Power Electronics Ieee Projects 2015 2016
LeMeniz Infotech offers comprehensive power electronics ieee projects 2015 2016 guidance for students and researchers in Pondicherry. Our team has supported final-year students with power electronics ieee projects 2015 2016 since 2016, providing complete source code, documentation, and implementation support for academic and industry projects.
power electronics ieee projects 2015-2016
power electronics ieee projects 2015-2016
Power Electronics Projects For M.E / M.Tech
|
S.NO |
TITLE |
CODE |
| 1 | Hybrid Transformer ZVS/ZCS DC–DC Converter With Optimized Magnetics and Improved Power Devices Utilization for Photovoltaic Module Applications | LM_PE015_01 |
| 2 | A Novel High Step-up DC/DC Converter Based on Integrating Coupled Inductor and Switched-Capacitor Techniques for Renewable Energy Applications | LM_PE015_02 |
| 3 | A Bidirectional LLC Resonant Converter With Automatic Forward and Backward Mode Transition | LM_PE015_03 |
| 4 | Discontinuous Modulation Scheme for a Differential-Mode Cuk Inverter | LM_PE015_04 |
| 5 | Bridgeless PFC-Modified SEPIC Rectifier With Extended Gain for Universal Input Voltage Applications | LM_PE015_05 |
| 6 | Transformerless Hybrid Power Filter Based on a Six-Switch Two-Leg Inverter for Improved Harmonic Compensation Performance | LM_PE015_06 |
| 7 | Resonance Analysis and Soft-Switching Design of Isolated Boost Converter With Coupled Inductors for Vehicle Inverter Application | LM_PE015_07 |
| 8 | Naturally Clamped Zero-Current Commutated Soft-Switching Current-Fed Push–Pull DC/DC Converter: Analysis, Design, and Experimental Results | LM_PE015_08 |
| 9 | PFC Cuk Converter-Fed BLDC Motor Drive | LM_PE015_09 |
| 10 | A Single-Phase Cascaded Multilevel Inverter Based on a New Basic Unit With Reduced Number of Power Switches | LM_PE015_10 |
| 11 | A High-Efficiency MOSFET Transformerless Inverter for Nonisolated Micro inverter Applications | LM_PE015_11 |
| 12 | Three-Port DC–DC Converter for Stand-Alone Photovoltaic Systems | LM_PE015_12 |
| 13 | Boost-Derived Hybrid Converter With Simultaneous DC and AC Outputs | LM_PE015_13 |
| 14 | Modeling and Controller Design of a Semiisolated Multiinput Converter for a Hybrid PV/Wind Power Charger System | LM_PE015_14 |
| 15 | The Transformerless Single-Phase Universal Active Power Filter for Harmonic and Reactive Power Compensation | LM_PE015_15 |
| 16 | A Zero-Voltage-Transition Bidirectional DC/DC Converter | LM_PE015_16 |
| 17 | A New Resonant Bidirectional DC–DC Converter Topology | LM_PE015_17 |
| 18 | An Adjustable-Speed PFC Bridgeless Buck–Boost Converter-Fed BLDC Motor Drive | LM_PE015_18 |
| 19 | Multicell Switched-Inductor/Switched-Capacitor Combined Active-Network Converters | LM_PE015_19 |
| 20 | A Four-Switch Three-Phase SEPIC Based Inverter | LM_PE015_20 |
| 21 | A Three-Level Quasi-Two-Stage Single-Phase PFC Converter with Flexible Output Voltage and Improved Conversion Efficiency | LM_PE015_21 |
| 22 | A Family of Multiport Buck–Boost Converters Based on DC-Link-Inductors (DLIs) | LM_PE015_22 |
| 23 | A Grid-Connected Dual Voltage Source Inverter With Power Quality Improvement Features | LM_PE015_23 |
| 24 | Transformerless Hybrid Power Filter Based on a Six-Switch Two-Leg Inverter for Improved Harmonic Compensation Performance | LM_PE015_24 |
| 25 | High Step-Up Converter With Three-Winding Coupled Inductor for Fuel Cell Energy Source Applications | LM_PE015_25 |
| 26 | A Multilevel Energy Buffer and Voltage Modulator for Grid-Interfaced Micro Inverters | LM_PE015_26 |
