CAU Scholar's Space: Moon, Jin Woo

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Moon, Jin Woo (문진우)

공과대학 (건축학)

Research Area: Sustainable Architecture Building Design, Energy Conscious Building Design, Passive Solar System, Indoor Air Quality, Energy Saving Building System, Life Cycle Assessment of Building

Tel 02-820-5209
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Artificial neural network:17||Artificial Neural Network:14||인공신경망:13||Thermal comfort:13||Thermal Environment:9||열쾌적:9||온열환경:9||예상평균온열감:8||Thermal Comfort:8||Metabolic rate:7||Double skin envelope:7||artificial neural network:6||EnergyPlus:6||Predicted Mean Vote:6||Predicted mean vote:6||활동량:5||Data Center:5||Artificial neural networks:5||Rulebased controls:5||Prediction model:5||Occupantcentric control:5||착의량:5||인공지능:5||데이터센터:5||Control algorithm:4||건물에너지:4||Clothing Insulation:4||Sky conditions:4||Clothing insulation:4||예측제어:4||Indoor Air Quality:4||Predictive and adaptive controls:4||Radiance:4||실내공기질:4||thermal comfort:4||Lighting energy:4||최적제어:4||Photosensor:4||Ventilation System:4||Energy efficiency:4||환기시스템:4||Correlation:4||예측모델:4||최적 제어알고리즘:3||Building energy:3||Indoor air quality:3||Optimal controls:3||Metabolic Rate:3||Setback temperature:3||제로에너지건축물:3||Daylight dimming control:3||Building Energy:3||Lightshelf:3||Indoor Environment:3||Annual daylight simulation method:3||Target illuminance:3||predictive and adaptive controls:3||Daylight coefficient approach:3||Deep neural network:3||Sky:3||Optimal Control Algorithm:3||Color temperature:2||건물일체형태양전지:2||Prediction Model:2||규칙기반제어:2||기계학습:2||Control logic:2||Predictive Control:2||Predictive Controls:2||Predictive Mean Vote:2||Ventilation system:2||Double skin facades:2||Visual comfort:2||Artificial Intelligence:2||Predictive controls:2||Heating energy:2||Water Source Heat Pump System:2||Building Integrated Photovoltaic:2||Window ventilation system:2||Cooling Energy:2||Hybrid Heat Pump System:2||Zero Energy Building:2||Research Trends:2||Residential building:2||artificial neural network (ANN):2||수열 히트펌프 시스템:2||Energy Consumption:2||Coefficient of Variation Root Mean Square Error:2||Cooling system:2||Energy cost:2||double skin envelope:2||실내환경:2||Optimal Control:2||energy consumption:2||연구동향:2||열환경:2||Indoor environment:2||Thermal environment:2||Adaptive Control Algorithm:2||이중외피:2||Sunmatching method:2||Integrated neural network:2||occupantcentric control:2||Data center:2||Daylight:2||재실자 중심 제어:2||Part load ratio:2||Daylight conditions:2||predictive controls:2||Building orientation:2||Daylight illuminance:2||setback temperature:2||temperature controls:2||Lighting energy savings:2||Computational theory:2||평균 제곱근 오차 변동계수:2||Machine Learning:2||Thermal controls:2||Machine learning:2||Internet of things sensor:1||Life Cycle Assessment:1||Lighting Environment:1||Lighting conditions:1||Lighting control methods:1||Lighting quality:1||Lighting tyep Visual responses:1||MET estimation algorithm:1||Machine learning algorithms:1||Market condition:1||Metabolism (MET):1||Model optimization:1||MultiOccupant:1||Multiobjective control:1||Multiple Occupants:1||Object detection model:1||Occupancy:1||Occupancy forecasting:1||Occupant Centric Control:1||Occupant centric control:1||Occupants Information:1||Office:1||Office building:1||Office space:1||Openplan office:1||Opening condition:1||Opening condition of envelope:1||Optimal Control Variables:1||Optimal Controls:1||Optimal control algorithm:1||Optimization:1||Optimization of Setpoint Temperature:1||Optimum control:1||Optimum louver slat angle:1||Optimum system performance:1||PCW (Photochromic Window):1||PMV:1||PVintegrated shading