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Porous Silicon Lights Way For New Analytical Devices

Researchers at Purdue University have developed a technique that combines porous silicon with mass spectrometry to streamline biochemical analyses. The technique, called desorption ionization on silicon (DIOS), allows for the simultaneous testing of large numbers of compounds in a fraction of the time required by current methods.

SourcePurdue University·JournalNature·DateMay 20, 1999

Porous Silicon Joining Humans To Machines

Researchers at De Montfort University discovered a porous version of silicon with potential for biocompatibility, allowing for the transmission of signals between mechanical devices and human tissue. This breakthrough could lead to innovative applications in sensing and prosthetics.

SourceInstitute of Materials·JournalMaterials World·DateApr 1, 1999

Sapphire Semiconductors? Gem-Like Material May Promise Faster, Smaller, More Reliable Circuits, UD Prof Says

Researchers at the University of Delaware developed a new technique to produce extremely thin alumina films with an electrical storage capacity three times greater than silicon dioxide. These films could potentially eliminate reliability problems in semiconducting circuits by storing more electricity and reducing current-blocking flaws.

SourceUniversity of Delaware·JournalJournal of Electronic Materials·DateJul 13, 1998

Nanoprobe Array Of STMs To Expand Data Storage

Researchers at Cornell University have developed an array of microscopic scanning tunneling microscopes (STMs) to speed up data storage. By depositing small bumps on a surface, the array can store up to 12 terabytes of data in a square centimeter, exceeding modern computer hard disk storage capabilities.

SourceCornell University·JournalReview of Scientific Instruments·DateMar 12, 1998

'Holey' Silicon Brightens Future For Computers, Optical Devices

Porous silicon, a light-emitting material, can now be stabilized using a developed process at Purdue University. This allows for the creation of faster, smaller computers and new types of sensing devices. The treatment enables the manipulation of light-emitting properties to respond to certain chemicals or conditions.

SourcePurdue University·JournalJournal of the American Chemical Society·DateFeb 5, 1998

Diamond Find: Carbon, Plus Germanium, Helps Silicon 'Shine,' UD Researchers Say

University of Delaware researchers have developed a silicon-based device that can convert some light into electricity using a germanium-carbon alloy. The device, which was tested with laser light, showed a conversion rate of 1.4 percent and demonstrated efficient rectification numbers. This breakthrough has the potential to bridge the ...

SourceUniversity of Delaware·JournalIEEE Electron Device Letters·DateAug 22, 1997