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In an effort to contribute to the reduction of
CO2 and other greenhouse gases, Kirin
Brewery has decided to introduce new solar
power systems at its Fukuoka and Yokohama plants,
as well as at its Hiroshima brewery. Kirin, which
already uses such systems at its Kobe plant and
Kirin Beverage's Shonan plant, also plans to introduce
the changes at the Toride and Okayama plants by
March 2007, thereby bringing the total number of
Kirin group facilities utilizing solar power systems
to seven.
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Kirin's solar power systems reduce CO2 emissions
at its breweries
The main solar panel
array (center of picture)
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| Roof-mounted
solar panels |
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The system now in use and slated for introduction
at the Kobe facility was developed with the support
of the field testing division of the New Energy
and Industrial Technology Development Organization
(NEDO), a Japanese public R&D organization committed
to energy conservation and the development of oil-alternative
energy sources. Kirin will provide data and analysis
on the long-term use and effectiveness of the system,
assisting NEDO to promote the system's widespread
use in the coming years.
The three new solar power systems that are
currently being installed in Fukuoka, Yokohama and
Hiroshima will produce approximately 50,000 kWh
annually, cutting the company's CO2 emissions
by 15 tons over the same period. |
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| Methane
storage tank of MKK's new biogas plant |
In Japan, municipalities as well as
private companies are putting serious thought into
how to reduce the country's annual 20 million tons
of food and organic waste.
In addition to new recycling laws and
nationwide campaigns for recycling, biogas plants,
fueled by discarded organic materials, which release
burnable methane gas when fermented, are increasingly
numerous and the demand for effective recycling
technologies is growing.
Mitsubishi Kakoki
Kaisha, Ltd. (MKK) has developed a new biogas
plant technology, which realizes highly efficient
thermophilic methane fermentation treatment of food
waste after solid matter is first liquefied. Thanks
to the liquefaction process and thermophilic fermentation,
the plant achieves 15% higher biogas production
with a 70% reduction in solid fermentation residue
than a conventional (mesophilic) biogas plant.
Moreover, MKK's new biogas plant requires
a fermentation tank only half the size of a conventional
fermentation tank. In densely populated Japan, where
a small footprint is always favored, this is a significant
step towards the creation of more efficient biomass
recycling plants that do not take up too much valuable
land area.
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In cooperation with the nonprofit
organization Earthwatch Japan, NYK
Line recently wrapped up the spring 2006
NYK Nature Fellowship, a program that helps Japanese
college students take part as researchers and support
staff members in projects studying the marine environment.
The program aims to supply human resources
to outdoor science projects worldwide. NYK Line
hopes its efforts will particularly benefit those
programs studying the oceans. Outdoor research programs
always require manpower and funding, and the Earthwatch
Institute, Earthwatch Japan's mother organization,
actively supports these projects by
recruiting some 4,000 volunteers every year from
countries worldwide for projects that range from
monitoring melting glaciers in the Arctic to preserving
koala habitats in Australia. NYK Line has now begun
to assist Earthwatch Japan as the doorway for Japanese
volunteers who want to join these survey teams.
"Protecting beauty at sea, on
land and in the air" is one of NYK Line's main
principles, and the company feels that its important
duties as a corporate citizen include helping to
raise the environmental awareness of today's young
generation who will lead the next generation. |
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Mitsubishi Corporation (MC)
and the Tokyo Institute of Technology (Tokyo Tech)
have recently made a significant announcement—the
completion of a first prototype CO2-free
engine called the Magnesium Injection Cycle (MAGIC)
engine. Although still at the experimental stage,
this joint project, initiated in 2005, has developed
a prototype that has successfully worked without
the need for fossil fuels.
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Magnesium Injection Cycle engine is powered
without using fossil fuels |
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Power is generated by the chemical
reaction between magnesium and water, which produces
high-power steam and hydrogen. The hydrogen is burned
at the same time to produce more high-power steam,
and the two steam sources power the engine. The
new technology produces no carbon dioxide or other
harmful emissions and the only by-products from
this reaction are water and magnesium oxide. The
magnesium is separated from the oxide through a
solar-powered laser process and is reused over and
over again as fuel. This clean energy cycle, which
is supported by solar power, has the potential to
steer society away from its dependence on fossil
fuels, and could bring about a paradigm shift in
the way future energy needs are met.
The new MAGIC technology is very versatile,
and has potential for use in cogeneration, automobiles,
ships and many other areas. MC and the Tokyo Tech
team believes it will take another three years of
further research and experimentation before it is
launched for commercial use. |
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As a facet of its civic contribution
activities, Nippon Oil Corporation
has established and begun funding the ENEOS Hydrogen
Research Charitable Trust Fund for basic research
into hydrogen-based energy sources.
Hydrogen, now used as a power source
in fuel cells, is a colorless, odorless and very
abundant chemical element that is widely believed
to have high potential as a sustainable, non-polluting
energy source. Technically, it can be derived from
a large number of sources, notably water and even
from fossil fuels, but the technologies to make
it viable as an energy source for society as a whole
do not yet exist. Areas where new technologies are
needed include cost-effective production, transportation
and storage. Another issue concerns how to capture,
or fixate, the CO2 that may be left over
as a by-product of hydrogen production.
To help solve these issues, the ENEOS
Hydrogen Research Charitable Trust Fund will provide
a total of ¥50,000,000 each year in stable,
long-term funding for independent and leading-edge
research. The emphasis will be on basic research
that breaks with traditional approaches and produces
new scientific theories, creating the seeds of technological
advance and contributing to an early arrival of
hydrogen-based economies. |
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