Keisha B. Walters
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Professor/Department Head
Also affiliated: Clemson University (2002–2007); University of Oklahoma (2016–2022); Mississippi State University (2006–2020)
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Keisha B. Walters' research program focuses on the synthesis, characterization, and application of polymers and nanomaterials. She directs the Polymer and Nano Engineering Lab at the University of Arkansas, where her work is supported by agencies including the NSF, DOE, DOD, and USGS, as well as industry collaborators. Her research spans fundamental and applied investigations, with a notable grant from NSF for developing low-order modeling methods for oscillating foil energy harvesting.
Walters has over 25 years of experience in the polymer field, transitioning from industry to academia. Her publication record includes studies on the catalytic pyrolysis of biomass and polymer wastes, surface modification of materials using silanes to bond chitosan to titanium, and the synthesis of polymer brushes on silicon substrates. She has also investigated the properties of mesoporous silica nanoparticles and the hydrolytic degradation of bio-based polyesters, as well as the chemical and microstructural characterization of mucin biopolymer transitions.
In addition to her research, Walters is committed to teaching and STEM outreach. She serves as Department Head and Professor in the Ralph E. Martin Department of Chemical Engineering at the University of Arkansas. Walters also contributes to the scientific community through her roles on the editorial boards for Scientific Reports and PNAS Nexus, and by serving on various technical and academic organization advisory boards. Her scholarly impact is reflected in her h-index of 23 and over 1,780 citations.
Metrics
- h-index: 24
- Publications: 106
- Citations: 1,854
Positions
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Professor/Department Head 2021–presentUniversity of Arkansas at Fayetteville Chemical Engineering ORCID
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Professor 2016–2021University of Oklahoma Chemical, Biological, and Materials Engineering ORCID
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Professor 2005–2016Mississippi State University Chemical Engineering ORCID
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Graduate Research Associate 1998–2005Clemson University Chemical Engineering ORCID
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Chemist 1996–1998Milliken & Company (United States) Research & Development ORCID
Selected Publications
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Magnetically recoverable nano-adsorbents for dual removal of organic dyes and heavy metals from aqueous media (2026)
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Valorization of Rice Bran for Functional Bioplastic Fabrication Using Plasma-Activated Water (2025)
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Improving Water‐Based Ink Adhesion on Commercial Polymers by Corona Treatment (2025)
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Novel electroactive polymer actuators using all-polyelectrolyte poly(ionic liquid) ionogels (2025)
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Aminated Phenolated Lignin for Effective Anionic Dye Removal for Water Remediation (2025)
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Synthesis and Characterization of Temperature- and pH-Responsive PIA-b-PNIPAM@Fe3O4 Nanocomposites (2025)
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Novel Electroactive Polymer Actuators Using All-Polyelectrolyte Poly(Ionic Liquid) Ionogels (2025)
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Synthesis and Characterization of Temperature and pH Responsive PIA-b-PNIPAM@Fe3O4 Nanocomposites (2025)
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Cellulose nanocrystal-based hydrogel microspheres prepared via electrohydrodynamic processes for controlled release of bioactive compounds (2025)
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Experimental and modeling approaches to determine drug diffusion coefficients in artificial mucus (2024)
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Hydrogen-peroxide intercalated expanded graphite facilitates large enhancement in thermal conductivity of polyetherimide/graphite nanocomposites (2024)
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Reactive Dye Wash-Off Processing of Cotton Fabrics Using Polymer Dye Transfer Inhibitors for Sustainable Dyeing (2024)
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Stimuli-Responsive Phosphate Hydrogel: A Study on Swelling Behavior, Mechanical Properties, and Application in Expansion Microscopy (2024)
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Microstructural Evaluation of the Effects of Aggregate Type, Aging, and Additives on the Moisture Susceptibility of Binder–Aggregate Systems Using Chemical and Thermodynamic Approaches (2024)
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Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyetherimide/Graphite Nanocomposites (2024)
Federal Grants 1 $159,940 total
Collaboration Network
