Frequently Asked Questions

Product Information: Runtime Authority & Akeyless Platform

What is Akeyless Runtime Authority?

Akeyless Runtime Authority is a runtime enforcement layer designed for autonomous AI agents. It continuously governs agent actions during execution by enforcing identity, policy, authorization, inspection, and auditing through a centralized Gateway. This enables organizations to move beyond traditional access controls and implement continuous runtime governance for AI agents in production environments. Note: Runtime Authority is specifically focused on AI agent workflows and may not address all traditional human user scenarios. [Source]

How does Runtime Authority differ from traditional IAM or PAM solutions?

Traditional Identity and Access Management (IAM) and Privileged Access Management (PAM) solutions focus on authentication and authorization at the start of a session. Runtime Authority extends control throughout the session by continuously evaluating actions, enforcing policies, inspecting responses, and enabling real-time intervention. This means that every action by an AI agent is governed, not just the initial access. Note: Runtime Authority is designed for continuous governance and may not replace all features of traditional IAM/PAM for human users. [Source]

What are the main controls enforced by Runtime Authority?

Runtime Authority enforces six key controls: 1) Zero credentials on the agent side (agents never possess secrets; dynamic credentials are injected just-in-time), 2) Zero direct connectivity (all access is brokered through the Gateway), 3) Full command-level control (governance applies to every action, not just login), 4) Intent-aware policy enforcement (actions are evaluated against originating prompts and operational objectives), 5) In-session inspection and response masking (sensitive data can be redacted before reaching the agent), and 6) Blended identity and forensic traceability (every action is linked to both agent and human operator). Note: These controls are focused on AI agent workflows and may not cover all legacy system requirements. [Source]

Why are static credentials a risk for AI agents, and how does Runtime Authority address this?

Static credentials (such as API keys or passwords) can be exposed through prompts, logs, code repositories, runtime environments, or integrations, making them a target for attackers. Runtime Authority eliminates this risk by ensuring agents never possess credentials. Instead, dynamic secrets are generated only when needed and injected directly into brokered sessions, then destroyed after use. Note: This approach is most effective for environments where dynamic credential injection is supported; legacy systems may require additional integration. [Source]

What does "zero direct connectivity" mean in the context of Runtime Authority?

"Zero direct connectivity" means that AI agents cannot directly access databases, cloud services, SaaS platforms, or internal systems. All communication is routed through the Akeyless Gateway, which acts as a centralized enforcement point and eliminates unmanaged access paths. This reduces the attack surface and enables continuous policy enforcement. Note: This model may require architectural changes for organizations with direct agent-to-system connections. [Source]

How does Runtime Authority prevent unauthorized or unintended actions by AI agents?

Runtime Authority uses intent-aware policy enforcement, evaluating each request against its originating prompt and approved operational objectives before credentials are issued. Actions that conflict with approved intent can be blocked before any connection to a target system occurs. Note: Effectiveness depends on the quality of policy definitions and prompt classification; organizations should regularly review policies for completeness. [Source]

How does Runtime Authority support compliance and auditing for AI agent actions?

Every action performed by an AI agent is recorded through a complete forensic chain that links the originating human prompt, classified intent, policy decision, session context, and resulting action. This provides traceability and accountability for AI-driven operations, and integrates with enterprise logging and monitoring workflows. Note: Detailed limitations not publicly documented; ask sales for specifics on compliance certifications and audit integrations. [Source]

How does Runtime Authority map to Anthropic's Zero Trust Framework for AI Agents?

Runtime Authority closely aligns with Anthropic's Zero Trust Framework by enforcing controls such as dynamic, short-lived credentials (agents never possess static credentials), intent-aware policy enforcement, just-in-time access, comprehensive auditability, and cryptographically rooted identity for agents. It supports Foundation, Enterprise, and Advanced maturity tiers by providing context-aware authorization, continuous policy evaluation, and the ability to terminate sessions centrally. Note: Some advanced framework requirements may require additional configuration or integration. [Source]

Features & Capabilities

What are the key features of the Akeyless Runtime Identity Security Platform?

