A tailored course, built for your situation
Mastering OWASP for Data Science Leaders in Product-Centric Engineering Orgs
Turn security debt into strategic leverage without slowing innovation velocity.
The situation this course is for
Data scientists are increasingly responsible for secure by design practices, yet lack structured guidance on where security controls belong in the model lifecycle. Traditional security frameworks feel alien, while OWASP’s Application Security Verification Standard (ASVS) and Threat Modelling guidelines remain underutilized in ML contexts. The result: inconsistent implementation, rework, and delayed release cycles when security finally reviews.
Who this is for
Senior data scientists and ML leads in engineering-driven orgs who influence architecture and deployment decisions but aren’t security specialists , yet are now expected to own security outcomes.
Who this is not for
Dedicated AppSec engineers, compliance auditors, or junior analysts using pre-packaged ML tools without deployment authority.
What you walk away with
- Produce threat models that integrate directly into PR reviews and architecture approvals
- Implement automated security gates in MLOps pipelines using OWASP ASVS benchmarks
- Document model security posture for internal reviewers and external partners
- Anticipate and resolve common OWASP Top 10 for Machine Learning flaws pre-incident
- Earn inclusion in early product design sprints due to trusted risk articulation
The 12 modules (with all 144 chapters)
- Understanding OWASP’s role in modern software supply chains
- How data leakage violates security and valuation integrity
- Differences between application and ML threat surfaces
- Integrating security checkpoints into model development sprints
- Using SHAP and feature importance for anomaly detection
- Detecting overfitting as a potential security risk
- When high accuracy masks hidden data dependencies
- Validating input sanitization in feature pipelines
- Securing model APIs against injection attacks
- Reviewing training data provenance for contamination risks
- Auditing model drift as a security control
- Documenting assumptions for peer security review
- Defining assets in machine learning pipelines
- Identifying trust boundaries in feature engineering
- Threat tree generation for model deployment scenarios
- Assigning risk severity using data-specific heuristics
- Mitigation strategies for high-risk model endpoints
- Integrating threat models into sprint planning
- Visualizing data flow with security annotations
- Automating threat detection in CI pipelines
- Prioritizing fixes based on business impact
- Cross-walking threats to OWASP ASVS controls
- Engaging security teams with structured findings
- Updating models after threat re-assessment
- Mapping OWASP ASVS v4 to ML API endpoints
- Enforcing API key rotation and scope controls
- Validating input payloads for adversarial patterns
- Rate limiting and abuse prevention for prediction endpoints
- Securing model outputs against data leakage
- Hardening containerized model deployments
- Configuring TLS and mutual authentication
- Logging and monitoring for suspicious queries
- Implementing circuit breakers for denial-of-service
- Auditing API access patterns over time
- Documenting security controls for internal review
- Generating compliance-ready artefacts from test results
- Classifying data sensitivity in feature engineering
- Securing training data access with role-based controls
- Validating upstream data sources for integrity
- Detecting data poisoning through statistical monitoring
- Masking PII in development and test environments
- Encrypting data at rest and in transit
- Managing secrets in pipeline orchestration tools
- Auditing access to feature store snapshots
- Versioning datasets with security metadata
- Automating pipeline scanning for known vulnerabilities
- Integrating data validation with schema enforcement
- Establishing rollback procedures for compromised data
- Signing models during CI/CD pipeline builds
- Using hash verification in deployment automation
- Detecting unauthorized model replacements
- Secure model registry design with access controls
- Implementing model watermarking techniques
- Monitoring for unexpected prediction shifts
- Validating model inputs against known distributions
- Generating tamper-evident audit logs
- Protecting model weights in memory
- Hardening model servers against reverse engineering
- Using hardware security modules for signing
- Recovering from detected model compromise
- Integrating SAST tools into model repository workflows
- Scanning for known vulnerabilities in dependencies
- Validating container images with vulnerability databases
- Testing model APIs for common OWASP flaws
- Automating penetration testing for prediction endpoints
- Generating security test reports for pull requests
- Setting security quality gates for deployment
- Using fuzzy testing to expose model edge cases
- Validating input sanitization with adversarial examples
- Monitoring for resource exhaustion patterns
- Integrating security findings into issue trackers
- Prioritizing remediation based on exploitability
- Identifying personally identifiable information in features
- Applying differential privacy techniques to training
- Minimizing data retention in model pipelines
- Anonymizing training data while preserving utility
- Conducting privacy impact assessments
- Documenting data lineage for compliance
- Ensuring right to explanation in model outputs
- Designing for data subject access requests
- Auditing model decisions for bias and fairness
- Implementing data deletion workflows
- Securing model explanations against leakage
- Aligning with GDPR and CCPA expectations
- Translating model risks into security language
- Creating joint review checklists for deployment
- Facilitating threat modeling workshops
- Documenting assumptions for peer review
- Using shared dashboards for risk visibility
- Establishing escalation paths for critical flaws
- Building trust through consistent security posture
- Integrating security feedback into sprint retros
- Co-developing secure-by-default templates
- Standardizing security documentation format
- Measuring improvement over time
- Recognizing cross-functional contributions
- Defining incident scope for model-based systems
- Detecting anomalous model behavior in production
- Containing compromised models or data pipelines
- Investigating root cause of security breaches
- Notifying stakeholders of model-related incidents
- Restoring services with clean data and models
- Conducting post-mortems with cross-functional teams
- Updating controls to prevent recurrence
- Documenting lessons learned
- Sharing anonymized findings internally
- Engaging legal and compliance teams
- Rebuilding trust after an incident
- Writing security READMEs for model repositories
- Generating threat model diagrams
- Documenting control implementations
- Creating security test plans
- Producing compliance mapping matrices
- Maintaining versioned artefacts in source control
- Automating documentation from code comments
- Using templates for consistency
- Structuring artefacts for non-technical reviewers
- Integrating documentation into CI pipelines
- Archiving artefacts for long-term retention
- Reviewing artefacts during team onboarding
- Mapping model risks to enterprise risk frameworks
- Integrating model oversight into GRC platforms
- Reporting security posture to leadership
- Managing model inventory for compliance
- Establishing model review cycles
- Documenting ethical AI use policies
- Aligning with NIST AI Risk Management Framework
- Supporting third-party audits
- Demonstrating due diligence in design
- Tracking control effectiveness over time
- Engaging legal counsel on AI liability
- Updating policies based on incident trends
- Identifying champions for security adoption
- Creating reusable security templates
- Developing internal training materials
- Establishing peer review practices
- Measuring adoption across teams
- Sharing success stories and metrics
- Integrating security into onboarding
- Providing feedback loops for tooling
- Recognizing secure development publicly
- Standardizing secure deployment patterns
- Reducing cycle time for security fixes
- Earning recognition as a trusted partner
How this maps to your situation
- After model design approval but before CI integration
- During sprint planning with security dependencies
- Before first external audit cycle
- When expanding model access to new user groups
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 reading.
How this compares to the alternatives
Generic cybersecurity courses lack specificity for data science workflows. This course focuses exclusively on OWASP integration in ML contexts , actionable, role-tailored, and production-tested.
Frequently asked
Within 24 hours your account in the learning environment is provisioned and the tailored implementation playbook is delivered alongside it.