The Hampton-Brandeis partnership was formalized in a 2013 Memorandum of Understanding and was initially supported financially by MRSEC funds. Key elements of the original partnership were the participation of 22 Hampton students in the Brandeis MRSEC Summer Research Experience for Undergraduates (REU) and a Brandeis MRSEC Education Post-Doctoral Fellow who mentored and supervised the Hampton students during their summer experience at Brandeis and provided continued assistance during the academic year. The two universities have expanded this partnership to include reciprocal research exchange in the areas of photoresponsive materials, opto-active materials, and opto- electronic materials with applications in bio-photonics.

The Hampton-Brandeis PREM aims to strengthen collaborative research & education between these two institutions and to increase recruitment, retention, and graduation rates of minority students within the PREM Pathway.

Specific components of the PREM Pathway include:

  1. collaborative research in photoresponsive materials, opto-active materials, and opto-electronic materials,

  2. an educational program for undergraduate students that improves current recruitment, retention and graduation rates and leads to a newly developed multi-disciplinary minor in Material Science & Engineering,

  3. an innovative postdoctoral fellowship training program to prepare faculty for academic careers at HBCUs and other Universities and

  4. outreach partnerships that increase the participation and exposure of Hampton Roads K-12 students in materials science and related fields.

Thrust 1

Photo-Responsive Materials

This research collaboration between Hampton University Departments of Chemistry, Physics, and Electrical and Computer Engineering seeks to explore whether new photo-responsive / photo-switchable metallohydrogel materials can be designed and synthesized using arylazopyrazole-based ligands.
Thrust 2

Opto-Active Polymeric Biocomposite Materials

This research studies whether polymeric biocomposites can serve as tissue surrogates for a diverse range of tissue types and produce stimuli-responsive optical emissions. The goal is to produce opto-active polymeric biocomposites that are mechanically versatile, optically clear, biologically active, and stimuli responsive (opto-active).
Thrust 3

Opto-Electronic Materials

The expertise and strengths of Hampton University faculty in the Departments of Physics and Electrical and Computer Engineering are applied to investigate whether silicon and / or III-V materials along with mixed halide perovskites materials can serve as a optofluidic platform for photo-responsive and opto-active material-based response systems.

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