Novel materials aid technological advancements in a variety of fields

In the world of biomedicine, energy, optics, engineering, and dielectrics, materials are the building block for the incredible applications developed. However, when a new problem presents itself, scientists often do not have the materials equipped to solve the problem at hand. In the event that a material is not available, new materials need to be invented. Dr. Brian Benicewicz, Professor of Chemistry and SmartState Chair of Polymer Nanocomposites at the University of South Carolina, develops new materials with properties or combinations of properties that did not exist previously. In particular, he and his team make polymers that other scientists or industry is in need of, motivated by the applications that have the potential to “make life better.” Therefore, his research may have benefits for the growth of new energy technologies, biomedical applications, and more!

The materials created in Dr. Benicewicz’s lab are not the materials that researchers can easily “send away for in a cataloge.” Rather, his work provides personalized innovation for each problem that requires a completely new material with useful properties. In order to produce such individualized materials, he has developed strong collaboration with industrial partners and long-term academic collaborators. Through such close partnerships, his work continues to be guided by the needs of scientists working in the field ensuring that the impact of his research remains at the forefront. Furthermore, he and his team are able to create some of the most unique materials with properties that have never before been realized. When not geared towards a problem, Dr. Benicewicz’s research is still an important underlying foundation for the science of polymer synthesis. In short, whether solving completely new materials problems for the academic or industrial community or building on the underlying principles of polymer science, Dr. Benicewicz’s research is a cause that spans the entire spectrum of basic research to applied.

Current research includes:

  • Energy Applications: Dr. Benicewicz and his team are developing polymer membranes for fuel cells and other energy applications. Extending this research may help him and his team answer how to get energy from solar power. Past success in his lab has led to the development of commercial scale devices.

  • Polymer Nanotechnologies: Dr. Benicewicz is developing polymer nanotechnologies that focuses on the precise polymerization on nanoparticles. In so doing, he and his team have been able to solve a variety of problems with their novel materials. For instance, materials have already played a role in aiding specialists with anticancer or bacterial medicine.

  • Building a Toolbox: Much of Dr. Benicewicz research is reliant upon the needs of the community in regards to new materials. Therefore, he and his team continue to build their synthesis toolbox by spending time in labs that require fundamental knowledge in different disciplines. Funding Dr. Benicewicz work would help encourage his students to learn new skills and foster growth in new knowledge for the team.

Dr. Brian Benicewicz was always interested in the sciences. In fact, when reflecting back on his youth, he chuckled realizing that most of his memories before the fourth grade were “science experiments and nothing else.” He remembers fondly dissecting a calf’s heart, building a barometer, and playing with new instruments. Despite the lack of scientists in his own family, his parents and teachers were enthusiastic facilitators for his career in the sciences.

While a student at the University of Connecticut, Dr. Benicewicz became interested in polymer science specifically. One of his close friends had a strong interest in polymers, and Dr. Benicewicz fed off his excitement while he learned to make new things in chemistry. He especially appreciated that polymer science allowed him to use chemistry for many applications that formed a true bridge between fundamental and applied problems. To sum it all up, Dr. Benicewicz says, “I just love making new molecules!”

In addition to his research, Dr. Benicewicz takes his role as a mentor very seriously. It is his hope that students in his lab can be productive while learning a good set of skills to prepare them for futures in science. “All too often,” Dr. Benicewicz says, “people think that the major product is a paper when really it is the people.” With this in mind, he concentrates on the young scientists that make up his lab with the true belief that more papers makes less of a difference that contributing to their careers and livelihoods.

Aside from research, in his free time, Dr. Benicewicz enjoys long distance cycling and enjoying the fresh, beautiful world that surrounds him.

Website: http://www.benicewiczgroup.com/

Elected Fellow, American Association for the Advancement of Science, 2011

Appointed USC Educational Foundation Distinguished Professor, 2008

Awarded Mettler-Toledo Thermal Analysis Education Award, 2001

Awarded NASA Technology Program Award, 1998

Awarded Los Alamos National Laboratory Distinguished Patent Award, 1997

Nanoparticles with Multiple Attached Polymer Assemblies and Use Thereof in Polymer Composites

Nanoparticles with Multiple Attached Polymer Assemblies and Use Thereof in Polymer Composites. Benicewicz, B.C., Rungta, A.; Viswanath, A.; Schadler-Fiest, L.S.; Dukes, D. U.S. Patent 8,865,796. October 21, 2014.

Self-Healing Electrical Insulation

Self-Healing Electrical Insulation. Nelson, J.K.; Benicewicz, B.; Rungta, A.; Schadler, L.S. U.S. Patent 8,796,372. August 5, 2014.

Proton Conducting Membrane and Its Use

Proton Conducting Membrane and Its Use. Calundann, G.; Benicewicz, B.; Baurmeister, J. U.S. Patent 8,716,356. May 6, 2014

Nanofilled Polymeric Nanocomposites with Tunable Index of Refraction

Nanofilled Polymeric Nanocomposites with Tunable Index of Refraction. Tao, P.; Li, Y.; Benicewicz, B.; Siegel, R.W.; Schadler, L.S.; Viswanath, A. U.S. Patent 8,518,473. August 27, 2013.