Lawrence Daniel Stephen Tamil
SSN College of Engineering, The American College
Research areas: Energy · Renewable Energy, Sustainability and the Environment · Electrocatalysts for Energy Conversion · Advanced Photocatalysis Techniques · Silicon and Solar Cell Technologies
About
I am a researcher in Physics and Photovoltaics, with a strong interest in silicon solar cell technology, semiconductor processing, and machine learning for photovoltaic applications.
I recently completed my Ph.D. research at Anna University, focusing on the enhancement of saw damage removal in silicon wafers using machine learning for photovoltaic applications. My research involved silicon wafer etching, KOH-based saw damage removal, Metal-Assisted Chemical Etching, surface characterization, and the application of machine learning techniques to optimize semiconductor processing.
My research interests are Silicon solar cell fabrication and optimization, Saw damage removal and silicon wafer texturing, Metal-Assisted Chemical Etching, Machine learning for photovoltaic manufacturing, Thin films and transparent conductive oxides, Sputtering and process-induced damage, Optical and electrical characterization of semiconductor materials. I am also interested in developing practical research solutions that combine experimental semiconductor processing with data-driven and machine-learning approaches to improve photovoltaic device performance.
Currently I am in Nagoya University, Japan as a JST Lotus Fellow
Employment
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SSN College of Engineering Junior Research Assistant2021 - 2022
Education
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The American College M.Sc Physics2019 - 2021
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The American College B.Sc Physics2016 - 2019
Projects & Funding
Projects & funding information is unavailable.
Publications (5)
- A Generalized Precise Approach for KOH Etching in Monocrystalline Silicon Wafer with an Orientation of < 100 > using Machine Learning Save
- Investigation of the role of Saw damage in Silver catalyzed Metal Assisted Chemical Etching on Multicrystalline Silicon for Solar cell Application Save
- Cation-boosted CoMoSe2@Ti3C2 hybrid electrode framework for high-performance asymmetric supercapacitors Save
- Synergistic design of Mo-intercalated NiSe2: a binary transition metal chalcogenide for highly efficient bifunctional seawater electrolysis Save
- Enhanced Photocatalytic Degradation of ZnTiO3/Polycarbazole (PCz) Composite Towards Toxic Azo Dye Save