Advanced Spacecraft Systems Engineering Training by Tonex
Advanced Spacecraft Systems Engineering Training: Cover requirements, avionics, AOCS, power/thermal, FDIR, verification and AIT. Learn trades for autonomy, redundancy, and lifecycle reliability from concept to operations.
Cybersecurity impact: apply space threat modeling, secure boot, and crypto-agile TT&C with key rotation and anti-replay. You’ll integrate cyber controls into flight/ground segments so resilience is baked in alongside radiation tolerance and safety.
The Advanced Spacecraft Systems Engineering Training Course by Tonex is meticulously designed to provide seasoned engineers and professionals in the aerospace industry with an in-depth understanding of the intricacies of spacecraft systems engineering.
Through a comprehensive exploration of advanced concepts, methodologies, and case studies, participants will delve into the complexities of designing, developing, and managing spacecraft systems.
Covering topics ranging from mission requirements analysis to system integration and testing, this course equips attendees with the knowledge and skills necessary to tackle the challenges inherent in the field of spacecraft engineering.
Cybersecurity is mission assurance for Advanced Spacecraft Systems Engineering: one exploited uplink or compromised component can jeopardize attitude control, corrupt payload data, or end the mission.
Engineering security into TT\&C, authenticated commanding, resilient onboard networks, and supply-chain vetting preserves reliability, safety, and availability across the spacecraft, ground segment, and inter-satellite links.
Strong cyber practices also cut lifecycle risk and cost by preventing anomalies, enabling safe autonomy, and protecting IP and national assets.
Learning Objectives:
Upon completion of the Advanced Spacecraft Systems Engineering Training Course, participants will be able to:
- Gain a profound understanding of advanced spacecraft systems engineering principles and methodologies.
- Apply rigorous systems engineering processes to define and analyze mission requirements effectively.
- Evaluate and select appropriate system architectures and design approaches for spacecraft missions.
- Develop comprehensive spacecraft system models using advanced modeling and simulation techniques.
- Understand the complexities of spacecraft propulsion systems, guidance, navigation, and control.
- Implement robust system integration and testing strategies to ensure mission success.
- Analyze real-world case studies and lessons learned to inform best practices in spacecraft engineering.
- Collaborate effectively within multidisciplinary teams to address complex engineering challenges in spacecraft design and development.
- Apply secure-by-design for TT&C, payload data paths, and update mechanisms.
Audience:
The Advanced Spacecraft Systems Engineering Training Course is tailored for professionals and engineers working in the aerospace industry who possess a foundational understanding of spacecraft systems engineering. This course is ideal for:
- Experienced aerospace engineers seeking to deepen their expertise in spacecraft systems design and development.
- Project managers responsible for overseeing spacecraft missions and programs.
- Systems engineers involved in the planning, design, and implementation of spacecraft systems.
- Technical professionals interested in expanding their knowledge of advanced spacecraft engineering concepts and methodologies.
Participants in this course should have a basic understanding of spacecraft systems engineering principles, as well as proficiency in relevant technical disciplines such as mechanical engineering, electrical engineering, or aerospace engineering.
Course Outlines:
Module 1: Fundamentals of Spacecraft Systems Engineering
- Mission Requirements Analysis
- System Architecture Design
- System Engineering Processes
- Spacecraft Subsystems Overview
- Lifecycle Management
- Risk Management
Module 2: Advanced System Modeling and Simulation
- Advanced Modeling Techniques
- Simulation Tools and Platforms
- System Performance Analysis
- Sensitivity Analysis
- Trade-off Analysis
- Model Verification and Validation
Module 3: Spacecraft Propulsion Systems
- Propulsion Fundamentals
- Chemical Propulsion Systems
- Electric Propulsion Systems
- Propulsion System Integration
- Thrust Vector Control
- Propulsion System Testing
Module 4: Guidance, Navigation, and Control Systems
- GN&C Fundamentals
- Attitude Determination and Control
- Orbit Determination and Control
- Autonomous Navigation
- GN&C System Integration
- GN&C System Testing
Module 5: System Integration and Testing
- Integration Planning and Execution
- Interface Management
- Integration Testing Techniques
- Environmental Testing (Thermal, Vacuum, Vibration)
- Functional Testing
- System Acceptance Testing
Module 6: Case Studies and Best Practices
- Historical Spacecraft Missions
- Successes and Failures Analysis
- Lessons Learned from Past Missions
- Best Practices in Spacecraft Engineering
- Emerging Trends in Spacecraft Systems Design
- Future Directions in Space Exploration