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Europe Adopts Biodiesel

CAN AN AFRICAN BEAN CRACK
EUROPE'S BIODIESEL BLOCKAGE?

By Candida Jones

A row of Jatropha trees - plants with
potential to alleviate fuel shortages

Editor's Note: Jatropha is an example of a plant that could be grown 
even if it didn't yield biofuel. It is useful for restoring soil, 
combatting desertification, and providing fertilizer. It requires 
minimal inputs of water and grows in extremely poor soil.

Any plant that is a cash crop anyway and costs almost nothing to grow 
can't be a bad candidate for an economically viable biofuel. 
Distilleries for biofuel exist throughout the world; biofuel is a form 
of solar energy harvested from the land, and wherever land and water are 
abundant, biofuel is cheap and the flow never wanes.

In Africa, India, Asia and the Americas, Jatropha is one of the most 
promising feedstocks in what is becoming a worldwide biofuel bonanza. 
Europeans are planting and investing in Jatropha fields in all these 
places and elsewhere. One company in the U.K., D1 Oils based in London, 
has built a portable Jatropha biodiesel refinery. Such an innovation is 
an example of how the potential of biofuel is just beginning to be 
tapped. - Ed "Redwood" Ring

The potential to run engines on biofuel goes all the way back to Rudolph 
Diesel's successful trials using peanut oil a century ago.

Yet it is only now, with the transport sector likely to be the fastest 
growing contributor to greenhouse gas emissions this century, and diesel 
prices climbing steadily as oil appears scarcer and less secure, that 
the advantages of biodiesel are being appreciated by governments around 
the world. However, there is as yet no source of biodiesel that is cheap 
and plentiful enough to meet the potential demand. Running trucks on 
used cooking fat from fast food outlets is not going to be a large scale 
option.

Tamil Nadu Agricultural
University is researching
Jatropha on a large scale.

However, across the developing world there's growing excitement about 
the possibility that an up-to-now obscure tree, Jatropha Curcus, might 
offer a sustainable, large scale source of biodiesel. This non-edible 
shrub is planted as a hedge in both Africa and India, and its beans are 
used as a laxative in traditional medicine. When crushed the beans 
produce oil that can be refined into biodiesel.

According to the <http://www.iea.org/>International Energy Association, 
the use of oil, including diesel, for road transport will double in the 
next 25 years and greenhouses gases will increase commensurably. In the 
EU, legislation is already in place to mitigate this by increasing the 
proportion of biodiesel in Europe's transport energy mix. The EU 
biofuels directive requires a minimum level of biofuels as a proportion 
of fuels sold in the EU of 2% by 2005, 5.75% by 2010 and 20% by 2020. 
The main green fuels will be ethanol and biodiesel, and demand for 
biodiesel is expected to be up to 10.5 billion litres by 2010.

<http://www.energy.gov/>
If that demand can be met, it will be good news for the environment and 
for our general health. While combustion of any fuel releases CO2 into 
the atmosphere, biodiesel produces lower emissions than mineral diesel. 
Furthermore, because it comes from crops that absorb CO2 as they grow, 
biodiesel's overall contribution to greenhouse gas emissions is 
extremely low. A 1998 biodiesel lifecycle study, jointly sponsored by 
the <http://www.energy.gov/>US Department of Energy (USDE) and the 
<http://www.usda.gov/>US Department of Agriculture, concluded that pure 
B100 biodiesel reduces net CO2 emissions by 100 percent compared to 
petroleum diesel. With a B20 mix (a 20% bio-diesel solution), the net 
CO2 emissions are reduced by 20%. Compared with mineral diesel, 
biodiesel reduces particle emissions (PM) by 30%, carbon monoxide (CO), 
which affects air quality and human health, by 50%, and sodium monoxide 
(SOx) by 50%. Unlike mineral diesel, bio-diesel is non-toxic and is 
biodegradable.

