Jamie Hestekin Source Confirmed

Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.

High Impact

Researcher

University of Arkansas at Fayetteville

faculty

22 h-index 121 pubs 1,468 cited

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Biography and Research Information

OverviewAI-generated summary

Jamie Hestekin's research centers on developing and investigating novel materials and processes for applications in energy, environmental remediation, and biomedical fields. Hestekin has published work on electrochemical biomass upgrading, specifically the degradation of glucose to lactic acid using a copper(II) electrode. Another area of focus involves the selective removal of metal ions from industrial wastewater using specialized electrodeionization techniques, examining the impact of resin chemistries on efficiency.

Hestekin's work also extends to bio-based materials and their applications. This includes research into modifying rubber seed shell biochar for effective phenol removal from aqueous environments. In the biomedical domain, Hestekin has contributed to the development of custom cardiovascular flow phantoms for research purposes and has investigated energy harvesting from human blood flow using reverse electrodialysis. Furthermore, Hestekin is involved in research on cell-derived extracellular matrix fiber scaffolds to improve tissue recovery and the development of high-flux polymeric membranes for renal applications.

Hestekin holds a Ph.D. and has an h-index of 22 with over 1,400 citations across 121 publications. Hestekin has received federal funding from the NSF for research related to cell-derived extracellular matrix biofiber engineering. Key collaborators include Christa N. Hestekin, Jeffrey C. Wolchok, Tai Huynh, and Jacob Schluns, all from the University of Arkansas at Fayetteville.

Metrics

  • h-index: 22
  • Publications: 121
  • Citations: 1,468

Selected Publications

  • Exploring Nanofiltration for Transport of Small Molecular Species for Application in Artificial Kidney Devices to Treat End-Stage Kidney Disease (2025) DOI
  • The high energetic potential of hydraulic fracturing wastewaters with both salinity and temperature gradients for electricity generation using a reverse electrodialysis stack (2024) DOI
  • The High Energetic Potential of Hydraulic Fracturing Wastewaters with Both Salinity and Temperature Gradients for Electricity Generation Using a Reverse Electrodialysis Stack (2024) DOI
  • Enhancing rubber (Hevea brasiliensis) seed shell biochar through acid-base modification for effective phenol removal from aqueous environments (2023) DOI
  • Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss (2023) DOI
  • High flux novel polymeric membrane for renal applications (2023) DOI
  • Transcriptome profiling of a synergistic volumetric muscle loss repair strategy (2023) DOI
  • Transcriptome profiling of a synergistic volumetric muscle loss repair strategy (2023) DOI
  • Development of an Integrated Salt Cartridge-Reverse Electrodialysis (Red) Device to Increase Electrolyte Concentrations to Biomedical Devices (2022) DOI
  • A Dialysate Free Portable Artificial Kidney Device (2022) DOI
  • Development of Custom Wall-Less Cardiovascular Flow Phantoms with Tissue-Mimicking Gel (2021) DOI
  • Salt screening analysis for reverse electrodialysis (2021) DOI
  • Blood driven biopower cells: Acquiring energy from reverse electrodialysis using sodium concentrations from the flow of human blood (2021) DOI
  • Effects of Resin Chemistries on the Selective Removal of Industrially Relevant Metal Ions Using Wafer-Enhanced Electrodeionization (2021) DOI

Federal Grants 1 $427,760 total

NSF Co-PI

Cell Derived Extracellular Matrix BIofiber Engineering

BIOMATERIALS PROGRAM $427,760

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