Tarek Ragab Data-verified
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Biography and Research Information
OverviewAI-generated summary
Tarek Ragab's research investigates the fundamental properties and interactions of materials at the nanoscale. His work includes studies on the influence of particle size and polymer chain length on the thermal conductivity of composite materials, as well as atomistic-level investigations of interfacial shear strength and the stick-slip mechanism in layered materials. Ragab also explores the mechanical properties of nanostructures, such as the effect of grain number on the tensile properties of polycrystalline nickel nanowires. His research further extends to numerical modeling of interactions between particles and rough surfaces, considering Van der Waals forces and asperity distributions. Ragab's scholarly contributions are reflected in his h-index of 16 and a total of 42 publications, which have garnered 697 citations.
Metrics
- h-index: 16
- Publications: 43
- Citations: 700
Selected Publications
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Surface Effects in Irradiation Damage: A Review of Underlying Multi-Scale Mechanisms and Cross-System Behaviors (2026)
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An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism (2024)
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Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite (2023)
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Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions (2023)
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Effect of grain number on the uniaxial tensile properties of polycrystalline nickel nanowires (2021)
Collaboration Network
Top Collaborators
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions
- Effect of grain number on the uniaxial tensile properties of polycrystalline nickel nanowires
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions
- Effect of grain number on the uniaxial tensile properties of polycrystalline nickel nanowires
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- Effect of grain number on the uniaxial tensile properties of polycrystalline nickel nanowires
- Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
- Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions
- Numerical modeling of Van der Waals interaction between a spherical particle and rough surfaces with different planar asperity distributions
- Effect of graphene nanoplatelets relative size and polyethylene chain length on the enhancement of thermal conductivity of their composite
- An Atomistic Level Investigation of the PFDTES–Graphene Interfacial Shear Strength and the Stick–Slip Mechanism
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