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| SCAN
AROUND THE GLOBE |
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Cosmic Observatory |
| Scientists
in western Argentina were set to inaugurate the world’s
largest astronomical observatory, hoping to unlock the
mysteries of high energy cosmic rays that bombard the
Earth. The vast Pierre Auger Observatory will begin
realizing “its potential for the next 20 years,”
as per astronomer team member Beatriz Garcia.
Construction for the international efforts, involving
a team of more than 370 scientists and engineers from
17 countries, began in 1999 in an elaborate joint project
to better understand the particles discovered by the
facility’s namesake, French physicist Pierre Auger,
in 1938. With the launch of the observatory’s
detection systems, science has “taken a big step
forward in solving the mystery of the nature and origin
of the highest-energy cosmic rays.”
It paves the way for a second phase of construction
that will include building a similar instrument in the
US state of Colorado. To observe the cosmic ray showers,
high-energy particles present in universe that bombard
the Earth, the Pierre Auger uses a collection of 1,600
particle detectors placed 1.5 kilometres apart, in a
grid spread across 3,000 square kilometres. On top of
this detection system, scientists will turn the observatory
into the most powerful galaxial observation instrument
ever built with an additional 24 telescopes, to record
emissions of light from the particle shower.
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(Argentina – PTI Science Service, Dec 1-15, 2008) |
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Green Chemistry Centre
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Parteq Innovations, the technology commercialization
office of Canada’s Queen’s University,
has been awarded US$9.1 mn by the Canadian government
for establishing a ‘National Centre of Excellence’
for the development and commercialization of ‘green’
chemistry technologies.
The first entity of its kind in North America, GreenCentre
Canada will bring together Canada’s leading
green chemistry researchers, industry partners, and
commercialisation professionals with a common goal
to develop cleaner, less energy-intensive solutions
for traditional chemical and manufacturing processes.
The centre, to be located at Innovation Park at Queen’s
University in Kingston, Ontario, will provide expertise
in technology development, intellectual property protection,
business development, marketing and financial management,
complemented with facilities and expertise for product
development, scale-up manufacturing and testing of
early stage discoveries.
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(Canada
– Chemical Weekly, Mar 17, 2009)
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| First
Solar Powered Building |
| In
China, a new building that operates electricity generated
from the solar energy collected by the building itself
was put into operation recently in the Baoding High
Tech Development Zone.
The 26-floor, five-star hotel looks like a circuit,
with some 30,000 square metres of space, including exterior
walls, ceilings, and platforms, and installed with the
proprietary solar energy absorbing glass panels developed
by Yingli Solar. The new building has applied a range
of innovative technologies that have earlier not been
used either domestically or internationally. The ‘breathing
solar panel’ in particular is able to turn solar
energy into electric power. The electric power produced
by the building, as by a small hydro-power station,
will be connected to the local grid, in addition to
its own use.
It is estimated that the building will generate 260,000
kilowatt hours of electricity in a year, saving 104
tons of coal equivalent, or cutting down 75.5 tons of
CO2 emission. Additionally, the contaminated water handling
system installed in the building enjoys an improved
cyclic use of water for heating, cooling and washing.
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(China – NAM S&T Centre, Oct-Dec, 2008)
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Merck Research Facility
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Germany-based Merck-kgaA is expanding its facilities
at the Chilworth Technical Centre in Southampton, England.
Merck is investing approximately Euro 3 mn to construct
an extension that will house state-of-the-art research
facilities for further development of two highly innovative
segments within its Liquid Crystals Division.
The new laboratories will be equipped with the latest
technology for research and development of organic photovoltaic
products and materials for flexible displays as well
as modern offices and meeting rooms.
The new facilities are to be completed by June 2009.
This extension confirms the status of Chilworth Technical
Centre as a major R&D site within the Merck Group’s
chemicals business sector to develop new technologies
as a foundation for future business within the Liquid
Crystals Division. |
| (Germany
– Chemical Weekly, Nov 25, 2008)
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| Ireland
Seeks Help in R&D
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Invest Northern Ireland, the public body aiming at economic
development of Northern Ireland, is looking at attracting
small and mid-size Indian IT services companies, BPOs
and niche software development firms for research and
development (R&D) in their country. The body helps
international companies (large and mid-size) set up
their base in Northern Ireland by bringing them financial
incentives of up to 15-25%.
These firms could be looking at niche areas like transaction
related software development for the banking, financial
services and insurance sector, radio frequency in IT,
mobile telephony software and life sciences.
Besides the strategic location that Northern Ireland
has, its value proposition is the operational cost as
there is a lot of availability of quality labour at
about 20-35% cheaper than in the UK. Also, the cost
of living there is about 15-20% lower than in UK. So
the incentive package, which is about 15-25%, accelerates
the investments to set up their base in Ireland. Therefore,
many companies are exploring this option seriously.