<http://europa.eu.int/>
The EU biofuels policy currently relies on an assumption that the 
heavily-subsidised cultivation of rapeseed will meet its biodiesel 
targets. However, this is a very large assumption. Already some 3 
million hectares of agricultural land across the EU, an area roughly the 
size of Belgium, grows 10 millon tonnes of rapeseed. But since just 20% 
of this is ultimately used for biodiesel as opposed to food oil, another 
whole Belgium would have to be covered in the yellow rapeseed blanket to 
meet the targets. Rapeseed tires the land, and requires expensive crop 
rotation and fossil-based fertilisers. Growing rapeseed also has an 
opportunity cost of preventing farmers from growing more 
environmentally-friendly, less intensive, and often more profitable 
produce such as cereals or organic root vegetables. Under these 
circumstances, the supply of rapeseed oil is unlikely to be able meet 
the demand.

Jatropha not only produces biodiesel, it
grows in vast areas where deserts encroach,
where no other plant can grow.

One UK-based company, D1 Oils plc <http://www.d1plc.com>(www.d1plc.com), 
has put itself at the forefront of efforts to fill this gap with 
Jatropha oil. Jatropha grows quickly, is hardy, establishes itself 
easily even in arid land, and is drought-tolerant, requiring only 300mm 
of annual rainfail. It grows especially well in South and West Africa, 
and South East Asia. Jatropha can even be grown on semi-arid land using 
waste water, making it a useful tool in the prevention of 
desertification. Each Jatropha tree can produce an average of 3.5 kilos 
of beans each year depending on irrigation levels. According to D1's 
estimates, if 2,200 Jatropha trees are planted per hectare, each hectare 
could yield up to 7 tonnes of beans per annum. Jatropha beans can 
produce oil yields of up to 40% and D1 expects each hectare to deliver 
about 3,000 litres of biodiesel.

In the established process for refining biodiesel, the vegetable oil is 
esterified, reacted with methanol and sodium hydroxide, to produce 
diesel and glycerine. D1 has adapted this method to create its own 
proprietary process producing biodiesel from Jatropha and various other 
feedstocks. The Jatropha biodiesel meets the European EN14214 standard 
for use as a pure or blended automotive fuel for diesel engines.

D1 has already secured plantation agreements in Burkina Faso, Ghana and 
the Philippines totalling 37,000 hectares, and has the option to extend 
planting to approximately 990,000 further hectares of land in Burkina 
Faso and 5 million hectares of land in India. The company recently 
raised &#65533;13 million in a London Stock Exchange flotation to fund 
these initiatives.

<http://www.d1plc.com/>
According to Philip Wood, Chief of Executive of D1 Oils, the company is 
on the way to delivering enough Jatropha biodiesel to meet EC demand. 
"We have created a unique business model and put in place the right mix 
of technology, IPR and contracts, as well as a strong team, to deliver 
results and grow the business. With a total of 6 million hectares under 
option, roughly the same size as two Belgiums, we could be producing 18 
billion litres of biodiesel, which at current estimates would meet 
demand expectations in Europe."

However, the demand for biodiesel is not coming solely from developed 
markets. One of the main reasons for the excitement around Jatropha is 
that developing countries also want their own biodiesel blends for 
domestic transport and power generation, both as a substitute for 
expensive oil imports and to prevent pollution. The President of Burkina 
Faso, Blaise Compaor&#65533;, recently welcomed the biodiesel initiative 
undertaken by D1 in West Africa, saying, "By producing our own 
biodiesel, we will gain greater energy security, save valuable foreign 
currency, and potentially become an exporter of biodiesel."

The potential for local demand for biodiesel as well as for export has 
been anticipated by D1 Oils. According to Philip Wood, the company has 
structured its production technology to offer developing countries small 
refineries that can produce biodiesel close to the plantations. "Our 
small, economic, modular refinery is easily transportable, produces 
minimal emissions, uses virtually no water and can be powered in remote 
locations by its own biodiesel," says Wood. "In addition to our refinery 
in Newcastle, the first of its kind in the EU, we have plans to provide 
modular refineries in India, the Philippines and South Africa."

D1 Oils PLC has designed a portable refinery that
can produce 22,000 liters of biodiesel per day.

