Sidharth Barik
Institute of Science Tokyo, CSIR-National Chemical Laboratory, Pune
About
I am a dedicated researcher in energy conversion with a strong focus on electrochemistry-structure-activity
relationships, employing surface- and bulk-sensitive techniques such as in-situ/operando XPS (NAP-XPS) and XAS to
elucidate reaction pathways and catalyst stability. Expertise in designing advanced electrocatalysts and electrode
architectures using structurally and electronically tailored nanomaterials. Extensive experience in electrocatalyst
synthesis for OER, HER, ORR, AOR, and NRR, applied in water electrolyzers, PEMFCs, DAFCs, and ENRR systems.
Committed to developing scalable and sustainable energy technologies, with a strong emphasis on XPS- and XAS-based
mechanistic insights.
Employment
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Institute of Science Tokyo Postdoctoral fellow2026 - 2027
Education
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CSIR-National Chemical Laboratory, Pune PhD2020 - 2026
Projects & Funding
Projects & funding information is unavailable.
Publications (12)
- Strategically Designed Efficient Electrode Material for Water Electrolysis Enabled by Synergistically Integrated Phosphide Heterostructure Save
- Atomic-Level Engineering in Lattice Strain-Driven Pt3Ir-Skin@Pt6IrCo with Mesoscale Mass Transport Regulation for Ammonia Oxidation Reaction in Direct Ammonia Fuel Cells Save
- Binder‐Free In Situ Interface Reconstruction of NiMoO 4 Nanorods Over Ni(OH) 2 Nanosheets for Efficient Urea Oxidation Save
- Defect‐Rich CoFe‐Alloy with Engineered Carbon Support for High‐Performance Rechargeable Zn‐Air Batteries Save
- Self‐Supported Super‐Hydrophilic Interconnected Nanospikes and Particles of MoS2‐Ni3S2/NF with Optimum d‐Band Center for Anion Exchange Membrane Water Electrolyzer Save
- Hydrogel Electrolyte-Mediated In Situ Zn-Anode Modification and the Ru-RuO2/NGr-Coated Cathode for High-Performance Solid-State Rechargeable Zn–Air Batteries Save
- Breaking the Pt Electron Symmetry and OH Spillover towards PtIr Active Center for Performance Modulation in Direct Ammonia Fuel Cell Save
- Aluminium, Nitrogen‐Dual‐Doped Reduced Graphene Oxide Co‐Existing with Cobalt‐Encapsulated Graphitic Carbon Nanotube as an Activity Modulated Electrocatalyst for Oxygen Electrocatalyst for Oxygen Electrochemistry Applications Save
- The Role of Nitrogen Doping in Modulating Ruthenium Nanocatalysts for Enhanced Electrochemical Hydrogen Evolution Reaction in Alkaline Medium Save
- Co-Incorporated N-Doped Micro–Meso Porous Carbon as an Electrocatalyst for Oxygen Reduction Reaction and Zn–Air Battery Save