| 27 | Analytical Model of the Half-Bridge Series Resonant Inverter for Improved Power Conversion Efficiency and Performance | LM_PE015_27 |
| 28 | An Adaptive ZVS Full-Bridge DC–DC Converter With Reduced Conduction Losses and Frequency Variation Range | LM_PE015_28 |
| 29 | Analysis of the Interleaved Isolated Boost Converter With Coupled Inductors | LM_PE015_29 |
| 30 | A Voltage-Controlled DSTATCOM for Power-Quality Improvement | LM_PE015_30 |
Power Electronics Project Titles For B.E / B.Tech
|
S.NO |
TITLE |
CODE |
DOWNLOAD |
| RENEWABLE ENERGY | |||
| 1 | A Novel High Step-up DC/DC Converter Based on Integrating Coupled Inductor and Switched-Capacitor Techniques for Renewable Energy Applications | LM_PE015_01 | ABSTRACT |
| 2 | Hybrid Transformer ZVS/ZCS DC–DC Converter With Optimized Magnetics and Improved Power Devices Utilization for Photovoltaic Module Applications | LM_PE015_02 | ABSTRACT |
| 3 | Performance of Medium-Voltage DC-Bus PV System Architecture Utilizing High-Gain DC–DC Converter | LM_PE015_03 | ABSTRACT |
| 4 | A Single Stage CCM Zeta Microinverter for Solar Photovoltaic AC Module | LM_PE015_04 | ABSTRACT |
| 5 | Topology Review and Derivation Methodology of Single-Phase Transformerless Photovoltaic Inverters for Leakage Current Suppression | LM_PE015_05 | ABSTRACT |
| 6 | A High Efficiency Flyback Micro-inverter With a New Adaptive Snubber for Photovoltaic Applications | LM_PE015_06 | ABSTRACT |
| 7 | High Step-Up Converter With Three-Winding Coupled Inductor for Fuel Cell Energy Source Applications | LM_PE015_07 | ABSTRACT |
| 8 | Optimized Operation of Current-Fed Dual Active Bridge DC-DC Converter for PV Applications | LM_PE015_08 | ABSTRACT |
| 9 | Online Variable Topology-Type Photovoltaic Grid-Connected Inverter | LM_PE015_09 | ABSTRACT |
| 10 | High-Gain Resonant Switched-Capacitor Cell-Based DC/DC Converter for Offshore Wind Energy Systems | LM_PE015_10 | ABSTRACT |
| MICROGRID APPLICATIONS | |||
| 11 | An Enhanced Islanding Microgrid Reactive Power, Imbalance Power, and Harmonic Power Sharing Scheme | LM_PE015_11 | ABSTRACT |
| 12 | A Novel Integrated Power Quality Controller for Microgrid | LM_PE015_12 | ABSTRACT |
| 13 | Power Control in AC Isolated Microgrids With Renewable Energy Sources and Energy Storage Systems | LM_PE015_13 | ABSTRACT |
| VEHICULAR APPLICATIONS | |||
| 14 | General Analysis and Design Guideline for a Battery Buffer System With DC/DC Converter and EDLC for Electric Vehicles and its Influence on Efficiency | LM_PE015_14 | ABSTRACT |
| 15 | Reduced-Capacity Smart Charger for Electric Vehicles on Single-Phase Three-Wire Distribution Feeders With Reactive Power Control | LM_PE015_15 | ABSTRACT |
| 16 | A Non isolated Multi input Multi output DC–DC Boost Converter for Electric Vehicle Applications | LM_PE015_16 | ABSTRACT |
| 17 | New Interleaved Current-Fed Resonant Converter With Significantly Reduced High Current Side Output Filter for EV and HEV Applications | LM_PE015_17 | ABSTRACT |
| DRIVES | |||
| 18 | PFC Cuk Converter-Fed BLDC Motor Drive | LM_PE015_18 | ABSTRACT |
| 19 | Variable-Form Carrier-Based PWM for Boost-Voltage Motor Driver With a Charge-Pump Circuit | LM_PE015_19 | ABSTRACT |
| 20 | Sensorless Drive for High-Speed Brushless DC Motor Based on the Virtual Neutral Voltage | LM_PE015_20 | ABSTRACT |
| 21 | Independent Control of Two Permanent-Magnet Synchronous Motors Fed by a Four-Leg Inverter | LM_PE015_21 | ABSTRACT |
| 22 | Online Inverter Fault Diagnosis of Buck-Converter BLDC Motor Combinations | LM_PE015_22 | ABSTRACT |
