DA
Deepak Arumugam
Indian Institute of Technology Bhubaneswar, Bharathiar University, Nandha arts and science college
About
Researcher in Theoretical and Computational Chemistry, specializing in molecular quantum mechanics, with a focus on the rational design of low dimensional materials and single atom catalysts for hydrogen energy applications. Expertise includes electronic structure calculations, reaction kinetics, and structure–property relationships, along with proficiency in molecular dynamics simulations for exploring biomolecular interactions.
Employment
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Indian Institute of Technology Bhubaneswar Research Associate2026 - Present
Education
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Bharathiar University Ph.D.2021 - 2025
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Bharathiar University M.Sc. Physics2019 - 2021
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Nandha arts and science college B.Sc. Physics2016 - 2019
Projects & Funding
Projects & funding information is unavailable.
Publications (30)
- Controlling nucleation and isolating maltol polymorphs using ethyl maltol as a structurally similar additive Save
- Energy-saving hydrogen generation enabled by boosted hydrazine oxidation over hierarchical Co/Ru–RuPx interfaces Save
- Enhanced electrochemical performance of ammonium phosphomolybdate for symmetric and asymmetric supercapacitors in an H2SO4/KI redox additive electrolyte Save
- Laser-engineered AuPt@Cu heterointerfaces for highly efficient electrocatalytic nitrite-to-ammonia conversion and Zn-nitrite batteries Save
- Morphology-phase coupled engineering of NiCuCo layered double hydroxide towards efficient alkaline overall water splitting Save
- Unveiling Synergistic CuAuAg Nanoparticles on CuO for High-Yield CO2 Electroreduction Save
- Unveiling the influence of 3d transition metal (Sc–Zn) doping on quantum capacitance and surface charge storage in bare nano cages (Al12N12, Al12P12, B12N12, and B12P12) – a first principles simulation study Save
- Enhanced hydrogen production via hydrazine oxidation on Pd single-atom catalysts: Atomic-scale synergy by high-throughput experimental and theoretical insights Save
- Electrodeposited CoP2 on CO2-laser-modified graphite felt: a robust electrocatalyst for nitrite reduction to ammonia Save
- Phase conversion effect on cobalt phosphate for asymmetric supercapacitor applications Save