7 Tools to Mitigate Agentic AI Risks in the Enterprise

Perplexity AI Editorial Team

September 4, 2026

agentic AI risks enterprise

An AI assistant that writes text creates one kind of security problem. An AI agent that reads a customer record, searches the web, changes a ticket, executes code, calls an internal API, and decides what to do next creates another.

Enterprise agents increasingly operate inside real business workflows, often using the same identities, applications, data, and infrastructure that employees rely on. That makes a manipulated agent more consequential than a chatbot that produces an incorrect response.

The Enterprise Agent Risk Chain

Agentic AI risk is easier to manage when security teams stop treating the agent as one isolated application.

A real workflow contains several stages.

StageWhat Can Go WrongUseful Security Control
DiscoverySecurity does not know an agent existsAgent and shadow AI discovery
ConfigurationAgent has excessive tools or privilegesPosture and entitlement analysis
InputMalicious content manipulates reasoningPrompt injection protection
ContextMemory, files, websites, or tools become poisonedContext and supply chain controls
ReasoningAgent moves away from the user’s intended taskIntent and behavioral monitoring
ActionAgent executes an unsafe command or tool callRuntime enforcement
Data movementSensitive information leaves approved boundariesData security controls
After executionSOC cannot reconstruct what happenedSession-level telemetry and audit

7 Tools to Mitigate Agentic AI Risks

1. Dash: Best Overall for Session and Intent-Aware Agent Security

Dash is purpose-built around a central problem in agentic AI: security teams need to understand the complete execution, not just individual prompts or API calls.

The platform discovers the agentic layer across the enterprise, including agents, platforms, MCP servers, skills, plugins, extensions, tools, and related components. It can identify sanctioned and shadow usage and show how those resources connect with the wider environment.

This inventory provides the starting point for posture analysis. Teams can identify agents with risky configurations, excessive access, untrusted components, or broad capabilities before those weaknesses become incidents. Dash becomes particularly distinctive when the agent starts working.

The platform follows persistent agentic sessions across endpoints, cloud environments, containers, enterprise applications, and other execution surfaces. It records what the user intended, which context influenced the agent, which tools were selected, which commands were issued, and where behavior began to diverge from the original objective.

Core capabilities include:

  • Agent and shadow AI discovery
  • MCP, skill, plugin, and extension visibility
  • Agentic posture management
  • Session-level observability
  • Intent-aware detection
  • Prompt injection protection
  • Data leakage controls
  • Runtime action enforcement
  • Human approval workflows
  • Complete investigation timelines

2. Lasso Security

Lasso Security provides an AI security platform designed to protect enterprise agents from discovery through runtime.

Its approach combines agent inventory, posture assessment, automated red teaming, and runtime protection. This creates a continuous loop in which teams can identify agent risks, test whether those weaknesses are exploitable, and then apply security controls during production use.

The discovery layer maps agents and their connections with third-party tools, databases, internal services, and MCP resources. Lasso can assign contextual risk based on factors such as permissions, tool access, action capabilities, and data exposure.

Core capabilities include:

  • Enterprise agent discovery
  • Tool and MCP mapping
  • Agent risk scoring
  • Automated AI red teaming
  • Prompt injection detection
  • Memory poisoning detection
  • Data exfiltration protection
  • Intent-aware runtime analysis
  • AI application protection
  • Governance and audit visibility

3. Mindgard

Mindgard approaches agentic AI risk primarily from the perspective of an attacker. Its platform autonomously maps AI systems and executes adversarial testing designed to uncover exploitable weaknesses in models, agents, applications, tools, and supporting infrastructure.

This is useful because agentic vulnerabilities do not always appear through standard security testing.

An agent may behave securely when tested with obvious malicious prompts but fail when an attacker chains several weaker techniques together. Tools, memory, credentials, inter-agent communication, and contextual information can all create new paths to compromise.

Core capabilities include:

  • Autonomous AI reconnaissance
  • Agentic red teaming
  • Multi-stage attack chains
  • Agent security assessments
  • Prompt injection testing
  • Tool and behavior analysis
  • Continuous security evaluation
  • Guardrail validation
  • Runtime detection
  • Remediation guidance

4. Prompt Security

Prompt Security focuses on monitoring and controlling generative and agentic AI interactions across enterprise environments.