The Akeyless Runtime Identity Security Platform provides a unified foundation for securing AI agents, machines, workloads, automation systems, and privileged humans. Key features include ephemeral identity, secretless authentication, dynamic entitlement provisioning, privileged access management, secrets management, certificate lifecycle management, encryption services, and runtime governance. Note: Some features may require additional licensing or configuration; not all features are available for every use case. [Source]

Does Akeyless Runtime Authority support integration with existing identity controls and policies?

Yes, because Runtime Authority operates on the same Akeyless platform, organizations can extend existing identity controls, policies, authentication methods, and Gateway infrastructure into AI agent workflows. This allows for unified policy management and avoids the need for a separate security architecture for AI agents. Note: Integration depth may vary depending on the organization's current identity infrastructure. [Source]

Use Cases & Implementation

Who should use Akeyless Runtime Authority?

Akeyless Runtime Authority is designed for organizations deploying autonomous AI agents in production environments, especially those requiring continuous runtime governance, intent-aware policy enforcement, and forensic traceability. It is suitable for security teams managing AI-driven workflows that impact production systems, customer data, or business processes. Note: Organizations without autonomous AI agents may not benefit from Runtime Authority's specialized controls. [Source]

How does Runtime Authority help with audit and compliance requirements for AI agents?

Runtime Authority creates an immutable, structured audit chain that links the human prompt, classified intent, policy verdict, session context, and resulting action. This enables organizations to prove who authorized a sensitive action, why it was allowed, and how policy decisions influenced the outcome. Audit records can be forwarded to SIEM systems for enterprise monitoring. Note: Detailed limitations not publicly documented; ask sales for specifics on compliance certifications. [Source]

How quickly can Runtime Authority be implemented in an organization?

Implementation time for Runtime Authority depends on the organization's existing infrastructure and integration requirements. Akeyless's cloud-native SaaS platform allows for deployment in just a few days for many customers, with proactive support and onboarding resources available. Note: Complex environments or legacy systems may require additional integration time. [Platform Demo]

Technical Requirements & Support

What technical documentation and support resources are available for Runtime Authority?

Akeyless provides comprehensive technical documentation and tutorials for Runtime Authority and the broader platform. Resources include detailed guides, step-by-step tutorials, platform demos, self-guided product tours, and 24/7 support via ticketing and Slack channels. Documentation is available at docs.akeyless.io and tutorials at tutorials.akeyless.io. Note: Some advanced use cases may require direct support from Akeyless engineers. [Documentation]

Competition & Comparison

How does Akeyless Runtime Authority compare to HashiCorp Vault for AI agent security?

Akeyless Runtime Authority uses a vaultless architecture, eliminating the need for heavy infrastructure required by HashiCorp Vault. It provides cloud-native SaaS deployment, dynamic credential injection (agents never possess secrets), and continuous runtime governance. HashiCorp Vault relies on static credentials and point-in-time authorization, which may not provide continuous enforcement for AI agents. Choose Akeyless for SaaS-based, intent-aware runtime controls; choose HashiCorp Vault if you require on-premises, self-hosted secrets management for traditional workloads. Note: HashiCorp Vault may offer more customization for legacy environments. [Comparison]

How does Akeyless Runtime Authority compare to AWS Secrets Manager for AI agent workflows?

Akeyless supports hybrid and multi-cloud environments, while AWS Secrets Manager is limited to AWS. Runtime Authority provides dynamic credential injection, intent-aware policy enforcement, and continuous runtime governance for AI agents. AWS Secrets Manager focuses on static secrets management and does not offer continuous enforcement or intent-aware controls. Choose Akeyless for cross-cloud AI agent security; choose AWS Secrets Manager for AWS-only, basic secrets management. Note: AWS Secrets Manager may be more tightly integrated with AWS-native services. [Comparison]

How does Akeyless Runtime Authority compare to CyberArk Conjur for AI agent security?

