Kang Lu
Postdoc
Also affiliated: Zhejiang Chinese Medical University (2023–2024); University of Denver (2019–2023); The University of Texas MD Anderson Cancer Center (2005); University of Indianapolis (2018); Anhui University (2020); Xi'an University of Architecture and Technology (2016); Southern University of Science and Technology (2026); Zhejiang Shuren University (2013); Green Chemistry (2019); Towson University (2011–2015); University of Virginia (2022–2025); Zhejiang University of Technology (2013); Indiana University – Purdue University Indianapolis (2016–2021); Zhejiang University (2012–2023); Clemson University (2003–2007); Wuhan Institute of Technology (2019–2020)
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Kang Lu's research has explored diverse fields, including urban growth modeling using Geographic Information Systems (GIS) and land-use change prediction in coastal tourism destinations. Lu has also investigated tumor markers and the role of hydrogel electrolytes in zinc-based batteries. Their work includes research on zeolite catalysts for ethylene oligomerization and aromatization, as well as theoretical mathematics concerning super Yangians. Lu has published 62 papers, with a total of 663 citations and an h-index of 11. Key collaborators at the University of Arkansas at Fayetteville include Xiangbo Meng, Nathaniel Harris, Charles W. Miller, and Julia K. Hoskins.
Metrics
- h-index: 11
- Publications: 62
- Citations: 663
Positions
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Assistant Professor 2026–presentSouthern University of Science and Technology Mathematics ORCID
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Postdoc publications 2025–2026University of Arkansas at Fayetteville ORCID
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Postdoc 2022–2026University of Virginia Mathematics ORCID
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Visiting Assistant Professor 2020–2022University of Denver Mathematics ORCID
Selected Publications
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Ambient-Processed Bio-Based Solid Polymer Electrolyte for Solid-State Batteries (2026)
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A lithium-ion conductive polymeric coating enables high-performance silicon anodes (2026)
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Advancing silicon anodes with polymeric coatings (2026)
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Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion (2026)
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High-Performance Silicon Anodes by Novel Polymeric Coatings (2025)
Collaboration Network
Top Collaborators
- Advancing silicon anodes with polymeric coatings
- A lithium-ion conductive polymeric coating enables high-performance silicon anodes
- High-Performance Silicon Anodes by Novel Polymeric Coatings
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Co-tuning ultrathin ZnO films and programmable 3D textures to control lunar dust simulant adhesion
- Advancing silicon anodes with polymeric coatings
- Advancing silicon anodes with polymeric coatings
- A lithium-ion conductive polymeric coating enables high-performance silicon anodes
- A lithium-ion conductive polymeric coating enables high-performance silicon anodes
- A lithium-ion conductive polymeric coating enables high-performance silicon anodes