LEADER 06654nam 2201645z- 450 001 9910557676703321 005 20231214133425.0 035 $a(CKB)5400000000044766 035 $a(oapen)https://directory.doabooks.org/handle/20.500.12854/69244 035 $a(EXLCZ)995400000000044766 100 $a20202105d2020 |y 0 101 0 $aeng 135 $aurmn|---annan 181 $ctxt$2rdacontent 182 $cc$2rdamedia 183 $acr$2rdacarrier 200 10$aModeling of Wind Turbines and Wind Farms 210 $aBasel, Switzerland$cMDPI - Multidisciplinary Digital Publishing Institute$d2020 215 $a1 electronic resource (488 p.) 311 $a3-03928-756-7 311 $a3-03928-757-5 330 $aWind Power Plant (WPP) and Wind Turbine (WT) modeling are becoming of key importance due to the relevant wind-generation impact on power systems. Wind integration into power systems must be carefully analyzed to forecast the effects on grid stability and reliability. Different agents, such as Transmission System Operators (TSOs) and Distribution System Operators (DSOs), focus on transient analyses. Wind turbine manufacturers, power system software developers, and technical consultants are also involved. WPP and WT dynamic models are often divided into two types: detailed and simplified. Detailed models are used for Electro-Magnetic Transient (EMT) simulations, providing both electrical and mechanical responses with high accuracy during short time intervals. Simplified models, also known as standard or generic models, are designed to give reliable responses, avoiding high computational resources. Simplified models are commonly used by TSOs and DSOs to carry out different transient stability studies, including loss of generation, switching of power lines or balanced faults, etc., Assessment and validation of such dynamic models is also a major issue due to the importance and difficulty of collecting real data. Solutions facing all these challenges, including the development, validation and application of WT and WPP models are presented in this Issue. 606 $aHistory of engineering & technology$2bicssc 610 $abearing current 610 $acommon mode current 610 $adoubly fed induction generators 610 $apermanent magnet synchronous generators 610 $awind turbine generator 610 $adoubly-fed generator 610 $aconverter control 610 $ashort-circuit current 610 $asecond harmonic component 610 $alow-voltage ride-through (LVRT) field test data 610 $acomplex terrain 610 $aterrain-induced turbulence 610 $aturbulence intensity 610 $aLES 610 $avortex shedding 610 $afrequency control 610 $awind power integration 610 $apower system stability 610 $aturbulence 610 $astatistical modelling 610 $aWind Turbine (WT) 610 $aDoubly Fed Induction Generator (DFIG) 610 $aunbalanced grid voltage 610 $aDC-linked voltage control 610 $aProportional Resonant with Resonant Harmonic Compensator (PR+HC) controller 610 $aAdaptive Proportional Integral (API) control 610 $apower control 610 $awind turbine near wake 610 $awind turbine wakes 610 $awake aerodynamics 610 $acomputational fluid dynamics 610 $arotor aerodynamics 610 $awind turbine validation 610 $aMEXICO experiment 610 $awind energy 610 $amodel validation 610 $awind turbine aerodynamics 610 $awind farms 610 $awind turbines interaction 610 $awind farm modeling 610 $akernel density estimation 610 $amultiple wind farms 610 $ajoint probability density 610 $aordinal optimization 610 $areactive power capability 610 $awind power plant 610 $awind power collection system 610 $aaggregated, modelling 610 $awind integration studies 610 $along term voltage stability 610 $afault-ride through capability 610 $aIEC 61400-27-1 610 $aSpanish PO 12.3 610 $aType 3 wind turbine 610 $ainertia 610 $awind power 610 $adroop 610 $aprimary control 610 $afrequency containment process 610 $awind integration 610 $ademand response 610 $aancillary services 610 $awind turbine nacelle 610 $alightning electromagnetic pulse (LEMP) 610 $amagnetic field intensity 610 $ashielding mesh 610 $awake steering 610 $ayaw misalignment 610 $amulti body simulation 610 $amain bearing loads 610 $arain flow counts 610 $aaeroelasticity 610 $amulti-rotor system 610 $awind turbine 610 $acomputational fluid dynamics (CFD) 610 $ahorizontal-axis wind turbine (HAWT) 610 $apermanent-magnet synchronous-generator (PMSG) 610 $alinear quadratic regulator (LQR) 610 $aPI control algorithm 610 $aLQR-PI control 610 $awind turbine blade 610 $alarge-eddy simulation 610 $aturbulence evaluation index 610 $afatigue damage evaluation index 610 $aDIgSILENT-PowerFactory 610 $aMATLAB 610 $atransient stability 610 $atype 3 wind turbine 610 $aDFIG 610 $afield testing 610 $afull-scale converter 610 $ageneric model 610 $avalidation 610 $aHAWT 610 $aaerodynamic characteristics 610 $adynamic yawing process 610 $anear wake 610 $astart-stop yaw velocity 610 $aload frequency control (LFC) 610 $aequivalent input disturbance (EID) 610 $aactive disturbance rejection control (ADRC) 610 $awind 610 $alinear matrix inequalities (LMI) 610 $adynamic modeling 610 $agrey-box parameter identification 610 $asubspace identification 610 $arecursive least squares 610 $aoptimal identification 615 7$aHistory of engineering & technology 700 $aGomez-Lazaro$b Emilio$4edt$01332365 702 $aArtigao$b Estefania$4edt 702 $aGomez-Lazaro$b Emilio$4oth 702 $aArtigao$b Estefania$4oth 906 $aBOOK 912 $a9910557676703321 996 $aModeling of Wind Turbines and Wind Farms$93040892 997 $aUNINA