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secureauth.com

Govern the AI agents already running in your enterprise. SecureAuth discovers every agent, traces delegated access, and decides every action in real time.

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What is SecureAuth used for?

SecureAuth is used to govern AI agents that are already running inside an enterprise. Rather than managing human logins, it focuses on the non-human identities and autonomous agents that act across applications, data and workflows. Its purpose is to answer three questions: which agents exist, what authority they carry, and whether each action should be allowed at the moment it happens.

Core uses

  • Agent and non-human identity discovery — find agents in operation, the identities they use, and the tools they can reach.
  • Delegated access tracing — see who authorized an agent, how far that authority extends, and where it has been exercised.
  • Runtime policy enforcement — evaluate each agent request against policy, risk and context before the agent acts.
  • Action-level decisions — allow, deny, redact, throttle, escalate or require human approval.
  • Data redaction — strip sensitive data before it reaches an agent or leaves a system.

Who it is for

Security, identity and platform teams in larger organizations that have adopted AI agents faster than their access controls can keep up. The page frames the problem in terms of agents holding long-lived credentials with full user or system permissions, spending that arrives as unexplained invoices, and scattered evidence of what agents did.

A practical scenario

An agent is authorized once by an employee, then keeps acting for weeks. It reads a customer database, calls an internal API and triggers a payment. With SecureAuth, the security team can trace that authority back to the employee, see which data classes the agent touched, and block or require approval for the payment call at runtime instead of discovering it after the fact.

Decision criterion

Choose this category of tool if your main gap is runtime control over agent actions and delegated authority. If your problem is only inventorying agents, discovery alone may be enough; SecureAuth's differentiator is combining discovery with enforcement at the point of action.

Next step: list your agents by how they authenticate — delegated by a person, service account, or fully autonomous — and check whether any of them can move money or read regulated data without an inspection step. Pricing details are listed on SecureAuth.

How does SecureAuth discover AI agents and non-human identities across an enterprise?

SecureAuth addresses discovery through a capability it calls Agent & NHI Discovery, which is part of its Agent Authority platform. According to the product page, it identifies which AI agents are running, the identities those agents use, and the tools they can reach.

What discovery covers

The platform is framed around three connected views:

  • Agent and NHI discovery — surfaces agents currently operating, their underlying identities, and accessible tools.
  • Delegated access tracing — follows who authorized each agent, how far that authority extends, and where it has been exercised.
  • Agent topology — maps the whole estate in one graph: teams, the agents they run, the policies governing their calls, and the MCP servers they reach.

SecureAuth also claims a "real time" discovery capability, suggesting agents are detected as they appear rather than only through periodic audits. The page distinguishes three agent types it accounts for: employee-delegated agents, service accounts, and fully autonomous agents.

Why this matters in practice

Discovery is the prerequisite for the rest of the platform. The page's own framing of the problem is that agents often receive access once and then act repeatedly across applications, data, and workflows using long-lived credentials that outlast the original task. Without an inventory, you cannot trace delegated authority or enforce policy at the point of action. A useful evaluation step is to ask a vendor to demonstrate discovery against agents you already know exist — including shadow agents spun up by individual teams — and to show how quickly a newly created agent appears in the topology graph.

For related context on identity governance across human and machine identities, see Okta and CyberArk.

How can I trace who authorized an AI agent and where its delegated access was used?

SecureAuth's Agent Authority is built for exactly this question: it includes delegated-access tracing that shows who authorized an agent, how far that authority reaches, and where it has been used. That maps to two separate jobs you should keep distinct: attribution (which human, team or system granted the authority) and usage (which calls that authority actually produced).

How the two halves fit together

  • Authorization chain. Start from the agent identity and walk back to its grant: an employee's delegated consent, a service account, or an autonomous registration. Record the grantor, the time of grant, and the scope it carried.
  • Reach. Translate that scope into concrete resources — which identities touch which data classes, and where sensitive calls land. SecureAuth presents this as an agent topology graph and an "agent reach" view.
  • Usage. For each action, capture the agent, the acting identity, the tool or MCP server, the target resource, and the decision made at the time.

What to look for in any tool

Capability Why it matters
Identity linkage Without a stable agent ID, you cannot join a grant to its later calls
Delegation depth Chained delegation hides the original authorizer
Runtime decision log Post-hoc logs miss actions that were never inspected
Scope-to-resource mapping Shows blast radius in data terms, not permission names

A practical next step

Pick one high-risk agent — something that reads customer data or moves money — and reconstruct its full chain manually: grantor, credential type, tools reached, and the last 30 days of calls. If you cannot complete that chain from existing logs, that gap is your first requirement. SecureAuth's runtime enforcement adds a decision point before each action (allow, deny, redact, throttle, escalate, or require human approval), which also gives you a cleaner audit record than log reconstruction alone.

