ScholarWorks@Hanyang University ERICA Campus: YOON, JOON YONG

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YOON, JOON YONG (윤준용)

ERICA 공학대학 (DEPARTMENT OF MECHANICAL ENGINEERING)

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Tel 031-400-5282
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Computational fluid dynamics:14||Cyclone separator:9||CFD(전산유체역학):8||Hydrodynamic cavitation:7||Impeller:7||Process intensification:6||CFD:5||Design optimization:5||Discrete phase model:5||Impeller(임펠러):5||Hydrodynamic cavitation reactor:5||Lattice Boltzmann Method(격자 볼츠만 방법):4||Multiobjective optimization:4||Optimization(최적화):4||Genetic algorithm:3||Cavitation:3||Centrifugal pump(원심펌프):3||Response surface methodology:3||Hydraulic bifurcation(수압 분기관):3||Characteristic function(특성함수):3||Sonochemistry:3||Lattice Boltzmann Method:3||Pump control valve(펌프 제어 밸브):3||Computational fluid dynamics(전산유동해석):3||Optimization:3||Lattice Boltzmann method:3||Head loss(수두손실):3||Centrifugal pump:3||Differential pressure(차압):3||Computational Fluid Dynamics:3||Computational fluid dynamics (CFD):3||Eccentric axis(편심축):3||Discharge coefficient(유출계수):3||Numerical simulation:3||Valve disc(밸브디스크):2||pressure testing(압력시험):2||Valve seat(밸브시트):2||pump efficiency:2||DOE:2||Volute:2||Laminar flow(층류유동):2||Pump performance(펌프 성능):2||Large Eddy Simulation:2||safety factor:2||Water disinfection:2||Lattice Boltzmann Method(격자볼츠만방법):2||sonochemistry:2||staggered herringbone mixer:2||structure analysis(구조해석):2||Numerical analysis:2||Design of Experiment(실험계획법):2||Efficiency:2||Efficiency(효율):2||butterfly valve(버터플라이밸브):2||Response surface method (RSM):2||Offshore Plant:2||Design of experiments(실험계획법):2||computational fluid dynamics:2||Restriction device(조임기구):2||valve flow coefficient:2||Lower explosion limit(폭발한계범위):2||Reynolds number:2||Optimization Design:2||Ring Groove(링 그루브):2||Differential producer(차압 발생기구):2||discharge coefficient:2||PDMSbased diffuser micropump:2||여과기):2||Microchannel flow(미소 채널 유동):2||Safety evaluation(안전성 평가):2||Segmental Wedge:2||Sensor placement:2||Flow characteristics:2||experiment:2||Hybrid Lattice Boltzmann Method:2||Slotted vortex finder:2||Constant flow rate(정유량):2||Central heating system:2||Diffuser:2||Distribution manifold(온수분배기):2||hydrodynamic cavitation:2||Steam reformer:2||Stepanoff theory:2||Flow optimization(유동 최적화):2||Strainer(스트레이너:2||komega turbulence model:2||Performance improvement:2||Submerged cargo pump(수중 카고 펌프):2||Suction well(흡수정):2||Surface roughness:2||Surface roughness(표면 거칠기):2||Flow rate:2||Surge Margin(서지마진):2||microbubble pump:2||Mixedflow pump:2||Automatic flow rate regulating valve(자동정유량조절밸브):2||Individual heating system:2||Temperature(온도):2||Centrifugal Compressor(원심형 압축기):2||Thermal performance:2||numerical analysis:2||numerical simulation:2||Centrifugal Pump(원심펌프):2||optimization:2||Inlet shape(입구 형상):2||Fluctuating turbulence structure:2||Cylinder vortex stabilizer:2||Multiphase Pump:2||pipeline(관로):2||Pressure drop(압력강하):2||Friction factor(마찰 계수):2||Jet fan:2||Gappy proper orthogonal decomposition:1||Gas flow(가스유동):1||Gas volume fraction (GVF):1||Gasliquid twophase flow:1||Gasparticle cyclone separator:1||Geomerical structure:1||Geometrical factors:1||Global optimization:1||Grace model:1||Guide vanes(안내깃):1||Heat Generator:1||Heat mixing(열혼합):1||Helicopter rotor:1||High pressure ratio:1||Hot water distribution