The 10 Most Important AI Security Frameworks in 2026

By 2026, AI companies rarely rely on a single framework. Instead they assemble a stack of governance, threat-modeling, development, and operational security frameworks to manage the AI lifecycle.

Below is a critical comparison of the 10 most influential frameworks shaping AI security, AI governance, and MLSecOps today.


The 10 AI Frameworks

CategoryFrameworkCore Purpose
GovernanceNIST AI RMFEnterprise AI risk management
GovernanceISO/IEC 42001AI management system standard
Threat modelingMITRE ATLASAI adversary techniques & attack taxonomy
Application securityOWASP Top 10 for LLM AppsGenAI application vulnerabilities
ML securityOWASP ML Security Top 10Core ML model attack risks
Cloud AI securityCSA AI Controls MatrixOperational security controls
Secure AI architectureGoogle SAIFSecure AI system design
MLSecOpsDatabricks AI Security FrameworkLifecycle security for AI pipelines
Agentic AI securityOWASP Agentic AI Top 10Risks from autonomous AI agents
Threat modeling (agentic systems)OWASP MAESTROMulti-agent threat modeling

1. NIST AI Risk Management Framework (AI RMF)

Type: Governance and risk management
Developed by the National Institute of Standards and Technology

Core functions:

  • Govern
  • Map
  • Measure
  • Manage

It aims to help organizations build “trustworthy AI” programs across the entire lifecycle. (Akto)

Strengths

  • Widely accepted by regulators and governments
  • Aligns AI risk with enterprise risk governance
  • Provides a shared vocabulary for policy and compliance

Weaknesses

  • Too abstract for engineers
  • Provides few concrete security controls
  • Needs complementary frameworks for threat modeling or implementation

Criticism

AI RMF is excellent governance but poor engineering guidance. Many companies treat it as a policy document rather than an operational framework.


2. ISO/IEC 42001

Type: AI management system standard

ISO 42001 defines requirements for AI management systems (AIMS) including risk assessment, governance, and continuous improvement. (Medium)

Strengths

  • First certifiable international AI governance standard
  • Integrates well with ISO 27001 and ISO 27701
  • Helps organizations demonstrate responsible AI practices

Weaknesses

  • Heavy compliance focus
  • Implementation overhead
  • Limited technical security guidance

Criticism

Many critics see ISO 42001 as ISO 27001 applied to AI governance, which helps compliance but does little to address real AI attack vectors.


3. MITRE ATLAS

Type: Threat modeling / adversary knowledge base
Created by the MITRE Corporation

ATLAS catalogues AI attack tactics and techniques, similar to MITRE ATT&CK but focused on ML systems. (Akto)

Examples of attack categories:

  • data poisoning
  • model extraction
  • adversarial examples
  • inference manipulation

Strengths

  • Best framework for AI red teaming
  • Provides structured attacker playbooks
  • Maps attack tactics to defensive techniques

Weaknesses

  • Not a governance framework
  • Does not define operational controls

Criticism

ATLAS answers “how attackers break AI” but not “how organizations secure AI systems.”


4. OWASP Top 10 for LLM Applications

Produced by the OWASP Foundation

Focuses on vulnerabilities unique to generative AI.

Typical risks include:

  • prompt injection
  • insecure plugins
  • model theft
  • data leakage
  • supply-chain vulnerabilities

Strengths

  • Practical checklist for developers
  • Clear categories of LLM threats
  • Widely adopted by AI application teams

Weaknesses

  • Focused on application layer
  • Limited coverage of ML pipelines or training infrastructure

Criticism

The framework is GenAI-centric and struggles to cover broader AI architectures such as reinforcement learning systems or multimodal pipelines.


5. OWASP Machine Learning Security Top 10

Focuses on ML-specific attack techniques.

Examples include:

  • data poisoning
  • model inversion
  • membership inference
  • model theft. (OWASP)

Strengths

  • Strong coverage of ML attacks
  • Useful for research and red teaming

Weaknesses

  • Draft/rapidly evolving
  • Less widely adopted than the LLM Top 10

Criticism

The framework reflects academic ML threats more than real-world production systems, so some organizations find it too theoretical.


