in peace and harmony with the rest of the
biosphere.
Don't expect to read more about such views of energy
issues in The Wall Street Journal any time soon. What you might
read there is that meanwhile 35 years have gone by since these issues
first became apparent, fuel economy in the US is worse now than it was 20
years ago, and 35 unnecessary years' worth of greenhouse gases have been
pumped into an ailing atmosphere.
Don't wait for governments or
anyone else to solve these problems with the same kind of thinking that
caused the problems in the first place. Do it yourself -- tend to your own
waste of energy and of other scarce resources, shrink your eco-footprint,
join a local network, start a network yourself. Make your own
biofuel!
Cutting fuel costs
How to reduce
the amount of transportation fuel you use, by Darryl McMahon of Econogics:
"It's your planet. If you won't look after it, who will?" http://www.econogics.com/en/savefuel.htm
Here's a
start on what you can do to make a difference: http://www.mail-archive.com/biofuel@sustainablelists.org/msg54266.html
The
US uses 3 times as much and Canada 4 times as much energy in their
buildings as Sweden does, even allowing for climate corrections. "There is
no conflict between comfort and energy saving in buildings. If you
understand how the human body works and design your environment to suit
Real People, large energy savings will be made..." See Hakan Falk's
Energy Saving
Now --
extensive resources on energy efficiency, biofuels, alternative energy
technologies and more: http://energysavingnow.com/
Cutting down
waste -- where
to start: http://sustainablelists.org/pipermail/biofuel_sustainablelists.org/ 2005-October/005691.html
Food miles
"We bought a basket of 20
fresh foods from the major retailers on one day last month and tracked the
food miles it had clocked up. We found apples from America; pears from
Argentina; fish from the Indian ocean; lettuce from Spain; tomatoes from
Saudi Arabia; broccoli from Spain; baby carrots from South Africa; salad
potatoes from Israel; sugar snap peas from Guatemala; asparagus from Peru,
garden peas from South Africa; red wine from Chile; Brussels sprouts from
Australia; prawns from Indonesia; chicken from Thailand; red peppers from
Holland; grapes from Chile; strawberries from Spain and beef from Britain.
Our total basket had travelled 100,943 miles." -- Miles and miles
and miles: How far has your basket of food travelled? Guardian UK, Special reports,
Saturday May 10, 2003 http://www.guardian.co.uk/food/focus/story/0,13296,951962,00.html
"In
1997 we imported 126 million litres of liquid milk into the UK and
exported 270 million litres of milk out of the UK. We imported 23,000
tonnes of milk powder into the UK and exported 153,000 tonnes out of the
UK. We imported 115,000 tonnes of butter, and exported 67,000 tonnes of
butter." -- Food Miles -
Still on the Road to Ruin? -- Statistics and analysis; a review
of local alternatives and recommendations for action. SUSTAIN: The
Alliance for Better Food and Farming, 1999 http://www.sustainweb.org/publications/downloads/foodmiles_ruin.pdf
"Produce
arriving by truck traveled an average distance of 1,518 miles to reach
Chicago in 1998, a 22 percent increase over the 1,245 miles traveled in
1981." -- Food, Fuel, and
Freeways: An Iowa perspective on how far food travels, fuel usage, and
greenhouse gas emissions, Leopold Center for Sustainable
Agriculture, June 2001 http://www.leopold.iastate.edu/pubs/staff/ppp/index.htm
"Since
1978, the annual amount of food moved by heavy goods vehicles in the UK
has increased by 23 percent with the average distance for each trip also
up by 50 percent." -- Food Miles and
Sustainability,
Mae-Wan Ho and Rhea Gala, Institute of Science in Society, 21/09/05 http://www.i-sis.org.uk/FMAS.php
"Policies are needed to minimize
food import/export, to promote instead, national/regional
food-sufficiency, and to reverse the concentration of food supply chains
in favour of local shops and cooperatives run directly by farmers and
consumers. In addition, there should be government subsidies and
incentives for reducing carbon dioxide emissions on farms, and for farms
and local communities to become energy self-sufficient in low or
zero-emission renewables." -- Food Miles and
Sustainability,
Mae-Wan Ho and Rhea Gala, Institute of Science in Society, 21/09/05 http://www.i-sis.org.uk/FMAS.php
"Bringing the
food supply closer to home is one of the most effective and powerful
strategies we can use to create positive changes in our health, in the
environment, in our society, and on this planet." -- Bill Duesing,
Old Solar Farm,
raising certified organic vegetables,and Solar Farm Education, working on
urban agriculture projects. http://www.growbiointensive.org/
Car facts
From Grist
Magazine http://www.gristmagazine.com/grist/counter/counter011900.stm
- 70 million motor vehicles
were on the world's roads in 1950.