device:1||Parametric analysis:1||Parking lot:1||Particulate Matter:1||Particulate matter:1||Peertopeer energy trading:1||Percent difference:1||Performance curve:1||Perimeter zone:1||Photoelectric dimming control:1||Photosensor illuminance:1||Photosensor signals:1||Photosensorbased lighting control:1||Photovoltaic System:1||Photovoltaic system:1||Photovoltaicthermal:1||Pose classification:1||Power Generation:1||Power generation:1||Predicted Percentage Dissatisfied:1||Predicted mean vote (PMV):1||Prediction models:1||Predictive Model:1||Predictive and adaptive control logic:1||Predictive control:1||Private small building:1||Radiant heating system:1||Ratio of window to wall:1||Refrigerant Flow Control:1||Refrigeration evaporation temperature setpoint:1||Restoration period:1||Retraining:1||Review Paper:1||Rulebased Control:1||Rural community's status:1||School Facility:1||School Indoor Air Quailty:1||Selective input connection:1||Semitransparent Window:1||Semitransparent solar cell window:1||Senser module:1||Sensor Module:1||Setback Temperature:1||Simulation method:1||Single board computer:1||Sky condition:1||Sky patch:1||Smart Window:1||Smart windows:1||Solar Signage:1||Solar signage:1||Sunmatching:1||Supply air temperature setpoint:1||Surface openings:1||Surplus Energy:1||Symptombased Intensity Thresholds:1||System components:1||System performance:1||Temperature control:1||Temperature control algorithm:1||Theoretical approach:1||Theoretical method:1||Thermal Environment Control:1||Thermal Quality:1||Thermal conditioning:1||Thermal control:1||Thermal control algorithm:1||Thermal control logic:1||Thermal control method:1||Thermal control performance:1||Thermal environ ment:1||Thermal environments:1||Thermal performance:1||Thermal sensation:1||Twoposition controls:1||Users’ preference:1||VH ratio:1||VRF Cooling System:1||VRF 냉방시스템:1||Variable air volume system:1||Variable controls:1||Variable heating devices:1||Variable refrigerant flow (VRF):1||Variable refrigerant flow heating system:1||Ventilation systems:1||Visionbased model:1||Visual discomfort:1||Visual perception:1||Voyant Tools:1||Window:1||Window Ventilation System:1||WindowtoWall Ratio:1||Women:1||Women Policy:1||Zero Energy Buildings:1||Zeroenergy building:1||accommodation:1||accommodations:1||ascending time:1||building envelope:1||building structure:1||carbon neutrality:1||color temperature:1||computational fluid dynamics:1||cooling energy consumption:1||deep neural network:1||ecofriendly:1||energy efficiency:1||envelope insulation:1||guideline:1||heating system:1||human joint estimation:1||illuminance:1||indoor activity:1||law:1||life cycle cost (LCC):1||lifecycle assessment:1||lifecycle carbon emissions:1||louver:1||metabolic rates:1||model optimization:1||mood:1||nonresident supervisor:1||office:1||optimal setpoints of system variables:1||predicted mean vote:1||predicted mean vote (PMV):1||predictive and adaptive control:1||predictive control algorithm:1||publicity:1||ratio of window to wall:1||reading task:1||recurrent neural network:1||rural community:1||temperature control logic:1||thermal condition:1||thermal conditioning:1||thermal control logic:1||thermal environment:1||thermal performance:1||urban regeneration:1||variable refrigerant flow (VRF) cooling systems:1||ventilation:1||visual comfort:1||visual response:1||windowtowall ratio:1||가변제어:1||가이드라인:1||건물일체형태양광발전시스템:1||건축분야:1||건축연구:1||건축제도:1||공기열원 히트펌프:1||공동주택:1||공조시스템:1||광변색유리:1||기후대:1||난방 에너지:1||난방시스템:1||냉매 유량 제어:1||냉방 에너지:1||냉방시스템:1||농촌:1||농촌현황:1||다수 재실자:1||다중 재실자:1||도시재생:1||동적 착의량:1||딥러닝:1||딥러닝 신경망:1||미세먼지:1||바닥 복사 난방:1||반투명 태양전지 창호:1||발정제어:1||법:1||베르누이원리:1||보이언트 