CAU Scholar's Space: Jang, Haeseong

Detailed Information

Jang, Haeseong (장해성)

대학원 (지능형에너지산업융합학과)

Research Area: 전기화학촉매, 차세대 전지, 재활용, Electrocatalysts, Next Generation Batteries, Recycling

Tel
Homepage

ResearcherID ORCiD Scopus Google Scholar ID ResearchGate

Keyword

oxygen evolution reaction:13||hydrogen evolution reaction:9||electrocatalyst:8||Electrocatalyst:6||oxygen reduction reaction:6||durability:6||electrocatalysts:6||zincair batteries:5||acidic oxygen evolution reaction:5||charge redistribution:4||Oxygen evolution reaction:3||lithiumion batteries:3||Electrocatalysts:3||Oxygen Vacancy:2||ruthenium:2||Oxygen reduction reaction:2||water splitting:2||selectivity:2||heterostructure:2||Hydrogen Evolution Reaction:2||oxygen stability:2||Zincair batteries:2||charge transfer:2||Znair batteries:2||Alkaline HER:2||synergistic effect:2||bifunctional electrocatalyst:2||Hydrogen evolution reaction:2||theoretical calculation:2||defect:2||Li&#8208:2||grain boundaries:2||Graphene nanoplatelet:1||H and OH spillover:1||H3O+ Intermediates:1||Halogen doping:1||Heterostructure:1||Hostguest coengineering:1||Hydrogen Spillover:1||Implanted CNT electrode:1||Interfacial proton adsorption:1||Interstitial Silicon:1||Interstitial incorporation:1||Iridium Surface:1||JahnTeller distortion:1||Kinetics:1||Kirkendall effect:1||Latticematched heterointerfaces:1||Lewis Acid–Base Pairs:1||Lewis acid oxide:1||Li distribution:1||Li and Mnrich layered oxide:1||LiNi0:1||Lithiumion batteries:1||Local Chemical Environment:1||Magnetic biochar composite:1||N doping:1||N2 reduction reaction:1||NCM811:1||NH3 synthesis:1||Na doping:1||Nirich layered cathode materials:1||Nirich lithiumion batteries:1||NiFe hydroxides:1||Novel structure:1||O2plasmaassisted N doping:1||OER:1||ORR:1||Overall water splitting:1||Oxygen vacancies:1||P, Mo dual dopants:1||Pdoped porous carbon:1||Phasepure W<sub>2</sub>C:1||Reaction barrier:1||Redox flow battery:1||Reversible hydrogen spillover:1||Ru‐based catalysts:1||Ru O Mo sites:1||Ru nanocluster:1||Ru nanoclusters:1||RuSi heterostructure:1||SnO2:1||Spent lithiumion battery:1||Spent lithiumion battery recycling:1||Spinel manganese ferrite microspheres:1||Strontium iridate perovskites:1||SupportStructure Engineering:1||Surface activation:1||Surface modification:1||Symplesite:1||TMO electrocatalyst:1||Transition:1||Vanadium redox flow battery:1||Vanadium redox reaction:1||VolmerTafel mechanism:1||Water splitting:1||Xray absorption spectroscopy:1||acid media:1||acidic oxygen evolutionreaction:1||acidic water oxidation:1||adsorption characteristics:1||alkaline HER:1||ammonia synthesis:1||amorphous:1||amorphous structures:1||ampere‐scale current densities:1||and Mn&#8208:1||antimony phosphate:1||aqueous zincion battery:1||asymmetric dual sites:1||bond length:1||builtin electric field:1||carbon dioxide reduction:1||carbon dioxide reduction reaction:1||carbon nanofibers:1||carbon nanotubes:1||cathode electrodes:1||cation ordered perovskite:1||charge accumulation:1||chemical irreversibility:1||chlorine evolution reaction:1||coiled conformation resin units:1||copper doping:1||coreshell hybrid:1||corrosion resistance:1||defect engineering:1||density functional theory:1||dissociation of water:1||distorted local structures:1||doubleactive sites:1||electrochemical CO2 reduction reaction:1||electrochemical CO2 reduction to C2+ product:1||electrochemical water splitting:1||electrode potential:1||electrolytes:1||electronic asymmetricity:1||electronic coupling:1||electronic particlesupport interactions:1||energy conversion:1||energy