Trade-off to weigh

Runtime enforcement gives better evidence but adds a policy layer between agents and tools; expect integration work and some latency, and plan who owns policy exceptions. If your immediate need is only retrospective tracing, discovery plus delegated-access views may be enough to start.

To see how the pieces are grouped, check SecureAuth and its Agent Authority material.

How does SecureAuth enforce runtime policies before an AI agent acts?

SecureAuth enforces runtime policy at the point of action: every agent request is evaluated against policy, risk, and context before the agent is allowed to proceed, and the outcome is one of a fixed set of decisions — allow, deny, redact, throttle, escalate, or require human approval. The intent is to stop the pattern where an agent receives access once and then acts freely across applications, data, and workflows on long-lived credentials.

Three capabilities work together to make that decision meaningful:

  • Agent and non-human identity discovery — identifies which agents are running, the identities they use, and the tools they can reach.
  • Delegated access tracing — shows who authorized each agent, how far that authority extends, and where it has been used.
  • Runtime enforcement — checks each request against policy, risk, and context before the action executes.

Supporting features shape what the enforcement decision can do. Access policies are expressed by agent, user, group, tool, and condition, with the blast radius shown before saving. Data redaction can strip sensitive content before it reaches the agent. An agent topology graph maps teams, their agents, the policies governing their calls, and the MCP servers they reach, while an agent reach view shows which identities touch which data classes and where sensitive calls land.

A concrete scenario: a finance agent delegated by an employee tries to move money outside its approved scope. Rather than relying on the credentials it already holds, the request is evaluated at that moment; the policy can deny it, throttle it, or route it to human approval. A separate agent reading customer records might be allowed to proceed but with sensitive fields redacted first.

How to decide if this fits: if your concern is mainly inventory — you cannot list your agents — discovery alone may be enough to start. If your concern is consequence — agents hold standing permissions and act without inspection — the runtime decision point is the part that matters, and you should test whether your highest-risk agent actions can be expressed as readable allow/deny conditions with visible blast radius. SecureAuth publishes pricing information at SecureAuth, which is the practical next step for scoping cost against the number of agents and identities you need to govern.

How does SecureAuth redact sensitive data before an AI agent can access it?

SecureAuth describes redaction as a runtime decision, not a pre-processing step. According to its page, the platform evaluates every agent request against policy, risk and context before the agent can act, and "redact" is one of the outcomes it can return alongside allow, deny, throttle, escalate and human approval. The stated goal is that sensitive data is stripped before the agent reaches it, rather than logged and cleaned up afterwards.

How that fits the rest of the product

  • Discovery and delegated access come first. Redaction only works if you know which agent is calling, which identity it borrowed, and what it is trying to reach. SecureAuth pairs redaction with agent/NHI discovery and delegated-access tracing, so a decision can be tied to a specific agent, the employee or service account behind it, and the tool being used.
  • Policy is expressed in readable terms. The page says policies can allow or deny by agent, user, group, tool and condition, with the blast radius shown before you save. Redaction rules sit in that same policy layer, which is what makes them reviewable by security and compliance teams rather than buried in code.
  • The decision point is the action. Because enforcement is inline, a redaction rule can fire on a live call to an MCP server or application instead of relying on the agent to honour instructions.

What to check before relying on it

The page does not specify which data classes, formats or field-level patterns are supported out of the box, so treat that as the first question for a demo: ask whether redaction is pattern-based, classifier-based, or driven by your own policy definitions, and whether it applies to tool inputs, tool outputs, or both. A useful test scenario is a support agent that summarises customer records — confirm that a redaction rule can mask account numbers while still letting the agent complete the task, and that the original value is never returned to the model.

For context on the identity and access side that redaction depends on, see SecureAuth and, if you are comparing governance approaches, Okta and Microsoft cover adjacent agent-identity controls.

How much does SecureAuth cost and is there a free trial?

SecureAuth does not publish its pricing on the page. The site lists a Pricing link, but it does not state a price or confirm whether a free trial is available. The page's visible content focuses on the product itself: discovering AI agents, tracing delegated access, and enforcing runtime policy decisions such as allow, deny, redact, throttle, escalate, or require human approval.

The practical next step is to treat cost as a sales conversation. Because the product governs agents and non-human identities across an enterprise, pricing is likely tied to scale and deployment scope rather than a simple per-seat figure. Ask for a quote that breaks down:

  • Number of agents and non-human identities covered
  • Which applications, data classes, and MCP servers are in scope
  • Whether runtime enforcement and redaction are included or add-ons
  • Implementation, onboarding, and support terms

If you want to test it before committing, ask directly whether a trial, proof of concept, or sandbox is available for your environment. A short pilot scoped to one team and a few agents is usually more useful than a generic free trial, since the value depends on seeing your own agent topology and access paths.

