ScholarWorks@Gyeongsang National University: Kim, Hyoung Bum

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Kim, Hyoung Bum (김형범)

대학원 (기계항공우주공학부)

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Tel 0557721635
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TaylorCouette flow:14||PIV:7||Heat transfer:6||Vertical fence wake:4||Temperature gradient:4||DPIV:3||Pulsating jet:3||Slug flow:3||Separation bubble:3||Slit wall:3||Flow distribution:3||Slit(슬릿):2||Phaseaveraged DPIV:2||Platefin heat exchanger:2||Flow pattern:2||원통다관형 열교환기:2||원통다관형 열교환기(Shell and Tube Heat Exchanger):2||Numerical simulation:2||Grashof number:2||Flow regime:2||PIV(입자영상속도계):2||Stereoscopic microPIV:2||입자화상속도계:2||PIV(입자화상속도계):2||Stereoscopic microscope:2||Refractive Index Matching Method(굴절률 보상기법):2||unsteady flow:2||Synthetic Image(합성화상):2||Heat transfer characteristics:2||TaylorCouette Flow(TaylorCouette유동):2||Field synergy principle:2||Entropy generation:2||Scanning Method(스캐닝 기법):2||Horizontal pipe:2||Shell and Tube Heat Exchanger:2||Ultrasound Doppler velocimetry:2||Particle image velocimetry:2||Single Optical Axis(단일 광경로):2||Slit aspect ratio:2||수직벽 후류:2||Flow instability:2||Flow characteristics:1||Flow separation:1||Flow visualization:1||Flowrate measurement:1||Fuel cell:1||Gas diffusion layer:1||Gasliquid flow:1||Head loss:1||Heat transfer characteristic:1||Heat transfer performance:1||Helical blade:1||Hydraulic Performance:1||Hydraulic force:1||Hydrokinetic rotor:1||Illumination mode:1||Infrared light:1||Internal Flow Noise:1||K 인자:1||Kfactor:1||LIF:1||Liquid leadbismuth pump:1||Load coefficient:1||Low Reynolds number:1||Machine learning:1||Magnetic field:1||Mass transport:1||Match probability:1||Micro Imaging Sensor:1||Micro impinging jet:1||Mobile Mist Spray Nozzle:1||Mud flow:1||Multiobjective optimization:1||Noise Measurement:1||Numerical Simulation:1||Numerical method:1||Numerical optimization:1||Orifice:1||PANS model:1||POD:1||PTV:1||Particle Image Velocimetry:1||Particle Image Velocimetry (PIV):1||Particle conveyance capacity:1||Particle detection:1||Particle image velocimetry (PIV):1||Passive control(수동제어):1||Plug flow:1||Porosity:1||Porous Baffle:1||Porous plate:1||Positional variation:1||Power consumption:1||Radial basis function neural network (RBFNN):1||Reattachment Length(재부착지점 길이):1||Response surface methodology:1||Richardson number:1||Ring:1||Rotor performance:1||Separation bubble(박리 기포):1||Shell and tube heat exchanger:1||Slit number:1||Slit structure:1||Slug frequency:1||Slug translational velocity:1||Slurry:1||Solidliquid twophase:1||Sound Pressure Level:1||Spray Nozzle:1||Spray velocity:1||Startup performance:1||Stereoscopic PIV:1||Stereoscopic microPTV:1||Suction/Blowing(흡입/토출):1||Surface protrusion:1||Suspension:1||Taylor vortex flow:1||TaylorCouette 유동:1||Terminal distance:1||Transition process:1||Turbulent TaylorCouette flow:1||Two dimensionality:1||Twophase flow:1||Ultrasound Doppler velocimetry (UDV):1||Ultrasound visualization:1||Velocity profile:1||Vertical fence wake(수직벽 후류):1||Vortex generator:1||Vortex generator(와류 생
성기):1||Vortical Flow:1||Water mist:1||Wavy vortex flow:1||Working Fluid Temperature:1||carbon fibers:1||different temperature gradient:1||doubleblade centrifugal pump:1||experiment measurement:1||hydraulic efficiency:1||impeller:1||liquid molten salt pump:1||microparticle suspension:1||process monitoring:1||shell and tube heat exchanger:1||structural improvement:1||tubeside:1||vacuumassisted resin transfer molding:1||곡률(Curvature):1||내부 유동 소음:1||다공 분배판(Porous Distributor):1||다공성 배플:1||디지털 입자화상속도계:1||마이크로 충돌제트:1||맥동 제트:1||미분무수:1||미세 영상 장치:1||박리기포:1||배플:1||배플 형상(Baffle Shape):1||분사노즐:1||분사속도:1||소음 측정:1||소화시간:1||수력 성능:1||수치 모사(Numerical Simulation):1||수치 해석(Numerical Analysis):1||수치모사:1||스테레오스코픽 마이크로 입자영상유속계:1||열적 성능(Thermal Performance):1||오리피스:1||온도구배:1||유동 균일(Flow Uniformity):1||유동배분:1||유동분배판(Flow Distributor):1||음압 레벨:1||이동식 미분무수 노즐:1||이차원성:1||입자크기:1||입자화상속도측정기법:1||입체현미경:1||작동유체온도:1||전열 특성(Heat Transfer Characteristics):1||종착거리:1||초점이탈:1||편차(Deviation):1||화염:1||화재 시뮬레이터:1||화재억제:1||180° curved pipe:1||화제억제:1||1D mixture model:1||2frame PTV:1||Artificial neural networks:1||Aspect Ratio:1||Baffles:1||Bent pipe:1||CFD:1||Chord length:1||Circulating Water Channel:1||Continuous jet:1||Convective heat transfer:1||Convolutional neural network:1||Crosssection of slit:1||DMD reconstruction:1||DN100 Tjunction Pipe:1||DN100 T자형 관:1||DPIV(디지털입자화상속도계):1||Dean vortex:1||Deepsea mining pump:1||Deflector angle:1||Deflector plate:1||Defocusing Imaging:1||Dragtype hydrokinetic rotor:1||Droplet size:1||Echo PIV:1||Elliptical helical slit:1||Energy performance:1||Ensemble average:1||Entropy generation analysis:1||Erosion:1||Erosion rate:1||EulerianLagrangian method:1||Experiment:1||Extinguishing Time:1||FDS(Fire Dynamic Simulator):1||Fence Flow(수직벽 유동):1||Fire Suppression:1||Fire flame:1||Fire suppression:1||Flow Distribution:1||

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