manifolds:1||Hover:1||Hub ratio:1||Hub ratio(허브 비):1||Hybrid Method:1||Hybrid method:1||Hydraulic machinery:1||Hydraulic performance(수력성능):1||Hydrodynamic design system:1||Hydrophilic/hydrophobic coatings:1||Impellers:1||Inflow condition:1||Inlet flow path(내부 유로):1||Inlet guide vane(입구 안내깃):1||Inlet pressure(입구압력):1||Inlet water temperature:1||Innovative design:1||Jet Fan(제트홴):1||Jet Pump(제트 펌프):1||Kimchi Refrigerator(김치냉장고):1||LAYERED SILICATE NANOCOMPOSITES:1||Large Eddy Simulation(큰 에디 모사):1||Large Eddy Simulation(큰에디모사):1||Lattice Boltzmann subgrid model(격자 볼츠만 아격자 모델):1||Lattice boltzmann method:1||Lignocellulosic biomass:1||Lime slurry tank:1||Liquefied natural gas:1||Liquidliquid slug flow:1||Low oxygen permeability:1||Lowgrade heat energy:1||M.O.C.(특성법):1||MELT RHEOLOGY:1||MORPHOLOGY:1||Macerator(파쇄기):1||Mass flow(질량 유량):1||Measurement:1||Membraneless:1||Membraneless fuel cell(전해질막이 없는 연료전지):1||Micro fuel cell(마이크로 연료전지):1||MicroCHP:1||MicroMixer:1||Microsteam turbine:1||Microbial fuel cell:1||Microchannel flow:1||Microfluidic(미세유체):1||Micromixer:1||Micromixer(마이크로 믹서):1||Micromixer(미세혼합기):1||Micropillarstructured electrode:1||Milk treatment:1||Mixedflow Pump:1||Mixedflow pump(사류펌프):1||Mixer(혼합기):1||Mixing Characteristics:1||Mixing Efficiency:1||Mixing characteristics:1||Modelorder reduction:1||Momentum Exchange Model:1||Motor Noise(모터소음):1||MotorDriver Cooling(모터 드라이버 냉각):1||Multi inlet:1||Multiphase Flow:1||Multiphase flow:1||Multiphase flow model:1||Multiphase pump:1||MultipleRelaxtionTime:1||NANOCOMPOSITES:1||Natural Gas(천연가스):1||Neural Networks:1||Neural networks:1||Noise(소음):1||Novel geometrical modification:1||Novel hydrodynamic cavitation reactor:1||Nozzle:1||Numerical Optimization(수치최적화):1||Numerical Simulation:1||Numerical optimization:1||Numerical simulation(수치해석):1||Nutritional composition:1||OPPORTUNITIES:1||Offshore plant:1||Open country(개방형 모델):1||Operating ranges:1||Optimal Design:1||Optimization geometries:1||Optimum:1||Optimum design:1||Organic rankine cycle(유기랭킨사이클):1||PEM fuel cell:1||PLASTICIZED POLY(LACTIC ACID):1||PLASTICS:1||POLY(LLACTIDE):1||POLYLACTIDE:1||POLYMERS:1||Particle Sedimentation:1||Parylene C:1||Passive Mixer:1||Performance Improvement(성능 향상):1||Performance characteristic curve(성능 특성 곡선):1||Performance curve:1||Performance curve(성능곡선):1||Performance evaluation:1||PipeNetwork(배관망):1||Pipeline(관로):1||Pitch angle(피치 각):1||Platinum(백금):1||Pollutant:1||Pollutant(오염 물질):1||Pollutant(오염물질):1||Polymer electrolyte membrane fuel cell:1||Porosity:1||Porous biomass carbon:1||Porous media(다공성 매질):1||Portable gas range(이동식 부탄 연소기):1||Portable gas range(휴대용 부탄 연소기):1||Pressure Drop:1||Pressure Testing(압력시험):1||Pressure drape(압력강하):1||Pressure drop:1||Pressure loss(압력손실):1||Pretreatment:1||Pump efficiency(펌프 효율):1||Pump impeller:1||Pump impeller(펌프 임펠러):1||Pump pressure setting:1||Pure reaction turbine:1||RSM(Response surface method):1||RTD(저항 온도 측정장치):1||Radial turbine(반경류 터빈):1||Random wall roughness:1||Rectangular cavity flow:1||Regenerative Pump:1||Regenerative pump:1||Regenerative pump(재생형 펌프):1||Relief valve(방출밸브):1||Relief valve(안전밸브):1||Response Surface Approximation(반응면 기법):1||Response Surface Method(반응표면기법):1||Response surface method:1||Response surface methode(반응표면기법):1||Response surface methodology(반응표면기법):1||RetainerTtype(리테이너형):1||Reverberant room(잔향실):1||Reynolds stress model:1||Reynolds stress turbulence