Diploma in Hall/Ion Thrusters and PPU
About us Diploma in Hall/Ion Thrusters and PPU
The Diploma in Hall/Ion Thrusters and PPUs explores the design and application of advanced electric propulsion systems, focusing on Hall and ion thrusters and propulsion processing units (PPUs). It delves into principles of plasma physics, rocket engineering, and aerodynamics as applied to space propulsion. The program includes the study of advanced materials, numerical simulation, and propellant performance analysis, essential for the development of space missions and the design of satellites. Practical training involves the use of simulation tools, research laboratories, and propellant testing, including plasma characterization and energy efficiency analysis. Participants acquire skills in the design of control systems, thermal management, and the integration of propellants into spacecraft. Space regulations and safety standards are explored, preparing graduates for roles such as space propulsion engineers, satellite system designers, and electric propulsion researchers. Target keywords (natural occurrences in the text): Hall thrusters, ion thrusters, PPU, space propulsion, plasma physics, rocket engineering, numerical simulation, energy efficiency, satellite design, propulsion diploma.
Diploma in Hall/Ion Thrusters and PPU
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 08-09-2026
- Strat date: 19-10-2026
- Available places: 9
1,199 $
Competencies and results
What you will learn
Who this program is for:
Diploma in Hall/Ion Thrusters and PPU
9. PPU Design, Simulation, and Optimization
9.9 Introduction to Plasma Propulsion (PPU) and its Applications
9.9 Fundamentals of PPU Design: Propellant Selection, System Design
9.3 Numerical Simulation of PPU: Software and Methodologies
9.4 PPU Performance Optimization: Techniques and Strategies
9.5 Case Studies: PPU Design and Simulation for Different Applications
9. Advanced Design of Hall/Ion Propellants
9.9 Operating Principles of Hall and Ion Propellants
9.9 Hall Propellant Design: Geometries, Materials, and Configurations
9.3 Ion Propellant Design: Types, Electrodes, and Control Systems
9.4 Advanced Simulation of Hall and Ion Propellants: Plasma Modeling
9.5 Performance Optimization of Hall and Ion Propellants: Advanced Strategies
3. Analysis and Control of Hall/Ion Propellants
3.9 Performance Analysis of Hall and Ion Thrusters: Key Parameters
3.9 Control Systems for Hall and Ion Thrusters: Electronics and Software
3.3 Thruster Diagnostic and Monitoring Techniques
3.4 Failures and Mitigation in Hall and Ion Thrusters
3.5 Applications and Future Perspectives of Hall and Ion Thrusters
4. Rotor Modeling: Design and Performance
4.9 Introduction to Rotor Modeling in PPUs
4.9 Rotor Design: Material and Geometry Selection
4.3 Simulation of Flux and Electromagnetic Fields in Rotors
4.4 Rotor Performance Analysis: Efficiency, Thrust, and Consumption
4.5 Case Studies: Design and Analysis of Rotors for Different Thrusters
5. Rotor Modeling and Performance Analysis
5.9 Rotor Modeling Review: Methods and Tools
5.9 Rotor-Plasma Interaction Analysis: Effects and Considerations
5.3 Advanced Rotor Modeling: Flux Simulation Multiphase
5.4 Rotor Performance Evaluation: Techniques and Metrics
5.5 Sensitivity Analysis and Rotor Design Optimization
6. Rotor Modeling and Evaluation
6.9 3D Rotor Modeling: Software and Techniques
6.9 Simulation of Rotor Properties: Strength and Durability
6.3 Rotor Evaluation: Performance and Life Analysis
6.4 Rotor Design Optimization: Objectives and Constraints
6.5 Case Studies: Rotor Evaluation in Different Scenarios
7. Rotor Modeling for Maximum Performance
7.9 Introduction to Rotor Optimization for Maximum Performance
7.9 Design of Rotors for High Efficiency: Key Considerations
7.3 Rotor Modeling: Optimization Methods
7.4 Simulation of the Performance of Optimized Rotors
7.5 Applications and Case Studies: Development of High-Performance Rotors
8. Rotor Performance Optimization
8.9 Optimization Techniques Applied to Rotor Design
8.9 Design of Experiments (DOE) in rotor optimization
8.3 Optimization based on genetic algorithms and other techniques
8.4 Evaluation and validation of optimized models
8.5 Implementation of optimization in rotor design
8.3 Optimization based on genetic algorithms and other techniques
8.4 Evaluation and validation of optimized models
8.5 Implementation of optimization in rotor design
Capstone-type projects
Admissions, fees and scholarships
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