Akeyless unifies secrets, access, certificates, and keys into a single SaaS platform with runtime enforcement for AI agents. CyberArk Conjur requires multiple tools for secrets and access management and does not provide intent-aware, continuous runtime controls for AI agents. Choose Akeyless for unified SaaS-based runtime governance; choose CyberArk Conjur if you need on-premises, modular secrets management. Note: CyberArk Conjur may offer more granular controls for legacy, non-AI workloads. [Comparison]

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When was this page last updated?

This page wast last updated on 12/12/2025 .

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Anthropic Defined the Framework. Runtime Authority Enforces It.

A control-by-control mapping of Anthropic’s Zero Trust Framework for AI Agents and how Akeyless Runtime Authority enforces it in production.

More than two-thirds of organizations suspect AI agents have already accessed data beyond their intended scope, according to the 2026 State of AI Agent Identity Security report. That finding highlights a growing reality: as AI agents move from answering questions to executing actions, security teams need more than authentication and access control.

To address this, Anthropic recently published a Zero Trust Framework for AI Agents, which defines the controls autonomous systems require. The framework provides an important reference model. The challenge now becomes enforcing them at runtime. Runtime Authority provides the enforcement layer that turns those principles into operational controls.

The Security Question Has Changed

A year ago, most organizations were asking how to secure AI agents. Today, many enterprises have already moved beyond the proof-of-concept stage. AI agents are being trusted with operational tasks that directly affect production systems, customer data, cloud infrastructure, and business workflows. Security teams are now asking a more practical question:

We have AI agents in production. How do we control them?

This question becomes even more important as the industry moves toward increasingly autonomous and persistent AI systems. Initiatives such as Anthropic’s Mythos highlight a future where agents retain more context, operate across longer time horizons, and take on greater responsibility for business processes.

This shift changes the security model entirely.

The first generation of enterprise AI primarily generated content and answered questions. Mistakes meant incorrect results. Modern autonomous agents are different. They can modify records, trigger workflows, access sensitive systems, and perform actions that have real operational consequences.

Traditional identity and access controls were not designed for this reality. They authenticate identities, grant access, and audit activity after the fact. They do not continuously govern behavior while autonomous systems are actively operating. As AI agents become operational actors, enterprises require continuous runtime governance, not simply access control. Anthropic’s Zero Trust Framework for AI Agents reflects this reality, recognizing that autonomous systems require continuous authorization, constrained access, runtime controls, and complete traceability long after the initial authentication decision has been made.

The Test That Matters: Impossible or Merely Tedious?

One of the most valuable ideas introduced by the framework is a simple design principle:

Does a security control make an attack impossible, or does it merely make it more difficult?

Many traditional controls create friction. Credential rotation, network segmentation, rate limits, and additional authentication layers can increase the effort required by an attacker.

But autonomous systems operate at machine speed. Attackers increasingly do as well. Friction alone is rarely sufficient.

The strongest controls remove capabilities entirely.

Credential rotation is a useful example. Rotation reduces the window of exposure but it does not eliminate the credential itself. The stronger control removes the credential from the agent entirely. If the agent never possesses a secret, there is nothing to steal, nothing to search for, and nothing to leak. The same principle applies to network access. Segmentation makes lateral movement more difficult; eliminating the network path altogether makes it impossible. 

This distinction becomes particularly important for AI agents because agents operate autonomously and continuously. Security controls must be capable of enforcing boundaries even when there is no human actively supervising the process.

This philosophy sits at the core of Runtime Authority.

Why Traditional Agent Security Falls Short

Many organizations still rely on machine-to-machine security models built around static API keys, service accounts, stored credentials, and role-based permissions. These approaches were not designed for autonomous systems.

When agents hold credentials, those credentials become targets. They may be exposed through prompts, logs, code repositories, runtime environments, or downstream integrations. Even frequent rotation does not eliminate the underlying risk because the credential still exists. Direct connectivity creates a similar problem. Every database, cloud service, or internal system an agent can reach becomes part of the attack surface.

Traditional authorization models introduce another limitation. Role-based access control can determine whether an agent is allowed to access a resource, but it cannot evaluate whether the action itself is appropriate in context. An agent that is authorized to access a database may still attempt a destructive action that conflicts with its intended purpose.

As AI agents take on greater operational responsibility,  security must move beyond controlling access and begin governing execution.

