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Hyung Kim

Professor

  • Pittsburgh PA UNITED STATES

Hyung Kim's research area is theoretical and computational chemistry.

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Biography

Hyung Kim's research area is theoretical and computational chemistry. By employing analytic theory and modern computational techniques, he studies molecular structure and dynamics in homogeneous (i.e., bulk solution) and heterogeneous (e.g., interface and nano-confinement) environments. His primary focus is on chemical reactions in environmentally benign green solvents, e.g., carbon capture in ionic liquids, and energy storage systems, e.g., supercapacitors. Another focus area is computational dielectric and IR spectroscopies of electrolytes, such as solutions of alkali metal ions in water and in other solvents, that have many important applications, such as rechargeable batteries.

Areas of Expertise

Chemical Reactions and Spectroscopy in Solution
Computer Simulations
Theoretical and Computational Chemistry
Equilibrium and Nonequilibrium Statistical Mechanics
Green Solvents
Supercapacitors
Multi-Domain Proteins

Social

Industry Expertise

Electrical/Electronic Manufacturing
Chemicals

Accomplishments

KIAS Scholar, School of Computational Sciences, Korea Institute for Advanced Study

2008-present

Education

Seoul National University

B.S.

Physics

Seoul National University

M.S

Physics

State University of New York at Stony Brook

Ph.D.

Physics

1988

Articles

Improved Limit on Neutrinoless Double Beta Decay of 100Mo from AMoRE-I

Physical review letters

A Agrawal, VV Alenkov, P Aryal, J Beyer, B Bhandari, RS Boiko, K Boonin, O Buzanov, CR Byeon, N Chanthima, MK Cheoun, JS Choe, Seonho Choi, S Choudhury, JS Chung, FA Danevich, M Djamal, D Drung, C Enss, A Fleischmann, AM Gangapshev, L Gastaldo, YM Gavrilyuk, AM Gezhaev, O Gileva, VD Grigorieva, VI Gurentsov, C Ha, DH Ha, EJ Ha, DH Hwang, EJ Jeon, JA Jeon, HS Jo, J Kaewkhao, CS Kang, WG Kang, VV Kazalov, S Kempf, A Khan, S Khan, DY Kim, GW Kim, HB Kim, Ho-Jong Kim, HJ Kim, HL Kim, HS Kim, MB Kim, SC Kim, SK Kim, SR Kim, WT Kim, YD Kim, YH Kim, K Kirdsiri, YJ Ko, VV Kobychev, V Kornoukhov, VV Kuzminov, DH Kwon, CH Lee, DongYeup Lee, EK Lee, HJ Lee, HS Lee, J Lee, JY Lee, KB Lee, MH Lee, MK Lee, SW Lee, YC Lee, DS Leonard, HS Lim, B Mailyan, EP Makarov, P Nyanda, Y Oh, SL Olsen, SI Panasenko, HK Park, HS Park, KS Park, SY Park, OG Polischuk, H Prihtiadi, S Ra, SS Ratkevich, G Rooh, E Sala, MB Sari, J Seo, KM Seo, B Sharma, KA Shin, VN Shlegel, K Siyeon, J So, NV Sokur, JK Son, JW Song, N Srisittipokakun, VI Tretyak, R Wirawan, KR Woo, HJ Yeon, YS Yoon, Q Yue, (AMoRE Collaboration)

2025-02-27

AMoRE searches for the neutrinoless double beta decay using 100 kg of enriched 100Mo. Scintillating molybdate crystals coupled with a metallic magnetic calorimeter operate at milli-Kelvin temperatures to measure the energy of electrons emitted in the decay. AMoRE-I is a demonstrator for the full-scale AMoRE, operated at the Yangyang Underground Laboratory for over two years. The exposure was 8.02  kg year (or 3.89  kg 100Mo year), and the total background rate near the

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Synchrotron, luminescence, and XPS studies of Gd3+: Dy3+: Ce3+ tri-rare-earth oxides in borate glasses

Radiation Physics and Chemistry

2023

Synchrotron studies were employed to understand the oxidation state and coordination chemistry of the Ce3+ ions which when added with Dy3+- co-doped calcium zinc gadolinium borate glasses prepared by conventional melt quenching technique. X-ray photoelectron spectroscopy was employed to understand the coordination chemistry of the prepared glass samples. Detailed analysis was investigated to understand the glass's optical properties such as density, refractive index, molar volume, field strength, inter-ionic radius, and average boron-boron distance.

Spectroscopic and Chemical Properties of Ionic Liquids: Computational Study

The Chemical Record

2023

A brief account is given of highlights of our computational efforts – often in collaboration with experimental groups – to understand spectroscopic and chemical properties of ionic liquids (ILs). Molecular dynamics, including their inhomogeneous character, responsible for key spectral features observed in dielectric absorption, infra‐red (IR) and fluorescence correlation spectroscopy (FCS) measurements are elucidated. Mechanisms of chemical processes involving imidazolium‐based ILs are illustrated for CO2 capture and related reactions, transesterification of cellulose, and Au nanocluster‐catalyzed Suzuki cross‐coupling reaction with attention paid to differing roles of IL ions. A comparison with experiments is also made.

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