Related questions

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How SecureAuth Enforces Policy on AI Agent Actions in Real Time

SecureAuth enforces policy at the point of action: before an AI agent can execute, its request is evaluated against policy, risk, and context, and the platform returns a decision — Allow, Deny, Redact, Throttle, Escalate, or Human approval. This applies to agents already running in an enterprise, whether they were delegated by an employee, run as service accounts, or act on their own. The enforcement layer sits inside SecureAuth's Agent Authority platform, alongside agent discovery and delegated-access tracing, under one control plane.

Why enforcement has to happen before the action

SecureAuth frames the core problem this way: an agent gets access once, and every action after that runs across your applications, data, and workflows. Because agents carry full user and system permissions in long-lived credentials, that access persists beyond the original task.

The page identifies three consequences of having no check before agents act:

  • Unbounded reach — credentials outlive the task they were granted for.
  • Ungoverned action — agents can read sensitive data or move money without being inspected.
  • Unchecked spend — costs arrive as multiple invoices with no breakdown of which agents spent it or what tasks it paid for.

SecureAuth's stated conclusion is that you can list every agent and still not know what it did, or control what it may do next. Runtime enforcement is the layer that closes that gap.

The enforcement decision, step by step

  1. A request is made. An agent attempts an action against an application, data class, tool, or MCP server.
  2. Policy, risk, and context are evaluated. SecureAuth evaluates the request against these three inputs before the agent can act.
  3. A decision is returned. The platform issues one of the following outcomes:
Decision What it means
Allow The action proceeds
Deny The action is blocked
Redact Sensitive data is removed before the agent sees it
Throttle The action is rate-limited
Escalate The request is raised for further handling
Human approval The action waits on a person

The important ordering detail: evaluation happens before the agent can act, not as an after-the-fact audit.

How policies are defined and scoped

Policies in Agent Authority are readable and configurable by:

  • Agent
  • User
  • Group
  • Tool
  • Condition

Before you save a policy, the platform shows the blast radius — the scope of what that policy will affect. This lets an administrator see the impact of an allow or deny rule before it goes live, rather than discovering it in production.

Redaction happens before data is reached

Data redaction is listed as a distinct platform capability, and the page describes it as "redaction before data" — meaning sensitive data is stripped before it reaches the agent, not logged and cleaned up afterward. This matters because a redaction decision is only useful if it prevents the agent from ever holding the sensitive value.

What surrounds the enforcement layer

Runtime enforcement is one of three capabilities SecureAuth groups under Agent Authority:

  • Agent & NHI Discovery — see which agents are operating, the identities they use, and the tools they can reach.
  • Delegated access — trace who authorized an agent, how far that authority reaches, and where it has been used.
  • Runtime enforcement — evaluate every agent action against policy, risk, and context before the agent can act.

The platform view adds context that feeds enforcement decisions: an agent topology graph showing teams, the agents they run, the policies that decide their calls, and the MCP servers they reach; and an agent reach view showing which identities touch which data classes and where sensitive calls land.

What to check before adopting this model

  • Coverage of agent types. Confirm the platform discovers and governs all three patterns SecureAuth names: employee-delegated agents, service-account agents, and fully autonomous agents.
  • Where enforcement is inserted. Real-time decisions require the platform to sit in the request path. Verify how it integrates with your existing applications, data stores, and MCP servers — the page lists "Integrate seamlessly" as a platform heading but does not detail specific connectors in the material available.
  • Policy authoring workflow. The blast-radius preview is the feature that makes agent/user/group/tool/condition policies safe to change. Test it against a non-production policy first.
  • Pricing and trial terms. SecureAuth's site has a pricing page, but the available material does not state costs, tiers, or whether a free trial applies. Check the pricing page directly rather than assuming terms.

The practical test of any runtime enforcement layer is the same: take one agent with broad, long-lived credentials, define a deny or redact rule scoped to a sensitive data class, and confirm the decision fires before the action rather than after it.

What SecureAuth's Delegated Access Tracing Shows About AI Agents

SecureAuth's delegated access tracing answers three questions about every AI agent in your enterprise: who authorized it, how far that authority reaches, and where it has been used. It sits inside the Agent Authority platform alongside agent and non-human identity (NHI) discovery and runtime enforcement, so tracing is not a standalone audit log — it is the evidence layer that tells you whether the access an agent holds still matches the access it was granted.

The three things tracing records

SecureAuth describes delegated access as tracing "who authorized each agent, how far that authority reaches, and where it was used." Each part maps to a distinct governance problem.

