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Announcements

PRESS RELEASE (14 Oct 2011): Packing in six times more storage density with the help of table salt
It's like packing your clothes in your suitcase when you travel. The neater you pack them the more you can carry. In the same way, the team of scientists has used nanopatterning to closely pack more of the miniature structures that hold information in the form of bits, per unit area. Dr Joel Yang's IMRE research team, working with peers from A*STAR's DSI and NUS, has used nanopatterning to create uniform arrays of magnetic bits that can potentially store up to 3.3 Terabit/in2 of information, six times the recording density of current devices. This means that a hard disk drive that holds 1 Terabyte (TB) of data today could, in the future, hold 6 TB of information in the same size using this new technology.

PRESS RELEASE (5 Sept 2011): A Guinness World Record for Singapore with A*STAR IMRE's world's smallest working gears
It's official! Researchers from IMRE have put Singapore into the Guinness Book of World Records by successfully demonstrating the world’s smallest fully controlled rotation of a molecule-sized gear. The research opens the way for the future development of molecule-sized machines that may lead to innovations like pocket-sized supercomputers, miniature energy harvesting devices and data computing on atomic scale electronic circuits.

PRESS RELEASE (16 Aug 2011): New polymeric material brings companies one step closer to cheaper plastic solar cells and electronics
A single polymer that can be used in both new age plastic electronics as well as plastic solar cells could spell greater cost-savings and open up new design options for electronic and solar cell companies. A*STAR’s IMRE has developed a new polymer that not only produces a high charge mobility of 0.2 cm2/V.s, which is the same value achieved by commercially available semiconducting materials but also has a high solar power conversion efficiency of 6.3%. This makes IMRE’s polymer one of the few that has both these properties. In addition to this, polymers of the same class as IMRE’s, which are those that use thiophene and benzothiadiazole as the building blocks, could only achieve 2.2% power conversion.

PRESS RELEASE (27 Jul 2011): Prototype tools for mass producing nanostructures to launch in Singapore
Nanoimprinted structures and components are being used in items such as anti-reflection films, and solar cells. However, their impact in consumer products is limited as viable manufacturing processes to scale-up the production of such nanostructures is lacking. IMRE and its partners in ICON are planning to manufacture the structures, using a roll to roll process. This fast, mass production method can create large area nanostructured components, opening the way for new consumer applications not previously conceptualised or economically feasible.

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Welcome to IMRE

The  Institute  of  Materials  Research  and  Engineering  (IMRE) is a research  institute  of  the  Science  and  Engineering Research Council (SERC) under Agency  for  Science,  Technology  and Research  (A*STAR). The Institute  has  capabilities  in  materials  analysis & characterisation, design  &  growth,  patterning & fabrication, and synthesis & integration. We house a range of state-of-the-art equipment for materials research including development, processing and characterisation. IMRE conducts a wide range of research, which includes novel materials for organic solar cells, photovoltaics, printed electronics, catalysis, bio-mimetics, microfluidics, quantum dots, heterostructures, sustainable materials, atom technology, etc. We collaborate actively with other research institutes, universities, public bodies, and a wide spectrum of industrial companies, both globally and locally.

 

Materials Analysis & Characterisation

Design & Growth

Patterning & Fabrication

Synthesis & Integration

SERC nano Fabrication, Processing and Characterisation (SnFPC)