Companies like HCL Technologies, Polaris Software Labs,
First Source Solutions and Tech Mahindra are already
present in that country.
Invest Northern Ireland has already invested abut pounds
150 million for setting up various Indian IT companies.
Within Invest Northern Ireland, the Inward Investment
Division is responsible for attracting new foreign direct
investment (FDI) from outside of Northern Ireland. |
| (Ireland
– The Financial Express, Mar 2, 2009)
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| Insect-Proof
Greenhouse
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Kenya, a severely food-deficit country, needs to expedite
the process of biotech crop adoption to boost agricultural
productivity. With this objective, the Kenya Agricultural
Research Institute Biotechnology Center (KARI-Biotech)
unveiled a state-of-the-art insect-proof biosafety greenhouse
for research into the impact of transgenic crops on
insects.
KARI-Biotech is currently conducting trials on various
biotechnology crops, such as Bt cotton, Bt maize, cassava,
sorghum and sweet potatoes. Construction of the greenhouse
was funded by the Danish government through the BiosafeTrain
Project at a cost of ~US$40,000. The facility is an
addition to the Center’s existing level-II biosafety
greenhouse. BiosafeTrain Project aims to build capacity
in East Africa for biosafety and ecological impact assessment
of genetically modified organisms.
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| (Kenya
– CropBiotech Update, Dec 5, 2008)
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| Origin
of Maize Virus
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African scientists from the University of Cape Town
(UCT) in South Africa have uncovered how one of the
world’s most economically devastating crop diseases
emerged, and hope to genetically engineer disease resistant
crops using the information. They compared the genetic
sequence of the virulent maize streak virus (MSV) with
ten less harmful strains of the virus from across the
continent, which infect other grass food crops, such
as wheat and oats. It was found that two relatively
mild grass viruses had merged through genetic recombination,
which resulted in an ancestral MSV far more potent than
its parents, thereafter moving into maize before spreading
rapidly across the continent.
The researchers think that this occurred about a century
ago, just when commercial agriculture was replacing
subsistence farming and maize started to overshadow
indigenous crops in Africa. These results mean that
DNA viruses are evolving faster than was thought. This
rapid mutation increases the possibility of new plant
viruses emerging. While plant diseases do not feature
very highly in the public’s consciousness, their
impact on food production causes more suffering in the
developing world than many high profile human diseases.
Studying plant diseases can provide information about
pathogens that can be used to develop resistant crops.
At least two hundred samples of infected maize are analyzed
each year by UCT team.
An analysis of virus-infected maize from Burkina Faso,
the Central African Republic, Ivory Coast, Namibia and
Zambia, is being placed in a database. Maize resistant
to the streak virus has been developed but it has to
be proved that it will hold up under different conditions
throughout sub-Saharan Africa.
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| (South
Africa – NAM S&T Centre, Oct-Dec, 2008)
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| Robotic
Cyberknife
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Doctors in Britain were reported to be using robotic
radiotherapy machine for the first time. The machine
called Cyberknife, is said to be worth 2.5 million pounds.
It maps the movement of a patient’s breathing
so that tumours can be targeted with greater accuracy
than is currently possible. The novel device uses a
robotic arm to deliver multiple beams of high-dose radiation
from a wide variety of angles. The patient’s breathing
is monitored with the aid of x-ray cameras, and the
radiotherapy beam is repositioned accordingly to minimize
damage to surrounding tissues. This, in turn, makes
the therapy so accurate that even tumours in difficult
positions and dangerous to operate on, such as near
the spinal chord, can be treated safety.
Cyberknife technology is best suited for discreet little
tumour in an awkward place, under the liver or next
to the kidney.
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| (UK
– ANI, Feb 8, 2009)
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| New
Light on Life
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University of Utah physicists and chemists have developed
a new method that uses a mirror of tiny silver “nanoparticles”
so that microscopes can reveal the internal structure
of nearly opaque biological materials like bone, tumor
cells and the iridescent green scales of the so-called
“photonic beetle.” The method also might
be used for detecting fatigue in materials, such as
carbon-fiber plastics used to build the latest generation
of aircraft fuselages, tails and wings, says John Lupton,
an associate professor of physics and leader of the
new study.
The new method developed by Lupton and colleagues is
a variation of fluorescence microscopy, but involves
using an infrared laser to excite clusters of silver
nanoparticles placed below the sample being studied.
The particles form “plasmonic hotspots,”
which act as beacons, shooting intensely focused white
light upward through the overlying sample. The spectrum
or colours of transmitted light reveal information about
the composition and structure of the substance examined.
While Lupton believes the new method will be of interest
mainly to biologists, he also says it could be useful
for material science.
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| (USA
– University of Utah, Feb 4, 2009)
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