Other problems cited include an absence of information about groups working in the sector and the domestic industry's reluctance to manufacture large quantities of nanomaterials proven to have commercial application.
India has more than 30 industries and 50 institutes engaged in nanotech research and development, with most efforts focusing on chip design, nanomedicine and nanomaterials. Nanotechnology has potential uses in drug delivery, diagnostic kits, improved water filters and sensors, and reducing pollution from vehicles.
Since the launch of a US$250 million five-year national nanotech mission in 2007, India has seen a rise in the number of scientists working in the field and research publications, said V. S. Ramamurthy, former secretary of India's Department of Science and Technology and currently on the board of the Indian Institute of Technology in Delhi.
The national mission aims to make India a global hub by setting up clusters of research groups in the sector (see "India looks to nanotechnology to boost agriculture" (www.scidev.net/en/news/india-looks-to-nanotechnology-to-boost-agriculture.html) and "Preparing for take-off: Indian Nanotechnology" (www.scidev.net/en/features/preparing-for-takeoff-indian-nanotechnology.html)).
But there has been no corresponding increase in nanotech products in the marketplace. India needs to work on turning its laboratory research findings into commercially viable products that are either globally competitive or locally relevant, said Ramamurthy. "We need to evolve synergies and strategies so that the strengths in the labs are converted into strengths in the marketplace," he said.
C. N. R. Rao, chairman of the Scientific Advisory Committee to India's Prime Minister, suggested Indian scientists and industry should work on 'hot' emerging technologies with tremendous potential, which are attracting the interest of researchers worldwide. These include use of nano-scale particles of graphene, a one atom thick layer of carbon molecules that form the basic structure of graphites. The material is one of the strongest known and has uses in microelectronics and tremendous capacity to absorb the greenhouse gas carbon dioxide.
Rao also suggested India should work on 'nano' forms of currently known materials that can throw up exciting applications.Delegates at the meeting also pointed out that India does not have a systematic information base on all scientists.
Ajay Sood, professor of physics at the Indian Institute of Science in Bangalore said, "An information map on interested industry and academics is very much needed; an information platform that is easily accessible and can be updated."
Quelle: Science and Development Network (SciDevNet)
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