Prof. Yongmin He | 2D Materials | Best Researcher Award
Prof. Yongmin He, Hunan University, China.
Prof. Yongmin He 🧪 is a leading researcher in electrocatalysis, atom-thin materials, and microelectrochemical devices. Currently a Yuelu Professor at Hunan University, he has held research fellowships at Nanyang Technological University, Singapore. With a citation index of 9461 📈 and publications in top-tier journals like Nature Materials and Advanced Materials, he pioneers innovations that advance clean energy ⚡ and nanoelectronics. His groundbreaking work bridges 2D materials and electrochemistry at the nanoscale 🔬.
Profile
🎓 Early Academic Pursuits
Professor Yongmin He began his academic journey with an unwavering interest in chemistry and materials science, ultimately securing esteemed research fellow positions at Nanyang Technological University (NTU), Singapore, from 2015 to 2021. His early training in both the School of Materials Science and Engineering and School of Electrical & Electronic Engineering at NTU equipped him with cross-disciplinary expertise vital to his future innovations. These foundational years served as the bedrock for his pioneering work in micro/nano electrochemical devices and 2D materials.
💼 Professional Endeavors
Since May 2021, Professor He has held the prestigious title of Yuelu Professor at the College of Chemistry and Chemical Engineering, Hunan University, China. His career has been marked by a seamless blend of academic excellence and research leadership. Through multiple national and provincial-level funded projects, he has consistently led cutting-edge initiatives focused on advancing electrocatalysis and water splitting technologies. He is also an active collaborator with global institutions and research leaders, reinforcing his role in the international scientific community.
🔬 Contributions and Research Focus On 2D Materials
Prof. He’s research spans across electrocatalysis, atom-thin materials, water splitting, electrochemical transistors, and amorphous structures. He is renowned for designing on-chip micro-electrochemical cells that allow real-time, in-situ analysis of catalytic processes—revolutionizing the understanding of water electrolysis. He has also achieved wafer-scale CVD growth of 2D TMDCs (MoS₂, MoSe₂, WSe₂), crucial for next-gen electronics including high-performance transistors and memory devices. His work represents a harmonious blend of electrochemistry and nanotechnology and propels forward the practical application of 2D materials.
🌍 Impact and Influence
Prof. He’s work has appeared in the world’s top-tier journals, including Nature Materials, Nature Catalysis, Nature Synthesis, Nature Communications, Advanced Materials, Nano Letters, and ACS Nano. With a citation index of 9,461, his research has profoundly influenced the fields of materials science and electrochemistry. He is considered a leader in applying fundamental materials chemistry to address modern energy and electronic challenges, setting benchmarks in atom-thin device fabrication and micro-electrochemical innovation.
🧠 Research Skills
Prof. He possesses an exceptional skill set in:
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Design of micro/nano electrochemical systems
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Synthesis of 2D materials via CVD
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In-situ electrochemical analysis techniques
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Device integration for transistors and sensors
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Electrocatalyst development for water splitting
His technical command bridges experimental chemistry with device physics, empowering the next generation of flexible and energy-efficient technologies.
🏅 Awards and Honors
Prof. He has received multiple prestigious research grants, including:
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National Excellent Youth Fund (Overseas)
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Hunan Provincial Outstanding Youth Fund Project
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National Natural Science Foundation (Youth and General Projects)
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Guangdong Natural Science Foundation General Project
These recognitions are a testament to his trailblazing work in microelectrochemistry and atom-thin materials.
🏛️ Legacy and Future Contributions
Prof. Yongmin He’s contributions are not just contemporary accomplishments—they form the basis for sustainable energy innovations and next-gen electronics. By pushing the limits of electrochemical device miniaturization and atomically thin materials, he is set to redefine the roadmap for nanotechnology-enabled energy solutions. As a role model for emerging researchers and a beacon for interdisciplinary science, his legacy is already being cemented in academic and industrial ecosystems alike.
Publications Top Notes
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Freestanding Three-Dimensional Graphene/MnO₂ Composite Networks
📖 ACS Nano, 1570 citations, 2013
⚡ Ultralight & Flexible Supercapacitor Electrodes ⚙️ -
Defects Engineered Monolayer MoS₂ for Improved Hydrogen Evolution Reaction
📖 Nano Letters, 1259 citations, 2016
💧 Boosting Hydrogen Evolution via Defect Engineering 🔬 -
Liquid Phase Exfoliation of 2D Materials
📖 Nano Letters, 642 citations, 2015
🧪 Surface Tension-Based Exfoliation of 2D Sheets 🌫️ -
Two-Step Growth of WSe₂/MoSe₂ Heterostructures
📖 Nano Letters, 621 citations, 2015
🌐 Controlled Heterostructure Synthesis 🧱 -
Overview of Carbon Materials for Flexible Electrochemical Capacitors
📖 Nanoscale, 338 citations, 2013
🔋 Review on Carbon Materials for Supercapacitors 🧩 -
Surface Functionalization of Metal Chalcogenides by Lewis Acid–Base Chemistry
📖 Nature Nanotechnology, 266 citations, 2016
⚛️ Tuning 2D Surfaces with Chemical Precision 🧪 -
Chemical Vapor Deposition of Monolayer ReS₂
📖 Advanced Materials, 241 citations, 2015
🧬 CVD Techniques for Rhenium-Based 2D Materials 🔥 -
Engineering Grain Boundaries at 2D Limit for HER
📖 Nature Communications, 238 citations, 2020
🌊 Hydrogen Production via Grain Boundary Tuning ⚙️ -
Self-Gating in Semiconductor Electrocatalysis
📖 Nature Materials, 232 citations, 2019
🔌 Electrocatalysis with Built-In Charge Control ⚡ -
Photoelectrochemical Water Splitting of Hematite Nanowires
📖 Energy & Environmental Science, 227 citations, 2017
☀️ Nanowire Optimization for Solar Water Splitting 💧 -
Graphene-Coupled Oxide Nanoparticles for Mid-IR Photodetection
📖 Nature Communications, 224 citations, 2018
📸 Infrared Sensing with Graphene Hybrids 🌌 -
Review on Self-Powered UV Photodetectors
📖 Nanoscale, 224 citations, 2016
🌞 UV Detection Without External Power 🔦 -
Strong Coupling in WSe₂–MoSe₂ Heterobilayers Under Pressure
📖 Nature Physics, 213 citations, 2021
🧲 Strain & Coupling Effects in Heterobilayers 🧯 -
Amorphizing Noble Metal Chalcogenides for Hydrogen Production
📖 Nature Catalysis, 210 citations, 2022
⚗️ Single-Layer Catalyst Design for HER 🌡️ -
Optoelectronic Memory with 2D Materials
📖 Nano Letters, 209 citations, 2015
💡 2D Material-Based Memory Devices 🧠 -
Synthesis of mm-Scale TMDCs Single Crystals
📖 Advanced Functional Materials, 193 citations, 2016
🏗️ Large-Scale Crystal Growth Techniques 🧱