| Oxford Catalysts
Group PLC ("Oxford Catalysts" or "the Company"), the leading catalyst innovator
for clean fuels, is pleased to announce that its hydrogen-on-demand technology,
used for the production of hydrogen to power fuel cells, has been short-listed
for selection as part of the UK Ministry of Defence's Portable Power Systems
research programme.
The UK Ministry of Defence is seeking
a solution to the increasing requirements for portable power in the armed
forces, through an initiative known as the Portable Power Systems (PPS)
programme. Modern electronic systems used by today's soldiers are extremely
power hungry – batteries currently constitute up to 25% of the soldier's
load. The UK Ministry of Defence is exploring the use of fuel cells as
a potential solution to reducing this weight significantly, and to simplifying
the replenishment, support and infrastructure requirements associated with
portable power systems. Oxford Catalysts has developed technology to produce
hydrogen from renewable fuels, instantaneously starting from room temperature,
for use in fuel cells.
The PPS programme is managed by the
UK Defence Procurement Agency and undertaken by ABSL Power Solutions Ltd,
in collaboration with QinetiQ as key subcontractor. Oxford Catalysts' technology
has reached the short-list of Strand B of this programme, which is intended
to produce prototypes within three years.
Roy Lipski, Chief Executive of Oxford
Catalysts, said:
"Our short-listing for this programme's
final stages of selection represents further recognition of Oxford Catalysts'
technology for the generation of hydrogen from a liquid fuel, instantaneously
starting from room temperature. Our ground-breaking technology could represent
the missing link for making portable fuel cells a commercial reality."
About Oxford Datlysts
Oxford Catalysts Group PLC, the leading
catalyst innovator for clean fuels, designs and develops specialty catalysts
for the generation of clean fuels from both conventional fossil fuels and
certain renewable sources such as biomass. Its patent-pending technology
is the result of almost 20 years of research at the University of Oxford's
prestigious Wolfson Catalysis Centre, headed by Professor Malcolm Green,
one of the world's most respected inorganic chemists. Oxford Catalysts
was founded by Professor Green and Dr Xiao in October 2004 and was admitted
to trading on the AIM market of the London Stock Exchange on 26th April
2006, having raised £15m before expenses from a solid base of institutional
investors.
Oxford Catalysts' strategy is to
license its catalysts for commercial application by entering into co-development
partnerships with leading manufacturers, producers and suppliers in the
petroleum, petrochemicals, fuel cells, biogas, steam applications and catalysis
markets.
Oxford Catalysts has two key platform
technologies. The first is for a novel class of catalysts made from metal
carbides which, for certain reactions, can match or exceed the benefits
of traditional precious metal catalysts at a lower cost. Applications of
these metal-carbide catalysts include the removal of sulphur from crude
oil fractions (known as hydro-desulphurisation or HDS), the conversion
of natural gas or coal into virtually sulphur-free liquid fuels via the
Fischer-Tropsch reaction (known as the GTL and CTL processes respectively),
and the transformation of biogas (waste methane) into syngas – the building
block of liquid fuels.
The second platform relates to chemical
reactions involving a liquid fuel containing an alcohol (such as methanol),
hydrogen peroxide and water. The company's novel catalyst can be used to
release hydrogen gas from this liquid fuel, instantaneously starting from
room temperature. This groundbreaking hydrogen-on-demand technology has
the potential to significantly accelerate the commercial adoption of fuel
cells in the portable and other mobile markets, by providing the much needed
source of cheap, safe transportable hydrogen.
Another of the company's catalysts
can be used to produce superheated steam (800c+) from the above fuel, instantaneously
starting from room temperature. Such portable high-temperature steam could
have important applications in a broad range of markets, from cleaning
and disinfecting, to motive power and electricity generation.

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