storage:1||excess&#8208:1||excessLi localization:1||formate:1||heterogenous catalysis:1||heterointerfaces:1||heterojunction:1||heterophase:1||high catalytic performance:1||high current density:1||high energy density:1||highpower lithium ion batteries:1||highvalent Ni sites:1||hybrid energy storages:1||in situ Xray absorption spectroscopy:1||in situ analysis:1||increasing CO binding energy and defect sites:1||interfacial hydrogen spillover:1||intermediate stabilization:1||ion batteries:1||kinetics:1||lattice oxygen loss:1||lattice strain:1||lattice&#8208:1||layered cathode materials:1||layered double hydroxides:1||layered oxides:1||local coordination environment:1||macrovoid structure:1||metal–oxygen bonds:1||metal and nonmetal dualdoping:1||metalfree catalysts:1||metalfree electrocatalyst:1||metalorganic supramolecules:1||microstructure symmetry:1||mixed valence states:1||multisite electrocatalysts:1||multielemental doping durability:1||multifunctional activities:1||multifunctional electrocatalysts:1||multiheterostructure:1||multiplevacancies:1||multiporous conductive hollow carbon nanospheres:1||nanocarbon:1||nanofiber:1||nanoplatelets:1||nanosheet:1||nickeliron based electrocatalysts:1||noble metal phosphides:1||nonnoble catalysts:1||nonnoble metal:1||onepot synthesis:1||overall water splitting cells:1||oxidation resistance:1||oxygen reactionevolution:1||oxygen vacancies:1||pHuniversal conditions:1||phase engineering:1||phosphate:1||phosphorusdoped carbon:1||porous carbon:1||practical applications:1||preserving Cu oxidation state:1||proton insertion mechanism:1||radical couplingmechanism:1||rate capability:1||reaction kinetics:1||reaction pathway:1||rechargeable zincair battery:1||residual S:1||rich layered oxides:1||ruthenium phosphide:1||secondary doping:1||selectivity switching:1||shortrange ligand effect:1||shortrange ordered single atoms:1||siderite (FeCO3):1||single atom:1||single atomoxide interface:1||single atoms:1||singleatom catalysts:1||solid solution electrocatalysts:1||specific mass activity:1||spheroidal nanocarbon:1||spinel:1||supercritical reactions:1||surface tensile strains:1||tannic acid:1||tensile strain:1||ternary nanoalloys:1||thick electrodes:1||trifunctional electrocatalysts:1||ultrafast chargeable capability:1||ultralow Ru content:1||ultrasmall nanoclusters:1||urea oxidation reaction:1||volumetric activity:1||wastewater:1||water electrolysis:1||water splitting cell:1||watersplitting cells:1||zincair battery:1||산소 발생 반응:1||산소 환원 반응:1||아연 공기 전지:1||전기화학 촉매:1||(2) reduction reaction:1||폐 리튬이온전지:1||2Mn0:1||2O(2):1||6>Co0:1||Acidic medium:1||Acidic oxygen evolution reaction:1||Adsorption mechanisms:1||Allsolidstate lithiumion batteries:1||Ambient conditions:1||Anoxic conditions:1||Antimonate:1||Arsenic sorption:1||Bifunctional electrocatalysts:1||Brønsted acid sites:1||CO:1||CO2 reduction reaction:1||Carbon nanotube:1||Carbon nanotube/Carbon nanofiber:1||Catalytic sites:1||Cedopants:1||Cobalt fluorides:1||Crystal size:1||Cubased materials:1||Dbandcenter:1||Dissolution:1||Durability:1||Electrochemical active surface area:1||Electronic structure engineering:1||Faradaic efficiency:1||Fe doping:1||FeNiCr:1||Grain Boundary:1||

RSS_1.0 RSS_2.0 ATOM_1.0

84, Heukseok-ro, Dongjak-gu, Seoul, Republic of Korea (06974)02-820-6194

Certain data included herein are derived from the © Web of Science of Clarivate Analytics. All rights reserved.
You may not copy or re-distribute this material in whole or in part without the prior written consent of Clarivate Analytics.

Detailed Information

Keyword

BROWSE