Jeffrey C. Wolchok Data-verified
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Biography and Research Information
OverviewAI-generated summary
Jeffrey C. Wolchok's research focuses on the biological mechanisms underlying tissue repair and regeneration, particularly in the context of skeletal muscle and traumatic brain injury. His work investigates strategies to enhance functional recovery following significant tissue damage. A key area of his investigation involves the use of cell-derived extracellular matrix (ECM) scaffolds, exploring how these biomaterials can promote tissue regeneration. He has also examined the role of specific biological agents, such as Interleukin-10 (IL-10), in modulating the immune response to facilitate muscle repair.
Wolchok's research extends to understanding the neurological consequences of injury. He has studied blood-brain barrier integrity and astrocyte reactivity following repeated traumatic brain injury, analyzing the associated molecular and cellular changes. His group employs advanced techniques, including transcriptome profiling, to identify key molecular pathways involved in injury and repair. Furthermore, Wolchok has received federal funding to support research infrastructure, including grants from the National Institutes of Health (NIH) and the National Science Foundation (NSF) for single-cell RNA sequencing instrumentation and biofiber engineering.
His scholarly contributions are reflected in a h-index of 16 and over 770 citations across 49 publications. Wolchok actively collaborates with researchers at the University of Arkansas at Fayetteville, including Tai Huynh, John Taehwan Kim, Tyrone A. Washington, and Jacob Schluns, with whom he has co-authored multiple publications. He also leads a research group and maintains an active laboratory website, indicating ongoing research activities.
Metrics
- h-index: 17
- Publications: 49
- Citations: 779
Selected Publications
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Aerobic Exercise Training Does Not Attenuate Fibrosis In Autologous Repaired Vml-injured Skeletal Muscle (2025)
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BOARD # 307: University of Arkansas Biomedical Engineering REU Site: Training in Emerging Biomedical Optics and Imaging Approaches (2025)
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Board 107: Work in Progress: Development of an Innovation Corps-Modeled Bioengineering Course to Promote Entrepreneurial Engagement among Undergraduate Students. (2024)
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<i>In vivo</i> measurement of NADH fluorescence lifetime in skeletal muscle via fiber-coupled time-correlated single photon counting (2023)
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Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss (2023)
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Transcriptome profiling of a synergistic volumetric muscle loss repair strategy (2023)
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Prescribing reduced physical activity following volumetric muscle loss not really a good idea (2023)
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Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury (2023)
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Transcriptome profiling of a synergistic volumetric muscle loss repair strategy (2023)
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Delivery of a tissue derived extracellular matrix gel modulates early fibro-adipogenic cell behavior and improves recovery following both acute and chronic atrophy muscle injury (2022)
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Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury (2022)
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Functional Analysis of the Cortical Transcriptome and Proteome Reveal Neurogenesis, Inflammation, and Cell Death after Repeated Traumatic Brain Injury <i>In vivo</i> (2022)
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Nandrolone supplementation does not improve functional recovery in an aged animal model of volumetric muscle loss injury (2022)
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Impact and Delivery of an Engineering Service Learning Course in a Remote Environment (2021)
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Blood–Brain Barrier Breakdown and Astrocyte Reactivity Evident in the Absence of Behavioral Changes after Repeated Traumatic Brain Injury (2021)
Federal Grants 3 $1,058,421 total
REU Site: Training in Emerging Biomedical Optics and Imaging Approaches
Collaboration Network
Top Collaborators
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
Showing 5 of 6 shared publications
- Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- <i>In vivo</i> measurement of NADH fluorescence lifetime in skeletal muscle via fiber-coupled time-correlated single photon counting
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- The effect of autologous repair and voluntary wheel running on force recovery in a rat model of volumetric muscle loss
- Nandrolone supplementation does not improve functional recovery in an aged animal model of volumetric muscle loss injury
- Prescribing reduced physical activity following volumetric muscle loss not really a good idea
- Nandrolone supplementation does not improve functional recovery in an aged animal model of volumetric muscle loss injury
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Nandrolone supplementation does not improve functional recovery in an aged animal model of volumetric muscle loss injury
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Cell-Derived Extracellular Matrix Fiber Scaffolds Improve Recovery from Volumetric Muscle Loss
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- The effect of autologous repair and voluntary wheel running on force recovery in a rat model of volumetric muscle loss
- Nandrolone supplementation does not improve functional recovery in an aged animal model of volumetric muscle loss injury
- The effect of autologous repair and voluntary wheel running on force recovery in a rat model of volumetric muscle loss
- Nandrolone supplementation does not improve functional recovery in an aged animal model of volumetric muscle loss injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Local IL-10 delivery modulates the immune response and enhances repair of volumetric muscle loss muscle injury
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
- Transcriptome profiling of a synergistic volumetric muscle loss repair strategy
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