Small Size -- Huge Potential

August 24th, 2010 By Karen A. Grava in Nanotechnology / Nanomaterials
Small fibers or rods of titanium oxide emanating from the manganese oxide-based template. Photo provided by the College of Liberal Arts and Sciences


Small fibers or rods of titanium oxide emanating from the manganese oxide-based template. Photo provided by the College of Liberal Arts and Sciences

(PhysOrg.com) -- A University of Connecticut chemistry professor's nanotechnology research will be useful in alternative fuel development.

A cover story in the September issue of Small, a prestigious nanotechnology journal, features a method developed by UConn chemistry professor Steven Suib for the production of a nano-sized that will be used for energy conservation.

The issue, to be published next month, reports on basic science research into a new material that could be used as a in development.

The nanomaterial, developed using Suib’s method, is tiny - smaller by far than even the head of a pin - and consists of two materials, one a template and the other a material that can grow around it in a well-ordered array. The growth can be controlled and uses to drive reactions such as the splitting of water into hydrogen and oxygen.

Hollow rods of titanium oxide with the solid manganese oxide core removed. Photo provided by the College of Liberal Arts and Sciences

The material can be a component of paint or can be applied to a surface, and will be useful in solar applications, says Suib, head of the chemistry department in the College of Liberal Arts and Sciences. The material acts as a catalyst in a process chemists call photocatalysis, which is the acceleration of a photoreaction in the presence of a catalyst.

One of the amazing things about the work is its incredibly small size - 100 nanometers. “It’s very hard to make materials this size,” Suib says, “as small antennas come in and out of a surface that small.”

More information: The article was published online in May.

Provided by University of Connecticut

"Small Size -- Huge Potential." August 24th, 2010. http://phys.org/news201883844.html