Koushik Biswas Data-verified
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Biography and Research Information
OverviewAI-generated summary
Koushik Biswas is a faculty member at Arkansas State University, where his research focuses on materials science and its applications in energy storage and optoelectronics. His work investigates novel semiconductor materials, including metal halide perovskites and doped carbon anodes, for use in next-generation batteries and lighting technologies. Biswas has published research exploring the fundamental properties of these materials, such as phase transitions and emission mechanisms.
His recent publications include experimental and theoretical investigations into boron and phosphorus dual-doped hard carbon for sodium-ion batteries, and vanadium-substituted cathode materials for enhanced battery performance across a range of temperatures. He has also studied the microstructural evolution of composite materials fabricated via laser cladding and explored the optical properties of cesium lead bromide compounds. Biswas's research network includes collaborations with Byungkyun Kang at Arkansas State University, with whom he has co-authored several publications.
With a h-index of 20 and over 72 publications, accumulating more than 1,374 citations, Biswas is recognized as a highly cited researcher. He maintains an active laboratory website to disseminate his research findings.
Metrics
- h-index: 20
- Publications: 72
- Citations: 1,396
Selected Publications
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The halogen vacancy, Tl-activator, and Tl-bound excitons in CsI:Tl scintillator (2025)
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The nature of defect tolerance in (some) halide perovskites (2025)
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Case of the Bromine Vacancy in Cs<sub>4</sub>PbBr<sub>6</sub> (2023)
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Revisiting the origin of green emission in Cs<sub>4</sub>PbBr<sub>6</sub> (2022)
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Metal Halide Semiconductors beyond Lead-Based Perovskites for Promising Optoelectronic Applications (2021)
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Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations (2021)
Collaboration Network
Top Collaborators
- Vanadium substituted Fe, Cr co-doped high performance C/Na3V2(PO4)2F3 cathode for sodium-ion batteries
- Experimental and theoretical investigation on boron, phosphorus dual doped hard carbon as anode for sodium-ion battery
- Boosting sodium-ion battery performance with vanadium substituted Fe, Ni dual doped fluorophosphate cathode over a wide temperature range
- Reviving Graphite Anode from Spent Li-Ion Batteries via Acid Leaching and Carbonization Methodology
- Metal Halide Semiconductors beyond Lead-Based Perovskites for Promising Optoelectronic Applications
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Case of the Bromine Vacancy in Cs<sub>4</sub>PbBr<sub>6</sub>
- The halogen vacancy, Tl-activator, and Tl-bound excitons in CsI:Tl scintillator
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Phase transition pathway of hybrid halide perovskites under compression: Insights from first-principles calculations
- Metal Halide Semiconductors beyond Lead-Based Perovskites for Promising Optoelectronic Applications
- Metal Halide Semiconductors beyond Lead-Based Perovskites for Promising Optoelectronic Applications
- Metal Halide Semiconductors beyond Lead-Based Perovskites for Promising Optoelectronic Applications
- Metal Halide Semiconductors beyond Lead-Based Perovskites for Promising Optoelectronic Applications
- Prediction of feasibility of Li and Fe doped natural olivine Mg2SiO4 for Li ion battery applications using Density Functional Theory
- Vanadium substituted Fe, Cr co-doped high performance C/Na3V2(PO4)2F3 cathode for sodium-ion batteries
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