Who authorized the agent

Agents enter an environment through different doors. SecureAuth's own framing of the problem notes that "some are delegated by an employee, some run as service accounts, some act entirely on their own." Tracing identifies the authorizing party behind each agent, which matters because the answer determines who is accountable when the agent acts and who to contact when authority should be revoked.

How far the authority reaches

An agent typically inherits the permissions of whoever or whatever authorized it. SecureAuth calls this "unbounded reach": agents "carry full user and system permissions in long-lived credentials," and "the access persists beyond the task." Tracing is meant to show the extent of that inherited authority — which identities the agent can use and which tools it can reach — rather than assuming the grant was scoped to the original task.

Where the authority was used

Knowing an agent holds broad permissions is different from knowing what it did with them. Tracing records where delegated authority has actually been exercised, which is the piece that turns a permission inventory into an activity record.

How tracing connects to the rest of Agent Authority

Delegated access tracing is one of three capabilities SecureAuth groups under a single control plane, and it depends on the other two to be useful.

Capability What it contributes to tracing
Agent & NHI discovery Establishes the inventory — which agents run, the identities they use, the tools they reach
Delegated access Traces who authorized each agent, how far that authority reaches, and where it was used
Runtime enforcement Evaluates policy, risk, and context before the agent acts, producing the decisions tracing can be read against

Two views in the platform give tracing its visual context:

  • Agent topology — a single graph of teams, the agents they run, the policies that decide their calls, and the MCP servers they reach. This is where an agent's authorization chain becomes visible as a path rather than a row.
  • Agent reach — which identities touch which data classes and where sensitive calls land. This is the view that shows whether traced authority is reaching data it should not.

SecureAuth's stated goal for the combination is direct: "You can list every agent and still not know what it did, or control what it may do next." Tracing addresses the first half of that sentence; runtime enforcement addresses the second.

What tracing enables in practice

The platform's control actions — Allow, Deny, Redact, Throttle, Escalate, and Human approval — are decisions made at the point of action. Tracing supplies the inputs that make those decisions defensible:

  • If an agent's traced authority extends beyond its task, you have grounds to narrow the grant or deny specific calls.
  • If traced usage shows sensitive data classes being reached, redaction or escalation becomes the relevant control.
  • If an agent was authorized by an employee who has since changed roles, the authorization record is what tells you the grant needs review.

SecureAuth also frames policy authoring around this: access policies can be set by agent, user, group, tool, and condition, "with the blast radius shown before you save." Tracing is what makes that blast radius estimate meaningful, because it reflects observed reach rather than theoretical permission.

Where the limits are

The available material describes what tracing covers but does not specify retention periods, export formats, or how far back historical usage is queryable. Pricing and trial terms are referenced on the site but not detailed here, so treat cost and access conditions as something to confirm directly. If your requirement is a specific audit standard or retention window, verify that against SecureAuth's documentation rather than assuming the platform's default matches it.

What is SecureAuth and what does its Agent Authority platform do?

SecureAuth is an enterprise security vendor whose current focus, per its website, is Agent Authority — a continuous authority platform for governing AI agents that are already running inside an organization. It is aimed at security, identity, and platform teams that need to answer three questions about their agents: what exists, who authorized it, and what it is allowed to do right now. The platform combines agent discovery, delegated-access tracing, and runtime policy enforcement in one control plane.

The problem SecureAuth is built around

The site frames AI adoption as a risk that compounds: an agent gets access once, and every action after that runs across applications, data, and workflows. SecureAuth breaks the exposure into four categories:

  • Unbounded reach — agents carry full user and system permissions inside long-lived credentials, and that access persists beyond the original task.
  • Ungoverned action — there is no check before an agent acts, so it can read sensitive data or move money without inspection.
  • Unchecked spend — costs arrive as multiple invoices with no breakdown of which agent spent the money or what task it paid for.
  • Scattered evidence — you can list every agent and still not know what it did or control what it may do next.

The site also notes that agents arrive through different paths: some are delegated by an employee, some run as service accounts, and some act entirely on their own. That mix is why a simple inventory is not enough.

What Agent Authority does

SecureAuth describes three capabilities that sit under one control plane:

Capability What it covers
Agent & NHI Discovery Which agents are operating, the identities they use, and the tools they can reach
Delegated access Who authorized each agent, how far that authority reaches, and where it has been used
Runtime enforcement Evaluating every agent action against policy, risk, and context before the agent can act

Enforcement outcomes include allow, deny, redact, throttle, escalate, and human approval — so the platform is not limited to blocking; it can also narrow or delay an action.

Inside the platform

The site walks through six views of the same estate:

  1. Agent topology — teams, the agents they run, the policies that decide their calls, and the MCP servers they reach, shown as one graph.
  2. Agent reach — which identities touch which data classes, and where sensitive calls land.
  3. Access policies — allow or deny by agent, user, group, tool, and condition, with the blast radius shown before you save.
  4. Data redaction — redaction applied before data reaches the agent.
  5. Runtime decisions — turning policy into a decision at the point of action.
  6. Integrations — connecting the platform to existing systems.

