NanoSURE (NSF-REU) at UNC Charlotte
NanoSURE (NSF-REU) at UNC Charlotte
National Science Foundation (NSF) Research Experience for Undergraduates (REU)
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Prof. Michael G. Walter
REU Program Director
Department of Chemistry
UNC Charlotte
9201 University City Boulevard
Charlotte, NC 28223

704-687-8291
Michael.Walter@uncc.edu

Project Descriptions

  • Project 1 – Structure and Function of Copper Proteins
  • Project 2 – Fluorescent Sensors for Photoinduced Electron Transfer
  • Project 3 – Light-Activated Multifunctional Silica-Based Nanoparticles for Therapeutic Applications
  • Project 4 – Light Effect Transistors (LETs) in Photonic Integrated Circuits
  • Project 5 – Computational design of materials for harnessing heat as a renewable energy resource
  • Project 6 – Silicon pincer complexes for organic electronic applications
  • Project 7 – Synthesis, Growth Mechanism Study, and Property Measurement of Metalloid Tellurium Nanostructures
  • Project 8 – Dynamic Assembly of Electroactive Organometallic Polymers
  • Project 9 – Dynamic RNA Nanoparticles and Reconfigurable Nanoassemblies with Controllable Immunological Properties
  • Project 10 – Reconfigurable RNA-based Supra-assemblies

Links

  • Dept of Chemistry
  • UNC Charlotte
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Funding provided by NSF-REU program through NSF Award DMR-2150172

Project 5 – Computational design of materials for harnessing heat as a renewable energy resource

December 02, 2022 by Tom Schmedake
Categories: Updates

The purpose of this project is to computationally design nanomaterials to control the flow of light and heat for energy applications.

Research Mentors

Jay Foley (CHEM) – Link to Foley Group Website 

Description

Designing materials on the nanoscale can have a profound impact on how optical energy flows through those materials, which can in turn dramatically improve the performance of nanostructured materials for energy-related applications including solar and (solar)thermophotovoltaic energy conversion, radiative cooling, incandescent lighting, among others. Multilayer nanostructures represent an important class of materials with tunable optical and thermal radiative properties that can be leveraged for a wide range of energy applications. We have developed an open-source software package called WPTherml that couples rigorous electrodynamics computations to thermal radiation equations and aims to provide a powerful computational design engine for multilayer nanostructures for applications where control of optical and/or thermal radiation properties are paramount. This software tool will be used to explore novel energy applications, and to design materials that can advance those applications.

Figure 1. Reshaping the solar spectrum with spectrally-selective thermal emitters

REU Student’s Role

The students in the Foley lab will learn how to build models of nanostructured materials in the WPTherml platform, and how to use the package to quantitatively assess and optimize the performance of materials for energy applications such as passive radiative cooling. Students will also gain hands-on experience developing software in the Python programming language to add new features and capabilities to this package.

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