<![CDATA[ Power Electronics, IET - new TOC ]]>
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TOC Alert for Publication# 4475725 2014July 24<![CDATA[Super-lift boost converters]]>7716551664866<![CDATA[Modelling and controller design of quasi-Z-source inverter with battery-based photovoltaic power system]]>77166516741075<![CDATA[Improved sensorless direct torque control method using adaptive flux observer]]>77167516841361<![CDATA[Resonance based zero-voltage zero-current switching full bridge converter]]>7716851690576<![CDATA[Multilevel cascaded transformerless inverter for connecting distributed-generation sources to network]]>C is obtained based on the load nature, and is used to adjust the set point of the inverter between two operating modes. Proposed scheme has been simulated in Matlab/Simulink to evaluate the circuit performance both in the maximum active power injection mode and the load harmonic compensation mode. Then a 2.2 kW single-phase prototype of the circuit is used for experimental evaluation of the study. Both simulative and experimental results prove that such a circuit minimises the total harmonic distortion of the source side current to an acceptable margin, while injecting the maximum possible active power.]]>77169117031779<![CDATA[Single-phase ac to high-voltage dc converter with soft-switching and diode-capacitor voltage multiplier]]>7717041713895<![CDATA[Transient response evaluation of stationary-frame resonant current controllers for grid-connected applications]]>77171417241906<![CDATA[High-efficiency battery charger with cascode output design]]>77172517351377<![CDATA[Simple peak detection control algorithm of distribution static compensator for power quality improvement]]>77173617461447<![CDATA[Medium-voltage level dynamic voltage restorer compensation strategy by positive and negative sequence extractions in multiple reference frames]]>77174717581557<![CDATA[Dead-time elimination method of nine-switch converter]]>77175917691025<![CDATA[New resonant LCL boost converter]]>7717701776635<![CDATA[Multivariable load current sensorless controller for universal active power filter]]>7717771786871<![CDATA[Equivalent matrix structure modelling and control of a three-phase flying capacitor multilevel inverter]]>n) switching functions are defined for all switch combinations of the output voltage and their corresponding switch states. Therefore the modulation strategy of a three-phase FCMI is obtained in two steps. Firstly, the direct space-vector modulation of the matrix converter is used to compute the switching functions. The gates signals of the three-phase FCMI can be calculated by inversing the modelling part. In this work, the direct space-vector multilevel modulation based on the use of 2n different three level functions called modulation functions is presented. Using this approach, the modulation strategy of a three-phase FCMI is designed without using a Park transform. To validate the effectiveness of the equivalent matrix structure modelling and control, simulation results are given for nine-level FCMI. Moreover, experimental results are given for a three-level neutral point clamped (NPC) converter prototype laboratory.]]>77178717961056<![CDATA[Solution for selective harmonic optimisation in diode-clamped inverters using radial basis function neural networks]]>7717971804797<![CDATA[Frequency compensation circuit for adaptive on-time control buck regulator]]>7718051809462<![CDATA[In-depth study of direct power control strategies for power converters]]>77181018201198<![CDATA[Coordinated control of multi-functional grid-tied inverters using conductance and susceptance limitation]]>77182118311583<![CDATA[Hybrid phase shifted full bridge and LLC half bridge DC-DC converter for low-voltage and high-current output applications]]>7718321840952<![CDATA[Three-phase interleaved high-step-up converter with coupled-inductor-based voltage quadrupler]]>77184118491078<![CDATA[Line current harmonics of three-level neutral-point-clamped electric multiple unit rectifiers: analysis, simulation and testing]]>7718501858532<![CDATA[null]]>77977<![CDATA[A new switching strategy for transformer-less back-to-back cascaded H-bridge multilevel converter]]>77186818771238<![CDATA[New single-stage, single-switch, soft-switching three-phase SEPIC and Cuk-type power factor correction converters]]>7718781885906<![CDATA[Contribution to digital power factor correction controllers in high intensity discharge lamps electronic ballast applications]]>7718861894810<![CDATA[Real-time control of shunt active power filter under distorted grid voltage and unbalanced load condition using self-tuning filter]]>77189519051336<![CDATA[Analysis and implementation of a new single-switch buck??boost DC/DC converter]]>7719061914853<![CDATA[Two simple overmodulation algorithms for space vector modulated three-phase to three-phase matrix converter]]>77191519241062<![CDATA[Cascaded three-phase pulse-width modulated switched voltage source inverter]]>77192519331084<![CDATA[Coupled inductor filter with frequency notching characteristics for grid interface]]>77193419431372