The through-line is the phrase SecureAuth uses for its positioning: turn policy into a decision at the point of action. Discovery and tracing tell you what happened and what could happen; enforcement is what changes the outcome of an individual request.

Who it is for

SecureAuth targets organizations that already have AI agents in production — or are close to it — and need governance rather than a pilot. If your agents run on long-lived credentials, reach internal tools and MCP servers, or generate spend you cannot attribute, the three capabilities map directly onto those gaps. The site states the platform is trusted by global enterprises and offers a pricing page for commercial details.

What to check before evaluating

  • Agent inventory accuracy — discovery is the foundation; if agents or non-human identities are missed, delegated-access tracing and enforcement will have blind spots.
  • Policy granularity — confirm that allow/deny conditions cover the dimensions you care about (agent, user, group, tool, condition) and that blast-radius preview matches your change-review process.
  • Enforcement placement — runtime decisions only help if they sit in the path of the calls your agents actually make, including MCP server traffic.
  • Redaction coverage — verify which data classes can be redacted before reaching an agent, and whether that matches your sensitive-data definitions.
  • Commercial terms — pricing and trial availability are not specified in the material reviewed here; check the pricing page directly rather than assuming a free tier.
Why Do Enterprises Need AI Agent Governance According to SecureAuth?

Enterprises need AI agent governance because AI adoption is already compounding risk: once an agent gets access, every action after that runs across applications, data, and workflows. SecureAuth's position is that listing every agent is not enough — you can know an agent exists and still not know what it did, or control what it may do next. Governance becomes necessary when agents can act on their own, carry long-lived credentials, and spend money without a check at the point of action.

The risk starts with how agents get access

SecureAuth frames the problem around a simple asymmetry: access is granted once, but the consequences continue. An agent that receives permission does not stop at the task it was created for. Its actions propagate across the systems it can reach.

SecureAuth groups agents into three origins, each with a different accountability problem:

  • Delegated by an employee — a person authorized the agent, so authority traces back to a human.
  • Running as service accounts — the agent acts under a system identity rather than a person.
  • Acting entirely on their own — no individual delegation sits behind the action.

The governance question SecureAuth raises is not just "which agents exist" but "what do your agents reach, and what can they do?"

Four failure modes SecureAuth identifies

Risk What happens Why it matters
Unbounded reach Agents carry full user and system permissions in long-lived credentials Access persists beyond the task it was granted for
Ungoverned action No check occurs before an agent acts It can read sensitive data or move money without inspection
Unchecked spend Costs arrive as multiple invoices No breakdown of which agents spent it or what tasks it paid for
Exposed data / scattered evidence / surprise bills The downstream effects accumulate You can list every agent and still not know what it did

The common thread is that permission and accountability are decoupled. An agent can hold authority that outlives the reason it was granted, and the enterprise has no runtime checkpoint to intervene.

The governance gap: visibility without control

SecureAuth's core argument is that discovery alone does not solve the problem. Knowing the inventory of agents does not tell you:

  • what each agent actually did,
  • which identities touched which data classes,
  • where sensitive calls landed,
  • or what the agent may do next.

That gap is what turns governance from a reporting exercise into a runtime decision problem.

What SecureAuth proposes instead

SecureAuth's Agent Authority platform brings three capabilities under one control plane:

  1. Agent & NHI Discovery — see which agents are operating, the identities they use, and the tools they can reach.
  2. Delegated access — trace who authorized an agent, how far that authority reaches, and where it has been used.
  3. Runtime enforcement — evaluate every agent action against policy, risk, and context before the agent can act.

The enforcement layer is the part that distinguishes this from inventory tooling. At the point of action, SecureAuth describes a decision that can result in Allow, Deny, Redact, Throttle, Escalate, or Human approval. Policy is expressed by agent, user, group, tool, and condition, with the blast radius shown before the policy is saved.

When this framing applies to your organization

SecureAuth's argument is most relevant if agents in your environment:

  • hold credentials that persist beyond a single task,
  • reach applications, data, or workflows beyond their original purpose,
  • can trigger financial or data-sensitive actions,
  • or generate spend that cannot be attributed to a specific agent and task.

If agents are strictly sandboxed, short-lived, and human-approved at every step, the runtime enforcement problem SecureAuth describes is smaller. The need grows with the reach and autonomy of the agents already running.

SecureAuth offers a pricing page for commercial details; the source material does not specify plan structure, limits, or whether a free trial is available.