The D1-20 refinery can produce up to 8 million liters of biodiesel per 
annum, equivalent to approximately 22,000 liters per day. It is housed 
in a container that is 3.3 meters wide, 10 meters long and 4 meters 
high, and the overall refinery systems can store 24 tons of vegetable 
oil, 25 tons of catalyst and 20 tons of biodiesel.

The benefits for the developing world go further than producing fuel for 
local use. Since the planting, growing and refining of Jatropha seeds 
requires manpower, its cultivation will generate large numbers of jobs 
in areas of low employment. Errol Elsdon from PetroSAF, an African fuel 
distribution company, estimates that Jatropha plantations are likely to 
create at least one job for every four hectares of planted trees; the 
total impact on agricultural employment alone could be huge. There are 
also other benefits in terms of both byproducts from the esterification 
process and from the potential for intercropping. The biodiesel refining 
process also produces profitable by-products such as glycerine for 
cosmetics and seed cake for fertiliser and animal feed, and Jatropha can 
potentially be intercropped with other valuable plants such vanilla or 
patchouli.

However, it is Jatropha's ability to grow on marginal, waste or arid 
land and produce energy crops without displacing food crops that is 
perhaps of most potential importance to the developing world, 
particularly as they face the affects of climate change. This aspect of 
Jatropha has made it particularly attractive to the Indian government. 
Given India's booming economy, its transport sector will consume ever 
higher amounts of fuel over the coming years. Indeed, demand for diesel 
fuel is expected to grow from current levels of 44 million tonnes to 67 
million by 2010. Aware of these predictions, the government of India has 
a $300m biofuels programme in place which foresees India replacing 5% of 
current diesel with biodiesel by 2005/6, eventually rising to 20%. 
However, the Indian government is also aware of the environmental 
benefits of growing the tree on marginal and arid land. In a recent 
speech, the Indian President, A. P. J. Abdul Kalam, declared that "India 
needs to grow Jatropha to tackle dry land and generate biodiesel." India 
has large areas of poor quality land ideal for the cultivation of energy 
crops, so growing Jatropha won't divert land away from growing vital 
food crops.

Hops, Barley, & Jatropha
India's Mohan Breweries is
working to develop Jatropha

D1 Oils is currently in discussions with the Indian government to see 
how it can help India meet its biodiesel targets. According to D1 
estimates, for India to reach its target of 20% bio-diesel mix, some 2m 
hectares of Jatropha will be needed. With this target in mind, D1 has 
been working with the Tamil Nadu agricultural university on research 
into Jatropha and large-scale planting and has put forward proposals to 
plant Jatropha in the states of Tamil Nadu, Madhya Pradesh, Rajasthan 
and Chhattisgarh. D1 has also entered into a joint venture agreement 
with India's Mohan Breweries to operate and control future projects in 
the region. A pilot scheme of approximately 5,000 hectares has been 
established with Mohan and planting is anticipated to be completed 
during early 2005.

Developing countries are also aware that as the mechanisms of the Kyoto 
Treaty come into force to reduce industrial and commercial greenhouse 
gas emissions, the planting of biofuel crops may well create carbon 
sinks that can earn them cash through their sale of emissions credits to 
polluting industries in developed countries. The Clean Development 
Mechanism (CDM) created by Kyoto is still in its infancy. However, if 
CDM credits do become available for planting trees, it could add a 
further inducement to plant Jatropha to act as an energy-producing 
carbon sink.

The history of the commercial contacts between the developed and the 
developing world has not been smooth, particularly in the sphere of 
agriculture and energy. However, the fact that Jatropha requires a 
warmer climate than we have in Europe could enable it to make a very 
positive impact on the environments and economies of developing 
countries. Money, as the old adage goes, may not grow on trees, but a 
possible energy solution clearly does. In today's world of mounting 
fossil fuel prices and concern about global warming that could amount to 
the same thing.

About the Author: Candida Jones is an environmental writer and 
consultant. She is former editor of the UK magazine, Environmental 
Business News Briefing, and a former reporter for Financial Times 
Energy. Candida lives and works in London. She can be reached via 
<mailto:[EMAIL PROTECTED]>[EMAIL PROTECTED]

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