A tailored course, built for your situation
Advanced Threat Modeling for Automotive Systems
A tailored course for security leaders in automotive technology
The situation this course is for
Most threat modeling resources are built for IT or web apps, not for embedded controllers, CAN networks, or second-screen synchronization in vehicles. You need a method that speaks to automotive architecture , one that integrates safety, compliance, and attack surface analysis without slowing down development cycles.
Who this is for
Security and systems leaders in automotive technology who are responsible for hardening complex, interconnected vehicle platforms against emerging threats.
Who this is not for
This is not for entry-level security analysts or professionals focused solely on consumer software. It assumes familiarity with threat modeling fundamentals and systems architecture.
What you walk away with
- Map threat surfaces specific to automotive ECUs and communication buses
- Integrate threat modeling into ASPICE and ISO 21434 workflows
- Build attack trees for vehicle-to-everything (V2X) and second-screen attack paths
- Create reusable threat patterns for AUTOSAR-based systems
- Lead cross-functional threat reviews with engineering teams
The 12 modules (with all 144 chapters)
- Defining scope in vehicle networks
- Key differences from IT threat models
- Regulatory drivers in automotive
- Safety vs security overlap
- Threat modeling lifecycle timing
- Role of functional safety teams
- Mapping compliance to threats
- Common misconceptions debunked
- Integrating with development sprints
- Stakeholder alignment tactics
- Toolchain compatibility overview
- Setting success metrics
- Identifying trust boundaries in CAN
- LIN bus threat exposure points
- Ethernet backbone segmentation
- Gateway controller roles
- OTA update pathways
- Infotainment attack surface
- Telematics unit interfaces
- Sensor input validation
- Actuator control paths
- Diagnostic port access risks
- Physical vs logical boundaries
- Firmware update mechanisms
- Identifying wireless entry points
- Bluetooth pairing vulnerabilities
- Wi-Fi attack vectors
- NFC and key fob interfaces
- USB and physical ports
- OBD-II as attack surface
- Mobile app integration risks
- Cloud API exposure
- Over-the-air update risks
- Second-screen synchronization flaws
- Time-of-check vs time-of-use
- Race condition identification
- Spoofing in V2X communications
- Tampering with firmware updates
- Repudiation in event logging
- Information disclosure in telematics
- Denial of service on CAN
- Elevation of privilege in ECUs
- Masquerading as trusted nodes
- Timing attacks on synchronization
- Session fixation in mobile apps
- Malformed packet injection
- Buffer overflow in legacy code
- Race-to-sleep exploitation
- CAN injection case studies
- Keyless entry bypass patterns
- Remote start exploits
- Infotainment sandbox escapes
- GPS spoofing incidents
- Radar jamming examples
- Brake-by-wire interference
- Steering angle manipulation
- Speedometer spoofing
- ECU reprogramming risks
- Diagnostic mode abuse
- Firmware rollback attacks
- Mapping threats to TARA
- Asset identification process
- Threat scenario documentation
- Risk acceptance criteria
- Attack feasibility scoring
- Impact on safety goals
- Residual risk assessment
- Security case integration
- Audit trail requirements
- Change impact analysis
- Lifecycle phase alignment
- Supplier threat input
- Mobile app authentication flaws
- Session token leakage
- Event timing desync
- Command injection via app
- Location data exposure
- Push notification abuse
- App-to-vehicle message spoofing
- Clock skew exploitation
- User presence assumptions
- Bluetooth reconnection attacks
- Background sync vulnerabilities
- App permission overreach
- Pre-review briefing templates
- ECU interface questioning
- Firmware update validation
- Secure boot design checks
- Memory isolation review
- Cryptographic key management
- Debug port disablement
- Secure communication patterns
- Input validation standards
- Error handling expectations
- Logging and monitoring gaps
- Post-review action tracking
- Static analysis for C code
- AUTOSAR configuration checks
- CAN message validation rules
- Fuzzing entry point identification
- Symbolic execution setup
- Taint analysis in embedded code
- Memory corruption detection
- Cryptographic misuse patterns
- Backdoor detection heuristics
- Compiler flag security checks
- Build pipeline inspection
- Dependency risk scanning
- Threat model handoff process
- Security requirement translation
- Threat-to-test-case mapping
- Bug triage with threat context
- Security debt tracking
- Sprint planning integration
- Threat model versioning
- Change impact communication
- Supplier collaboration model
- Penetration test briefing
- Incident response alignment
- Lessons learned documentation
- Version control strategies
- Delta analysis techniques
- Variant impact assessment
- Software update implications
- Hardware refresh considerations
- Fleet-wide threat consistency
- Model review cadence
- Automated diff detection
- Stakeholder notification process
- Change approval workflow
- Model ownership definition
- Audit readiness checks
- Team competency roadmap
- Internal training curriculum
- Toolchain integration plan
- Knowledge sharing formats
- Metrics that matter
- Executive reporting structure
- Budget justification
- Vendor assessment criteria
- Certification preparation
- Lessons from peer companies
- Continuous improvement cycle
- Future threat horizon scanning
How this maps to your situation
- You're designing or reviewing automotive systems with multiple interconnected components.
- You need to satisfy both security and functional safety requirements.
- You're coordinating between software, hardware, and systems teams.
- You're responsible for long-term maintainability of threat models across vehicle lifecycles.
Before vs. after
What's included with your purchase
- 12 modules with 12 chapters each (144 chapters)
- Downloadable templates and worked examples for every module
- Hand-built implementation playbook delivered alongside course access
- 30-day money-back guarantee
Delivery and format
- Course and learning environment access provisioned within 24 hours of purchase
- Hand-built implementation playbook delivered alongside course access
Format: Text-based modules and chapters in the Art of Service learning environment, plus downloadable templates and worked examples for every chapter, plus the hand-built implementation playbook delivered alongside course access.
Time investment: Approximately 3-4 hours per module, designed to be consumed incrementally alongside active projects.
How this compares to the alternatives
Unlike generic cybersecurity courses, this program focuses exclusively on automotive systems, integrates with ISO 21434 and ASPICE, and includes real-world templates , not just theory.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.