How to Try SecureAuth or Get Pricing for Its Agent Authority Platform

SecureAuth's site exposes two direct commercial paths: a Pricing page at secureauth.com/pricing, and a "free trial" signal on the site. If you want to evaluate Agent Authority before committing, start with the pricing page for packaging and commercial terms, and use the trial entry to test discovery, delegated access tracing, and runtime enforcement against your own agents. The site does not publish specific price points, tiers, or trial length in the material available, so treat any figure you see elsewhere as unverified until confirmed by SecureAuth directly.

What you can do on the site today

Path Where What it gives you
Pricing secureauth.com/pricing Commercial terms, plan structure, and a route to a quote
Free trial Referenced on the site Hands-on access to evaluate the platform before purchase
Product detail Agent Authority pages Discovery, delegated access, runtime enforcement, control plane

The pricing page is the authoritative place to check current packaging. Because pricing signals on the site are limited to the page link and a "free trial" keyword, do not assume a self-serve checkout, a published per-agent rate, or a no-login trial — none of that is confirmed in the available material.

What you are actually evaluating

Before you ask for a quote, it helps to know what the platform claims to do, because that shapes which questions to ask on a trial or demo call.

Discovery and agent topology

Agent Authority is positioned to discover agents and non-human identities (NHIs) in real time — which agents run, the identities they use, and the tools they reach. The platform presents this as an agent topology graph covering teams, their agents, the policies that decide their calls, and the MCP servers they reach.

Delegated access tracing

The platform traces who authorized each agent, how far that authority reaches, and where it was used. This matters because, per SecureAuth's framing, agents get access once and then act across applications, data, and workflows — some delegated by an employee, some running as service accounts, some acting on their own.

Runtime enforcement

Every agent action is evaluated against policy, risk, and context before the agent can act. The decision set is: Allow, Deny, Redact, Throttle, Escalate, or Human approval. Data redaction happens before data reaches the agent.

Policy readability and blast radius

Access policies are described as readable and configurable by agent, user, group, tool, and condition, with the blast radius shown before you save.

Questions to bring to a trial or pricing conversation

Use these to convert a generic demo into a decision:

  1. Scope of discovery — Does it find agents across all the identity types we run (delegated, service account, autonomous)?
  2. Enforcement point — Where does the runtime decision sit relative to our MCP servers and internal tools?
  3. Redaction depth — Which data classes can be redacted before the agent sees them?
  4. Policy authoring — Can a non-engineer read and safely edit a policy, given the blast-radius preview?
  5. Commercial model — Is pricing per agent, per identity, per action volume, or per seat? (Not published on the site — ask directly.)
  6. Trial terms — Length, environment (sandbox vs. production), and what data you need to connect.

Practical path

  • Step 1: Open secureauth.com/pricing to see current plan structure and request a quote.
  • Step 2: Use the free trial entry to stand up discovery in a limited environment and confirm what the platform actually sees.
  • Step 3: Test one enforcement decision end to end — pick a policy, trigger an agent action, and verify the Allow/Deny/Redact outcome.
  • Step 4: Bring the six questions above to the commercial conversation so pricing maps to your real agent and identity count.

Expected result: you leave with a confirmed quote basis and evidence that discovery, tracing, and enforcement work on your agents — not just on a vendor demo tenant.

Common snag: teams often start with enforcement before discovery, so they cannot tell which agent triggered a denial. Run discovery first; the topology graph is what makes every later decision explainable.

Website Overview

An established domain and managed infrastructure suggest continuity of operations and may support dependable delivery, although neither guarantees service quality. Page metadata, canonical configuration and social previews work together to provide more consistent search and sharing presentation.

Domain and Registration

Registered in 2000, this domain has about 26 years of history. That suggests continuity, although ownership and purpose may have changed. Transfer-protection status is present, helping reduce the risk of unauthorized domain transfers. The registrar is GoDaddy.com, LLC, a widely used domain service provider. The domain uses the common .com extension, which is not an independent safety signal.

DNS and Email

The lowest TTL is 60 seconds, supporting rapid record changes at the cost of more frequent lookups. Nameservers are provided by Amazon Route 53, indicating managed DNS hosting. MX records point to the Microsoft 365 email service. CAA records restrict which certificate authorities are authorized to issue certificates. No CNAME was found; the observed records resolve directly to addresses.

TLS and Certificates

The certificate uses an RSA 2048-bit public key, offering broad client compatibility. The server supplied a complete certificate chain. No organization name is present in the certificate; the available fields are consistent with domain validation. The certificate was issued within the Amazon cloud or CDN ecosystem. The certificate is valid for about 197 days in total, with 153 days remaining.

