Certified Autonomous Spacecraft Security Engineer (CASSE) Certification Program by Tonex
The Certified Autonomous Spacecraft Security Engineer (CASSE) Certification Program by Tonex prepares professionals to design, assess, and protect autonomous spacecraft systems operating in increasingly complex and contested space environments. The program addresses spacecraft autonomy, onboard decision-making, command and control protection, secure communications, navigation integrity, fault management, resilience, threat modeling, and mission assurance across the spacecraft lifecycle.
Participants examine how autonomous functions interact with flight software, sensors, payloads, ground systems, communication links, and mission operations. The program uses a practical training approach that includes exercises, real-world case studies, and examples of processes and documentation used in autonomous spacecraft security projects.
Cybersecurity is critical because autonomous spacecraft must make operational decisions while exposed to cyber, electronic, supply chain, and communications threats. Effective cybersecurity engineering helps prevent unauthorized commands, manipulated telemetry, compromised autonomy functions, corrupted mission data, and loss of spacecraft availability. Participants learn how cybersecurity principles can be integrated into architecture, development, verification, operations, resilience planning, and mission risk management.
Learning Objectives
Upon successful completion of this program, participants will be able to:
- Explain security principles for autonomous spacecraft architectures and mission systems.
- Identify cyber threats affecting spacecraft autonomy, flight software, sensors, payloads, and communications.
- Develop threat models and security requirements for autonomous space missions.
- Apply secure design principles to onboard decision-making and autonomous control functions.
- Evaluate resilience, fault management, monitoring, and recovery strategies for spacecraft systems.
- Protect command, telemetry, navigation, and communication pathways against unauthorized manipulation.
- Integrate cybersecurity controls throughout spacecraft engineering, assurance, and mission operations.
Audience
This certification program is designed for:
- Spacecraft Systems Engineers
- Space Systems Security Engineers
- Aerospace Engineers
- Satellite Engineers
- Mission Assurance Professionals
- Space Mission Architects
- Flight Software Engineers
- Space Operations Professionals
- Systems Security Engineers
- Cybersecurity Professionals
- Defense and Government Space Professionals
- Technical Managers responsible for autonomous spacecraft programs
Program Modules
Module 1: Autonomous Spacecraft Security Architecture Foundations
- Autonomous spacecraft architecture and functional boundaries
- Spacecraft autonomy levels and operational responsibilities
- Mission assets and security-critical system functions
- Trust boundaries across onboard and ground systems
- Security requirements for spacecraft lifecycle phases
- Attack surfaces within autonomous mission architectures
- Security architecture documentation and engineering records
Module 2: Threat Modeling for Autonomous Space Systems
- Space mission threat identification methodologies
- Adversary objectives and spacecraft attack pathways
- Threat modeling for autonomous decision functions
- Vulnerability analysis across hardware and software components
- Risk assessment for mission-critical spacecraft assets
- Supply chain and component security considerations
- Threat documentation and security risk registers
Module 3: Secure Onboard Autonomy and Decision Control
- Security requirements for autonomous decision-making
- Protection of onboard software and control logic
- Integrity of sensor inputs and mission data
- Authorization boundaries for autonomous spacecraft actions
- Secure configuration and software change management
- Fault isolation and trusted operational states
- Validation of autonomous security decision processes
Module 4: Spacecraft Communications Navigation and Command Protection
- Secure command and telemetry architectures
- Authentication and authorization for spacecraft commands
- Encryption principles for spacecraft communications
- Navigation integrity and spoofing resistance
- Telemetry integrity and data authenticity
- Communication link threat detection and mitigation
- Protection of ground-to-space control pathways
Module 5: Resilience Monitoring and Incident Response
- Spacecraft cybersecurity monitoring principles
- Detection of anomalous autonomous behavior
- Security event correlation across mission systems
- Resilient spacecraft operating modes
- Cyber incident containment and recovery strategies
- Mission continuity during degraded operations
- Incident reporting and recovery documentation
Module 6: Governance Assurance and Mission Security Operations
- Space mission cybersecurity governance practices
- Security assurance throughout spacecraft development
- Configuration control and security change approval
- Cybersecurity verification and compliance evidence
- Operational security roles and responsibilities
- Mission security reviews and risk acceptance
- Continuous security improvement across mission lifecycles
Exam Domains
- Space Mission Cyber Risk and Threat Analysis
- Autonomous Control Integrity and Trust
- Flight Software and Onboard System Protection
- Command, Telemetry, and Navigation Security
- Cyber Resilience and Mission Continuity
- Security Assurance, Governance, and Compliance
Course Delivery
The course is delivered through a combination of lectures, interactive discussions, hands-on workshops, practical exercises, real-world case studies, and project-based learning facilitated by experts in autonomous spacecraft engineering, space systems security, and cybersecurity.
Participants will have access to supporting readings, technical case studies, engineering scenarios, security assessment methods, and tools for practical exercises. The program follows a practical training approach that includes exercises, real-world case studies, and examples of processes and documentation used in autonomous spacecraft security projects. Activities reinforce threat modeling, security architecture, command protection, autonomy assurance, resilience planning, mission risk analysis, and cybersecurity documentation.
Assessment and Certification
Participants will be assessed through quizzes, assignments, scenario-based activities, practical exercises, and a capstone project covering autonomous spacecraft security engineering concepts.
Assessment activities evaluate the participant’s ability to identify mission threats, develop security requirements, protect spacecraft autonomy functions, evaluate communication and command security, establish resilience strategies, and apply cybersecurity assurance practices.
Upon successful completion of the course requirements and certification examination, participants will receive the Certified Autonomous Spacecraft Security Engineer (CASSE) certification.
Question Types
- Multiple Choice Questions (MCQs)
- Scenario-Based Questions
Passing Criteria
To pass the Certified Autonomous Spacecraft Security Engineer (CASSE) Certification Training exam, candidates must achieve a score of 70% or higher.
Take the Next Step
Advance your expertise in protecting autonomous spacecraft, mission systems, command pathways, onboard decision functions, and space communications with the Certified Autonomous Spacecraft Security Engineer (CASSE) Certification Program by Tonex. Build practical skills for engineering secure, resilient, and mission-ready autonomous space systems in modern cyber-contested environments.