AI Security
Security controls designed for AI systems
AI introduces unique risks that traditional security frameworks don't address. Lane 2 of the AI SecureOps Framework provides comprehensive coverage for AI-specific threats.
Risk Categories
Understanding AI-specific risks
AI systems face unique risks across data, models, interactions, and infrastructure. The framework addresses each category with specific controls.
Data & Training Risk
Risks related to training data quality, provenance, bias, and privacy.
| Risk | Impact | Mitigation |
|---|---|---|
| Training data poisoning | Model produces incorrect or malicious outputs | Data provenance tracking, validation pipelines |
| PII in training data | Privacy violations, regulatory exposure | Data classification, PII detection, redaction |
| Biased training data | Discriminatory outputs, reputational damage | Bias detection, diverse data sources, monitoring |
| Data leakage in outputs | Exposure of confidential training data | Output filtering, membership inference testing |
Model Risk
Risks related to model behavior, integrity, and operational characteristics.
| Risk | Impact | Mitigation |
|---|---|---|
| Model theft/extraction | IP loss, competitive disadvantage | Access controls, rate limiting, watermarking |
| Model drift | Degraded performance, incorrect outputs | Drift detection, monitoring, retraining triggers |
| Adversarial inputs | Model manipulation, incorrect outputs | Input validation, adversarial training, monitoring |
| Unexplainable behavior | Regulatory issues, trust erosion | Explainability tooling, human oversight |
Prompt & Interaction Risk
Risks specific to prompt-based AI systems and user interactions.
| Risk | Impact | Mitigation |
|---|---|---|
| Prompt injection | Unauthorized actions, data exposure | Input sanitization, privilege separation |
| Jailbreaking | Bypass of safety controls | Multi-layer guardrails, monitoring, red teaming |
| Context manipulation | Model behaves unexpectedly | Context validation, token limits, sandboxing |
| Social engineering via AI | Users manipulated through AI responses | Output filtering, disclosure requirements |
Infrastructure Risk
Risks related to AI infrastructure, deployment, and operations.
| Risk | Impact | Mitigation |
|---|---|---|
| API abuse | Service degradation, cost overruns | Rate limiting, authentication, monitoring |
| Supply chain compromise | Malicious dependencies, backdoors | Dependency scanning, vendor assessment |
| Compute resource attacks | Training/inference disruption | Resource isolation, access controls |
| Model serving vulnerabilities | Unauthorized access, data exposure | Secure deployment, network segmentation |
Methodology
AI threat modeling process
Systematic threat modeling identifies and prioritizes risks before they become incidents. The framework includes AI-specific threat modeling templates and guidance.
Identify Assets
Document AI components: models, training data, inference endpoints, feature stores, and customer data flows.
Define Threat Actors
Identify potential adversaries: external attackers, malicious users, insider threats, competitors.
Map Attack Surfaces
Document entry points: APIs, user inputs, data pipelines, admin interfaces, third-party integrations.
Enumerate Threats
Systematically identify threats using AI-specific threat frameworks (ATLAS, OWASP ML Top 10).
Assess & Prioritize
Score threats by likelihood and impact. Prioritize based on risk appetite and business context.
Define Mitigations
Document specific controls for prioritized threats. Assign ownership and implementation timeline.
Threat Modeling Outputs
Core Controls
Prompt injection and misuse prevention
LLM and prompt-based systems require specific controls to prevent injection attacks, jailbreaks, and misuse.
Input Validation
Sanitize and validate all user inputs before processing
- Length and format validation
- Special character filtering
- Semantic analysis for injection patterns
- Input type enforcement
Privilege Separation
Separate user context from system context
- Clear boundary between user and system prompts
- Role-based prompt access
- Sandboxed execution environments
- Least privilege for AI actions
Output Filtering
Filter and validate AI outputs before delivery
- Content classification
- PII detection and redaction
- Harmful content filtering
- Output format validation
Monitoring & Detection
Continuous monitoring for abuse and attacks
- Anomaly detection in inputs/outputs
- Jailbreak attempt detection
- Usage pattern analysis
- Real-time alerting
AI model governance
Models are critical assets that require governance throughout their lifecycle. The framework establishes controls for model development, deployment, monitoring, and retirement.
Model Lifecycle Stages
Development
Data governance, secure training, version control
Validation
Security testing, bias evaluation, performance
Deployment
Secure deployment, access controls, monitoring
Operation
Drift detection, incident response, updates
Retirement
Secure decommissioning, data retention, archival
Standards
Aligned with industry frameworks
The AI SecureOps Framework incorporates guidance from leading AI security and risk management standards.
NIST AI RMF
NIST AI Risk Management Framework provides structure for managing AI risks across the lifecycle.
Learn moreMITRE ATLAS
Adversarial Threat Landscape for AI Systems - knowledge base of AI attack techniques.
Learn moreSecure your AI systems
Get a comprehensive assessment of your AI security posture and a roadmap to address identified risks.