The Ferrari F430 Spider Biofuel uses an 85% ethanol mix and was developed with using experience gleaned in competition. In fact, Formula 1’s technical regulations demand that petrol (gasoline) with 5.75% biomass-derived content must be used, while the FIA GT and American Le Mans Series (ALMS), both of which were dominated by the F430 GT2 in 2007, use fuels with 10% ethanol.

Once again, in fact, the track has proved an excellent testing ground for innovative solutions which, if successful, can then be passed on to production cars. Such is the efficiency of the transfer of track technology to road cars at Maranello that all of the Prancing Horse’s cars can already use up to 10% ethanol without any modification whatsoever.

By developing this technological demonstration prototype however, Ferrari has proved category that it can offer the technological solutions demanded by the market demands without impinging on the distinctly sporty, high performance character and supreme driving pleasure of the unique cars it builds at Maranello.

In the case of the F430 Spider Biofuel, certain modifications were made to the fuel feed system and most importantly to the engine CPU to allow the engine use E85. Developing the CPU, two fuels (Flex Fuel) can be used by the engine with the same compression ratio. All of the other technical characteristics have remained unchanged with respect to a standard production engine, however. The use of this type of biofuel and the modifications made have resulted in a significant increase in maximum power output (+ 10 hp at the same rpm) and torque (+ 4%) yet overall weight was unchanged. The advantages to the environment translate too into a 5% drop in CO2 emissions.

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The Dresden, Germany, plant produces biogas from corn waste like husks and stalks, notably not cobs. Like other bioenergy plants, the biogas is then converted into electricity at the plant.

Because this electricity plant does not use any edible crop sources, the system, if scaled up for wider use, would not interfere with world food supplies, according to a statement from the group.

Not only is the plant agro-friendly because it avoids using feedstocks, the scientists have also come up with a quicker method for fermenting the ingredients.

The biomass used at the Dresden plant are decomposed in about 30 days compared to the typical 80 days it takes to ferment feedstock biomass.

“Corn stalks contain cellulose which cannot be directly fermented. But in our plant, the cellulose is broken down by enzymes before the silage ferments,” Michael Stelter, head of the research group, said in a statement.

To produce the electricity from the biogas, the plant uses a high-temperature fuel cell with a combined electrical and thermal efficiency of about 85 percent. That, too, is more efficient, according to the scientists who contend that the average combustion engine only has an efficiency of about 38 percent.

As of now, the plant is only built to produce about 1.5 kilowatts of electricity, barely enough to supply one home. Now that the system works, the group plans to step it up to two kilowatts.

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His company, Synthetic Genomics Incorporated (SGI), will develop fuels that can be used by cars or aeroplanes without the need for any modification of their engines. Exxon Mobil will provide $600m over five years with half going to SGI.

“Meeting the world’s growing energy demands will require a multitude of technologies and energy sources,” said Emil Jacobs, vice president of research and development at ExxonMobil. “We believe that biofuel produced by algae could be a meaningful part of the solution in the future if our efforts result in an economically viable, low-net carbon emission transportation fuel.”

Transport accounts for one-quarter of the UK’s carbon emissions and is the fastest growing sector. Finding carbon-neutral fuels will be crucial to the government meeting its target to reduce overall emissions by 80% by 2050.

Algae are an attractive way to harvest solar energy because they reproduce themselves, they can live in areas not useful for producing food and they do not need clean or even fresh water. In addition, they use far less space to grow than traditional biofuel crops such as corn or palm oil.

“Algae consumes carbon dioxide and sunlight in the presence of water, to make a kind of oil that has similar molecular structures to petroleum products we produce today,” said Jacobs. “That means it could be possible to convert it into gasoline and diesel in existing refineries, transport it through existing pipelines, and sell it to consumers from existing service stations.”

The Carbon Trust, a government-backed agency that promotes low-carbon technologies, has forecast that algae-based biofuels could replace more than 70bn litres of fossil fuels used every year around the world in road transport and aviation by 2030, equivalent to 12% of annual global jet fuel consumption or 6% of road transport diesel. In carbon terms, this equates to an annual saving of more than 160m tonnes of CO2 globally with a market value of more than £15bn.

Ben Graziano, research and development manager at the Carbon Trust, said that alge-based biofuels offered the potential for “major carbon savings”. “Exxon Mobil is estimating that algae could yield just over 20,000 litres of fuel per hectare each year, which is in line with our own forecasts. However, producing biofuel from algae on such a massive commercial scale is a major challenge, which will require many years of research and development.”

Venter, who is best known for his role in sequencing the human genome, said the new partnership was the largest single investment in trying to produce biofuels from algae but said the challenge to creating a viable next-generation fuel was the ability to produce it in large volumes. “This would not happen without the oil industry stepping up and taking part,” he said. “The challenges are not minor for any of us but we have the combined teams and scientific and engineering talents to give this the best chance of success.”

The research programme will begin with the construction of a new test facility in San Diego, where Venter says different techniques to grow and optimise algae will be tested. These will include open ponds as well as bioreactors, where the algae are grown in sealed tubes. “We will be trying out these different approaches … using newly-discovered natural algae to test the best approaches we can come up with to go into a scale-up mode.”

Venter has spent several years trawling the world’s oceans in search of environmentally-friendly microbes that could be used, in one way or another, to bring down the world’s carbon emissions. The organisms he has found include those that can turn CO2 into methane, which could be used to make fuels from the exhaust gases of power stations, and another that turns coal into natural gas, speeding up a natural process and reducing both the energy needed to extract the fossil fuel and the amount of pollution caused when it is burned.

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