HTTP and Browser Security

CORS permits any origin to read this response. This is common for public resources; sensitive responses need narrower handling. No X-Powered-By header was found, reducing one common source of backend fingerprinting information. All six checked browser-security headers are present. Their effectiveness still depends on the policy values and application behavior. The cf-ray, x-cache, via response header indicates a CDN or caching proxy in the delivery path. No obvious internal addresses or debug information were found in the headers.

Technology Stack Analysis

The public page identifies Google Analytics, Cloudflare, Amazon CloudFront without precise versions, leaving fewer clues for version-specific scanning.

Search and Social Sharing

Twitter Card metadata is configured. JSON-LD includes Organization data, helping describe the organization as an entity. The title has 52 characters, within a common display range. A meta description is present, with 154 characters. The observed directives allow indexing and link following.

Hosting and Email

DNSAmazon Route 53
HostingAmazon CloudFront
EmailMicrosoft 365
Approximate IP geolocation (inferred; a CDN or proxy may differ from the origin server) United States flagUnited States Inferred 3.162.125.12

Registration details

RDAP / WHOIS

RegistrarGoDaddy.com, LLC
Registered2000-02-21
Expires2029-02-21
Domain statusclient delete prohibited、client renew prohibited、client transfer prohibited、client update prohibited
Nameserversns-1107.awsdns-10.org、ns-1970.awsdns-54.co.uk、ns-3.awsdns-00.com、ns-905.awsdns-49.net
DNSSECunsigned

DNS records

DNS

TypeNameValueTTLPriority
Asecureauth.com3.162.125.1260—
Asecureauth.com3.162.125.12360—
Asecureauth.com3.162.125.3160—
Asecureauth.com3.162.125.8260—
AAAAsecureauth.com2600:9000:2479:1e00:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:4e00:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:5600:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:7000:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:aa00:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:cc00:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:d800:9:76e3:d7c0:93a160—
AAAAsecureauth.com2600:9000:2479:fe00:9:76e3:d7c0:93a160—
MXsecureauth.comsecureauth-com.mail.protection.outlook.com6000
NSsecureauth.comns-1107.awsdns-10.org172800—
NSsecureauth.comns-1970.awsdns-54.co.uk172800—
NSsecureauth.comns-3.awsdns-00.com172800—
NSsecureauth.comns-905.awsdns-49.net172800—
TXTsecureauth.comadobe-idp-site-verification=3f40ab60ef879f70c850547642c6b6deac3d649a06a3212d8d7f9bd57d4e3ff43600—
TXTsecureauth.comanthropic-domain-verification-0vfz8b=sTc8jf48qjPG0SQlD2yAKUelY3600—
TXTsecureauth.comapple-domain-verification=FjbXOTfdqQBWErgX3600—
TXTsecureauth.comatlassian-domain-verification=/vbEdzNwzYoM3esaKONajk8mIOVsgi+7G4s8y7ZEA8s8z/c9Jyw73FrP0V/cZSfU3600—
TXTsecureauth.comatlassian-domain-verification=Z7gu7ZSUa3ac0a0ACcIKatiilyfla/WajnL44W92u8IAn2ocvv4pqPkwWb0A09Lb3600—
TXTsecureauth.comatlassian-domain-verification=oXZNEYLYimrZYpvanATlcFXSctK7vlSqgZe2CAGbellaKWw6YVjFTJgqVjk4PQQN3600—
TXTsecureauth.comcontractworksverify=nSTrXRoOrltgtcY8ycVu3600—
TXTsecureauth.comcursor-domain-verification-qw1gy3=cFLESXCzv42HjWUppNqdzUSAr3600—
TXTsecureauth.comgoogle-site-verification=51ZJI7owqKphuTlGhrnNTQ6fgDurSe58SntSCQjJrJM3600—
TXTsecureauth.commgverify=f4caf3d8734b255a0121a2f12b9655df2896608273d3f28345c743c310dc6b013600—
TXTsecureauth.commongodb-site-verification=ezwrlVOOAjR0U12D3bSvKa8bEwcUeY0w3600—
TXTsecureauth.comopenai-domain-verification=dv-aeZNHsbfLhOXsRfMaWo1Fx533600—
TXTsecureauth.compardot_18252_*=b27ea69401e2bfd80b57d270a68c19b95f72188ac53b81398802c01c7a38508c3600—
TXTsecureauth.comprodpad-domain-verification=xhFjFbw5ZlPwYORttCTUuq7ByBVj+Cpy5j/WO9n1xT4=3600—
TXTsecureauth.comv=spf1 ip4:173.239.64.128/25 ip4:208.87.221.192/26 ip4:68.225.24.128/25 ip4:54.146.121.170 include:spf.protection.outlook.com include:mail.zendesk.com include:_spf.salesforce.com include:sendgrid.net include:mktomail.com include:amazonses.com ~all3600—
TXTsecureauth.comz1w3fdxzmwxd2jg940t7cc76r19s3nq83600—
CAAsecureauth.com0 iodef "mailto:[email protected]"3600—
CAAsecureauth.com0 issue "amazon.com"3600—
CAAsecureauth.com0 issue "digicert.com"3600—
CAAsecureauth.com0 issue "godaddy.com"3600—
CAAsecureauth.com0 issue "letsencrypt.org"3600—
CAAsecureauth.com0 issue "pki.goog"3600—
CAAsecureauth.com0 issuewild "amazon.com"3600—
CAAsecureauth.com0 issuewild "godaddy.com"3600—
CAAsecureauth.com0 issuewild "letsencrypt.org"3600—
CAAsecureauth.com0 issuewild "pki.goog"3600—
CAAsecureauth.com0 issuewild "rapidssl.com"3600—
DMARC_dmarc.secureauth.comv=DMARC1; p=quarantine; pct=100; adkim=r; aspf=r; rf=afrf; rua=mailto:[email protected]; ruf=mailto:[email protected]3600—