| 23 | A Unity Power Factor Bridgeless Isolated Cuk Converter-Fed Brushless DC Motor Drive | LM_PE015_23 | ABSTRACT |
| CONVERTERS PFC,ZVS,ZCS,HIGH VOLTAGE, INTERLEAVED, SWITCHED CAPACITOR, BIDIRECTIONAL, MULTIPORT, MULTIPLE OUTPUT, RESONANT CONVERTERS, INVERTER, MULTI LEVEL INVERTER, AC TO AC CONVERTER, DC TO DC CONVERTER |
|||
| 24 | Bridgeless PFC-Modified SEPIC Rectifier With Extended Gain for Universal Input Voltage Applications | LM_PE015_24 | ABSTRACT |
| 25 | A Three-Level Quasi-Two-Stage Single-Phase PFC Converter with Flexible Output Voltage and Improved Conversion Efficiency | LM_PE015_25 | ABSTRACT |
| 26 | Offline Soft-Switched LED Driver Based on an Integrated Bridgeless Boost–Asymmetrical Half-Bridge Converter | LM_PE015_26 | ABSTRACT |
| 27 | Front-End Converter With Integrated PFC and DC–DC Functions for a Fuel Cell UPS With DSP-Based Control | LM_PE015_27 | ABSTRACT |
| 28 | Loss-Free Resistor-Based Power Factor Correction Using a Semi-Bridgeless Boost Rectifier in Sliding-Mode Control | LM_PE015_28 | ABSTRACT |
| 29 | A Novel Control Scheme of Quasi-Resonant Valley-Switching for High-Power-Factor AC-to-DC LED Drivers | LM_PE015_29 | ABSTRACT |
| 30 | Power Factor Corrected Zeta Converter Based Improved Power Quality Switched Mode Power Supply | LM_PE015_30 | ABSTRACT |
| 31 | Dual Active Bridge-Based Battery Charger for Plug-in Hybrid Electric Vehicle with Charging Current Containing Low Frequency Ripple | LM_PE015_31 | ABSTRACT |
| 32 | A Novel Wall-Switched Step-Dimming Concept in LED Lighting Systems using PFC Zeta Converter | LM_PE015_32 | ABSTRACT |
| 33 | Analysis and Design of Single-Switch Forward-Flyback Two-Channel LED Driver with Resonant-Blocking Capacitor | LM_PE015_33 | ABSTRACT |
| 34 | Resonance Analysis and Soft-Switching Design of Isolated Boost Converter With Coupled Inductors for Vehicle Inverter Application | LM_PE015_34 | ABSTRACT |
| 35 | An Adaptive ZVS Full-Bridge DC–DC Converter With Reduced Conduction Losses and Frequency Variation Range | LM_PE015_35 | ABSTRACT |
| 36 | An Integrated High-Power-Factor Converter with ZVS Transition | LM_PE015_36 | ABSTRACT |
| 37 | A Novel Load Adaptive ZVS Auxiliary Circuit for PWM Three-Level DC–DC Converters | LM_PE015_37 | ABSTRACT |
| 38 | Hybrid Modulated Extended Secondary Universal Current-Fed ZVS Converter for Wide Voltage Range: Analysis, Design, and Experimental Results | LM_PE015_38 | ABSTRACT |
| 39 | Two-Stage Power Conversion Architecture Suitable for Wide Range Input Voltage | LM_PE015_39 | ABSTRACT |
| 40 | Naturally Clamped Zero-Current Commutated Soft-Switching Current-Fed Push–Pull DC/DC Converter: Analysis, Design, and Experimental Results | LM_PE015_40 | ABSTRACT |
| 41 | A Soft-Switched Asymmetric Flying Capacitor Boost Converter with Synchronous Rectification | LM_PE015_41 | ABSTRACT |
| 42 | A High Gain Input-Parallel Output-Series DC-DC Converter With Dual Coupled Inductors | LM_PE015_42 | ABSTRACT |
| 43 | Bidirectional PWM Converter Integrating Cell Voltage Equalizer Using Series-Resonant Voltage Multiplier for Series-Connected Energy Storage Cells | LM_PE015_43 | ABSTRACT |
| 44 | Multicell Switched-Inductor/Switched-Capacitor Combined Active-Network Converters | LM_PE015_44 | ABSTRACT |
| 45 | Reliability Evaluation of Conventional and Interleaved DC–DC Boost Converters | LM_PE015_45 | ABSTRACT |
| 46 | A Novel Switched-Coupled-Inductor DC–DC Step-Up Converter and Its Derivatives | LM_PE015_46 | ABSTRACT |
| 47 | A New Interleaved Three-Phase Single-Stage PFC AC–DC Converter With Flying Capacitor | LM_PE015_47 | ABSTRACT |