The platform operates through mechanisms such as endpoint-level controls and gateways, giving security teams visibility into how users and applications interact with models, agents, and connected resources. For agentic environments, its capabilities extend beyond conventional prompt monitoring.

Prompt Security can identify MCP usage, score MCP server risk, inspect interactions between agents and connected tools, and apply policies according to users, servers, and actions.

Core capabilities include:

  • AI and agent usage visibility
  • MCP discovery
  • MCP server risk scoring
  • AI Gateway
  • Prompt injection protection
  • Sensitive data controls
  • Tool interaction inspection
  • Policy enforcement
  • Automated AI red teaming
  • Continuous evaluations

5. CalypsoAI

CalypsoAI combines adversarial AI testing with real-time inference security. Its agentic security approach is built around the idea that autonomous systems need to be attacked before deployment and continuously inspected while they operate.

CalypsoAI’s Agentic Warfare testing uses autonomous adversarial agents to explore attack paths against AI systems. Rather than submitting a static library of prompts, these agents can adapt their approach and continue trying to achieve a malicious objective.

This helps test scenarios in which an enterprise agent has access to tools, data, APIs, and other systems.

Core capabilities include:

  • Autonomous agentic red teaming
  • Adaptive attack simulation
  • AI resilience scoring
  • Prompt injection testing
  • Runtime AI guardrails
  • Sensitive data protection
  • Custom policy enforcement
  • Agent behavior visibility
  • Audit trails
  • Model-agnostic protection

6. LayerX

LayerX focuses on one of the most consequential places enterprise agents can operate: the authenticated browser session.

Browser agents can navigate websites, read information, enter data, click controls, interact with SaaS applications, and perform tasks using the employee’s live browser identity. This creates an unusual security challenge.

A browser agent may not need to steal credentials because it is already operating inside authenticated sessions. If manipulated by malicious web content or unsafe instructions, it could potentially use legitimate access to take actions across the SaaS applications an employee is already logged into.

Core capabilities include:

  • Agentic browser discovery
  • Browser-based AI usage visibility
  • Prompt injection protection
  • Sensitive data controls
  • User and agent action policies
  • SaaS interaction monitoring
  • AI extension visibility
  • Contextual browser enforcement
  • Shadow AI discovery
  • Real-time blocking and coaching

7. Check Point AI Agent Security

Check Point provides AI Agent Security as part of a broader enterprise security architecture spanning AI discovery, posture management, runtime enforcement, data protection, and security operations.

The platform discovers agents across supported enterprise, cloud, and development environments and evaluates the risks created by their connected components.

Posture analysis considers elements such as tools, skills, MCP servers, permissions, and other agent capabilities. This helps teams identify configurations that may create excessive agency before the agent is exposed to malicious input.

Core capabilities include:

  • Enterprise agent discovery
  • Agent posture assessment
  • MCP and tool risk visibility
  • Prompt injection protection
  • Sensitive data enforcement
  • Runtime tool-call inspection
  • Unsafe action blocking
  • Multi-model support
  • Security operations integration
  • AI lifecycle governance

Three Different Ways Enterprises Deploy Agent Security

The seven platforms illustrate that agentic AI security can enter the architecture from different points.

Protect the Agent Itself

Agent-centric security follows the complete execution.

This model looks at:

  • Agent inventory
  • Skills and tools
  • Intent
  • Reasoning
  • Sessions
  • Actions
  • Data movement

It is especially useful when agents operate across several environments.

Protect the AI Interaction

Gateway and inference security platforms sit between the application and AI resources.

They inspect:

  • Prompts
  • Responses
  • Tool calls
  • Sensitive data
  • Model access
  • External context

This architecture works well for centrally built AI applications where traffic can be routed through a common enforcement point.

Protect the User Environment

Interaction and browser security controls operate where employees use AI.