툴:1||부분부하율:1||빛환경:1||사물인터넷:1||선행연구:1||센서모듈:1||셋백온도:1||솔라사이니지:1||숙박시설:1||순환 신경망:1||스마트창호:1||시장현황:1||실내 공기질:1||실내 이산화탄소 예측모델:1||실내 환경:1||실내온도 예측:1||심층신경망:1||ACBS (Active Chilled Beam System) Entering Chilled Water Temperature:1||에너지 소비량:1||에너지소비:1||에너지플러스:1||여성:1||여성정책:1||열환경 제어:1||열환경제어:1||염료감응형태양전지:1||예상불만족률:1||예상평균 온열감:1||온열감각:1||융복합 시스템:1||융복합 히트펌프 시스템:1||음환경:1||인공지능 제어:1||입력변수:1||잉여에너지:1||재실 인원 예측:1||재실자 정보:1||재실자중심제어:1||적응형 제어 알고리즘:1||적응형 제어알고리즘:1||전 과정 평가:1||전기자동차:1||전력발전량:1||전산유체역학:1||제어 알고리즘:1||젠더 감수성:1||주거용 건축물:1||주차장:1||증발냉각:1||창면적비:1||창호:1||창호형 환기시스템:1||창호환기시스템:1||최적 제어:1||최적제어변수:1||축열조 온도 예측:1||탄소배출량:1||탄소중립:1||태양광발전시스템:1||태양광열:1||하이브리드 열원 히트펌프:1||학교 실내공기질:1||학교시설:1||환기 시스템:1||에너지 사용량 예측:1||AHU (Air Handling Unit) Discharge Air Temperature:1||ANN:1||Accommodations:1||Acoustical Environment:1||Active Chilled Beam System:1||Adaptive control:1||Adaptive neuro fuzzy inference system:1||Adaptive neurofuzzy inference system:1||Air Conditioning System:1||Air handling unit:1||Air source heat pump:1||Annual Daylight Simulation method:1||Apartment building:1||Architectural Field:1||Architectural Institution:1||Architectural Research:1||Artificial Intelligence Control System:1||Artificial Intelligent:1||Artificial neural network (ANN):1||BIPV:1||Bayesian optimization:1||Bernoulli Principle:1||Building Energy Consumption:1||Building Energy Performance:1||Building System:1||Building energy saving strategy:1||Building integrated control:1||Building morphology:1||Building space:1||Building thermal controls:1||Building thermal environment:1||Buildingintegrated photovoltaic (BIPV):1||Buildingintegrated photovoltaics:1||CO2 concentration:1||Calibration:1||Carbon Emission:1||Carbon Neutrality:1||Carbon dioxide:1||CdTe:1||Chilled water mass flow control:1||Climate Zone:1||Climate zone:1||Climate zones:1||Coefficient of performance:1||Comprehensive environments prediction:1||Computational algorithm:1||Computational fluid dynamics:1||Computational simulation:1||Condenser fluid pressure setpoint:1||Condenser fluid temperature setpoint:1||Control model and algorithm:1||Control performance:1||Cooling System:1||Cooling capacity:1||Cooling device:1||Cooling energy:1||Cyber–Physical System:1||Cyberphysical system:1||DSSC:1||Daylight Coefficient:1||Daylight dimming system:1||Daylight factor:1||Deep Learning:1||Deep Learning Neural Network:1||Differential pressure:1||Digital Twin:1||Dimming:1||Dyesensitized solar cell:1||Dyesensitized solar cell (DSSC):1||Dynamic Clothing Insulation:1||Electric Vehicle:1||Electricity production:1||Electrochromic windows:1||Energy Consumption Prediction:1||Energy consumption:1||Energy efficient:1||Energy performance:1||Energyplus:1||Envelope insulation:1||Evaporative cooling:1||Fault detection and diagnosis:1||Fault impact analysis:1||Field measurement:1||Fuzzy:1||Fuzzy inference:1||Fuzzy logic:1||Gappy data reconstruction:1||Gender Sensitivity:1||Glare:1||Ground source heat pump system:1||HVAC energy consumption:1||HVAC energy saving:1||Heat Storage Tank:1||Heat Storage Tank Temperature Prediction:1||Heat blocking films:1||Heat removal:1||Heating Systems:1||Heating and Cooling Energy:1||Heating system:1||Heuristic approach:1||Human pose estimation:1||Hybrid Source Heat Pump:1||Illumiance Sky conditions:1||Illuminance:1||Image processing model:1||Indoor:1||Indoor Carbon Dioxide Prediction Model:1||Indoor Temperature Prediction:1||Indoor comfort:1||Indoor environmental quality:1||Indoor temperature:1||Indoor thermal environment:1||Input Variables:1||Integral reset:1||Integrated system:1||Intelligent Optimal Control:1||Internet of Things:1||Internet of things:1||

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