A tailored course, built for your situation
Advanced Threat Detection and Response Engineering
A next-step implementation course for cyber intrusion analysts advancing in technical leadership
The situation this course is for
Cyber intrusion analysts often hit a ceiling when transitioning from incident response to building prevention systems. The shift requires mastery of detection logic, telemetry optimization, and automation, not just forensic analysis. Without a clear implementation framework, professionals risk plateauing in roles while demand surges for engineers who can design resilient detection architectures.
Who this is for
A mid-career cyber intrusion analyst with strong incident response experience, now aiming to lead in detection engineering, SOC automation, or threat-informed defense design.
Who this is not for
Entry-level analysts needing foundational certification prep or professionals focused only on compliance reporting without technical implementation.
What you walk away with
- Design detection rules that reduce false positives by aligning with attacker behavior patterns
- Implement automated containment workflows using SOAR integrations
- Map telemetry gaps to MITRE ATT&CK and prioritize sensor deployment
- Build adversary emulation plans that validate detection coverage
- Lead cross-functional coordination between IR, engineering, and identity teams
The 12 modules (with all 144 chapters)
- From alerts to detections: redefining the objective
- The detection engineering mindset
- Core components of a detection rule
- Balancing sensitivity and specificity
- Detection taxonomy and classification
- Version control for detection logic
- Common failure modes in detection design
- Integrating threat intelligence into rules
- Using logs effectively: beyond volume
- Detection coverage modeling
- Metrics that matter: precision, recall, dwell time
- Building a detection review process
- Principles of effective telemetry
- Endpoint vs network vs cloud visibility
- Identifying high-value data sources
- Log normalization and enrichment
- Cost-benefit analysis of data ingestion
- Designing for EDR telemetry consumption
- Cloud-native logging strategies
- API-based data collection patterns
- User and entity behavior analytics (UEBA) inputs
- Threat-driven sensor placement
- Data retention and legal considerations
- Telemetry gap assessment framework
- Beyond mapping: engineering from ATT&CK
- Tactics as detection categories
- Technique-specific detection patterns
- Sub-technique granularity and value
- Mapping detection rules to ATT&CK
- Using ATT&CK to identify blind spots
- Customizing ATT&CK for internal use
- Integrating ATT&CK with threat intel
- Adversary emulation planning with ATT&CK
- Measuring ATT&CK coverage realistically
- Automating ATT&CK alignment
- Contributing to ATT&CK community
- Sigma syntax and best practices
- Writing YARA rules for malware detection
- SPL for Splunk-based detections
- KQL for Microsoft Defender and Sentinel
- Testing detection logic in staging
- Rule performance optimization
- Avoiding resource exhaustion
- Cross-platform rule design
- Rule documentation standards
- Automated validation of rules
- Handling encrypted traffic in rules
- Versioning and rollback strategies
- SOAR architecture fundamentals
- Use cases for automated containment
- Playbook design patterns
- Risk assessment for automation
- Integrating EDR with orchestration tools
- Automated evidence collection
- User notification workflows
- Cloud instance isolation automation
- Email quarantine automation
- False positive handling in playbooks
- Approval workflows and human-in-the-loop
- Monitoring playbook effectiveness
- Hunting vs detection: key differences
- Developing testable hypotheses
- Hypothesis generation from intel
- Data requirements for hunting
- Using ATT&CK for hunting scoping
- Timeline analysis techniques
- Anomaly detection methods
- Behavioral clustering for hunting
- Hunting in cloud environments
- Documenting and sharing findings
- Measuring hunting program success
- Integrating hunting into operations
- Emulation vs penetration testing
- Building realistic attack scenarios
- Scoping emulation exercises
- Selecting techniques to emulate
- Safe execution in production
- Coordinating with operations teams
- Logging and monitoring during emulation
- Measuring detection efficacy
- Post-exercise reporting
- Integrating findings into roadmap
- Automating emulation validation
- Building a repeatable emulation cycle
- Cloud attack surface fundamentals
- Identity-centric threats in cloud
- Detecting misconfigurations at scale
- Analyzing IAM policy changes
- CloudTrail, Azure Activity, GCP Audit logs
- Serverless threat detection
- Container and Kubernetes threats
- Detecting cloud cryptojacking
- Data exfiltration patterns in cloud
- Cloud-to-on-prem lateral movement
- Multi-cloud detection strategies
- Cloud workload protection platforms
- Why identity is the new perimeter
- Detecting pass-the-hash attacks
- Golden ticket detection methods
- Abnormal login pattern analysis
- Detection of Azure AD attacks
- Monitoring privileged access sessions
- Detecting service account abuse
- Federation token theft indicators
- Identity provider logging gaps
- Integrating PAM with detection systems
- Behavioral baselines for user accounts
- Detecting insider threat precursors
- Defining success metrics for detection
- Mean time to detect (MTTD) measurement
- False positive rate tracking
- Detection coverage scoring models
- Using purple team assessments
- Benchmarking against industry standards
- Reporting to technical leadership
- Board-level security metrics
- Operational burden of detections
- Cost of detection ownership
- Continuous improvement cycles
- Feedback loops from incident response
- SOC as a service provider model
- Integrating detection with DevSecOps
- Collaborating with network engineering
- Working with identity and access teams
- Engaging with cloud platform teams
- Threat intelligence sharing protocols
- Incident coordination frameworks
- Building detection requirements with developers
- Feedback mechanisms for rule tuning
- Security champion networks
- Documenting cross-team dependencies
- Managing priorities across functions
- Assessing current program maturity
- Roadmap for detection engineering
- Resource planning and staffing
- Tooling selection and integration
- Developing internal training
- Creating documentation standards
- Building executive support
- Aligning with enterprise risk
- Scaling detection across regions
- Innovation in detection methods
- Succession planning for leads
- Continuous adaptation framework
How this maps to your situation
- Analyst transitioning to engineering role
- SOC lead designing detection standards
- Threat hunter seeking structured methodology
- Security architect integrating detection into platform design
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 certification prep courses or vendor-specific training, this program focuses on implementation-grade design patterns, cross-platform logic, and leadership in detection engineering, skills not covered in CISSP, CEH, or platform-specific curricula.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.