Skip to main content
Argonne National Laboratory


Argonne Impacts State by State

Argonne’s collaborations in Louisiana and across the United States have led to groundbreaking discoveries and development of new technologies that help meet the nation’s needs for sustainable energy, economic prosperity, and security.

LSU, Argonne scientists partner to develop energy-efficient desalination process 

Argonne’s breakthrough manufacturing technology, resin wafer electrodeionization, promises an energy-efficient, more economical approach to water desalination. (Image by Lauren Valentino and Ellen Weiss, Argonne National Laboratory.)

As the planet’s supply of fresh, clean water becomes scarcer, developing cost-effective desalination techniques — removing salts and other minerals from saltwater — becomes critical. A team of researchers from Louisiana State University in Baton Rouge and the U.S. Department of Energy’s (DOE) Argonne National Laboratory collaborated to test an innovative material that improves the desalination rate by 25 percent and reduces energy use by 10 percent. 

The breakthrough occurred by improving on Argonne’s existing technology, resin wafer electrodeionization (RW-EDI), through the use of a new resin wafer binder material. During the collaboration, scientists substituted one ionomer adhesive for another, immobilizing the ion-exchange particles into porous beds. The new material binder increased the resin wafer conductivity by three times and allows for better ion exchange. 

Because conventional EDI desalination methods are costly and complicated and deliver inconsistent results, they are limited to commercial applications where ultrapure water is needed, such as in the semiconductor and pharmaceutical industries. RW-EDI provides a low-energy, economically viable approach to water desalination as well as to chemical purification and recovery.  

Argonne hosts, mentors graduate students in DOE select program

LSU graduate student Matthew Jordan (far right), pictured with colleagues at Argonne National Laboratory, is one of 12 doctoral candidates chosen for the DOEs elite Office of Science Graduate Student Research Program. (Image by Argonne National Laboratory.)

The U.S. Department of Energy’s (DOE) Office of Science Graduate Student Research Program gives doctoral candidates the opportunity to develop their thesis and conduct hands-on scientific research across the national laboratory system. 

As part of the annual program, 62 graduate students were chosen to conduct their doctoral thesis research at one of the nation’s research laboratories. Argonne will host 12 of those students. This select group will benefit from mentoring and other resources from Argonne scientists.  

Matthew Jordan, a graduate student from LSU, is enrolled in Argonne’s program. His mentor is YuPo Lin, a chemical and electrochemical engineer who holds numerous U.S. and international patents related to the manufacture and application of resin-wafer electrodeionization. Jordan’s thesis title is Tuning Electrostatic Interactions for Selective Electrochemical Separations.” 

The research program provides students with high-level mentorship, technology and resources while preparing them for STEM careers at national laboratories. 

LSU-Drexel-Argonne team discovers an alloy with near-infrared application

The recent discovery of a gold–palladium alloy could benefit the military in such applications as missile defense systems and night vision goggles. (Image by Shutterstock/Markohanzekovic.)

Researchers from LSU, Argonne and Drexel University (Philadelphia) have discovered an alloy consisting of gold and palladium that offers potentially significant benefits for infrared detection used by the military.  

The team sought to identify a material that can generate hot carriers — that is, holes or electrons that become energized in a strong electric field — in the presence of near-infrared light. Because near-infrared light is invisible to the human eye, the military uses it during reconnaissance missions and for missile defense systems and night vision goggles.  

Scientists found that palladium can generate a large amount of hot carriers when illuminated with near-infrared light, but they decay rapidly. Alloying palladium with gold extends the lifetime of the hot carriers. The gold–palladium alloy excels in the ultrafast detection of near-infrared light. 

During the four-year project, the team used the ultrafast infrared spectroscopy tools at Argonne’s Center for Nanoscale Materials user facility, one of the DOE’s five Nanoscale Science Research Centers.