A curated, structured, and continuously updated map of security risks, controls, benchmarks, architectures, and research for agentic, multi-agent, tool-using, self-improving AI systems. π Star if you like it!
Astro
20
95 commits
updated Sep 22, 2026
Visit the Awesome Agentic AI Security project site Β· site source
The security boundary has moved from the model to the agentic execution system.
A curated list of resources, standards, benchmarks, tools, threat models, architectures, and research for securing agentic, multi-agent, tool-using, memory-bearing, and cyber-capable AI systems.
Agentic systems behave less like isolated chat applications and more like distributed execution environments. Instructions can shape tool calls, trigger workflows, update memory, write code, route data, and influence decisions across enterprise systems.
The central security question is:
What can this AI system do, under whose authority, with which tools, using which data, with what memory, and under what controls?
Useful security for these systems must understand the relationship between intent, authority, action, context, and outcome.
flowchart TB
UP["User prompt"]
RD["Retrieved context"]
SR["System rules"]
AR["Agentic reasoning<br/>Goals emerge at runtime"]
IK["Internal knowledge"]
EA["External APIs"]
OT["Operational tools"]
Risk["Risk accumulation<br/>Composed outcomes may exceed approved scope"]
UP --> AR
RD --> AR
SR --> AR
AR -->|permitted step| IK
AR -->|permitted step| EA
AR -->|permitted step| OT
IK --> Risk
EA --> Risk
OT --> Risk
The diagram illustrates how a user prompt, retrieved context, and system rules are processed by agentic reasoning. This reasoning leads to several permitted actions: querying internal knowledge, calling external APIs, or using operational tools. These actions collectively lead to "Risk accumulation," where the final composed outcomes of the agent's work may exceed the originally approved security scope.
The repository organises controls around the AI Defense Plane: discover where agents, tools, prompts, data flows, credentials, memory, and autonomous workflows exist; protect tool use, memory writes, credentials, and actions; and govern evidence, audit trails, delegated authority, and risk acceptance. The fuller model is in Defence Architecture.
This section tracks the defensive governance problem created by AI systems that can assist with vulnerability discovery, exploit-capability evaluation, patch verification, disclosure workflows, and forensic traceability. It does not provide exploitation instructions.
| Section | Use it for |
|---|---|
| Docs | Conceptual maps, threat models, breach chains, defence architecture, evaluation, governance, case studies, and open questions. |
| Resources | Curated standards, frameworks, vendor research, papers, tools, benchmarks, cyber-capable AI agents, and evidence requirements. |
| Patterns | Secure engineering patterns for agent runtimes, tool calling, MCP, memory, credentials, approval, sandboxing, observability, and policy enforcement. |
| Visuals | Mermaid diagrams for execution boundaries, action paths, control points, and reference architectures. |
Companion field guides by the same maintainer covering adjacent areas of AI. Read alongside this repository for broader context on how agentic AI is being built and applied beyond the security boundary.
| Repository | Focus |
|---|---|
| Awesome Agentic Engineering | Engineering practices, patterns, and tooling for building agentic AI systems. |
| Awesome AI Scientists | AI for scientific research, discovery, and AI-as-scientist tooling. |
| Awesome Physical AI | Physical AI: robotics, embodied agents, and sensor-driven systems. |
This project is released under the MIT License.

Thrilled to have you here. Whether it is a quick typo fix, a fresh resource, a doc polish, or a sweeping overhaul - every contribution helps this list grow. Jump in and join the community - PRs of every size are welcome.
Read the contributing guide Β· good first issues
Thank you to the community members who contributed resources to this field guide. Select a profile to visit the contributor's GitHub page, or the book icon to view their merged contribution.
See the full contributor history for contributions across the repository.
A curated, structured, and continuously updated map of security risks, controls, benchmarks, architectures, and research for agentic, multi-agent, tool-using, self-improving AI systems. π Star if you like it!
Astro
20
95 commits
updated Sep 22, 2026
Visit the Awesome Agentic AI Security project site Β· site source
The security boundary has moved from the model to the agentic execution system.
A curated list of resources, standards, benchmarks, tools, threat models, architectures, and research for securing agentic, multi-agent, tool-using, memory-bearing, and cyber-capable AI systems.
Agentic systems behave less like isolated chat applications and more like distributed execution environments. Instructions can shape tool calls, trigger workflows, update memory, write code, route data, and influence decisions across enterprise systems.
The central security question is:
What can this AI system do, under whose authority, with which tools, using which data, with what memory, and under what controls?
Useful security for these systems must understand the relationship between intent, authority, action, context, and outcome.
flowchart TB
UP["User prompt"]
RD["Retrieved context"]
SR["System rules"]
AR["Agentic reasoning<br/>Goals emerge at runtime"]
IK["Internal knowledge"]
EA["External APIs"]
OT["Operational tools"]
Risk["Risk accumulation<br/>Composed outcomes may exceed approved scope"]
UP --> AR
RD --> AR
SR --> AR
AR -->|permitted step| IK
AR -->|permitted step| EA
AR -->|permitted step| OT
IK --> Risk
EA --> Risk
OT --> Risk
The diagram illustrates how a user prompt, retrieved context, and system rules are processed by agentic reasoning. This reasoning leads to several permitted actions: querying internal knowledge, calling external APIs, or using operational tools. These actions collectively lead to "Risk accumulation," where the final composed outcomes of the agent's work may exceed the originally approved security scope.
The repository organises controls around the AI Defense Plane: discover where agents, tools, prompts, data flows, credentials, memory, and autonomous workflows exist; protect tool use, memory writes, credentials, and actions; and govern evidence, audit trails, delegated authority, and risk acceptance. The fuller model is in Defence Architecture.
This section tracks the defensive governance problem created by AI systems that can assist with vulnerability discovery, exploit-capability evaluation, patch verification, disclosure workflows, and forensic traceability. It does not provide exploitation instructions.
| Section | Use it for |
|---|---|
| Docs | Conceptual maps, threat models, breach chains, defence architecture, evaluation, governance, case studies, and open questions. |
| Resources | Curated standards, frameworks, vendor research, papers, tools, benchmarks, cyber-capable AI agents, and evidence requirements. |
| Patterns | Secure engineering patterns for agent runtimes, tool calling, MCP, memory, credentials, approval, sandboxing, observability, and policy enforcement. |
| Visuals | Mermaid diagrams for execution boundaries, action paths, control points, and reference architectures. |
Companion field guides by the same maintainer covering adjacent areas of AI. Read alongside this repository for broader context on how agentic AI is being built and applied beyond the security boundary.
| Repository | Focus |
|---|---|
| Awesome Agentic Engineering | Engineering practices, patterns, and tooling for building agentic AI systems. |
| Awesome AI Scientists | AI for scientific research, discovery, and AI-as-scientist tooling. |
| Awesome Physical AI | Physical AI: robotics, embodied agents, and sensor-driven systems. |
This project is released under the MIT License.

Thrilled to have you here. Whether it is a quick typo fix, a fresh resource, a doc polish, or a sweeping overhaul - every contribution helps this list grow. Jump in and join the community - PRs of every size are welcome.
Read the contributing guide Β· good first issues
Thank you to the community members who contributed resources to this field guide. Select a profile to visit the contributor's GitHub page, or the book icon to view their merged contribution.
See the full contributor history for contributions across the repository.