ScholarWorks@Dongguk University: Jung, Jin woo

Detailed Information

Jung, Jin woo (정진우)

College of Engineering (Department of Electronics and Electrical Engineering)

Research Area

Tel 02-2260-3348
Homepage

ResearcherID ORCiD Scopus Google Scholar ID ResearchGate

Keyword

interior permanent magnet synchronous motor (IPMSM):13||surfacemounted permanent magnet synchronous motor (SPMSM):9||threephase inverter:7||Switches:6||speed control:6||Topology:5||Direct torque control (DTC):4||Adaptive control:4||voltage control:4||Voltage control:4||model predictive control (MPC):4||Torque:3||Transformers:3||Pulse width modulation:3||linear matrix inequality (LMI):3||uncertainties:3||Stators:3||torque ripple minimization (TRM):3||Permanent magnet motors:3||total harmonic distortion (THD):3||Steadystate:3||permanent magnet synchronous motor (PMSM):3||online parameter estimation:3||Affine projection algorithm (APA):2||uninterruptible power supply (UPS):2||Finite control set (FCS):2||Highvoltage techniques:2||periodic and nonperiodic disturbances:2||interior permanentmagnet synchronous motor (IPMSM):2||Voltage:2||iterative learning control (ILC):2||DCDC power converters:2||Wind turbine (WT):2||maximum torque per ampere (MTPA):2||Fuel cells:2||robust control:2||model reference adaptive control (MRAC):2||finite control set (FCS):2||sliding mode control (SMC):2||space vector modulation (SVM):2||Mathematical model:2||Interior permanent magnet synchronous motor (IPMSM):2||fuzzy control:2||stability analysis:2||Fault ridethrough (FRT):2||Taylor series method:2||Threephase inverter:2||nonlinear optimal control:2||statedependent Riccati equation (SDRE):2||stator winding resistance and inductance:2||broadband antenna:2||circular polarization:2||Torque control:2||Doublyfed induction generator (DFIG):2||Speed Control:2||onboard charger (OBC):2||Batteries:2||dielectric resonator antenna:2||Stability analysis:2||Inductive charging:1||Inductors:1||Informatics:1||Interior Permanent Magnet Synchronous Motor (IPMSM):1||Interior permanentmagnet synchronous motor (IPMSM):1||Inverters:1||Iterative learning control:1||LVRT scheme:1||Learning feedforward control:1||Linear matrix inequality (LMI):1||Linear quadratic regulator:1||Magnetic flux:1||Magnetic resonance:1||Masers:1||Maximum power point tracking (MPPT) algorithm:1||Microgrid control:1||Microgrid protection:1||Model predictive control (MPC):1||Modulation:1||Neurofuzzy control (NFC):1||Nonlinear Sliding Surface:1||Nonlinear disturbance observer (NDO):1||Optimal load current observer:1||PI control:1||PMSG/DFIGbased wind turbines (WTs):1||PV dispute:1||PV stakeholders:1||PV system evaluation:1||Parameter estimation:1||Parameter uncertainties:1||Permanent magnet synchronous motor (PMSM):1||Photovoltaic (PV) arrays:1||Photovoltaic (PV) system:1||Pitch angle and speed control techniques:1||Power system measurements:1||Proportionalintegral (PI) controller:1||Protection circuits:1||RLC circuits:1||Reactive power injectingdevices:1||Reliability:1||Renewable energy sources:1||Renewable energy sources (RESs):1||Resonant converters:1||Ripple compensation:1||Robustness:1||Rotors:1||Safety:1||Simulation model:1||Sliding Mode Control (SMC):1||Sliding Mode Controller (SMC):1||Sliding Mode Observer (SMO):1||Slidingmode control (SMC):1||Slidingmode observer (SMO):1||Smart charging:1||Smart grid:1||Speed control:1||Standalone/offgrid distributed generation (DG) systems:1||Stress:1||Surfacemounted Permanent Magnet Synchronous Motor (SPMSM):1||Surfacemounted permanent magnet synchronous motor (SPMSM):1||Switching circuits:1||Switching frequency:1||Synchronous motors:1||System Parameter Variations:1||System Uncertainties:1||System uncertainties:1||TS fuzzy model:1||TakagiSugeno (TS) fuzzy model:1||Total Harmonic Distortion (THD):1||Total harmonic distortion (THD):1||Traction motors:1||Transient analysis:1||Uncertainties:1||Uncertainty:1||Uninterruptible Power Supply (UPS):1||Uninterruptible power supply (UPS):1||Uninterruptible power systems:1||Utilityscale PV plant:1||Vehicle to grid (V2G):1||Voltage and current control techniques:1||Wind turbines:1||Windings:1||Wye or deltaconnected motor:1||Zero current switching:1||Zero voltage switching:1||adaptive switching gain tuning (ASGT):1||affine projection algorithm:1||balanced capacitor voltage stress:1||battery electric vehicles (BEVs):1||bidirectional DC:1||bidirectional neutralpointclamped (NPC)type resonant dc–dc converter:1||clean global energy demand:1||compact core size:1||constant voltage constant frequency (CVCF) inverter:1||controlLyapunov function (CLF):1||daxis current design:1||dielectric resonator antenna (DRA):1||distributed generation (DG) system (DGS):1||distributed generation (DG) unit:1||distributed generation system (DGS):1||disturbance observer:1||disturbances and uncertainties:1||dualband circular polarization:1||electric motor drives:1||electric vehicle (EV):1||electric vehicle (EV) charger:1||energy management system (EMS):1||energy market:1||faulttolerant control (FTC):1||feedback linearization control (FLC):1||finiteset model predictive control (FSMPC):1||fluxweakening control (FWC):1||fractal DRA:1||fuel cell electric vehicles (FCEVs):1||fuzzy controller:1||fuzzy logic approach (FLA):1||fuzzy logic control (FLC):1||fuzzy model predictive (FMP) control:1||fuzzy