ScholarWorks@Hanyang University: Kim, Jin Kuk

Detailed Information

Kim, Jin Kuk (김진국)

COLLEGE OF ENGINEERING (DEPARTMENT OF CHEMICAL ENGINEERING)

Research Area: 공정설계

Tel 02-2220-2331
Homepage

ResearcherID ORCiD Scopus Google Scholar ID ResearchGate

Keyword

Optimization:20||Process integration:15||Process design:14||Energy efficiency:12||Heat integration:10||CO2 capture:9||Retrofit:9||Postcombustion CO2 capture:6||Electrification:5||Design:5||Optimisation:5||Water reuse:4||Process optimization:4||Membrane process:4||Heat exchanger network (HEN):4||Membrane:3||Coalfired power plant:3||Water minimisation:3||Natural gas liquids:3||NOx Prediction:3||Utility systems:3||Tecnoeconomic assessment:3||Output Bias Update:2||Technoeconomic analysis:2||Palm fatty acid distillate:2||Energy saving:2||Membrane process design:2||Renewable energy:2||Intensified heat transfer (IHT):2||Refrigeration system:2||BOG liquefaction:2||Mixed integer linear programming (MILP):2||CO 2 capture:2||Modeling:2||Carbon tax:2||Process Design:2||Process Integration:2||Economic analysis:2||Process control:2||Refrigeration:2||Heat exchanger networks:2||Biodiesel:2||Heat recovery:2||Cogeneration:2||NewtonRaphson method:2||Heat transfer enhancement (HTE):2||Energy Recovery:2||Simulation:2||Site analysis:2||Low grade heat:2||Energy minimization:2||Process simulation:2||Fuel switching:2||Energy recovery:2||Exhaust gas recirculation:1||Facilitated Transport:1||Flow assurance:1||Flue gas:1||Fractionation:1||Fuel cell:1||Gas permeation:1||Gas separation:1||Genetic algorithm optimization:1||Greenhouse gas emissions:1||HEN retrofit:1||Heat Recovery:1||Heat Storage:1||Heat exchanger model:1||Heat exchanger network:1||Heat exchanger network synthesis:1||Heat pump:1||Heat transfer enhancement:1||Heuristics:1||Hollowfiber Membrane:1||Hybrid Separation:1||Hybrid systems:1||Hydrate inhibition:1||Hydrogen:1||Hydrogen plant:1||Ionic Liquids:1||Iron and steel industry:1||KEYWORDS:1||Kalina cycles:1||LNG cold energy:1||LNG fueled ship:1||LNG fuelled ship:1||LNG regasification:1||LNG(Liquefied Natural Gas):1||LNGFPSO:1||LNGFueled ship:1||LNGfueled ship:1||LSSVM Parameters Update:1||Least Squares Support Vector Machine:1||Least Squares Support Vector Machines:1||Local energy systems:1||Lowgrade heat:1||MEA:1||MEG regeneration:1||Membrane Separation:1||Membranebased CO2 capture:1||Microgrid:1||Mixed fluids:1||Model Update Scheme:1||MultiCylinder Drying Process:1||Multimodule Design:1||Multiperiod Design:1||Multiperiod optimisation:1||Multistage membranes:1||Multicomponent Mixture:1||NH3 precooling:1||Natural Gas Liquid:1||Natural Gas Separation:1||Natural fluid:1||Natural gas liquefaction:1||Noncatalytic esterification:1||Nonpower industries:1||Nonlinearity:1||ORC:1||Operability:1||Organic Rankine Cycle:1||Organic Rankine Cycles:1||Palm Methyl Ester:1||Partload operation:1||Partial Least Squares:1||Permeability:1||Permeance regression:1||Pinch analysis:1||Power Systems:1||Power generation:1||Power plant:1||PowertoHeat:1||Powertoheat:1||Process Modeling:1||Process modeling:1||Process modification:1||Process safety:1||Reliquefaction process:1||Realtime Model:1||Renewable integration:1||Resource conservation:1||Response Surface Methodology:1||Reverse Osmosis:1||Selective exhaust gas recirculation:1||Sensitivity analysis:1||Separation Model:1||Shellside intensification:1||Simulated annealing:1||Simulation strategy:1||Site utility systems:1||Steam systems:1||Superstructure approach:1||Sustainability:1||Tanksinseries model:1||TeachingLearningBasedOptimization:1||TeachingLearningSelfStudyOptimization:1||Total Site:1||Tubeside intensification:1||Uncertainty:1||Waste Heat Recovery:1||Waste heat recovery:1||Wastewater charges:1||Water minimization:1||Water pinch analysis:1||Water recycling:1||acid gases removal:1||amine absorption:1||biogas upgrading:1||heteroepitaxial growth:1||hollow fiber:1||hybrid process:1||hybrid zeolite membrane:1||membrane:1||membraneabsorption hybrid process:1||module properties:1||polysulfone:1||process simulation:1||separation:1||simulation:1||Absorption:1||stage cut:1||Absorption refrigeration:1||Acid gas removal unit:1||Ameliorated TeachingLearningBasedOptimization:1||Amine solvent:1||Automated targeting:1||BOG reliquefaction:1||Boiloff gas:1||CO 2 permselectivities:1||CO2:1||CO2 Capture:1||CO2 Emission reduction:1||CO2 emissions reduction:1||CO2 precooling:1||CO2 separation:1||CO2 supply:1||CO₂ capture:1||Carbon credit:1||Cascade analysis:1||Ceramic processing:1||Chance Correlation:1||Chemical Absorption:1||Chemical absorption:1||Chemical absorption process:1||Cold Filter Plugging Point:1||Combined Heat and Power:1||Cu Nanoparticle:1||DDR zeolite:1||Deep QNetwork:1||Deep reinforced learning:1||Desalination:1||Discontinuous heat recovery:1||Discontinuous water use:1||Distillation Sequencing:1||Distillation column design:1||Distillation columns:1||Distillation sequencing:1||District heating systems:1||Dividing Wall Column:1||Dual expansion:1||Dualmode heat pump:1||Dynamic model:1||Dynamic simulation:1||Economic evaluation:1||Electricity Storage:1||Energy balance:1||Energy minimisation:1||Energy savings:1||Energy storage:1||Energy systems:1||Enhanced oil recovery:1||Entropy Production:1||Equipment Performance Deteriorations:1||Exergy analysis:1||

STATISTICS: Total View :5,968,864; Today View :6,075

RSS_1.0 RSS_2.0 ATOM_1.0

222, Wangsimni-ro, Seongdong-gu, Seoul, 04763, Korea+82-2-2220-1365

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