Jong Hyun Jang focuses on Inorganic chemistry, Chemical engineering, Catalysis, Electrode and Electrochemistry. His Chemical engineering research focuses on Conductivity and how it connects with Phosphoric acid. His Catalysis study integrates concerns from other disciplines, such as Alkaline water electrolysis, Electrocatalyst, Nanotechnology and Nickel.
The study incorporates disciplines such as Yttria-stabilized zirconia and Analytical chemistry in addition to Electrode. His Electrochemistry research includes elements of Electrolyte and Dendrite. Jong Hyun Jang has included themes like Membrane electrode assembly, Anode, Ionomer and Nafion in his Proton exchange membrane fuel cell study.
Jong Hyun Jang mainly focuses on Chemical engineering, Proton exchange membrane fuel cell, Catalysis, Electrolyte and Inorganic chemistry. His biological study deals with issues like Cathode, which deal with fields such as Anode. As a part of the same scientific family, Jong Hyun Jang mostly works in the field of Proton exchange membrane fuel cell, focusing on Analytical chemistry and, on occasion, Capacitance.
The concepts of his Catalysis study are interwoven with issues in Electrocatalyst, Oxygen evolution, Electrochemistry and Carbon. His Electrolyte research incorporates elements of Fuel cells, Corrosion and Polymer. His Inorganic chemistry study combines topics from a wide range of disciplines, such as Ion exchange, Nickel, Electrolysis of water, Alloy and Cyclic voltammetry.
Jong Hyun Jang focuses on Chemical engineering, Catalysis, Proton exchange membrane fuel cell, Electrolyte and Electrochemistry. He combines subjects such as Cathode, Carbon, Electrolysis and Polymer with his study of Chemical engineering. His work deals with themes such as Oxide, Overpotential, Oxygen evolution and Aqueous solution, which intersect with Catalysis.
Jong Hyun Jang interconnects Wetting, Composite material, Energy transformation and Electrolysis of water in the investigation of issues within Proton exchange membrane fuel cell. His Electrolyte study combines topics in areas such as Ion exchange, Hydrogen and Anode. In general Electrochemistry, his work in Electrocatalyst is often linked to Degradation linking many areas of study.
His primary areas of study are Chemical engineering, Ion exchange, Electrolyte, Catalysis and Vanadium. Jong Hyun Jang is studying Nanoparticle, which is a component of Chemical engineering. As part of his studies on Ion exchange, he frequently links adjacent subjects like Inorganic chemistry.
His Electrolyte research is multidisciplinary, incorporating elements of Curing, Phosphoric acid, Polymer, Anode and Proton exchange membrane fuel cell. The various areas that Jong Hyun Jang examines in his Catalysis study include Electrocatalyst, Electrochemistry and Carbide. His Electrochemistry study deals with the bigger picture of Electrode.
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In Situ Transformation of Hydrogen-Evolving CoP Nanoparticles: Toward Efficient Oxygen Evolution Catalysts Bearing Dispersed Morphologies with Co-oxo/hydroxo Molecular Units
Jaeyune Ryu;Namgee Jung;Jong Hyun Jang;Hyoung-Juhn Kim.
ACS Catalysis (2015)
Role of electronic perturbation in stability and activity of Pt-based alloy nanocatalysts for oxygen reduction.
Seung Jun Hwang;Soo-Kil Kim;June-Gunn Lee;Seung-Cheol Lee.
Journal of the American Chemical Society (2012)
Electrochemical capacitor performance of hydrous ruthenium oxide/mesoporous carbon composite electrodes
Jong H Jang;Sang Jin Han;Taeghwan Hyeon;Seung M. Oh.
Journal of Power Sources (2003)
Electrochemical Synthesis of NH3 at Low Temperature and Atmospheric Pressure Using a γ-Fe2O3 Catalyst
Jimin Kong;Jimin Kong;Ahyoun Lim;Ahyoun Lim;Chang Won Yoon;Jong Hyun Jang.
ACS Sustainable Chemistry & Engineering (2017)
The effects of Nafion® ionomer content in PEMFC MEAs prepared by a catalyst-coated membrane (CCM) spraying method
Kun Ho Kim;Kun Ho Kim;Kwan Young Lee;Hyoung Juhn Kim;Eun Ae Cho.
International Journal of Hydrogen Energy (2010)
Investigation of the Support Effect in Atomically Dispersed Pt on WO3−x for Utilization of Pt in the Hydrogen Evolution Reaction
Jinkyu Park;Seonggyu Lee;Hee-Eun Kim;Ara Cho.
Angewandte Chemie (2019)
Electrodeposited Ni dendrites with high activity and durability for hydrogen evolution reaction in alkaline water electrolysis
Sang Hyun Ahn;Sang Hyun Ahn;Seung Jun Hwang;Sung Jong Yoo;Insoo Choi.
Journal of Materials Chemistry (2012)
Impedance analysis of porous carbon electrodes to predict rate capability of electric double-layer capacitors
Hyun Deog Yoo;Jong Hyun Jang;Ji Heon Ryu;Yuwon Park.
Journal of Power Sources (2014)
Complex capacitance analysis on rate capability of electric-double layer capacitor (EDLC) electrodes of different thickness
Songhun Yoon;Jong H. Jang;Bok H. Ka;Seung M. Oh.
Electrochimica Acta (2005)
Supercapacitor Performance of Hydrous Ruthenium Oxide Electrodes Prepared by Electrophoretic Deposition
Jong H. Jang;Akiko Kato;Kenji Machida;Katsuhiko Naoi.
Journal of The Electrochemical Society (2006)
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