neural network:1||fuzzy neural network (FNN):1||fuzzy observer:1||fuzzy system (FS):1||global energy mix:1||3D meandered probe feeding:1||heat balancing:1||high efficiency:1||highconversion ratio:1||highvoltage dc/dc power converter (HDC):1||horizonone model predictive control (H1MPC):1||hybrid antenna:1||hydroelectric power:1||improved duty compensation control:1||inputcurrent ripple minimization:1||intelligent control:1||interleaved resonant converter:1||isolated resonant buckboost converter:1||load current observer:1||low cost:1||lowvoltage dc/dc power converter (LDC):1||mechanical motor parameters:1||modelbased loss minimization (LM) control:1||modulated optimal vector (MOV):1||multilayer design:1||near optimal disturbance observer (NODO):1||near optimal speed controller (NOSC):1||new modulation technique:1||no offset current. no extra filter inductor:1||nonauxiliarycircuitbased technique:1||nonlinear control:1||nonlinear observer:1||nonlinear optimal observer:1||nonlinearities compensation:1||ocean energy technology deployment:1||ocean wave renewable energy source:1||ocean waves:1||offboard charger:1||offline parameter estimation:1||online parameter identification:1||optimal control:1||optimal control (OC):1||optimal direct torque control (DTC):1||optimal predictive control law (OPCL):1||optimal switching voltage vector (VV):1||optimal voltage control:1||outputLC filter:1||parameter uncertainties:1||parameter uncertainty compensation:1||permanentmagnet synchronous motor (PMSM):1||position sensor fault:1||power electronic systems:1||power generation:1||predictive control:1||proportionalintegralderivative (PID) control:1||pulsewidth modulation (PWM):1||reconfigurable antenna:1||reducedorder disturbance observerbased optimal control (DOBOC):1||renewable energy sources:1||repetitive disturbances:1||ripplefree converter:1||robust iterative learning control (ILC) technique:1||robust prediction:1||sensorless control:1||sliding mode control:1||sliding mode speed controller (SMSC):1||space vector modulationbased direct torque control (SVMDTC):1||spacevector modulationbased DTC (SVMDTC):1||speed tracking performance:1||standalone:1||standalone:1||standalone operation:1||state dependent Riccati equation (SDRE):1||stateplane trajectory (SPT):1||suboptimal control:1||suboptimal speed controller:1||surfacemounted permanentmagnet synchronous motor (SPMSM):1||switchedmode power converters:1||system uncertainties:1||threephase constant voltage constant frequency (CVCF) inverter:1||threephase inverter with an LC filter:1||threephase standalone inverter with an output LC filter:1||threephase voltage source inverter (3 phiVSI):1||threephase voltage source inverter (VSI):1||torque and flux ripples reduction:1||torque and stator flux ripple reduction:1||total demand distortion (TDD):1||triplemode operation:1||twostage extended Kalman filter (TSEKF):1||underpinning enabling technology:1||variable initial states:1||variable regularization:1||variable structure control (VSC):1||verticalstrip feeding:1||voltage source inverter:1||voltage stress balance:1||voltage stress distribution:1||wave energy converters:1||wave energy penetration:1||wave energy power system:1||wave power generation:1||wide input voltage range:1||widevoltage range:1||wired charging:1||wireless charging:1||zero ripple current:1||zerocurrent switching (ZCS):1||zerovoltage switching (ZVS):1||global wave energy potential growth:1||AC charging:1||AC microgrid:1||Ac/dc power conversion:1||Activeclamp converter:1||Adaptive PI voltage controller (PIVC):1||Adaptive decoupling proportionalintegral (PI) control:1||Adaptive extended Kalman filter (AEKF):1||Adaptive sliding mode speed controller (ASMSC):1||Adaptive slidingmode control (ASMC):1||Adaptive voltage control:1||Advanced metering infrastructure:1||Asymptotic stability:1||Asymptotic stability (A.S):1||Auxiliarycircuitbased technique:1||Average switching frequency:1||Bandnotch property:1||Battery energy storage systems (BESSs):1||Capacitance:1||Capacitors:1||Cascade control structure:1||Conflict cause analysis:1||Constantvoltage constantfrequency (CVCF) inverter:1||Constantvoltage constantfrequency inverter:1||Continuous control set model predictive control (CCSMPC):1||Convergence:1||Core loss resistance:1||Costs:1||Crowbar circuit:1||Crowbar protection circuit:1||DC charging:1||DC converter:1||DC microgrid:1||Deadbeat (DB) control (DBC):1||Deadbeat load torque observer (DBLTO):1||Deadbeat predictive speed controller (DBPSC):1||Density measurement:1||Discretetime system:1||Dispute settlement system:1||Distributed generation (DG) units:1||Disturbance observer (DO):1||Disturbances:1||Doubly fed induction generator (DFIG):1||Dynamics:1||Electric vehicle (EV):1||Electric vehicles (EVs):1||Electrical motor parameters:1||Estimation:1||Feedforward compensator:1||Feedback linearization control (FLC):1||Feeds:1||FourSwitch Inverter (PSI):1||Fuzzy Adaptive Slidingmode Voltage Controller (FASVC):1||Fuzzy Neural Network Control (FNNC):1||HamiltonJacobiBellman equation (HJBE):1||Harmonic analysis:1||High voltage gain:1||High voltage stepdown capability:1||Highorder disturbance observer (HODO):1||

RSS_1.0 RSS_2.0 ATOM_1.0

30, Pildong-ro 1-gil, Jung-gu, Seoul, 04620, Republic of Korea+82-2-2260-3114

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