ScholarWorks@Korea University: Jung, Dong hwi

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Jung, Dong hwi (정동휘)

College of Engineering (School of Civil, Environmental and Architectural Engineering)

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water distribution system:9||Water distribution system:5||resilience:4||robustness:4||Water distribution network:3||Resilience:3||Reliability:2||Robustness:2||urban drainage systems:2||Seismic reliability:2||water distribution systems:2||Harmony search:2||operation and management:2||내진성능평가:2||design:2||SPI:1||Boryeong:1||Performance measurement:1||data categorization standard:1||상수도 시스템:1||회귀분석:1||performance measurement:1||Layout and hydraulic design:1||automatic parameter calibration:1||NET):1||cooperative operation:1||Optimal layout:1||Layout:1||Graph theory:1||Water distribution systems (WDS):1||비지도학습법:1||advanced pressuredriven analysis:1||Ensemble:1||water quality:1||Economicenvironmental tradeoffs:1||적대적 학습 기반 오토인코더(ATAE):1||Smart system:1||consumer satisfaction:1||pipe installation and size design:1||수리해석:1||Life cycle:1||Life cycle energy analysis:1||Peak demand factors:1||pipe burst detection:1||multiobjective optimization:1||receiver operating characteristic (ROC):1||pump operation:1||node grouping:1||REVAS. NET:1||Mississippi:1||multiobjective optimization:1||robustnessbased design:1||Mathematical model:1||Indexes:1||Imputation:1||최종 사용자 수요 분류:1||스마트미터:1||Unsupervised machine learning:1||Convolutional neural network:1||sustainable infrastructure development:1||resilient water distribution systems:1||remote sensing data:1||multiple linear regression model:1||Optimization:1||pressure data prediction:1||twophase optimization:1||Seismic performance evaluation:1||Ground motion prediction equation:1||metaheuristic algorithms:1||design benchmarks:1||Multiobjective optimization:1||optimal valve location:1||Genetic algorithm:1||Uncertainty analysis:1||Uncertainty analysis applications:1||Network topology:1||balance between exploration and exploitation:1||pipe bursts:1||Kalman filter:1||Seismic reliability assessment:1||sustainable development:1||Drought:1||Hydrometeorological factors:1||Principal component analysis:1||물 급수 시스템:1||sea farm:1||stormwater management model:1||water quality event:1||Renewable energy:1||Floating structure:1||Industrial water use:1||Policy simulation:1||Urban drainage system planning:1||civil engineering education:1||climate change:1||Deep learning:1||performance indicator:1||fuzzy function:1||Firstorder secondmoment approximation:1||detection:1||daily maximum pressure difference:1||genetic algorithm:1||Anytown network:1||Sediment concentration:1||River training:1||Advanced metering infrastructure (AMI):1||Burst detection:1||Enduser's demand:1||Drought scenario:1||satellite image:1||emergency interconnection pipe:1||multiobjective automatic parametercalibration framework:1||Offshore floating photovoltaic units:1||Multiconnected units:1||Multiperiod optimization framework:1||Multiperiod multiscenario model:1||다차원 데이터 생성:1||생성적 적대 신경망:1||web seminar:1||water supply:1||Model uncertainty:1||Landsat:1||missing data control:1||crossdomain artificial neural network:1||Regression analysis:1||Seismic Performance Evaluation Method:1||Water Supply Pipe:1||EPANET 2.0:1||Hybridization:1||meter network:1||HYMOD model:1||Multiobjective harmony search (MOHS):1||Water distribution systems (WDSs):1||Western Electric Company (WEC) rules:1||demand estimation:1||Water supply network:1||Hydraulic geometry:1||Nakdong:1||Channel modification:1||Hydraulic systems:1||graph theory:1||Missing data:1||Enduser demand classification:1||Machine learning:1||framework:1||Water distribution systems:1||multiscenariobased planning:1||Scenariobased optimization:1||Average node degree:1||Pipe sizing and layout optimization:1||Monte Carlo simulation:1||Urban flood:1||NSGAII:1||Reliability EVAluation model for Seismic hazard for water supply NETwork (REVAS:1||centralized reservoir:1||pump design:1||water distribution network:1||WDS design:1||System hydraulic availability (SHA):1||Channel geometry:1||system robustness formulation:1||Optimal valve installation:1||Segment:1||Drought impact factors:1||Modularity:1||Interdependency matrix:1||deep learning:1||disaster management:1||UDS modeling sustainability:1||Pipe burst detection:1||Statistical process control methods:1||Regret cost:1||Multidimensional data generation:1||Adversarially trained autoencoder:1||상수도관망:1||crosscultural collaboration:1||flood control:1||지반운동예측식:1||Hydraulic Analysis:1||Meshedness coefficient:1||Optimal design:1||Learnable evolution model:1||Detention reservoir:1||New operation:1||Pump design:1||urban flooding:1||robust operation:1||energy efficiency:1||Digraph:1||Smart meter:1||anomaly detection:1||structured and unstructured data integration:1||Wave:1||Generative adversarial networks:1||smart water:1||climate change adaptation:1||Advanced metering infrastructure:1||drought index:1||emergency condition:1||Metaheuristic algorithms:1||Modified Gaussian fitness landscape generator:1||Water supply systems:1||상수관:1||Urban drainage system:1||Sensitivity analysis:1||decentralized reservoir:1||Energy efficiency:1||Connectivity:1||Modular structure:1||emergency interconnected operation:1||Agentbased model:1||Deep uncertainty:1||Scenario planning:1||future water supply:1||global warming:1||undersized dam:1||

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