Top Collaborators
- Chemically Edge-Carboxylated Graphene Enhances the Thermal Conductivity of Polyetherimide–Graphene Nanocomposites
- Influence of metal-coordinating comonomers on the coordination structure and binding in magnetic poly(ionic liquid)s
- Stimuli-Responsive Phosphate Hydrogel: A Study on Swelling Behavior, Mechanical Properties, and Application in Expansion Microscopy
- Cellulose nanocrystal-based hydrogel microspheres prepared via electrohydrodynamic processes for controlled release of bioactive compounds
- Solution and Film Self-Assembly Behavior of a Block Copolymer Composed of a Poly(ionic Liquid) and a Stimuli-Responsive Weak Polyelectrolyte
Showing 5 of 12 shared publications
- Chemically Edge-Carboxylated Graphene Enhances the Thermal Conductivity of Polyetherimide–Graphene Nanocomposites
- Stimuli-Responsive Phosphate Hydrogel: A Study on Swelling Behavior, Mechanical Properties, and Application in Expansion Microscopy
- Synthesis and Characterization of Temperature- and pH-Responsive PIA-b-PNIPAM@Fe3O4 Nanocomposites
- Reactive Dye Wash-Off Processing of Cotton Fabrics Using Polymer Dye Transfer Inhibitors for Sustainable Dyeing
- Hydrogen-peroxide intercalated expanded graphite facilitates large enhancement in thermal conductivity of polyetherimide/graphite nanocomposites
Showing 5 of 11 shared publications
- Stimuli-Responsive Phosphate Hydrogel: A Study on Swelling Behavior, Mechanical Properties, and Application in Expansion Microscopy
- Facile Synthesis of Tertiary Amine Pendant Polymers by Cu0-Mediated ATRP under Aqueous Conditions
- Synthesis of phosphate hydrogels with excellent swelling behavior prepared by ascorbic acid -mediated ARGET ATRP
- Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Investigating the Impact of Solid-Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
Showing 5 of 7 shared publications
- Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Investigating the Impact of Solid-Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Investigating the Impact of Solid-Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Cover Feature: Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes (ChemElectroChem 4/2022)
- Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Investigating the Impact of Solid-Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Investigating the Impact of Solid-Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Cover Feature: Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes (ChemElectroChem 4/2022)
- Chemically Edge-Carboxylated Graphene Enhances the Thermal Conductivity of Polyetherimide–Graphene Nanocomposites
- Hydrogen-peroxide intercalated expanded graphite facilitates large enhancement in thermal conductivity of polyetherimide/graphite nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyethermide/Graphite Nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyetherimide/Graphite Nanocomposites
- Chemically Edge-Carboxylated Graphene Enhances the Thermal Conductivity of Polyetherimide–Graphene Nanocomposites
- Hydrogen-peroxide intercalated expanded graphite facilitates large enhancement in thermal conductivity of polyetherimide/graphite nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyethermide/Graphite Nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyetherimide/Graphite Nanocomposites
- Experimental and modeling approaches to determine drug diffusion coefficients in artificial mucus
- Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Cover Feature: Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes (ChemElectroChem 4/2022)
- Hydrogen-peroxide intercalated expanded graphite facilitates large enhancement in thermal conductivity of polyetherimide/graphite nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyethermide/Graphite Nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyetherimide/Graphite Nanocomposites
- Synthesis and Characterization of Temperature- and pH-Responsive PIA-b-PNIPAM@Fe3O4 Nanocomposites
- Synthesis and Characterization of Temperature and pH Responsive PIA-b-PNIPAM@Fe3O4 Nanocomposites
- Magnetically recoverable nano-adsorbents for dual removal of organic dyes and heavy metals from aqueous media
- Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Cover Feature: Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes (ChemElectroChem 4/2022)
- Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes
- Cover Feature: Impact of the Solid‐Electrolyte Interface on Dendrite Formation: A Case Study Based on Zinc Metal Electrodes (ChemElectroChem 4/2022)
- Chemically Edge-Carboxylated Graphene Enhances the Thermal Conductivity of Polyetherimide–Graphene Nanocomposites
- Hydrogen-peroxide intercalated expanded graphite facilitates large enhancement in thermal conductivity of polyetherimide/graphite nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyethermide/Graphite Nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyetherimide/Graphite Nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyethermide/Graphite Nanocomposites
- Hydrogen-Peroxide Intercalated Expanded Graphite Facilitates Large Enhancement in Thermal Conductivity of Polyetherimide/Graphite Nanocomposites
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