AUSTIN, Texas — With two $15 million grants, scientists and engineers aim to revolutionize solar cells and provide the fundamental science for geological storage of greenhouse gases as part of two Energy Frontier Research Centers (EFRCs) established at The University of Texas at Austin by the U.S. Department of Energy (DOE).

The White House announced the creation of 46 new EFRCs nationally in conjunction with a speech delivered by President Barack Obama at the annual meeting of the National Academy of Sciences.

One of the university's EFRCs, led by Paul Barbara, will focus on better understanding the molecular processes that underpin innovative nanomaterials that may be used in solar energy and batteries. The center, titled "Understanding Charge Separation and Transfer at Interfaces in Energy Materials and Devices," is one of 16 EFRCs to be funded by President Obama's American Recovery and Reinvestment Act. DOE plans to fund the EFRC at $15 million for a five-year period.

"The current pace of industrial research and development for solar energy and battery technologies is not fast enough to address society's energy needs, which are growing more critical every day," said Barbara, holder of the Richard J. V. Johnson Welch Regents Chair in Chemistry and director of the Center for Nano and Molecular Science and Technology. "The EFRC will allow us to develop completely new paradigms that address key fundamental scientific roadblocks to achieving U.S. energy security, and will also promote education and technology transfer in alternative energy."

Barbara's team will be composed of 18 faculty members from the College of Natural Sciences and the Cockrell School of Engineering. They will work in partnership with Sandia National Laboratories and the University of Montreal.

The university's second EFRC grant will fund the Center for Frontiers of Subsurface Energy Security, led by Gary Pope, holder of the Texaco Centennial Chair in Petroleum and Geosystems Engineering. DOE plans to fund this EFRC at $15.5 million over a five-year period in partnership with Sandia National Laboratory.

The goal of the center is to explain the movement or transport of carbon dioxide and other greenhouse gases in geological systems.

"Developing long-term solutions for our national energy security requires significant advances in understanding geological systems where we can lock away the byproducts of energy consumption, such as carbon dioxide," said Pope. "The long-term benefits from this improved understanding will extend far beyond the current focus on the storage of greenhouse gases to understanding the stability of geological systems and materials that are far from equilibrium for long periods of time—a Grand Challenge problem."

The interdisciplinary team in the Cockrell School of Engineering and the Jackson School of Geosciences at the university and the Engineering Sciences Center at Sandia National Laboratory combines expertise in basin analysis, reservoir engineering and fine-scale geophysical and geochemical modeling. Art Ratzel, director of the Engineering Sciences Center at Sandia, and Mary Wheeler, holder of the Ernest and Virginia Cockrell Chair in Engineering at the university, are associate directors of the new center.

This represents the strongest geotechnical team ever assembled to work together within such a center, according to Pope.

"As global energy demand grows over this century, there is an urgent need to reduce our dependence on fossil fuels and imported oil and curtail greenhouse gas emissions," said U.S. Secretary of Energy Steven Chu. "Meeting this challenge will require significant scientific advances. These centers will mobilize the enormous talents and skills of our nation's scientific workforce in pursuit of the breakthroughs that are essential to make alternative and renewable energy truly viable as large-scale replacements for fossil fuels."

More information on the EFRCs can be found on the DOE's Web site.

Magazine

Texas Engineer Luz Vargas

Luz in Translation
Read in Texas Engineer

YouTube

Cockrell Class Feature: Real-world Environmental Engineering in Urban Stormwater
Watch Video

Linkedin

first thread by @cockrellschool

Cockrell Celebrates National Video Game Day
FOLLOW COCKRELL SCHOOL OF ENGINEERING

More News

View All News

A graphic of molecules like the ones Texas Engineers used to encode a password

Unlock Your Computer with a Password-encoded Molecule

Researchers from The University of Texas at Austin have developed an alternative method to encode information in synthetic molecules, which they used to encode and then decode an 11-character password to unlock a computer.

Texas Engineer Shwetadwip Chowdhury

3D Imaging is Moving on Up with Newly Developed Method

Texas Engineers developed an innovative new technique that allows accurate space and time reconstruction of optically scattering samples, even when they're moving.

Promo image of a sunset and powerlines for Texas Engineer Michael Webber's PBS documentary Thirst for Power.

'Thirst for Power' Documentary Explores Interconnection of Water and Energy

A new documentary film, “Thirst for Power”, explores our dependence on water for energy and the hidden vulnerabilities in our modern, water-dependent energy systems.

Texas Engineering student works on a ROKiT house

Engineering Affordable Housing

Over the next year, several researchers from the Cockrell School of Engineering will perform hands-on housing research using units donated by ROKiT Homes.

An illustration of the nano channels Texas Engineers developed for rare earth element extraction

Rare Earth Element Extraction Bolstered by New Research

A more efficient and environmentally friendly approach to extracting rare earth elements that power everything from electric vehicle batteries to smartphones could increase domestic supply and decrease reliance on costly imports.

Texas Engineers Zarko Sakotic, Dan Wasserman and Noah Mansfield in the lab.

Tricking Light with Metaplasmonic Films

Texas Engineers have demonstrated a technique to trick light into behaving as if it was interacting with atomically thin metal films, setting the stage for the design and development of next-generation optoelectronic devices.

Viewpoints