Dorsa Parviz
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GWC 548 Tempe, AZ 85287-6106
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Mail code: 6106Campus: Tempe
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Dorsa Parviz is an Assistant Professor in Chemical Engineering at ASU. Prior to joining ASU, she worked as a postdoctoral researcher in Prof. Michael Strano's Lab at MIT, where she focused on surface engineering of nanomaterials and explored their interfacial and catalytic interactions, particularly in applications related to CO2 conversion and chemical and biosensing. She completed her Ph.D. at Texas A&M, where she conducted pioneering research in synthesizing and processing 2D nanomaterials in Prof. Micah Green's Lab, with a focus on their application in electrically conductive polymer composites. As a chemical engineer working at the intersection of nanotechnology and materials science, her research aims to understand and engineer nanoscale interfacial interactions to drive innovations in energy and environmental sustainability, as well as health solutions.
- Postdoc, Chemical Engineering, MIT
- Ph.D., Chemical Engineering, Texas A&M University
- M.S., Chemical Engineering (Catalysis & Thermokinetics), Sharif University of Technology
- B.S., Chemical Engineering, Amirkabir University of Technology
- Investigating and optimizing nanomaterial interfacial interactions
- Engineering biomimetic functional interfaces to drive carbon capture and conversion, harnessing photochemical and photoelectrochemical processes
- Designing nano-bio interfaces to enhance plant, soil, and biosensing capabilities
The Parviz Research Group employs a variety of computational and experimental techniques to understand interactions on nanoscale surfaces within various media, enabling the design and engineering of functional interfaces for applications in sustainability and health solutions. Our approach involves applying a range of microscopy, spectroscopy, and multiscale modeling tools to investigate nanomaterial interfacial interactions within colloidal dispersions, polymer matrices, and biological media.
Our focus extends to understanding and optimizing electron transfer through these interfaces, as well as exploring surface reactions with small molecules like CO2 and CH4, alongside biological compounds. Through controlled synthesis and post-synthesis processing, we engineer surface chemistry and morphology to achieve desired designs.
Specifically, our research is concentrated on investigating photochemical and photoelectrochemical interactions on synthetic interfaces of emerging semiconductors, as well as biohybrid interfaces involving these semiconductors, enzymes, and plant organelles. Our efforts in this research aim to pioneer novel designs for carbon capture and conversion, as well as the monitoring of carbon sequestration through biosensing, contributing to the realization of a circular carbon economy.
Courses
2025 Spring
Course Number | Course Title |
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MSE 792 | Research |
CHE 792 | Research |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
2024 Fall
Course Number | Course Title |
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CHE 792 | Research |
MSE 792 | Research |
CHE 494 | Special Topics |
CHE 598 | Special Topics |
2024 Summer
Course Number | Course Title |
---|---|
CHE 792 | Research |
2024 Spring
Course Number | Course Title |
---|---|
CHE 792 | Research |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
2023 Spring
Course Number | Course Title |
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CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |
CHE 231 | IntroTransport Phenom I:Fluids |