James M. Mangum
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Biography and Research Information
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James M. Mangum is a computational condensed matter physicist at the University of Arkansas at Fayetteville. His research focuses on freestanding graphene, particularly its solar properties and applications in small-scale energy harvesting. Mangum investigates the use of graphene ripples and variable capacitors for vibration-based energy generation and solar power systems. His work also explores graphene as a heat engine and its potential for low-level kinetic-energy-powered sensing systems. Mangum has co-authored 13 publications, with a total of 58 citations and an h-index of 4. He has collaborated extensively with colleagues at the University of Arkansas, including P. M. Thibado, Teguh Satria Amin, Syed M. Rahman, and Mehdi Kabir.
Metrics
- h-index: 4
- Publications: 14
- Citations: 59
Selected Publications
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Arbitrarily Large Area Graphene Suspension with Ultralow Standoff for Varying Capacitance Applications (2026)
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Charging capacitors using diodes at different temperatures. II. Numerical studies (2025)
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Charging capacitors using diodes at different temperatures. I. Theory (2025)
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Array of mini-graphene-silicon solar cells intermittently recharges storage capacitors powering a temperature sensor (2025)
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Spectrum Analysis of Thermally Driven Curvature Inversion in Strained Graphene Ripples for Energy Conversion Applications via Molecular Dynamics (2025)
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Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity (2025)
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Low-Level Kinetic-Energy-Powered Temperature Sensing System (2025)
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Array of Graphene Solar Cells on 100 mm Silicon Wafers for Power Systems (2024)
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Freestanding graphene heat engine analyzed using stochastic thermodynamics (2023)
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Array of Graphene Variable Capacitors on 100 mm Silicon Wafers for Vibration-Based Applications (2022)
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Mechanisms of Spontaneous Curvature Inversion in Compressed Graphene Ripples for Energy Harvesting Applications via Molecular Dynamics Simulations (2021)
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Efficient circuit design for low power energy harvesting (2020)
Collaboration Network
Top Collaborators
- Mechanisms of Spontaneous Curvature Inversion in Compressed Graphene Ripples for Energy Harvesting Applications via Molecular Dynamics Simulations
- Efficient circuit design for low power energy harvesting
- Array of Graphene Variable Capacitors on 100 mm Silicon Wafers for Vibration-Based Applications
- Freestanding graphene heat engine analyzed using stochastic thermodynamics
- Spectrum Analysis of Thermally Driven Curvature Inversion in Strained Graphene Ripples for Energy Conversion Applications via Molecular Dynamics
Showing 5 of 10 shared publications
- Freestanding graphene heat engine analyzed using stochastic thermodynamics
- Spectrum Analysis of Thermally Driven Curvature Inversion in Strained Graphene Ripples for Energy Conversion Applications via Molecular Dynamics
- Array of Graphene Solar Cells on 100 mm Silicon Wafers for Power Systems
- Low-Level Kinetic-Energy-Powered Temperature Sensing System
- Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity
- Spectrum Analysis of Thermally Driven Curvature Inversion in Strained Graphene Ripples for Energy Conversion Applications via Molecular Dynamics
- Array of Graphene Solar Cells on 100 mm Silicon Wafers for Power Systems
- Low-Level Kinetic-Energy-Powered Temperature Sensing System
- Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity
- Array of mini-graphene-silicon solar cells intermittently recharges storage capacitors powering a temperature sensor
- Spectrum Analysis of Thermally Driven Curvature Inversion in Strained Graphene Ripples for Energy Conversion Applications via Molecular Dynamics
- Array of Graphene Solar Cells on 100 mm Silicon Wafers for Power Systems
- Low-Level Kinetic-Energy-Powered Temperature Sensing System
- Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity
- Array of mini-graphene-silicon solar cells intermittently recharges storage capacitors powering a temperature sensor
- Spectrum Analysis of Thermally Driven Curvature Inversion in Strained Graphene Ripples for Energy Conversion Applications via Molecular Dynamics
- Array of Graphene Solar Cells on 100 mm Silicon Wafers for Power Systems
- Low-Level Kinetic-Energy-Powered Temperature Sensing System
- Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity
- Array of mini-graphene-silicon solar cells intermittently recharges storage capacitors powering a temperature sensor
- Mechanisms of Spontaneous Curvature Inversion in Compressed Graphene Ripples for Energy Harvesting Applications via Molecular Dynamics Simulations
- Efficient circuit design for low power energy harvesting
- Array of Graphene Variable Capacitors on 100 mm Silicon Wafers for Vibration-Based Applications
- Freestanding graphene heat engine analyzed using stochastic thermodynamics
- Mechanisms of Spontaneous Curvature Inversion in Compressed Graphene Ripples for Energy Harvesting Applications via Molecular Dynamics Simulations
- Efficient circuit design for low power energy harvesting
- Array of Graphene Variable Capacitors on 100 mm Silicon Wafers for Vibration-Based Applications
- Freestanding graphene heat engine analyzed using stochastic thermodynamics
- Freestanding graphene heat engine analyzed using stochastic thermodynamics
- Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity
- Charging capacitors using diodes at different temperatures. I. Theory
- Freestanding graphene heat engine analyzed using stochastic thermodynamics
- Transient Thermal Energy Harvesting at a Single Temperature Using Nonlinearity
- Low-Level Kinetic-Energy-Powered Temperature Sensing System
- Array of mini-graphene-silicon solar cells intermittently recharges storage capacitors powering a temperature sensor
- Low-Level Kinetic-Energy-Powered Temperature Sensing System
- Array of mini-graphene-silicon solar cells intermittently recharges storage capacitors powering a temperature sensor
- Charging capacitors using diodes at different temperatures. I. Theory
- Charging capacitors using diodes at different temperatures. II. Numerical studies
- Charging capacitors using diodes at different temperatures. I. Theory
- Charging capacitors using diodes at different temperatures. II. Numerical studies
- Efficient circuit design for low power energy harvesting
- Efficient circuit design for low power energy harvesting
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