Xiaodi Zhou
Materials Science · The Ohio State University
Publications
27
Citations
1,728
Est. group size
~1
Recurring co-author estimate
Active years
8
Publishing since 2018
Xiaodi Zhou's research focuses on designing nanoscale materials—including metal single atoms, high-entropy nanoalloys, magnetic nanoparticles, and hierarchical carbon/ceramic composites—that absorb or manipulate electromagnetic waves. This work is aimed at applications such as electromagnetic wave absorption for shielding or stealth, flexible electronic devices, and materials that respond to high-frequency signals through engineered magnetic and dielectric properties.
Publication output has grown substantially over the last decade, rising from little to no output before 2021 to a steady pace of roughly 5-7 papers per year since 2023.
Generated by claude-sonnet-5 from public bibliographic data · Jul 20, 2026
- Programmable Electromagnetic Wave Absorption via Tailored Metal Single Atom‐Support Interactions
Advanced Materials · 2025
- Engineering Structural Anisotropy for Visualizing and Controlling Nanomagnetic Interactions with High‐Frequency Electromagnetic Wave
Advanced Functional Materials · 2025
- High-entropy nanoalloys anchored on entropy-compensating two-dimensional oxides for enhanced nanomagnetism
Science Advances · 2025
- Dimensionally Confined Growth in Nanometer‐Sized Hierarchical Heterostructures: Nanoscale Visualization of Enhanced Magnetic and Electric Interactions
Advanced Functional Materials · 2025
- A Flexible, Integrable Electromagnetic Transistor Via Dynamically Tailored Single Atom-Support Interactions
SSRN Electronic Journal · 2025
- Dispersing Magnetic Nanoparticles into Staggered, Porous Nano‐Frameworks: Weaving and Visualizing Nanoscale Magnetic Flux Lines for Enhanced Electromagnetic Absorption
Advanced Functional Materials · 2024
- Atomic‐Level Electric Polarization in Entropy‐Driven Perovskites for Boosting Dielectric Response
Advanced Materials · 2024
- Epitaxial Growth of Hierarchical Cu <sub>x</sub> S Heterostructures for Broadband Dielectric Response
Advanced Functional Materials · 2024
- Research on visual sensitivity characteristics of amorphous silicon photocells
Optoelectronics Letters · 2024
- A Buck DC-DC Achieving High Efficiency in an Ultra-wide-load Range from 0.001 to 2A
2024
- Multi-interfacial 1D magnetic ferrite@C fibers for broadband microwave absorption
Materials Today Physics · 2023
- Hierarchical Flower-like Sulfides with Increased Entropy for Electromagnetic Wave Absorption
ACS Applied Materials & Interfaces · 2023
- Highly Selective Nano‐Interface Engineering in Multishelled Nanocubes for Enhanced Broadband Electromagnetic Attenuation
Advanced Functional Materials · 2023
- 3D porous PVDF foam anchored with ultra-low content of graphene and Ni nanochains towards wideband electromagnetic waves absorption
Carbon · 2023
- Exploration of Illicit Drug Detection Based on Goos–Hänchen Shift
Photonics · 2023
- Advanced Functional Materials×5
- Journal of Material Science and Technology×3
- Nature Communications×2
- Carbon×2
- Advanced Materials×2
- Hualiang Lv
Materials Science · The Ohio State University
- Fan Wu
Materials Science · Purdue University West Lafayette
- Aishwarya V. Menon
Materials Science · Purdue University West Lafayette
- Zicheng Wang
Materials Science · Purdue University West Lafayette
- Yang Guo
Materials Science · The Ohio State University
This profile was generated automatically from public scholarly data (OpenAlex). Group size and activity levels are estimates derived from co-authorship patterns.
Last updated Jul 19, 2026.
Claim or correct this profile