International Journal of Power Electronics Controllers and Converters

International Journal of Power Electronics Controllers and Converters

• Power Electronic Converters: AC-DC rectifiers, DC-DC converters, DC-AC inverters, AC-AC converters, matrix converters, resonant converters, multilevel converters, isolated and non-isolated converters, bidirectional converters, and high-efficiency power-conversion systems.
• Converter Control Techniques: Pulse-width modulation, space-vector modulation, hysteresis control, current-mode control, voltage-mode control, predictive control, sliding-mode control, adaptive control, digital control, and advanced modulation strategies.
• Power Semiconductor Devices: Power MOSFETs, IGBTs, thyristors, diodes, silicon carbide devices, gallium nitride devices, wide-bandgap semiconductors, power modules, gate drivers, switching characteristics, and semiconductor reliability.
• DC-DC Conversion Systems: Buck, boost, buck-boost, Cuk, SEPIC, flyback, forward, push-pull, half-bridge and full-bridge converters, interleaved converters, soft-switching converters, and high-gain converter topologies.
• Inverters and DC-AC Conversion: Voltage-source inverters, current-source inverters, multilevel inverters, grid-connected inverters, standalone inverters, resonant inverters, transformerless inverters, and high-frequency inverter systems.
• Multilevel Converter Technologies: Neutral-point-clamped converters, flying-capacitor converters, cascaded H-bridge systems, modular multilevel converters, reduced-switch-count topologies, modulation techniques, and balancing strategies.
• Soft-Switching and Resonant Power Conversion: Zero-voltage switching, zero-current switching, resonant converters, quasi-resonant converters, LLC converters, switching-loss reduction, electromagnetic-interference reduction, and high-frequency conversion.
• Digital Controllers for Power Electronics: Microcontroller-based control, DSP controllers, FPGA-based controllers, embedded control, digital signal processing, real-time control implementation, programmable control platforms, and hardware-in-the-loop validation.
• Intelligent Control of Power Converters: Fuzzy logic control, neural-network control, machine-learning-based controllers, reinforcement learning, adaptive intelligent control, optimization-based control, and AI-assisted converter operation.
• Electrical Motor Drives: AC and DC motor drives, induction-motor drives, synchronous-motor drives, permanent-magnet synchronous motor drives, brushless DC drives, switched-reluctance motor drives, servo systems, and variable-speed drives.
• Power Electronics for Electric Vehicles: EV traction converters, motor-drive systems, onboard chargers, off-board chargers, DC fast charging, bidirectional charging, regenerative braking, auxiliary power converters, and electric-vehicle power-management systems.
• Battery Chargers and Charging Systems: Battery-charger topologies, fast charging, wireless charging, bidirectional chargers, charging control, charging optimization, power-factor-corrected chargers, and charging infrastructure.
• Battery and Energy Storage Interfaces: Battery energy-storage converters, supercapacitor interfaces, hybrid storage systems, battery-management integration, bidirectional power conversion, state-of-charge-based control, and storage-system power management.
• Renewable Energy Power Electronics: Photovoltaic converters, wind-energy converters, fuel-cell power interfaces, hybrid renewable-energy systems, maximum-power-point tracking, renewable-energy conditioning, and grid-connected renewable converters.
• Solar Photovoltaic Conversion Systems: PV inverters, DC optimizers, MPPT converters, transformerless PV systems, microinverters, photovoltaic energy conversion, grid synchronization, and PV power-conditioning systems.
• Wind-Energy Conversion Systems: Power converters for wind turbines, generator-side converters, grid-side converters, doubly fed induction generators, permanent-magnet generators, pitch and converter control, and wind-power integration.
• Grid-Connected Power Converters: Grid synchronization, current control, voltage control, grid-following converters, grid-forming converters, frequency regulation, reactive-power support, fault ride-through, and converter-grid interactions.
• Smart Grids and Microgrids: Power-electronic interfaces for microgrids, distributed energy resources, AC and DC microgrids, hybrid microgrids, energy-management converters, islanded operation, grid-connected operation, and microgrid control.
• Power Quality Improvement: Active power filters, passive filters, harmonic compensation, voltage sag and swell mitigation, power-factor correction, dynamic voltage restorers, unified power-quality conditioners, and custom power devices.
• FACTS Controllers: STATCOM, SVC, UPFC, TCSC, series and shunt compensation, power-flow controllers, voltage-control devices, and power-electronic solutions for transmission systems.
• HVDC Converter Technologies: Line-commutated converters, voltage-source converters, modular multilevel converters, multi-terminal HVDC, converter stations, HVDC control, offshore-grid interfaces, and high-voltage DC systems.
• Wireless Power Transfer: Inductive power transfer, resonant wireless charging, capacitive power transfer, EV wireless charging, coil design, compensation networks, efficiency optimization, and wireless-power control.
• Power Supplies and Industrial Conversion: Switched-mode power supplies, uninterruptible power supplies, industrial converters, telecom power supplies, server power supplies, welding power supplies, induction heating, and regulated power systems.
• Thermal Management and Reliability: Thermal modelling, heat sinks, cooling methods, junction-temperature estimation, thermal cycling, converter reliability, lifetime prediction, fault-tolerant converters, and reliability-oriented design.
• Electromagnetic Compatibility and EMI: Conducted and radiated electromagnetic interference, EMI filtering, switching-noise reduction, electromagnetic compatibility, common-mode interference, grounding, shielding, and converter-layout optimization.
• Converter Design and Optimization: Converter modelling, component sizing, topology optimization, loss analysis, efficiency improvement, magnetic-component design, thermal optimization, multi-objective optimization, and design automation.
• Artificial Intelligence in Power Electronics: Machine learning for converter control, fault diagnosis, predictive maintenance, parameter estimation, anomaly detection, remaining-life prediction, adaptive modulation, and AI-supported power-electronic design.
• Emerging Power Electronics Technologies: Solid-state transformers, ultra-fast chargers, GaN and SiC converter systems, high-frequency conversion, modular power electronics, digital twins, autonomous converters, and next-generation energy-conversion technologies.