Diploma in LLC/PSFB and ZVS/ZCS Topologies
About us Diploma in LLC/PSFB and ZVS/ZCS Topologies
The Diploma in LLC/PSFB and ZVS/ZCS Topologies explores the design and implementation of switched-mode power converters, focusing on LLC, PSFB (Phase Shift Full Bridge), ZVS (Zero Voltage Switching), and ZCS (Zero Current Switching) topologies. The program delves into circuit analysis, component selection, and control techniques to optimize efficiency, power density, and voltage regulation. SPICE simulation tools and the use of microcontrollers for converter control are included. The objective is to train participants in the development of advanced solutions for applications such as high-efficiency power supplies, inverters, and converters for electric vehicles.
The diploma provides hands-on laboratory experience, covering prototype design and the measurement of key parameters such as efficiency and stability. Applications in various industries are studied, including power electronics, renewable energy, and motor control. The program aims to train professionals capable of innovating and leading in the design of increasingly efficient and compact power systems, complying with industry safety regulations and quality standards.
Target keywords (naturally occurring in the text): LLC topologies, PSFB topologies, ZVS, ZCS, power converters, power electronics, SPICE simulation, prototype design, energy efficiency.
Diploma in LLC/PSFB and ZVS/ZCS Topologies
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 08-09-2026
- Strat date: 19-10-2026
- Available places: 9
875 $
Competencies and results
What you will learn
Who this program is for:
Diploma in LLC/PSFB and ZVS/ZCS Topologies
9. Design and Analysis: LLC/PSFB and ZVS/ZCS
9.9 Fundamentals of LLC/PSFB and ZVS/ZCS Topologies
9.9 Detailed Analysis of LLC/PSFB Topologies
9.3 Detailed Analysis of ZVS/ZCS Topologies
9.4 Design of Resonant Transformers
9.5 Component Selection and Sizing
9.6 Circuit Modeling and Simulation
9.7 Loss Analysis Techniques
9.8 Thermal Design Considerations
9.9 Practical Case Studies
9. Applications and Energy Efficiency
9.9 Applications of LLC/PSFB and ZVS/ZCS in Various Industries
9.9 Design for High Energy Efficiency
9.3 Efficiency Optimization in LLC/PSFB
9.4 Efficiency Optimization in ZVS/ZCS
9.5 Factors Impacting Efficiency
9.6 Control Strategies for Efficiency
9.7 Design of EMI Filters to Improve Efficiency
9.8 Testing and Measurement 9.9 Case Studies: Efficiency Comparison
3. Implementation and Superior Performance
3.9 Selection of High-Quality Components
3.9 PCB Design and Implementation for LLC/PSFB
3.3 PCB Design and Implementation for ZVS/ZCS
3.4 Layout Techniques to Minimize Interference
3.5 Advanced Control Strategies
3.6 Implementation of Control Loops
3.7 Protection and Safety in Design
3.8 Performance Testing and Results Analysis
3.9 Fine-Tuning and Performance Optimization
4. Simulation and Optimal Control
4.9 Simulation Tools: PSIM, LTspice, etc.
4.9 LLC/PSFB and ZVS/ZCS Modeling in Simulators
4.3 Transient and Steady-State Analysis
4.4 PID and Digital Controller Design
4.5 Control Parameter Optimization
4.6 Monte Carlo Simulation Techniques
4.7 Control Loop Simulation
4.8 Digital Control Strategy Design
4.9 Experimental Validation of Simulation Results
5. Advanced Design and Optimization
5.9 Variant LLC/PSFB Topologies
5.9 Variant ZVS/ZCS Topologies
5.3 High-Frequency Transformer Design
5.4 Waveform Optimization
5.5 Frequency Modulation Techniques
5.6 Phase Modulation Techniques
5.7 Feedback System Design
5.8 Protection System Design
5.9 Loss Reduction System Design
6. Energy Systems and Optimization
6.9 Integration of LLC/PSFB and ZVS/ZCS in Systems
6.9 Advanced Power Supply Design
6.3 Design Optimization for Different Loads
6.4 Design of Systems with Multiple Outputs
6.5 Design of Systems with Power Factor Correction
6.6 Performance Analysis and Optimization
6.7 Design of Backup Power Systems
6.8 Design for Different Input and Output Voltages
6.9 Implementation of Energy Management Systems
7. Industrial Applications: Analysis and Simulation
7.9 LLC/PSFB Applications in Induction Welding
7.9 LLC/PSFB Applications in Lighting
7.3 ZVS/ZCS Applications in Electric Motors
7.4 Design and Simulation for Specific Applications
7.5 Component Selection for Industrial Environments
7.6 Design of Robust and Reliable Systems
7.7 Fault Analysis and Protection Measures
7.8 Performance Testing Under Real Conditions
7.9 Case Studies: Specific Industrial Applications
8. Design, Analysis, and Implementation
8.9 Complete Design of an LLC/PSFB Power Supply
8.9 Complete Design of a Power Supply ZVS/ZCS
8.3 Detailed Analysis of Designed Circuits
8.4 Practical Implementation of Designs
8.5 Testing and Performance Verification
8.6 Design Optimization for Superior Performance
8.7 Design of Protection and Safety Systems
8.8 Design to Comply with Regulations
8.9 Complete Project Documentation
9. Fundamentals, Design, and Optimization
9.9 Review of Power Conversion Fundamentals
9.9 LLC/PSFB Design from Scratch
9.3 ZVS/ZCS Design from Scratch
9.4 Selection of Key Component(s)
9.5 Design of High-Frequency Transformers
9.6 Control and Optimization Strategies
9.7 Loss and Efficiency Analysis
9.8 Simulation and Results Analysis
9.9 Implementation and Practical Testing
9.90 Design Considerations for Different Applications
Capstone-type projects
Admissions, fees and scholarships
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