| 48 | Ripple Minimization Through Harmonic Elimination in Asymmetric Interleaved Multiphase dc-dc Converters | LM_PE015_48 | ABSTRACT |
| 49 | Analysis of the Interleaved Isolated Boost Converter With Coupled Inductors | LM_PE015_49 | ABSTRACT |
| 50 | High Step-Up Interleaved Forward-Flyback Boost Converter With Three-Winding Coupled Inductors | LM_PE015_50 | ABSTRACT |
| 51 | A Novel Transformer-less Interleaved Four-Phase Step-down DC Converter with Low Switch Voltage Stress and Automatic Uniform Current Sharing Characteristics | LM_PE015_51 | ABSTRACT |
| 52 | Nonisolated High Step-Up DC–DC Converters Adopting Switched-Capacitor Cell | LM_PE015_52 | ABSTRACT |
| 53 | A Family of High-Voltage Gain Single-Phase Hybrid Switched-Capacitor PFC Rectifiers | LM_PE015_53 | ABSTRACT |
| 54 | A High-Efficiency Resonant Switched Capacitor Converter With Continuous Conversion Ratio | LM_PE015_54 | ABSTRACT |
| 55 | A Cascade Point of Load DC-DC Converter with a Novel Phase Shifted Switched Capacitor Converter Output Stage | LM_PE015_55 | ABSTRACT |
| 56 | Modeling Approaches for DC–DC Converters With Switched Capacitors | LM_PE015_56 | ABSTRACT |
| 57 | A Zero-Voltage-Transition Bidirectional DC/DC Converter | LM_PE015_57 | ABSTRACT |
| 58 | Steady-State Analysis of a ZVS Bidirectional Isolated Three Phase DC-DC Converter Using Dual Phase-Shift Control with Variable Duty Cycle | LM_PE015_58 | ABSTRACT |
| 59 | Novel High-Conversion-Ratio High-Efficiency Isolated Bidirectional DC–DC Converter | LM_PE015_59 | ABSTRACT |
| 60 | DC–DC Converter for Dual-Voltage Automotive Systems Based on Bidirectional Hybrid Switched-Capacitor Architectures | LM_PE015_60 | ABSTRACT |
| 61 | A Novel PWM High Voltage Conversion Ratio Bi-Directional Three-Phase DC/DC Converter with Y-Δ Connected Transformer | LM_PE015_61 | ABSTRACT |
| 62 | Performance Analysis of Bi-directional DC-DC Converters for Electric Vehicles | LM_PE015_62 | ABSTRACT |
| 63 | A Nonisolated Three-Port DC–DC Converter and Three-Domain Control Method for PV-Battery Power Systems | LM_PE015_63 | ABSTRACT |
| 64 | A Power Decoupling Method Based on Four-Switch Three-Port DC/DC/AC Converter in DC Microgrid | LM_PE015_64 | ABSTRACT |
| 65 | Three-Port DC–DC Converter for Stand-Alone Photovoltaic Systems | LM_PE015_65 | ABSTRACT |
| 66 | A Family of Multiport Buck–Boost Converters Based on DC-Link-Inductors (DLIs) | LM_PE015_66 | ABSTRACT |
| 67 | An Isolated Three-Port Bidirectional DC-DC Converter for Photovoltaic Systems with Energy Storage | LM_PE015_67 | ABSTRACT |
| 68 | A High Step-Down Multiple Output Converter With Wide Input Voltage Range Based on Quasi Two-Stage Architecture and Dual-Output LLC Resonant Converter | LM_PE015_68 | ABSTRACT |
| 69 | Single-Inductor Dual-Output Buck–Boost Power Factor Correction Converter | LM_PE015_69 | ABSTRACT |
| 70 | Hybrid Phase-Shift-Controlled Three-Level and LLC DC–DC Converter With Active Connection at the Secondary Side | LM_PE015_70 | ABSTRACT |
| 71 | Analysis and Design of LLC Resonant Converters With Capacitor–Diode Clamp Current Limiting | LM_PE015_71 | ABSTRACT |
| 72 | A Secondary-Side Phase-Shift-Controlled LLC Resonant Converter With Reduced Conduction Loss at Normal Operation for Hold-Up Time Compensation Application | LM_PE015_72 | ABSTRACT |
| 73 | Optimal Design Methodology for LLC Resonant Converter in Battery Charging Applications Based on Time-Weighted Average Efficiency | LM_PE015_73 | ABSTRACT |
| 74 | Discontinuous Modulation Scheme for a Differential-Mode Cuk Inverter | LM_PE015_74 | ABSTRACT |
