Diploma in SMPS/LDO: Control, Noise and Transients
About us Diploma in SMPS/LDO: Control, Noise and Transients
The Diploma in SMPS/LDO: Control, Noise, and Transients focuses on the design and analysis of switched-mode power supplies (SMPS) and low-dropout regulators (LDOs). It addresses control, noise reduction, and transient handling in these critical circuits. The use of simulation tools and measurement techniques to optimize performance and stability is explored, considering applications in consumer, industrial, and automotive electronics. The design of EMI filters and noise mitigation strategies to comply with applicable regulations is analyzed.
The program provides a solid foundation in converter topologies, component design, and circuit analysis, with an emphasis on simulation and experimental validation. Hands-on labs are included to apply theoretical concepts using specialized measurement equipment and simulation software.
The training prepares students for roles such as power electronics design engineers, application engineers, and embedded systems designers, strengthening their ability to innovate and solve problems in power supply design.
Target keywords (naturally occurring in the text): SMPS, LDO, power supply control, noise, transients, power electronics design, circuit simulation, component design, EMI, converters.
Diploma in SMPS/LDO: Control, Noise and Transients
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 08-09-2026
- Strat date: 19-10-2026
- Available places: 11
1,370 $
Competencies and results
What you will learn
Who this program is for:
Diploma in SMPS/LDO: Control, Noise and Transients
9.9 Fundamental Principles of SMPS/LDOs: Architecture and Operation
9.9 International Regulations and Standards Related to Noise and Transients
9.3 Types of Noise in SMPS/LDOs: Sources and Characterization
9.4 Types of Transients: Causes and Effects
9.5 Impact of Noise and Transients on Performance and Reliability
9.6 Introduction to Simulation and Analysis Tools
9.7 Basic Measurements and Testing Techniques
9.8 Introduction to Key Component Selection
9.9 Case Studies: Practical Examples and Common Problems
9.90 Future Trends in SMPS/LDO Design
9.9 Noise Sources in SMPS/LDOs: Detailed Analysis
9.9 Noise Propagation Mechanisms: Conductive, Radiated, and Coupled
9.3 Spectral Noise Analysis: FFT, Frequency Analysis 9.4 Noise Measurement Techniques: Probes, Filters, and Measuring Equipment
9.5 Influence of Components on Noise Generation
9.6 Noise Modeling and Simulation: Advanced Tools
9.7 Impedance Analysis and its Relationship to Noise
9.8 Conduction and Radiation Mode Analysis
9.9 Case Studies: Noise Identification and Analysis in Real-World Designs
9.90 Strategies for Noise Minimization from the Design Stage
3.9 Filtering Techniques: LC, RC, and Active Filters
3.9 PCB Shielding and Routing: Design and Optimization
3.3 Component Selection: Capacitors, Inductors, and Diodes
3.4 Damping and Transient Suppression Techniques
3.5 Use of Passive Components for Noise Mitigation
3.6 Use of Active Components for Noise Mitigation 3.7 Power Supply Design: Layout and Design Considerations
3.8 PCB Design: Best Practices for Noise Reduction
3.9 Case Studies: Implementing Mitigation Strategies in Specific Designs
3.90 Validation and Verification of Mitigation Strategies
4.9 Mathematical Modeling of Rotors: Equations and Simulations
4.9 Rotor Performance Analysis: Efficiency, Stability, and Transient Response
4.3 Influence of Rotor Parameters on Performance
4.4 Rotor Modeling and Simulation: Advanced Tools
4.5 Power Control: Design and Optimization
4.6 Analysis of Noise Sources in Rotors
4.7 Impact of Transients on Rotor Performance
4.8 Optimizing Rotor Design to Reduce Noise and Improve Performance
4.9 Case Studies: Applying Models and Simulations to Rotor Designs 4.90 Rotor Performance Improvement Methods
5.9 Noise Control Strategies: Feedback Loops
5.9 Implementation of Current and Voltage Control Loops
5.3 Frequency Control and Modulation Techniques
5.4 Transient Response Optimization
5.5 Digital Control of SMPS/LDOs: Advantages and Disadvantages
5.6 Implementation of Digital Control Algorithms
5.7 System Compensation and Stability Design
5.8 Implementation of Mitigation Techniques in System Design
5.9 Case Studies: Implementation of Control and Mitigation Strategies in Real-World Designs
5.90 Testing and Validation of Control Strategies
6.9 SMPS/LDO Design: Step-by-Step Design Process
6.9 Topology Selection: Advantages and Disadvantages 6.3 Design of Key Components: Inductors, Transformers, and Capacitors
6.4 Design Optimization for Noise Reduction and Performance Improvement
6.5 PCB Design: Layout and Routing
6.6 Simulation and Analysis Tools
6.7 Filter and Shielding Design
6.8 Transient Protection Design
6.9 Case Studies: Design and Optimization of Specific SMPS/LDOs
6.90 Validation and Testing Process
7.9 Stability and Transient Response Analysis of SMPS/LDOs
7.9 Advanced Simulation and Modeling Techniques
7.3 Control Loop Analysis: Stability and Response
7.4 Impedance Analysis and Its Influence on Performance
7.5 Advanced Measurement and Analysis Techniques
7.6 Fault Analysis and Troubleshooting
7.7 Component and Design Optimization
7.8 Advanced Filter and Shielding Design
7.9 Case Studies: Analysis of Complex SMPS/LDO Designs
7.90 Future Trends in SMPS/LDO Analysis
8.9 Rotor Design Optimization for Noise Reduction and Performance Improvement
8.9 Efficiency Optimization
8.3 Control Techniques for Improving Rotor Performance
8.4 Rotor Transient Response Analysis
8.5 Impact of Transients on Rotor Performance
8.6 Design of Control Systems for Rotor Optimization
8.7 Implementation of Noise and Transient Mitigation Strategies
8.8 Rotor PCB Design: Layout and Routing
8.9 Case Studies: Performance Optimization of Specific Rotors
8.90 Validation and Testing of Implemented Improvements
Capstone-type projects
Admissions, fees and scholarships
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