ScholarWorks@Hanyang University: Hwang, Jang Yeon

Detailed Information

Hwang, Jang Yeon (황장연)

COLLEGE OF ENGINEERING (DEPARTMENT OF ENERGY ENGINEERING)

Research Area

Tel 02-2220-2392
Homepage

ResearcherID ORCiD Scopus Google Scholar ID ResearchGate

Keyword

high capacity:4||Kion batteries:4||sodiumion batteries:3||Sodiumion battery:3||Cathode material:3||Lithiumion batteries:2||High capacity:2||P2type:2||Liion batteries:2||cathode material:2||High energy:2||Conversion materials:2||lithium metal batteries:2||sodiumion battery:2||Sodium ion battery:2||NiCo2O4:2||layered structure:2||Microspheres:2||spherical morphology:2||phasefield modeling:2||coprecipitation:2||Anode materials:2||full cell:2||LiS batteries:2||Na3V2(PO4)(3):2||Fluorine substitution:1||Freshwater yield:1||HF attack:1||HIGHCAPACITY:1||HIGHENERGY:1||High energy density:1||High tap density:1||Highvoltage:1||Hydrogen evaluation reaction:1||Hydrothermal synthesis:1||In2S3:1||Jahn–Teller distortion:1||Kion battery:1||KF coating:1||LITHIUM:1||Layered cathode:1||Layeredtype cathode:1||Layeredtype structure:1||Li metal anode:1||LiS battery:1||Liion battery:1||Limetal battery:1||Li2S cathode:1||LiFrich SEI layer:1||Liquid cooling:1||Lithium ion batteries:1||Metal phosphide:1||Metal tellurides:1||Mg substitution:1||Micro Si:1||Mn2+ intercalation:1||NAION:1||NASICON:1||NCM 622:1||NaNCM cathodes:1||NaV6O15:1||Nanocomposite:1||Nanoscale primary particles:1||Nirich cathodes:1||Nickelbased electrocatalyst:1||O3type layered cathodes:1||O3type layered structure:1||O3type structures:1||Operando analyses:1||Overall water splitting:1||Oxygen evolution reaction:1||P2TYPE:1||P3and P2phases:1||POTASSIUMION BATTERIES:1||Potassiumion battery:1||Prussian white:1||Pyro synthesis:1||Reduced graphene oxide:1||SIBs:1||SPAN:1||STABILITY:1||Safety:1||Secondary transmission:1||Separator:1||Silicon:1||Silicon anode:1||Siliconnanoparticle coating:1||Sodium ion batteries:1||Sodium manganese hexacyanoferrate:1||Sodiumion batteries:1||Solar desalination:1||Spherical morphology:1||Sr substitution:1||Structure evolution:1||Temperature effects:1||Thermal management:1||Thermal performance:1||Thermal performance and water yield:1||Thermal properties:1||Tidoping:1||Wastewater:1||Wastewater treatment:1||Water quality:1||Zn2+ and H+/H2O dual carriers:1||activation energy:1||alloying reactions:1||ammonium vanadate:1||anode:1||anode materials:1||aqueous batteries:1||areal capacity:1||carbon coating:1||carbonfree:1||cathode:1||cathode materials:1||cathodes:1||chemical oxygen demand:1||chloroethylene carbonate:1||commercialization:1||conversionreactions:1||dendrite:1||density functional theory:1||electrochemomechanical failures:1||electrocatalysts:1||electrochemical performance:1||electrochemical sensor:1||electrochemistry:1||electrode loading:1||electrode materials:1||electrodeposition:1||electrolyte:1||electrolyte additives:1||electrolyte modulation:1||electrolyteadditive:1||fast cycling:1||fastcharging:1||firstprinciples calculations:1||fluoroethylene carbonate:1||graphene:1||graphite:1||graphite anode:1||high energy:1||high energy density:1||high power:1||high power capability:1||high rates:1||high tap density:1||highenergy density:1||highvoltage:1||layered double hydroxides:1||layered manganese oxides:1||layered transition metal oxide cathodes:1||layeredtype:1||layeredtype cathode:1||layeredtype oxide materials:1||lean electrolyte:1||lithium ion battery:1||lithium polytellurides:1||lithiumion batteries:1||lithiumsulfur batteries:1||lithiumsulfur battery with reduced electrolyte volume:1||low cost lithium batteries:1||lowtemperature:1||manganeseion batteries:1||micro cracking:1||microiron sulfide:1||microcracking:1||mild magnesium substitution:1||modified separators:1||multiphysical field simulation:1||nano cu:1||nanocomposite:1||nanosensor:1||nanostructured sulfide/fiber electrodes:1||onsite analysis:1||operando XRD:1||polycrystalline particles:1||polysulfide mediator:1||potassium metal anode:1||potassium metal anodes:1||potassium metal batteries:1||potassiumion batteries:1||practical and high energy storage systems:1||rechargeable batteries:1||screenprinting:1||silicon:1||silicon anode:1||singlecrystallineparticles:1||sodium ion batteries:1||solid electrolyte interphase:1||solid electrolyte interphase layers:1||solidstate electrolytes:1||solvents:1||strategies:1||structural (in)stability:1||structural stabilization:1||substitution:1||timedecisive approach:1||ADDITIVE:1||zincion batteries:1||Absorber coating:1||Aircooling:1||Anodes:1||Aqueous Zn battery:1||Battery thermal management system:1||C:1||COVID19:1||Cathode:1||Cathode materials:1||Coprecipitation:1||Cosubstitution:1||Coating:1||Coating durability:1||Composite electrocatalyst:1||Consequences of parasitic phases:1||Cost analysis:1||DESIGN STRATEGIES:1||Disinfectants:1||Doublelayer coating:1||ELECTRODE PERFORMANCE:1||ELECTROLYTES:1||Encapsulation:1||Fe2P:1||Firstprinciples calculation:1||

RSS_1.0 RSS_2.0 ATOM_1.0

222, Wangsimni-ro, Seongdong-gu, Seoul, 04763, Korea+82-2-2220-1366

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