model:1||Ring Groove:1||Ring groove:1||Ring grooves:1||Robust point interpolation method:1||Rotary jet stirring system:1||Rotating speed(회전속도):1||Rotational speed:1||Rotorstator type hydrodynamic cavitation reactor:1||Safety:1||Semiconductor chip(반도체 칩):1||Shape optimization:1||Sidesuction inlet(측면 흡입구):1||Simulation of Flow and Heat Transfer(열유동해석):1||Sludge disintegration:1||Slug flow behaviors:1||Smallscale distributed generation:1||Sound power(음향 출력):1||Stall margin:1||Stepanoff theory(스테파노프 이론):1||Structural Analysis(구조해석):1||Structural optimization(구조최적설계):1||Subgrid Scale Model:1||Supercapacitor:1||Surface wettability:1||Surge Margin:1||Surge margin:1||Swirling vortical flow behaviors:1||SynerGEE(시너지):1||Temperature prediction:1||Thermal characteristics:1||Top entry ball valve:1||Topology optimization:1||Total efficiency:1||Treatment rate:1||Tunnel ventilation:1||TwoPhase Mixing:1||TwoPhase Turbulent Flow:1||Twophase turbulent flow(2상 난류유동):1||Uncertainty:1||Urban roughness(도심형 모델):1||Vacuum pump(진공 펌프):1||Valve:1||Valve flow coefficient:1||Valve port(밸브포트):1||Venturi:1||Venturi meter:1||Volute(벌류트):1||Volute(볼류트):1||Vortex structure:1||Waste heat recovery(폐열활용):1||Wastewater treatment(정수처리):1||Wastewater treatment:1||Water treatment:1||Waterhamemer(수충격현상):1||Waterhammer:1||Wet flue gas desulfurization:1||Wheatstone bridge(휘트스톤 브릿지):1||application potentiality:1||blade deflection:1||blade element momentum theory:1||blade optimization:1||bubble generation:1||bubble size:1||chemical mechanical polishing:1||closure test:1||colloidal silicabased slurry:1||computation fluid dynamics:1||concave surface:1||concentration:1||concentration(확산):1||conference proceeding:1||control valve:1||deformation:1||design:1||design of experiment:1||design of experiment (DOE):1||design of experiments:1||design optimization:1||differential pressure:1||disc stack:1||dispersion:1||district heating plant:1||drag law:1||droplet(액적):1||duct system(더블 벌류트):1||eccentric butterfly valve:1||elbow:1||equivalent stress:1||experimental validation:1||fan(홴):1||fibre Bragg grating:1||flow coefficient:1||fluid dynamics:1||food safety:1||gas volume fraction (GVF):1||heat production:1||heat transfer Nusselt number:1||hydrodynamic cavitation reactor:1||hydrophilic/hydrophobic coatings:1||impingement jet:1||inlet pressure:1||knudsen layer:1||knudsen number:1||laminar flow:1||magnetic bead:1||metalorganic framework:1||method of characteristics:1||micro electro mechanical systems:1||microchannel(미소채널):1||micromixer:1||microscratch:1||microbial inactivation:1||microfluidic:1||micromixer:1||mixing efficiency:1||mixing flow(혼합 유동):1||multi objective optimization:1||multiphase pump:1||nonthermal liquid food processing:1||offshore plants:1||open channel flow:1||optimal design:1||orifice plate:1||particle counter:1||passive mixer:1||passive scalar method:1||performance comparison:1||physicochemical property:1||piping geometry factor:1||pollutant:1||pollutant dispersion:1||porous medium:1||pressure control:1||pressure testing:1||proper orthogonal decomposition:1||pump:1||relative valve flow coefficient:1||response surface design:1||response surface method:1||response surface method (RSM):1||rotating velocity:1||rotor blade:1||rotorstator type hydrodynamic cavitation reactor:1||segmental wedge:1||sensors:1||shell test:1||sludge treatment:1||solid biological source:1||structure analysis:1||surface