An offboarded contractor’s CI subagent continues to run nightly backups, pushing data to the internal database even after the person’s access has been revoked. The subagent still holds a static credential baked into the job definition, and the team does not notice the activity until an incident response alert surfaces the unexpected writes.
This scenario illustrates the typical starting state for many organizations: subagents, automated processes, CI jobs, or service‑account‑backed scripts, receive long‑lived secrets and connect directly to production resources. Because the connection bypasses any central enforcement point, the team lacks real‑time visibility into what commands the subagent runs, cannot stop a rogue query, and has no audit trail to examine after the fact.
Teams often rotate the credential or move the secret into a vault to reduce exposure. While that limits the window of compromise, the request still travels straight from the subagent to the target system. The subagent can still issue destructive commands, read sensitive rows, or exfiltrate data, and nothing records the exact sequence of actions. In other words, the setup, identity verification and secret management, decides who may start a session, but it does not enforce policy on the traffic itself.
Incident response workflow for subagents
Effective incident response relies on three layers:
- Setup: define who the subagent is, bind it to a least‑privilege service account, and require OIDC or SAML tokens for every request.
- The data path: place a gateway that all subagent traffic must traverse before reaching the target resource.
- Enforcement outcomes: have the gateway record a complete session, mask or redact sensitive fields, block disallowed commands, and trigger just‑in‑time approval when a risky operation appears.
Only when the gateway sits in the data path can the enforcement outcomes be guaranteed. Without that point of control, rotating credentials or tightening IAM policies does not prevent a malicious or compromised subagent from acting unchecked.
Why a Layer 7 gateway is required
A Layer 7 gateway understands the application protocol, SQL, SSH, HTTP, or the Kubernetes API, and inspects each request in real time. By interposing such a gateway, the organization gains the ability to:
- Log every statement or command the subagent issues.
- Apply inline masking to columns that contain personally identifiable information.
- Require a human approver before a privileged operation, such as dropping a table, proceeds.
- Terminate a session instantly if a known malicious pattern appears.
These capabilities are essential for a rapid and forensic‑ready incident response.
Introducing hoop.dev as the enforcement point
hoop.dev provides the required Layer 7 gateway. It authenticates subagents via OIDC/SAML, reads group membership to map the subagent to a policy, and then proxies the connection to the target. Because all traffic passes through hoop.dev, the system enforces the three enforcement outcomes listed above.
The getting‑started guide shows how to deploy the gateway and register a subagent connection. The learn section explains how to configure masking rules, approval workflows, and session recording.
How hoop.dev strengthens incident response
When a security event triggers an alert, incident responders query the session logs stored by hoop.dev. Because hoop.dev records each request and response, responders replay the exact sequence of commands, see which rows were read or modified, and pinpoint the moment a policy was violated.
If a subagent attempts an operation that matches a high‑risk rule, hoop.dev pauses the request and routes it to an on‑call engineer for just‑in‑time approval. This containment step prevents the action from completing while preserving an audit trail of the attempt.
When a compromised subagent is discovered, hoop.dev’s ability to block commands at the gateway lets the team contain the breach without touching the downstream database or cluster. The gateway also automatically redacts sensitive fields in the recorded logs, ensuring forensic analysis does not expose additional data.
Practical steps to integrate hoop.dev into your incident‑response plan
- Deploy the hoop.dev gateway in the same network segment as the resources your subagents need to reach.
- Register each subagent as a connection, supplying the minimal credential that hoop.dev will use on its behalf.
- Configure identity providers (OIDC or SAML) so that every subagent request carries a signed token.
- Define policy rules that specify which commands are allowed, which require approval, and which must be masked.
- Enable session recording and set retention periods that meet your audit requirements.
- Integrate the gateway’s audit API with your SIEM or incident‑response tooling so alerts generate automatically.
Following these steps gives the security team the visibility and control needed to detect, contain, and investigate subagent‑related incidents quickly and with confidence.
Get involved
hoop.dev is open source and MIT‑licensed. Explore the source code on GitHub to contribute, file issues, or customize the gateway for your environment.
FAQ
Can hoop.dev block a subagent that already has valid credentials?
Yes. Because hoop.dev sits in the data path, it inspects each request regardless of the credential the subagent presents and rejects or pauses it based on policy.
Do I need to modify my existing subagent scripts?
No. Subagents continue to use their standard client libraries; hoop.dev acts as a transparent proxy, so the code does not change.
How long does hoop.dev retain session recordings?
Retention is configurable in the gateway settings. You can align it with your organization’s audit‑log retention policy.