TLS and certificates

TLS / SSL

AssessmentNormal configuration
Supported protocolsTLSv1.2、TLSv1.3
Negotiated protocolTLSv1.3
Certificate subjectsecureauth.com
IssuerAmazon
Valid until2027-03-05T23:59 · Remaining when checked: 153 days
Verification detailsCertificate trust: Passed · Hostname match: Passed

HTTP response headers

HTTP

HeaderValue
content-typetext/html; charset=utf-8
cache-controlpublic, max-age=0, must-revalidate
servercloudflare
strict-transport-securitymax-age=63072000; includeSubDomains; preload
content-security-policydefault-src 'self'; script-src 'self' 'unsafe-inline' https://static.hotjar.com https://script.hotjar.com https://www.googletagmanager.com https://googleads.g.doubleclick.net https://www.googleadservices.com https://www.google.com https://snap.licdn.com https://tracking-api.g2.com https://tags.clickagy.com https://js.adsrvr.org https://fast.wistia.com https://fast.wistia.net https://js.qualified.com https://browser.sentry-cdn.com https://www2.secureauth.solutions https://pages.secureauth.com https://js.storylane.io https://assets.apollo.io https://d-code.liadm.com blob:; style-src 'self' 'unsafe-inline'; img-src 'self' data: https:; font-src 'self' data:; connect-src 'self' https://*.hotjar.com https://*.hotjar.io wss://*.hotjar.com https://www.google.com https://analytics.google.com https://*.google-analytics.com https://*.analytics.google.com https://www.googletagmanager.com https://*.g.doubleclick.net https://www.googleadservices.com https://ad.doubleclick.net https://pagead2.googlesyndication.com https://www.google.pl https://www.google.co.uk https://www.google.de https://www.google.ca https://www.google.com.au https://*.ads.linkedin.com https://tracking-api.g2.com https://tags.clickagy.com https://*.adsrvr.org https://www2.secureauth.solutions https://connect.secureauth.com https://fast.wistia.net https://*.wistia.com https://*.qualified.com wss://*.qualified.com https://pages.secureauth.com https://*.storylane.io https://aplo-evnt.com https://*.liadm.com; media-src 'self' blob: https://*.wistia.com https://*.wistia.net https://embedwistia-a.akamaihd.net https://app.qualified.com https://*.transistor.fm https://api.spreaker.com https://*.cloudfront.net; frame-src https://www.googletagmanager.com https://app.qualified.com https://www.youtube.com https://app.storylane.io https://i.liadm.com; frame-ancestors 'none'; base-uri 'self'; form-action 'self' https://connect.secureauth.com
x-frame-optionsDENY
x-content-type-optionsnosniff
referrer-policystrict-origin-when-cross-origin
permissions-policycamera=(), microphone=(), geolocation=(), payment=()
access-control-allow-origin*

Identified technologies

Google AnalyticsCloudflareAmazon CloudFront

Pages, Search and Sharing

Meta descriptionGovern the AI agents already running in your enterprise. SecureAuth discovers every agent, traces delegated access, and decides every action in real time.
Canonical URLhttps://secureauth.com/
LanguageEnglish (default)
Twitter Cardsummary_large_image
googlebot 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
google-extended 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
bingbot 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
twitterbot 1 allowed · 0 disallowed
  • Allow/
facebookexternalhit 1 allowed · 0 disallowed
  • Allow/
gptbot 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
chatgpt-user 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
claudebot 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
perplexitybot 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
ccbot 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/
applebot-extended 1 allowed · 2 disallowed
  • Allow/
  • Disallow/partners
  • Disallow/events/
All bots 1 allowed · 3 disallowed
  • Allow/
  • Disallow/pricing
  • Disallow/partners
  • Disallow/events/

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