wettability:1||suspended sediment transport:1||synthesis:1||synthesis of nanomaterials:1||thermal efficiency:1||thermal efficiency(열효울):1||thrust coefficient:1||tortuous path trim:1||toxin:1||transient liquid crystal method:1||tunnel ventilation:1||turbine bypass valve:1||twophase mixing:1||ultrasonication:1||urban street canyon:1||valve loss coefficient:1||velocity control:1||visualization:1||water hammer:1||wedge flowmeter:1||개별난방:1||난방용온수분배기:1||반응표면기법:1||벌류트:1||사이클론:1||상부 삽입형 볼밸브:1||수치해석:1||스테파노프 이론:1||온수분배기:1||외부 미스트 분사:1||원심펌프:1||유동 특성:1||유랑계수:1||유량:1||유량제어밸브:1||유량제어시스템:1||임펠러:1||전산 유체 역학:1||중앙난방:1||지역난방:1||차압센서:1||최적화:1||#2stage Heat Exchanger(2단 열교환기):1||해양 플랜트다상유동 펌프최적 설계실험계획법전산유체역학:1||#Mixting nozzle(혼합 노즐):1||2(k) factorial experiment:1||AC Servo Motor(AC서보모터):1||ANSYS CFX:1||Advanced rotational hydrodynamic cavitation reactor:1||Aerodynamic analysis:1||Aerodynamic characteristics:1||Agitator(교반기):1||Airconditioner(냉방기):1||Arrangement of CGU:1||Array(배열):1||Assistance blower(보조 송풍기):1||Axial fan(축류팬):1||Axial pump(축류펌프):1||Axialflow pump(축류펌프):1||BEHAVIOR:1||Bacterial inactivation:1||Ball Valve(볼밸브):1||Ball valve:1||Blade Element Momentum Theory:1||Bladelesstype turbine:1||Bubble collapse energy:1||Bubble(버블):1||Butterfly valve:1||CFD(전산 유체 역학):1||CGU structure:1||CHALLENGES:1||CONCENTRATE:1||CRYSTALLIZATION:1||Casing treatment:1||Cavitation generation efficiency:1||Cavitation generation mechanism and development process:1||Cavitation intensity:1||Cavitation(공동현상):1||Cavitationvortex interaction:1||Cavity flow:1||Centrifugal Compressor:1||Centrifugal compressor:1||Centrifugal compressors:1||Centrifugal pump impellers:1||Centrifugal pump(원심 펌프):1||Centrifugal pumps:1||Chamber(챔버):1||Chamber(혼합기):1||Chaotic advection(혼돈 이류):1||Chaotic mixer(카오틱 믹서):1||Coflowing microchannel:1||Colaminar flow:1||Collection efficiency:1||Combustion:1||Commercial codes:1||Communication base station(통신기지국):1||Compressor performance:1||Computational:1||Computational Fluid Dynamics (CFD):1||Computational Fluid dynamics(전산 유체 역학):1||Computational fluid dynamics(전산유체역학):1||Concentration(확산):1||Continuous hydrodynamic cavitation:1||Control valve:1||Crosssection distribution:1||Cryogenic centrifugal submersible pump:1||Cutoff diameter:1||Cyclone Separator:1||DNA isolation:1||DOE(실험계획법):1||Deep Learning:1||Delignification:1||Design:1||Design parameters:1||Differential pressure sensor:1||Disinfection mechanism:1||Distinctive division baffle:1||Distribution manifold:1||Distribution manifolds for room heating systems:1||District heating system:1||Domestic Gas Boiler(가정용 가스보일러):1||Dynamometer(동력계):1||E. coli:1||EMC(전자파적합성):1||Eccentric Orifice(편심오리피스):1||Eccentric butterfly valve:1||Eccentric check butterfly valve:1||Eccentric check butterfly valve(편심 차단 버터플라이 밸브):1||Eccentricity(편심율):1||Economy:1||Effective Outlet Velocity(유효 출구 속도):1||Effective outlet velocity:1||Elbow(엘보):1||Electricity storage:1||Energy saving(에너지 저감):1||Escherichia coli:1||Experimental flow visualization:1||External mist injection:1||FILMS:1||Fan tester:1||Fan(송풍기):1||Flow coefficient:1||Flow control system:1||Flow control valve:1||Flow control valve(유량제어밸브):1||Flow ranges:1||Flow rate(유량):1||Flow settling means:1||Flow visualization:1||Flow(유동):1||Flowrate(유량):1||FluidParticle Interaction:1||Friction factor:1||Fuel cell(연료전지):1||Galerkin projection:1||

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