A tailored course, built for your situation
Mastering SOC 2 for AI Infrastructure Engineers
Build audit-ready controls that scale with AI system complexity
Who this is for
AI Engineer at mid-to-large tech firm, involved in SOC 2 audits, control design, or system governance. Works across security, compliance, and infrastructure teams. Has exposure to audit findings or control mapping but wants stronger technical grounding.
Who this is not for
Entry-level auditors, compliance generalists without technical AI experience, or practitioners focused solely on financial controls.
What you walk away with
- Articulate SOC 2 control intent with technical precision in cross-functional settings
- Produce evidence flows that match AI system architecture patterns
- Anticipate auditor questions with source-backed rationale and real-world examples
- Influence vendor selection and integration design with control-by-design input
- Reduce rework cycles in audit preparation through first-time-right documentation
The 12 modules (with all 144 chapters)
- Translating security criteria into AI system access controls
- Mapping availability requirements to model uptime SLAs
- Processing integrity in low-latency inference environments
- Confidentiality controls for prompt data and embeddings
- Privacy considerations in training data retention policies
- How audit scope differs for generative vs. predictive AI
- Integrating logging standards with trust principle evidence
- Model versioning as part of processing integrity
- Third-party API risk within SOC 2 scope boundaries
- Data lineage tracking for confidentiality assertions
- Distinguishing security from compliance in incident response
- Common misalignments between SOC 2 language and AI design
- Defining control scope in containerized AI pipelines
- Network segmentation strategies for model serving layers
- Identity and access management in multi-tenant AI platforms
- Logging consistency across ephemeral inference nodes
- Automated evidence capture for dynamic workloads
- Control mapping for serverless function triggers
- Resilience testing within availability control requirements
- Configuration drift detection in AI model endpoints
- Patch management workflows for inference containers
- Secrets management in distributed AI environments
- Audit trail completeness in event-driven architectures
- Zero-trust patterns applicable to model access
- Data classification levels in AI input pipelines
- Evidence trails for prompt data handling
- Retention policies aligned with confidentiality commitments
- Data masking techniques in development environments
- Audit logging for embedding generation processes
- Access review evidence in AI data lakes
- Data subject rights fulfillment in model contexts
- Data provenance tracking for training sets
- Cross-border data flow documentation
- Metadata tagging for compliance automation
- Storage encryption evidence for vector databases
- Data deletion workflows in model caches
- IaC scanning for security baseline compliance
- Policy-as-code gates in model promotion pipelines
- Automated access review reminders in DevOps tools
- Static analysis for secrets in AI training scripts
- Dynamic testing of authentication in inference APIs
- Compliance-as-code frameworks for SOC 2
- Automated evidence package generation
- Version control for control configuration drift
- Canary deployments and control validation
- Rollback criteria based on compliance failures
- Integration testing for privacy-preserving features
- Audit trail capture in deployment automation
- Evaluating SOC 2 reports from AI API providers
- Subservice organization scoping for model hosting
- Right-to-audit clauses in AI service contracts
- Evidence retention for external model inference
- Vendor incident response coordination protocols
- Data ownership clarity in third-party training
- Risk scoring for open-source AI components
- Compliance alignment with MLOps platform vendors
- Model provenance tracking from external sources
- API rate limiting as an availability control
- Penetration testing boundaries with third-party models
- Shared responsibility models for AI infrastructure
- Defining security incidents in model behavior
- Detection patterns for adversarial attacks
- Incident classification for AI-specific events
- Model rollback procedures as response action
- Forensic data preservation for inference logs
- Breach notification thresholds for AI systems
- Coordination between security and ML teams
- Post-mortem documentation for control gaps
- Simulating model integrity failures
- Legal hold processes for model artifacts
- Disclosure requirements for AI incident summaries
- Training data contamination response workflows
- Model version control as change management
- Approval workflows for production promotions
- Baseline configuration for inference endpoints
- Automated drift detection in model behavior
- Rollback validation against prior control state
- Change advisory board integration for AI
- Documentation requirements for model updates
- Retraining triggers and audit trail capture
- Model drift as a control failure indicator
- Peer review evidence in model governance
- Schema change impact on data controls
- Emergency bypass procedures with audit logging
- Role definitions for AI developer access
- Attribute-based access for model endpoints
- Just-in-time access for data scientists
- Access review automation for AI teams
- Segregation of duties in model deployment
- Break-glass access with audit escalation
- Service account management in inference APIs
- Model access logging for confidentiality reviews
- Project-based access boundaries in AI platforms
- Federated identity in cross-org AI collaborations
- Temporary access with automatic expiration
- Access certification evidence for auditors
- Prompt input validation as a security control
- Content filtering evidence for regulated outputs
- Hallucination detection and mitigation logging
- Output review workflows for compliance assurance
- Model fine-tuning data provenance tracking
- Bias assessment integration into control design
- Copyright risk in AI-generated content
- Human-in-the-loop requirements for high-risk models
- Model watermarking for origin tracing
- Prompt injection attack resilience testing
- Contextual misuse detection in deployment
- Feedback loop logging for model correction
- Defining uptime for AI inference APIs
- Error rate tracking as processing integrity
- Latency benchmarks for availability compliance
- Auto-scaling evidence during traffic spikes
- Model cold-start detection and mitigation
- Failover testing documentation
- Dependency monitoring for third-party APIs
- Resource exhaustion prevention controls
- Performance degradation alerts
- Capacity planning evidence for auditor review
- Model degradation over time monitoring
- Degraded mode operation logging
- Control-to-evidence mapping templates
- Organizing evidence by trust service criterion
- Standardized naming for AI system components
- Versioning control documentation artifacts
- Cross-reference tables for auditor navigation
- Evidence sufficiency checklists
- Common auditor questions and prepared responses
- Artifact packaging for external review
- Gap analysis prior to formal audit
- Internal review workflows for completeness
- Evidence retention schedules
- Audit trail completeness validation
- Integrating audit findings into backlog prioritization
- Automated control testing for model retraining
- Compliance metrics in engineering dashboards
- Control ownership assignment in teams
- Update cadence for control documentation
- Lessons learned from past audits
- Cross-team knowledge transfer protocols
- Regulatory change impact assessment
- Control maturity benchmarking
- Compliance debt tracking and reduction
- Stakeholder communication templates
- Roadmap integration of compliance milestones
How this maps to your situation
- Designing controls for new AI platform rollout
- Preparing for first SOC 2 audit on generative AI service
- Responding to auditor findings on evidence gaps
- Scaling AI infrastructure with compliance automation
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 90 minutes per module, designed for completion over 12 weeks with weekend study.
How this compares to the alternatives
Unlike generic SOC 2 courses, this program focuses exclusively on AI infrastructure challenges, control mapping for dynamic workloads, evidence for model behavior, and compliance in MLOps pipelines. It’s built for engineers, not auditors.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.