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FullGen Technology
The FullGen biosensor platform consists of a detector chip with an array of individually addressable carbon nanotube network detection elements, each potentially capable of being independently functionalized or coated with a variety of techniques. The platform enables research and product development in molecular level phenomena related to chemical reactions and catalysis, chemical and biological detection. The use of random networks of carbon nanotubes provides scalability of the manufacturing process.

• Flexible, adaptable, expandable
• Cost effective, scalable, high volume production
• Replaces expensive, special purpose instruments and biochips
• High performance, optimal sensitivity and selectivity
• Direct electronic detection
• Disposable applications

Applications
Single walled nanotube based field-effect transistors have excellent operating characteristics and have already been explored for highly sensitive electronic detection of gases and biomolecules such as antibodies. This approach eliminates the necessity of DNA labeling with fluorescent labels. Other potential applications include:

• An e-noise. A wide range of gas detection such as H2, CO2 and more
• Development of point-of-care high value diagnosis and monitoring
• Nucleic acid, protein, glucose and other bio molecule detection.
•Combinatorial chemistry tools & detection arrays used in health care diagnostics.

Chips may be used to perform a variety of measurements, including impedance and capacitance. For more information on technical specifications, architecture, or performance, please contact us.

 

News
Researchers directly deposit gold nanoparticles in suspension
Researchers from Northwestern University have demonstrated the ability of a third-generation nanofountain probe to directly deposit gold nanoparticles, 15 nanometers in diameter, onto silicon substrates. The direct-write method of deposition provides better control over resultant patterns and simplifies the process of fabricating functional structures, as compared to conventional photolithographic or microstamping techniques.

FSU researchers developing diagnostic 'lab on a chip'
If you have ever marveled over the orderly process by which cars, buses and other modes of transportation are directed toward their destinations in a big city, you'll really appreciate the work of one Florida State University chemist.

Nanoparticle technique could lead to improved semiconductors
Devices made from plastic semiconductors, like solar cells and light-emitting diodes, could be improved based on information gained using a new nanoparticle technique developed at the University of Texas at Austin.

Gold nanoparticles may pan out as tool for cancer diagnosis
When it comes to searching out cancer cells, gold may turn out to be a precious metal. Purdue University researchers have created gold nanoparticles capable of identifying marker proteins making the tiny particles a potential tool to better diagnose and treat breast cancer.

Scientists discover new way to study nanostructures
Physicists at Georgia Tech have discovered a phenomenon which allows measurement of the mechanical motion of nanostructures by using the AC Josephson effect. The findings may be used to identify and characterize structural and mechanical properties of nanoparticles, including materials of biological interest.