A tailored course, built for your situation
Modern Operational Technology Detection for Established Enterprises
A 12-module implementation-grade course for business and technology leaders advancing OT detection maturity
The situation this course is for
Even in mature organizations, OT detection is often built on ad-hoc rules, isolated tools, or legacy processes that fail to scale. This leads to delayed responses, compliance gaps, and growing pressure from leadership to demonstrate control without slowing operations.
Who this is for
Business and technology professionals in established enterprises responsible for OT security, risk, compliance, engineering, or operations who need to implement or improve detection programs
Who this is not for
This course is not for individuals seeking introductory IT security content, consumer-grade tools, or theoretical frameworks without implementation pathways
What you walk away with
- Design a scalable OT detection architecture aligned with enterprise risk posture
- Implement detection rules that balance sensitivity, specificity, and operational impact
- Integrate OT telemetry into existing SOC workflows without disrupting production systems
- Apply compliance standards (e.g., NIST, ISA/IEC 62443) to detection program design
- Deploy a living detection playbook that evolves with asset and threat changes
The 12 modules (with all 144 chapters)
- Defining operational technology in the enterprise context
- Key differences between IT and OT detection requirements
- Regulatory and compliance drivers shaping detection design
- Stakeholder mapping: aligning security, operations, and engineering
- Risk tolerance and detection sensitivity thresholds
- Common detection failure modes in OT environments
- Building cross-functional detection ownership models
- Assessing current-state detection maturity
- Detection lifecycle overview: from alert to action
- Integrating detection with incident response planning
- Establishing metrics that matter for OT detection
- Creating executive visibility without oversimplification
- Layered detection architecture for multi-site operations
- Network segmentation strategies supporting detection
- Data collection points: where and why to monitor
- Balancing passive and active monitoring techniques
- OT protocol decoding for detection engineering
- Normalizing telemetry across disparate control systems
- Designing for high availability and fail-safe operation
- Latency constraints and real-time detection trade-offs
- Secure data transport from OT to SOC environments
- Architectural patterns for cloud-connected OT assets
- Future-proofing detection infrastructure investments
- Vendor-agnostic design principles for long-term flexibility
- Modbus function code anomaly detection
- DNP3 object and variation misuse patterns
- OPC UA session and subscription monitoring
- Profinet and EtherNet/IP traffic baselining
- BACnet device behavior deviation detection
- CIP protocol command sequence validation
- S7Comm packet structure anomalies
- Field device command authorization checks
- Protocol fuzzing for detection rule validation
- Mapping known attack patterns to protocol-level indicators
- Building protocol-specific detection libraries
- Testing detection logic in non-production environments
- Time-series analysis of OT process variables
- Establishing statistical baselines for sensor data
- Machine learning applications in OT anomaly detection
- Supervised vs unsupervised approaches in constrained environments
- Feature engineering for industrial process data
- Reducing false positives through contextual enrichment
- Seasonal and operational mode adjustments
- Clustering similar device behaviors across fleets
- Detecting subtle drift in control loop performance
- Correlating behavioral anomalies with maintenance logs
- Validating anomalies with engineering subject matter experts
- Scaling behavioral models across thousands of assets
- SIEM schema extensions for OT data
- Normalization of OT events for enterprise correlation
- SOAR playbook adaptations for OT incidents
- Tiered alert routing: when to escalate to OT teams
- Creating joint IT/OT incident response procedures
- Shared threat intelligence models across domains
- Cross-domain investigation workflows
- Secure communication channels between teams
- Joint tabletop exercise design
- Metrics alignment: OT availability vs security risk
- Building trust through transparency and consistency
- Governance of shared detection infrastructure
- Mapping NIST CSF functions to detection capabilities
- ISA/IEC 62443-3-3 requirement implementation
- NERC CIP monitoring obligations and detection mapping
- GDPR implications for OT data collection
- Audit-ready detection documentation practices
- Evidence generation for compliance reporting
- Continuous compliance monitoring strategies
- Detection rule validation for regulatory review
- Third-party assessment preparation
- Gap analysis between compliance requirements and current detection
- Maintaining compliance during system upgrades
- Demonstrating detection effectiveness to auditors
- Evaluating OT-specific threat intelligence sources
- Mapping MITRE ATT&CK for ICS to detection rules
- Custom threat actor profiling for sector-specific risks
- Automated feed integration without overwhelming systems
- Contextualizing external alerts for OT environments
- Indicators of compromise relevance scoring
- Threat hunting based on intelligence leads
- Collaborative information sharing within sectors
- False flag and deception detection in threat data
- Updating detection logic in response to new intelligence
- Attribution considerations in detection reporting
- Building internal threat intelligence capability
- Structured detection rule writing methodology
- Syntax standards for rule clarity and consistency
- Version control for detection logic
- Testing rules against historical data
- Simulation environments for rule validation
- Peer review processes for detection logic
- Rule performance benchmarking
- Deprecation and retirement of outdated rules
- Managing rule dependencies and conflicts
- Documentation standards for detection rules
- Scaling rule management across large environments
- Automating rule deployment and updates
- Root cause analysis of false positive events
- Contextual enrichment to improve signal quality
- Threshold optimization techniques
- Temporal suppression rules for known operations
- Feedback loops with operations teams
- Automated false positive classification
- Prioritization models for remaining alerts
- Tuning impact measurement on detection coverage
- Balancing sensitivity and specificity
- Change management for tuning adjustments
- Documentation of tuning decisions
- Continuous improvement cycle for alert quality
- Red team exercises tailored to OT environments
- Purple teaming for detection improvement
- Controlled attack simulation frameworks
- Detection coverage gap analysis
- Metrics for detection effectiveness (MTTD, accuracy, etc.)
- Validation against known attack patterns
- Safe testing methodologies for live environments
- Third-party detection assessment options
- Benchmarking against peer organizations
- Reporting findings to leadership
- Prioritizing remediation of detection gaps
- Establishing regular testing cadence
- Change approval workflows for detection systems
- Impact assessment for rule and configuration changes
- Staging environments for detection updates
- Rollback procedures for failed changes
- Coordination with OT maintenance windows
- Communication plans for system changes
- Documentation of change history
- Automated change validation checks
- Vendor update integration processes
- Emergency change procedures
- Audit trails for configuration changes
- Training for operations teams on changes
- Program maturity assessment frameworks
- Succession planning for detection roles
- Budgeting and resource planning
- Technology refresh cycles
- Incorporating lessons from incidents
- Benchmarking against industry advances
- Staff training and development plans
- Executive reporting cadence and content
- Adapting to new OT technologies and architectures
- Expanding detection scope to new systems
- Building organizational recognition of program value
- Roadmapping future detection capabilities
How this maps to your situation
- Scaling detection across multiple facilities
- Integrating new OT assets into existing detection frameworks
- Responding to increased regulatory scrutiny
- Reducing mean time to detect in complex environments
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 60-70 hours of focused learning, designed for completion over 8-10 weeks with flexible pacing.
How this compares to the alternatives
Unlike generic cybersecurity courses or vendor-specific training, this program provides implementation-grade knowledge tailored to the unique constraints and requirements of established enterprise OT environments, without requiring live systems or video content.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.