6. CSA AI Controls Matrix

Created by the Cloud Security Alliance

The framework defines 243 control objectives across 18 AI security domains, covering data pipelines, model deployment, and third-party risk. (cycoresecure.com)

Strengths

  • Very detailed control framework
  • Focus on cloud-native AI systems
  • Good mapping to compliance frameworks

Weaknesses

  • Complex and heavy
  • Difficult to operationalize

Criticism

CSA AICM suffers from “control explosion.” Many organizations struggle to prioritize which controls actually reduce risk.


7. Google Secure AI Framework (SAIF)

Created by Google.

SAIF adapts security principles like secure-by-design to AI systems.

Core ideas include:

  • protecting training data
  • securing model artifacts
  • safeguarding inference pipelines
  • monitoring runtime behavior

Strengths

  • Practical engineering guidance
  • Designed for production AI systems
  • Integrates with cloud security practices

Weaknesses

  • Ecosystem bias toward Google infrastructure
  • Less formal than standards frameworks

Criticism

Some security experts view SAIF as “cloud vendor architecture guidance” rather than a neutral industry standard.


8. Databricks AI Security Framework (DASF)

Developed by Databricks.

It maps 62 AI risks across the ML lifecycle including:

  • data ingestion
  • model training
  • inference
  • platform operations. (Medium)

Strengths

  • Lifecycle-oriented
  • Strong MLSecOps focus
  • Practical for enterprise AI pipelines

Weaknesses

  • Tooling ecosystem bias
  • Less recognition outside ML engineering circles

Criticism

DASF is useful operationally but lacks regulatory authority, so it rarely drives governance decisions.


9. OWASP Agentic AI Top 10

Addresses the emerging risks of autonomous AI agents.

Key risks include:

  • agent goal hijacking
  • tool misuse
  • privilege abuse
  • autonomous data exfiltration. (Cert Empire)

Strengths

  • First structured framework for agentic AI threats
  • Reflects real-world autonomous systems

Weaknesses

  • Very new
  • Limited tooling support

Criticism

The framework is ahead of current adoption. Many organizations are not yet operating fully autonomous AI systems.


10. OWASP MAESTRO

A threat-modeling framework for multi-agent AI ecosystems. (straiker.ai)

Focus areas:

  • agent orchestration
  • tool access
  • multi-agent trust boundaries
  • delegation chains

Strengths

  • Addresses multi-agent systems
  • Useful for agentic architectures

Weaknesses

  • Complex methodology
  • Limited adoption

Criticism

MAESTRO is powerful but too complex for most teams, making it more common in research and large enterprises than startups.


The Real Problem: Fragmentation

The biggest issue with AI security frameworks today is fragmentation.

Each framework covers one slice of the AI stack:

LayerFrameworks
GovernanceNIST AI RMF, ISO 42001
Threat modelingMITRE ATLAS
App securityOWASP LLM Top 10
ML model securityOWASP ML Top 10
ControlsCSA AI Controls Matrix
ArchitectureGoogle SAIF
MLSecOpsDatabricks DASF
Agentic AIOWASP Agentic Top 10, MAESTRO

This fragmentation forces organizations to build “framework stacks.”

Example enterprise stack:

  • ISO 42001 → governance
  • NIST AI RMF → risk program
  • MITRE ATLAS → threat modeling
  • OWASP LLM Top 10 → application security
  • CSA AICM → operational controls

The Deeper Critique: AI Security Is Still Immature

Despite the number of frameworks, the field has several weaknesses:

1. Most frameworks lag real AI attacks

Attack techniques evolve faster than standards bodies.

2. Governance dominates over engineering

Many frameworks focus on policy rather than code security.

3. Agentic AI is barely covered

Autonomous AI introduces entirely new attack surfaces.

4. Lack of unified lifecycle frameworks

Traditional cybersecurity assumes static software, not continuously learning systems.


The Emerging Direction (2026–2030)

Security researchers are moving toward AI-native security models combining:

  • continuous evaluation (TEVV)
  • adversarial testing
  • MLSecOps pipelines
  • runtime monitoring

The future likely converges into three unified layers:

  1. AI governance (NIST / ISO)
  2. AI threat intelligence (MITRE ATLAS)
  3. AI operational security (MLSecOps frameworks)

In short:
The most effective AI companies in 2026 do not adopt one framework—they compose several to cover governance, engineering, and operational risk.