Xinwei Wang

Professor

Iowa State University

United States

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Professor Xinwei Wang is a faculty member at Iowa State University, United States. His research focuses on thermal resistance, transient energy transport, and thermal properties of nanostructures, as evidenced by his recent articles on topics such as thermal conductivity, phonon energy coupling, and electro-thermal measurement techniques.

Articles (20)

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2025

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2023

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2023

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2022

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2022

Collaborators (2)

Mahya Rahbar

Iowa State University

UNITED STATES

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Xin Zhang

UNITED STATES

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Xinwei Wang

Research Interests

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Articles (20)

Thermal Resistance of 1D Micron‐Wide Interface Under External Force Modulation

Development of complex-modeling with Fourier transform (CFT) for ultrafast simulation of transient energy transport

Direct Observation of Suppressed Optical–Acoustic Phonon Energy Coupling in Supported SWCNT at Cryogenic Temperatures

In-situ measurement of the thermophysical properties of cylindrical batteries under calibrated iso-flux condition

Structure Thermal Domain Size in μm-Thick Single Crystalline Sapphire Wafer Uncovered by Low-Momentum Phonon Scattering

Simultaneous measurement of thermal conductivity and interfacial thermal resistance of Sub-10 nm SWCNT bundle via Raman-probing of distinct energy transport states

Transient electro-thermal technique for measuring the thermal diffusivity/conductivity of 1D/2D materials: from mm down to atomic scale thickness

Ballistic transport enhanced heat convection at nanoscale hotspots

Distinguishing optical and acoustic phonon temperatures of supported 2D materials by nanosecond time-resolved Raman scattering

Thermal diffusivity characterization of semiconductive 1D micro/nanoscale structures

3D strongly anisotropic intrinsic thermal conductivity of polypropylene separator

Function Graded Carbon Micro‐Structures for Powerless Photon Sensing with Intriguing µm‐Scale Position Sensitivity

Thermal conductivity of carbon-based nanomaterials: Deep understanding of the structural effects

Temperature dependence of resistivity of carbon micro/nanostructures: Microscale spatial distribution with mixed metallic and semiconductive behaviors

Perspectives on Energy Transport at the Micro/Nanoscale

Development of differential thermal resistance method for thermal conductivity measurement down to microscale

Thickness-Dependent Raman Scattering from Thin-Film Systems

Ultra-high thermal sensitivity of graphene microfiber

Determination of a Raman shift laser power coefficient based on cross correlation

Cover Feature: Laser Photoreduction of Graphene Aerogel Microfibers: Dynamic Electrical and Thermal Behaviors (ChemPhysChem 23/2022)

Collaborators (2)

Mahya Rahbar

Xin Zhang

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