A tailored course, built for your situation
Operational Technology Security for Cybersecurity Engineers
A tailored path from IT security to OT resilience in high-risk environments
The situation this course is for
Traditional cybersecurity models fail when applied to operational technology. Legacy protocols, uptime demands, and air-gapped myths create blind spots. You're expected to protect environments you can't patch, update, or scan like IT systems. The risk isn't hypothetical, it's accelerating with every connected sensor and remote access point.
Who this is for
Cybersecurity engineers transitioning into or already operating within OT/ICS environments, with foundational knowledge in Zero Trust and network segmentation.
Who this is not for
This is not for IT generalists seeking broad cybersecurity overviews or those focused solely on cloud-native application security without industrial context.
What you walk away with
- Map OT attack surfaces using threat modeling specific to ICS environments
- Implement Zero Trust principles in non-upgradable, legacy control systems
- Detect anomalous behavior in deterministic industrial protocols
- Design network segmentation that respects operational uptime requirements
- Validate security controls without disrupting physical processes
The 12 modules (with all 144 chapters)
- Defining operational technology
- Uptime vs. security tradeoffs
- Legacy system dependencies
- Physical impact of cyber events
- Deterministic vs. dynamic networks
- Protocol limitations in OT
- Asset lifecycle differences
- Change management constraints
- Safety systems as security layers
- Regulatory overlap challenges
- Incident response in OT
- Building cross-functional trust
- PLC communication patterns
- SCADA system topologies
- RTU configuration risks
- HMI exposure vectors
- Engineering workstation access
- Remote access backdoors
- Wireless in control networks
- Third-party vendor risks
- Default credential persistence
- Firmware update flaws
- Network tap limitations
- Air-gap misconceptions
- Zero Trust in deterministic systems
- Identity for non-IP devices
- Micro-segmentation without firewalls
- Behavioral baselines for PLCs
- Session validation techniques
- Access proxy patterns
- Dynamic trust scoring
- Context-aware authentication
- Device attestation methods
- Policy enforcement points
- Monitoring encrypted tunnels
- Fallback state management
- Identifying critical nodes
- Process disruption scenarios
- Safety system bypass risks
- Remote vendor access paths
- Firmware supply chain
- Engineering tool risks
- Physical access vectors
- Data diode limitations
- Backup system exposure
- Configuration drift tracking
- Change approval weaknesses
- Incident escalation gaps
- Passive vs. active monitoring
- Protocol fingerprinting
- Command sequence validation
- Timing anomaly detection
- Broadcast storm analysis
- Multicast behavior baselines
- OPC DA traffic inspection
- Modbus function codes
- Ethernet/IP frame analysis
- S7 communication patterns
- DNP3 command validation
- Log correlation across layers
- Vendor access lifecycle
- Time-limited credentials
- Jump host configurations
- Session recording policies
- Multi-party authentication
- Break-glass procedures
- Remote desktop risks
- Mobile access patterns
- VPN tunnel segmentation
- Zero standing privilege
- Access request workflows
- Audit trail integration
- Firmware update validation
- Configuration drift detection
- Backup integrity checks
- Staging environment use
- Rollback procedures
- Vendor patch timelines
- Custom code risks
- Hardening legacy devices
- Registry setting controls
- Startup script audits
- Boot process validation
- Secure configuration templates
- Incident classification levels
- Safety-first response steps
- Process isolation options
- Manual override protocols
- Forensic data collection
- Chain of custody rules
- Cross-functional coordination
- Regulatory reporting triggers
- Public disclosure risks
- Post-incident review structure
- Lessons learned integration
- Simulation exercise design
- Sensor spoofing risks
- Actuator command validation
- Safety system bypass detection
- Redundancy exploitation
- Process variable manipulation
- Setpoint override protection
- Emergency stop integrity
- Interlock monitoring
- Field device authentication
- Calibration data security
- Physical access controls
- Environmental sensor risks
- NIST CSF mapping
- IEC 62443 implementation
- NERC CIP requirements
- Sector-specific mandates
- Audit preparation workflows
- Evidence collection automation
- Gap assessment methods
- Control validation frequency
- Third-party assessment prep
- Regulatory change tracking
- Compliance vs. security balance
- Reporting hierarchy alignment
- Vendor security questionnaires
- Hardware provenance tracking
- Firmware signing validation
- Software bill of materials
- Third-party code audits
- Service contract clauses
- Remote monitoring risks
- Update mechanism security
- Component lifecycle tracking
- End-of-life planning
- Counterfeit device detection
- Spare parts integrity
- Program charter development
- Stakeholder alignment tactics
- Risk tolerance definition
- Resource prioritization
- Cross-functional team structure
- Budget justification
- KPI development
- Maturity assessment
- Roadmap creation
- Executive communication
- Continuous improvement cycle
- Scaling success patterns
How this maps to your situation
- You're seeing increased remote access demands in OT environments
- Legacy systems can't support modern authentication
- Incident response plans don't account for physical consequences
- Compliance audits reveal gaps in control validation
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 for implementation alongside full-time work.
How this compares to the alternatives
Generic cybersecurity courses cover IT environments and assume patchability, upgradability, and short change cycles, this course is built for the constraints and consequences unique to operational technology.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.