What Runtime Authority Looks Like in Practice

Akeyless Runtime Authority extends Modern Privileged Access Management into AI workflows by operating as an intent-aware enforcement plane between every agent and every target system.

Every agent action passes through the Akeyless Gateway, creating a mandatory control point where identity, policy, authorization, inspection, and auditing are enforced in a single path.

The architecture is built around six reinforcing controls.

  1. Zero credentials on the agent side. Short-lived dynamic credentials are generated only when required and injected directly into brokered sessions. Agents never possess secrets, API keys, passwords, or tokens.
  2. Zero direct connectivity to target systems. Databases, cloud services, SaaS platforms, Kubernetes environments, and legacy systems are only accessible through the Gateway. This removes opportunities for lateral movement and creates a centralized enforcement point.
  3. Full command-level control. Governance extends beyond the initial login event and applies to every action executed during the session.
  4. Intent-aware policy enforcement evaluates the purpose behind a request before any credential is issued. Policies assess whether the requested action aligns with the originating prompt and approved operational objectives.
  5. In-session inspection and response masking prevent sensitive information from unnecessarily entering an agent’s context window. Regulated data, customer information, financial records, and secrets can be masked or redacted before being returned to the agent.
  6. Blended identity and forensic traceability connect every action to both the agent and the human operating behind it. Every interaction is recorded through a complete chain linking the originating prompt, evaluated intent, policy decision, session context, and resulting action.

Together, these controls transform identity security from a point-in-time access decision into continuous runtime governance.

How Runtime Authority Maps to the Framework 

One of the strengths of Anthropic’s framework is that it organizes controls into Foundation, Enterprise, and Advanced maturity tiers, giving organizations a practical roadmap for securing autonomous systems.

Runtime Authority closely aligns with the controls the framework prioritizes. Foundation guidance calls for replacing static credentials with short-lived, automatically refreshed credentials. Runtime Authority goes further by ensuring agents never possess credentials at all. Dynamic Secrets are generated just in time, injected directly into brokered sessions, and destroyed when work is complete.

At the Advanced and Enterprise tiers, the framework introduces context-aware authorization, continuous policy evaluation, just-in-time access, and comprehensive auditability. Runtime Authority enforces these principles through intent-aware policy controls, short-lived credentials, non-bypassable time limits, and the ability to immediately terminate active sessions through a centralized kill switch.

The framework also emphasizes the importance of cryptographically rooted identity for every AI agent. The challenge is that modern agents are highly dynamic. Some exist for hours, while others may spin up for seconds and disappear. Rather than maintaining a separate directory of synthetic agent identities, Runtime Authority anchors trust in existing workload identities, including cloud IAM identities, Kubernetes service accounts, OIDC tokens, and other workload identities. Policies attach directly to these trusted identity sources, allowing agents to be governed from first authentication without requiring enrollment into a separate agent directory.

Finally, Anthropic highlights the need to prevent sensitive information from unnecessarily reaching AI systems. Runtime Authority accomplishes this through in-session inspection and response masking, ensuring sensitive data is filtered before it enters the agent’s context window.

At a Glance

Anthropic’s “impossible vs. tedious” test provides a useful lens for evaluating agent security. The controls below show how Runtime Authority enforces key framework requirements in practice.

Runtime Authority ControlHow It Enforces Anthropic’s Guidance
Zero credentials on the agent sideDynamic Secrets are generated only when required, injected directly into brokered sessions, and automatically expire.
Zero direct connectivityAgents never connect directly to databases, cloud services, SaaS platforms, or infrastructure. All access is brokered through the Gateway.
Full command-level controlAuthorization extends beyond login and applies to every action executed during the session.
Intent-aware policy enforcementRequests are evaluated against the originating prompt and approved operational objectives before access is granted.
In-session inspection and response maskingSensitive data can be masked or redacted before it enters the agent’s context window.
Blended identity and forensic traceabilityEvery action is linked to the originating prompt, policy decision, session context, agent identity, and human operator.

Beyond Authentication: The Runtime Identity Security Platform

Runtime Authority is part of the broader Akeyless Runtime Identity Security Platform.