| 75 | A High-Efficiency MOSFET Transformerless Inverter for Nonisolated Microinverter Applications | LM_PE015_75 | ABSTRACT |
| 76 | A Multilevel Energy Buffer and Voltage Modulator for Grid-Interfaced Microinverters | LM_PE015_76 | ABSTRACT |
| 77 | Extended Boost Active-Switched-Capacitor/ Switched-Inductor Quasi-Z-Source Inverters | LM_PE015_77 | ABSTRACT |
| 78 | Grid-Connected Forward Microinverter With Primary-Parallel Secondary-Series Transformer | LM_PE015_78 | ABSTRACT |
| 79 | Minimization of the DC Component in Transformerless Three-Phase Grid-Connected Photovoltaic Inverters | LM_PE015_79 | ABSTRACT |
| 80 | Single Inductor Dual Buck Full-Bridge Inverter | LM_PE015_80 | ABSTRACT |
| 81 | A Single-Phase Cascaded Multilevel Inverter Based on a New Basic Unit With Reduced Number of Power Switches | LM_PE015_81 | ABSTRACT |
| 82 | Analytical Model of the Half-Bridge Series Resonant Inverter for Improved Power Conversion Efficiency and Performance | LM_PE015_82 | ABSTRACT |
| 83 | A Bridgeless BHB ZVS-PWM AC-AC Converter for High-Frequency Induction Heating Applications | LM_PE015_83 | ABSTRACT |
| 84 | Multi-MOSFET-Based Series Resonant Inverter for Improved Efficiency and Power Density Induction Heating Applications | LM_PE015_84 | ABSTRACT |
| 85 | Novel Single-Phase PWM AC–AC Converters Solving Commutation Problem Using Switching Cell Structure and Coupled Inductor | LM_PE015_85 | ABSTRACT |
| 86 | Soft-Switching AC-Link Three-Phase AC–AC Buck–Boost Converter | LM_PE015_86 | ABSTRACT |
| 87 | Ultra sparse AC-Link Converters | LM_PE015_87 | ABSTRACT |
Recent Projects 2015-2016
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Power Electronics Ieee Projects 2015 2016 at LeMeniz Infotech
LeMeniz Infotech has been a trusted software company and academic project guidance center in Pondicherry since 2016. Our power electronics ieee projects 2015 2016 program is designed to help M.E/M.Tech, B.E/B.Tech, MCA, BCA, M.Sc, B.Sc and Diploma students complete their final year academic work with confidence. Every power electronics ieee projects 2015 2016 title we provide includes complete source code, a detailed project report, presentation slides, and one-to-one implementation training from our in-house engineering team.
Students choose our power electronics ieee projects 2015 2016 guidance because we combine authentic IEEE reference papers with hands-on lab sessions, so learners understand the underlying concepts instead of just submitting a working demo. We also assist with plagiarism checks, viva-voce preparation, and paper publication support for students who want to extend their power electronics ieee projects 2015 2016 work into a research paper. To review the official IEEE standards referenced in many of these titles, see the IEEE official website.
Our academic project center in Pondicherry has supported thousands of engineering students across Tamil Nadu, Kerala, Andhra Pradesh, and Puducherry since 2016, with dedicated batches for power electronics ieee projects 2015 2016 running throughout the year. Class sizes stay small so every student receives individual code walkthroughs, and our lab is open on weekends for students travelling from nearby districts. Beyond power electronics ieee projects 2015 2016, our engineers also mentor students on report writing, plagiarism reduction, and confident viva presentation.
If you are searching for dependable power electronics ieee projects 2015 2016 support in Pondicherry, browse our full projects listing or contact our team directly for a free consultation on your final year project.


