Diploma in Radiation Effects and Mitigation (SEE/TID)
About us Diploma in Radiation Effects and Mitigation (SEE/TID)
The Diploma in Radiation Effects and Mitigation (SEE/TID) focuses on the study of radiation effects on electronic components, addressing both Total Dose Effects (TID) and Singular Event Effects (SEE). It explores the understanding of radiation-induced damage mechanisms in semiconductors, including ionization and atomic displacement damage. It delves into radiation-tolerant design techniques and mitigation strategies, crucial for space, nuclear, and other high-radiation environments. The program also includes the study of radiation simulation and the use of device characterization tools, such as SEU/SET and TID technologies. The course provides practical knowledge in the use of radiation simulators and in the interpretation of test results, under international component qualification standards. Professionals are being trained for roles such as design engineers, reliability specialists, and systems analysts, who will be qualified to assess and mitigate radiation-related risks in the design and operation of critical electronic systems.
Target keywords (naturally occurring in the text): Radiation effects, Mitigation, SEE/TID, radiation-tolerant design, radiation simulation, electronic components, ionization, displacement damage, component qualification.
Diploma in Radiation Effects and Mitigation (SEE/TID)
- Format:
- Duration:
- Hours: 900 H
- Language:
- Credits:
- Registration date: 08-09-2026
- Strat date: 19-10-2026
- Available places: 11
1,699 $
Competencies and results
What you will learn
Who this program is for:
Diploma in Radiation Effects and Mitigation (SEE/TID)
9.9 Definition and Types of Radiation: Ionizing and Non-Ionizing
9.9 Radiation-Matter Interaction Mechanisms
9.3 Single Event Effects (SEE) in Electronic Devices
9.4 Total Ionizing Dose (TID) Effects and Their Impact
9.5 Radiation Sources in Naval and Space Environments
9.9 Modeling and Simulation of Radioactive Impacts
9.9 Radiation Sensitivity and Failure Analysis
9.3 Radiation-Resistant Design Techniques
9.4 Analysis of Radiation Test Data
9.5 Evaluation of Components and Systems in Radioactive Environments
3.9 SEE-Resistant Circuit Design
3.9 TID Mitigation Techniques
3.3 Selection of Space-Grade Components
3.4 Radiation Shielding and Protection
3.5 Implementation of Countermeasures in Systems Electronics
4.9 Radiation Risk Assessment in Naval Environments
4.9 Design of Resilience Plans for Radiation Events
4.3 Radiation Damage Mitigation Strategies
4.4 Crisis Management and Response to Radioactive Events
4.5 Testing and Validation of Radiation-Resistant Systems
5.9 Characterization of SEE and TID Effects in Different Technologies
5.9 Design-Based Mitigation Strategies
5.3 SEE Failure Recovery Techniques
5.4 Implementation of Error Correction Codes
5.5 Design of Fault-Tolerant Systems
6.9 Failure Analysis and Diagnosis of Radiation-Affected Systems
6.9 Development of Hardware and Software Solutions for Mitigation
6.3 Design of Radiation-Resistant Circuits and Systems
6.4 Shielding and Advanced Protection Techniques
6.5 Implementation of Strategies Mitigation in Real-World Systems
7.9 Design of High-Reliability Electronic Systems in Radioactive Environments
7.9 Design of Advanced Radiation Protection Systems
7.3 Software and Hardware Integration for SEE/TID Mitigation
7.4 Defense Strategies for Critical Systems
7.5 Analysis and Optimization of Mitigation in Complex Scenarios
8.9 Design of Circuits and Systems with High Radiation Tolerance
8.9 Advanced Mitigation Techniques for SEE/TID
8.3 Design Optimization for Radiation Resistance
8.4 Evaluation and Validation of Mitigation Strategies
8.5 Implementation of Mitigation Solutions in Real-World Projects
9.9 Advanced Radiation-Resistant Design Strategies
9.9 Software and Firmware-Based Mitigation Techniques
9.3 Implementation of Redundancy and Diversity in Systems
9.4 Analysis of Risks and Evaluation of Mitigation Effectiveness
9.5 Design of Advanced Fault Recovery Systems
9.6 Case Studies: Real-World Applications and Lessons Learned
9.7 Cost-Benefit Analysis of Mitigation Strategies
9.8 Development of Advanced Testing and Validation Methodologies
9.9 Future Trends in Radiation Effects Mitigation
9.90 Optimizing Mitigation for Different Environments
9.90
Capstone-type projects
Admissions, fees and scholarships
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