These tools can see:

  • AI websites
  • Browser agents
  • Extensions
  • SaaS interactions
  • Uploaded data
  • Authenticated browser actions

The approach is particularly valuable when AI adoption is decentralized and security does not control every application being used.

Large enterprises may eventually need elements of all three.

The Most Important Agent Risk Is Often a Combination of Safe Actions

Agentic attacks are difficult because the dangerous outcome does not always contain an obviously malicious step.

Consider an internal research agent with four legitimate capabilities:

  1. Search the web.
  2. Read internal documents.
  3. Create reports.
  4. Send email.

Each capability makes sense.

An attacker places an indirect prompt injection on a webpage the agent is likely to visit.

The injected instruction tells the agent to locate a confidential document, summarize selected information, add it to a report, and email the result to an external address.

Every tool works as designed.

Traditional controls may see:

  • An approved agent
  • A legitimate employee
  • Valid credentials
  • Allowed web access
  • Permitted file access
  • A functioning email API

Agent-aware security needs to understand that the sequence no longer matches the user’s original objective.

This is why tool permissions and least privilege remain essential but cannot be the only defense.

How to Run an Enterprise Agent Risk Exercise

A useful agent security evaluation starts with one production workflow.

Do not begin with a generic question such as, “Does the platform block prompt injection?”

Instead, map the actual blast radius.

Identify the Agent’s Inputs

What information can influence it?

Examples include:

  • Employee prompts
  • Webpages
  • Email
  • Files
  • Databases
  • Retrieved documents
  • MCP responses
  • Agent memory
  • Other agents

Identify Its Authority

What can it actually do?

Document:

  • Applications
  • APIs
  • Shell access
  • Cloud permissions
  • SaaS permissions
  • Database privileges
  • File-system access
  • Communication tools

Create an Adversarial Path

Introduce a realistic malicious signal through one of the normal input channels.

The test should attempt to make the agent use its legitimate capabilities in an unsafe combination.

Evaluate the Controls

Determine:

  • Was the attack detected?
  • At which step?
  • Could the unsafe action be blocked?
  • Was sensitive data protected?
  • Did the platform understand the user context?
  • Could the SOC reconstruct the complete event?
  • Was there enough evidence to explain the detection?

This produces a much more useful proof of concept than measuring how many isolated malicious prompts a platform catches.

FAQs

What are the biggest risks associated with enterprise AI agents?

Major risks include indirect prompt injection, excessive permissions, sensitive data leakage, unsafe tool use, memory poisoning, compromised agent components, identity abuse, and behavior that moves outside the user’s intended task. The impact depends heavily on what applications, credentials, data, and execution capabilities the agent can access.

What is the best tool for mitigating agentic AI risks?

Dash Security is the best overall option in this comparison because it combines enterprise-wide agent discovery with posture management, session visibility, intent-aware runtime detection, data security, action controls, human approval, and incident investigation across the agentic workflow.

Why are AI agents harder to secure than chatbots?

Chatbots primarily generate responses. Agents can use tools and perform actions across external systems. A manipulated agent may therefore execute commands, change records, send information, modify code, or interact with infrastructure, making incorrect behavior more consequential than an unsafe text response alone.

Can least-privilege access eliminate the risk of agentic AI?

Least privilege significantly reduces the potential impact of a compromised or malfunctioning agent, but it does not eliminate risk. An agent can still misuse legitimate permissions, combine approved tools in unsafe ways, expose sensitive data, or follow malicious instructions that fall within its normal technical access.

How does prompt injection affect AI agents?

Prompt injection attempts to manipulate an agent by embedding malicious instructions in user input or in external content such as websites, documents, email, repositories, and tool responses. The attack can influence reasoning and cause the agent to perform actions that were not part of the user’s legitimate objective.

Should enterprises red team AI agents before deployment?

Yes. Red teaming can reveal attack paths involving prompts, tools, memory, permissions, external content, and multi-step behavior before an agent receives production access. Testing should also continue after deployment because models, prompts, integrations, permissions, and agent capabilities can change over time.

For broader context on how AI agents are reshaping enterprise security and business operations in 2026, see our coverage of how AI agents are transforming how enterprises operate and secure their systems.

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