A tailored course, built for your situation
Threat Modeling for Maritime & Industrial Systems
Secure critical infrastructure with a tailored threat modeling framework
The situation this course is for
You're responsible for systems where failure isn't an option. Yet traditional threat modeling feels too generic, too academic, too slow. You need a method that speaks your language: bounded, deterministic, and built for real-world complexity. Without a tailored approach, vulnerabilities hide in plain sight, masked by assumptions, overlooked in handoffs, or dismissed as edge cases until they’re emergencies.
Who this is for
Technical leaders in maritime, energy, and industrial operations who manage low-tolerance systems and demand precision in threat modeling.
Who this is not for
Generalist security analysts or software-only threat modelers without exposure to physical-digital system interdependency.
What you walk away with
- Map threat surfaces in hybrid physical-digital environments
- Apply attack tree logic to maritime and industrial protocols
- Build reusable threat libraries for fleet-wide systems
- Anticipate terrorist fraud and distance bounding attacks in access controls
- Implement a living threat model updated by operational telemetry
The 12 modules (with all 144 chapters)
- Defining high-assurance systems
- Threat modeling vs risk assessment
- Operational integrity pillars
- Regulatory alignment basics
- Asset classification framework
- Threat agent profiling
- Attack surface mapping
- Failure mode anticipation
- Security control validation
- Incident escalation logic
- Cross-domain dependencies
- Model governance policies
- Vessel network topology
- Crew access patterns
- Port interface risks
- Satellite comms exposure
- Bridge system hardening
- Engine control threats
- Cargo monitoring gaps
- Remote maintenance risks
- Watchkeeping vulnerabilities
- Emergency override flaws
- Firmware update attacks
- Log integrity failures
- Modbus insecurity patterns
- OPC UA misconfigurations
- CAN bus spoofing
- PLC logic tampering
- HMI session hijacking
- Firmware signing bypass
- Time-of-check to time-of-use
- Broadcast storm abuse
- Device impersonation
- Protocol tunneling
- Legacy system exposure
- Network segmentation failures
- Node definition syntax
- Physical access branches
- Digital escalation paths
- Privilege escalation chains
- Time-based constraints
- Resource exhaustion paths
- Insider threat modeling
- Supply chain compromise
- Maintenance backdoor risks
- Firmware rollback attacks
- Sensor spoofing trees
- Recovery path modeling
- Relay attack mechanics
- Distance bounding basics
- Timing channel analysis
- Cryptographic nonces
- Challenge-response flaws
- Clock skew exploitation
- Signal amplification attacks
- Proximity spoofing
- All-or-nothing protocols
- Timestamp validation
- Round-trip time measurement
- Secure ranging implementation
- Library versioning
- Common vulnerability tagging
- System similarity scoring
- Template inheritance
- Automated gap detection
- Cross-vessel validation
- Update propagation logic
- Threat reuse governance
- Model accuracy scoring
- Change impact analysis
- Baseline deviation alerts
- Collaborative review workflows
- Model telemetry integration
- Log source mapping
- Automated update triggers
- Threat model version control
- Incident feedback loops
- Vulnerability scanner sync
- Change detection alerts
- Model drift correction
- Automated validation checks
- Human-in-the-loop review
- Model health dashboards
- Revalidation scheduling
- Remote session risks
- Vendor access control
- Firmware signing enforcement
- Session recording needs
- Zero-trust access model
- Maintenance window policies
- Backdoor detection
- Authentication bypass paths
- Escalation monitoring
- Session timeout enforcement
- Multi-party approval logic
- Audit trail completeness
- Key lifecycle management
- Entropy source validation
- Random number quality
- Certificate pinning
- TLS misconfigurations
- Perfect forward secrecy
- Key storage risks
- Side-channel exposure
- Cryptographic agility
- Algorithm deprecation
- Implementation flaws
- Compliance validation
- Threat-to-playbook mapping
- Detection logic design
- Containment strategy modeling
- Recovery path validation
- Forensic data retention
- Incident escalation trees
- Cross-team coordination
- Failover impact modeling
- Re-entry criteria
- Post-incident model update
- Root cause alignment
- Lessons learned integration
- Model ownership definition
- Review cycle scheduling
- Approval workflows
- Compliance tracking
- Audit readiness
- Cross-team alignment
- Model version retention
- Change control integration
- Training requirements
- Skill level mapping
- External auditor prep
- Regulatory reporting
- Simulation scope definition
- Adversary profile creation
- Attack scenario design
- Blind spot identification
- Detection evasion modeling
- Persistence mechanism testing
- Lateral movement paths
- Privilege escalation validation
- Data exfiltration simulation
- Cover-up tactics
- Recovery realism
- Post-simulation review
How this maps to your situation
- You're managing technical systems where physical and digital security converge
- You need a threat modeling method that reflects real-world operational complexity
- You're accountable for systems where failure has cascading consequences
- You're looking for a structured, repeatable approach beyond generic frameworks
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 hours per module, designed to fit around operational schedules.
How this compares to the alternatives
Generic threat modeling courses focus on software-only systems and lack depth in industrial or maritime contexts. This course is built for hybrid environments where physical and digital threats intersect.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.