James J. Abbas
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Professor
Also affiliated: University of Kentucky (1997–2012); University of America (1995); Iowa State University (2003); Northern Arizona University (2003); Good Samaritan Medical Center (2007–2008); Cleveland FES Center (1991–2003); Banner - University Medical Center Phoenix (2008); Shriners Hospitals for Children - Philadelphia (1988–2005); Innovative Research (United States) (2024–2026); Arizona State University (2003–2022); Case Western Reserve University (1987–2005); Catholic University of America (1995)
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
James J. Abbas's research focuses on the development and evaluation of neurostimulation techniques for various applications, including sensory feedback, neural block, and rehabilitation. He has investigated how different stimulation parameters, such as pulse charge and burst period, can elicit distinct referred sensations, contributing to the understanding of neural encoding.
His work includes the development of novel platforms for haptic feedback in virtual environments, aiming to enhance sensory integration for users interacting with virtual objects. Abbas also studies the application of wearable robots in military medical rehabilitation and force protection. His federally funded projects, totaling over $773,000 from NIH/NIBIB, focus on enhancing sensorimotor integration using neural prosthetic hand systems and improving the selectivity of bioelectronic interfaces with intrafascicular stimulation.
With a h-index of 23 and over 1,778 citations across 123 publications, Abbas is recognized as a highly cited researcher. His collaborations include work with Ranu Jung, Andres E. Pena, Arianna Ortega Sanabria, and Anil K. Thota, all at the University of Arkansas at Fayetteville.
Metrics
- h-index: 24
- Publications: 123
- Citations: 1,791
Selected Publications
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Single-site non-invasive peripheral nerve stimulation with multidimensional encoding enables object differentiation using a myoelectric prosthetic hand (2026)
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Selective Activation of Nerve Fiber Subpopulations with Intrafascicular Stimulation (2026)
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Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy (2025)
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Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes (2025)
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Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy (2024)
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Simultaneous modulation of pulse charge and burst period elicits two differentiable referred sensations (2024)
Federal Grants 2 $773,526 total
Enhancing Sensorimotor Integration Using a Neural Enabled Prosthetic Hand System
CRCNS: Improving Bioelectronic Selectivity with Intrafascicular Stimulation
Collaboration Network
Top Collaborators
- Simultaneous modulation of pulse charge and burst period elicits two differentiable referred sensations
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Simultaneous modulation of pulse charge and burst period elicits two differentiable referred sensations
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Simultaneous modulation of pulse charge and burst period elicits two differentiable referred sensations
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Simultaneous modulation of pulse charge and burst period elicits two differentiable referred sensations
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Enhancing Two-Dimensional Control via Single-Channel Haptic Feedback: A Multi-dimensional Encoding Strategy
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
- Fascicle-selective kilohertz-frequency neural conduction block with longitudinal intrafascicular electrodes
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