- 630 million motor
vehicles were on the world's roads in 1994.
- 1 billion motor vehicles
are expected to be on the world's roads by 2025, if the current growth
rate continues.
- 50 million new cars roll
off the assembly line each year -- 137,000 a day.
- 27 tons of waste are
produced in the manufacture of the average new car.
- 11 million cars are
junked annually in the US.
- 12,000 pounds of carbon
dioxide are emitted by the average car each year.
- 5% of a car's fuel can be
wasted by underinflated tires.
- 2 billion gallons of
gasoline could be saved annually if 65 million car owners kept their
tires properly inflated.
- 85% of auto fuel is
consumed just to overcome inertia and start the wheels turning.
- 2.5 times more emissions
are generated by SUVs (Sports Untility Vehicles) and light trucks than
by standard cars.
- 33,000 natural gas
vehicles were in use in the US in 1993.
- 75,000 natural gas
vehicles were in use in the US in 1998.
-- by
Josh Sevin Sources: World Resources Institute; Environmental Working
Group; 50 Simple Things You Can Do to Save the Earth; Amicus Journal; L.A.
Times; U.S. Department of Transportation; Earth Communications Office;
Amicus Journal; Wall Street Journal.
 (Auto Free
Ottawa) | Facts &
Stats On Cars,
from the Recycling Council of Ontario -- learn just how earth-unfriendly
cars really are, the complete horror-story: http://www.rco.on.ca/factsheet/fs_b02.html
Visit
the Car Free
Day Web site by
@Car Free Day Consortium: http://www.ecoplan.org/carfreeday/cf_index.htm
Average
BTU consumed per passenger mile by mode of travel:
SUV: 4,591 Air:
4,123 Bus: 3,729 Car: 3,672 Train: 2,138
Source: US Bureau of
Transportation Statistics http://199.79.179.77/publications/nts/index.html
According
to a 2004 US Transportation Research Board report, public
transportation:
- Reduces CO2 emissions by
more than 7.4 million tons per year in the U.S.
- Produces 95% less CO, at
least 92% fewer VOCs, and nearly half as much CO2 and NOx for
every passenger mile traveled than private vehicles
Jet fuel: 3000+ ppm
Sulfur Off-road diesel (US): 500+ ppm Sulfur Regular on-road diesel
(US): 15-500 ppm Sulfur Ultra Low Sulfur Diesel: less than 15 ppm
Sulfur [Biodiesel: no sulfur]
-- From: Tim Castleman,
Fuel and Fiber
Company http://fuelandfiber.com/cgi-bin/index.cgi
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the Cape Eleuthera Island School in the Bahamas joined the list in
November 2002 as a novice. List members helped him learn how to make
biodiesel from scratch, helped him solve problems he encountered, then
helped him design and build a processor. Nine months after joining he
wrote to the list: "Hey All -- just thought I would let you know that I
just received my results from the ASTM tests [the US ASTM D-6751 biodiesel standard] and
we passed all categories. Just another good example of a homebrewer in a
remote setting (Bahamas) making spec-grade biofuel! Thanks! --
Jack"
"In the
four short months that I've been reading and learning from the Biofuel
list, I have come to value greatly the breadth and depth of knowledge of
its members, not to mention its moderator. For this I thank you all. I
just successfully completed my first test batch, have begun gathering bits
with which to build my processor, and I stand quite bouyed with the
promise of a home-brewed, non-petrol future for my beloved Volkswagen.
Cheers to you, JtF!" -- Sean Michael
Dargan,
Singer/Songwriter/Biodieseler http://www.cdbaby.com/cd/smdargan2
"With your
help I made my dream possible. I received my MSc in Environmental
Engineering, and my diploma is titled: "Process development for biodiesel
production from waste edible oils and quality control of the produced
alternative fuel." My achievement however which I am really proud of is
that I received three awards and two grants at the national level
(Greece), and I am waiting for another one. Thank you, you are all in my
heart." -- Stelios
Terzakis,
Biofuel list, 24 Aug 2005
Biofuels En español --
Biocombustibles, biodiesel Biofuels
Library Biofuels supplies
and suppliers
Biodiesel Make your own
biodiesel Mike Pelly's
recipe Two-stage
biodiesel process FOOLPROOF
biodiesel process Biodiesel
processors Biodiesel in Hong
Kong Nitrogen Oxide
emissions Glycerine Biodiesel resources
on the Web Do diesels have a
future? Vegetable oil
yields and characteristics Washing Biodiesel and
your vehicle Food or
fuel? Straight vegetable
oil as diesel fuel
Ethanol Ethanol resources on
the Web Is ethanol
energy-efficient? |