As organizations adopt more AI agents, workloads, automation systems, and machine identities, security can no longer focus exclusively on human users. Identity systems must do more than issue credentials, they must govern behavior in real time.

The Runtime Identity Security Platform provides a unified foundation for securing AI agents, machines, workloads, automation systems, and privileged humans. It combines ephemeral identity, secretless authentication, dynamic entitlement provisioning, privileged access management, secrets management, certificate lifecycle management, encryption services, and runtime governance into a single operational layer.

Most importantly, it shifts the conversation from who should receive access to answering the more important question:

Should this specific action be allowed at this specific moment?

Authentication proves identity. Runtime Authority governs behavior.

Importantly, because Runtime Authority operates on the same Akeyless platform, organizations can extend existing identity controls, policies, authentication methods, and Gateway infrastructure into AI agent workflows rather than introducing a separate security architecture. 

The Audit Question Every Organization Will Face

As AI adoption accelerates, a new accountability challenge is emerging.

When an autonomous agent performs a sensitive action, can the organization prove who ultimately authorized it?

For many environments today, audit records point only to service accounts, API tokens, or machine credentials. They do not clearly connect an action back to the human request that initiated it. That gap becomes increasingly difficult to justify as AI systems gain operational autonomy.

Runtime Authority addresses this challenge through a complete forensic chain that links:

Human prompt → Classified intent → Policy verdict → Session context → Action on target

The resulting audit chain is immutable, structured, and integrates with existing enterprise logging and monitoring workflows. Security teams can forward enriched records to their SIEM while preserving the full sequence of decisions and actions that occurred during execution. This provides a single source of truth for understanding not only what happened, but why it happened, who initiated it, and how policy decisions influenced the outcome. For security leaders, compliance teams, and auditors, this provides the visibility required to understand not only what happened, but why it happened and who initiated it.

The Future of AI Security Is Runtime Governance

Static credentials, point-in-time authorization, and retrospective auditing are no longer sufficient. Organizations need a security model capable of governing actions while they occur.

Anthropic’s Zero Trust framework for AI agents provides a blueprint for governing autonomous systems. Akeyless Runtime Authority operationalizes those principles through continuous runtime enforcement, intent-aware policy controls, credential-free agent access, and complete forensic traceability. As organizations move from experimentation to production-scale AI operations, runtime governance becomes the mechanism that transforms security principles into enforceable controls. 

See Runtime Authority in Action

Request a Runtime Authority demo to learn how Akeyless Runtime Authority helps organizations enforce Zero Trust principles for AI agents.

Frequently Asked Questions

What is Runtime Authority?

Runtime Authority is the Akeyless runtime enforcement layer for autonomous AI agents. It continuously governs agent actions during execution, enforcing identity, policy, authorization, inspection, and auditing through a centralized Gateway.

How is Runtime Authority different from traditional IAM or PAM?

Traditional IAM and PAM primarily focus on authentication and authorization at the beginning of a session. Runtime Authority extends control throughout the session by continuously evaluating actions, enforcing policies, inspecting responses, and enabling real-time intervention.

Why are static credentials a problem for AI agents?

Static credentials can be exposed through prompts, logs, code repositories, runtime environments, or integrations. Runtime Authority eliminates this risk by ensuring agents never possess credentials. Dynamic secrets are generated only when needed and injected directly into brokered sessions.

What does “zero direct connectivity” mean?

AI agents cannot directly access databases, cloud services, SaaS platforms, or internal systems. All communication is routed through the Akeyless Gateway, creating a centralized enforcement point and eliminating unmanaged access paths.

How does Runtime Authority prevent unauthorized actions?

Runtime Authority uses intent-aware policy enforcement. Requests are evaluated against their originating purpose before credentials are issued. Actions that conflict with approved intent can be blocked before any connection to a target system occurs.

How does Runtime Authority support compliance and auditing?

Every action is recorded through a complete forensic chain that links the originating human prompt, classified intent, policy decision, session context, and resulting action. This provides complete traceability and accountability for AI-driven operations.

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