TL;DR: Teams are moving away from Burp Suite because manual configuration, slow scans, and workflow friction do not match AI-assisted development and multiple daily deployments, according to StackHawk. The real issue is that legacy DAST assumes release cycles and human-heavy testing, while modern API discovery and developer-native results now define practical AppSec.
At a glance
What this is: This is a StackHawk article arguing that Burp Suite’s legacy DAST model creates bottlenecks for modern API security testing, especially around setup time, scan speed, and shadow API discovery.
Why it matters: It matters to IAM and security practitioners because API security outcomes increasingly depend on discovery, workflow integration, and control visibility across human and non-human access paths.
By the numbers:
- memory consumption that hits 3500+ MB while idle
- enterprise deployments typically requiring 16-17GB of RAM for normal operations
- scans completing in 3-10 minutes rather than hours or days
👉 Read StackHawk's guide to Burp Suite alternatives for modern API security testing
Context
Burp Suite remains a widely used application security testing platform, but its operational model was built for slower release cycles and specialist-driven workflows. In environments where teams deploy multiple times a day, the real problem is not whether DAST works in principle. It is whether the tool can keep up with API discovery, developer throughput, and the governance demands of modern AppSec.
The article also has an identity dimension because APIs increasingly expose secrets, tokens, service accounts, and delegated access patterns that sit at the boundary between application security and NHI governance. When testing depends on manual configuration, shadow APIs and undocumented endpoints can remain outside the control perimeter, which is a familiar failure mode in identity and secrets management programmes.
Key questions
Q: How should security teams govern APIs that change frequently?
A: Security teams should treat fast-changing APIs as continuously governed assets, not quarterly review items. That means maintaining live inventory, mapping each endpoint to an owner and identity, and validating authorisation at runtime. If the API can change daily, the control model has to change with it. Static documentation alone will always lag behind exposure.
Q: What breaks when API testing depends on manual configuration?
A: Manual configuration breaks coverage first. Undocumented endpoints, shadow APIs, and internal service routes are easy to miss, so teams can receive a clean result without testing the full attack surface. It also slows governance because every new service requires extra setup, which pushes security validation outside normal delivery rhythm.
Q: How do you know if a DAST programme is actually keeping up?
A: Look at setup time, scan duration, and where findings appear. If onboarding takes weeks, scans take hours, or results land outside developer tools, the programme is lagging behind delivery velocity. A working control reduces the gap between code change and verified security feedback.
Q: What is the difference between developer-native security testing and separate-console scanning?
A: Developer-native testing puts findings into the tools developers already use, which shortens the path from detection to remediation. Separate-console scanning can still find issues, but it often introduces delay, handoff friction, and lower fix rates. For fast-moving API programmes, that difference affects whether findings are acted on before release.
Technical breakdown
Why legacy DAST struggles with modern API discovery
Traditional DAST tools rely heavily on crawlers, configuration files, and explicit target definitions. That model worked when applications were mostly monolithic and predictable, but it breaks down when APIs are generated quickly, split across services, or hidden behind internal routing. Shadow APIs, deprecated endpoints, and service-to-service interfaces often sit outside the scanner’s default view. The result is a false sense of coverage: a clean report can still miss a large share of the real attack surface. In identity terms, the same problem appears when access governance depends on a complete inventory that does not actually exist.
Practical implication: teams need discovery methods that map source code, gateways, and runtime paths, not only manually defined targets.
Why developer-native security results change AppSec operations
AppSec tools create friction when they live outside the development workflow. If findings appear only in a separate console, developers treat them as delayed security feedback rather than actionable engineering input. Native integration into pull requests, chat, and issue tracking reduces that gap by surfacing evidence where code changes happen. This matters because governance fails when remediation is separated from the workstream that created the risk. For identity-heavy APIs, faster feedback also shortens the time secrets, tokens, and privilege assumptions remain embedded in shipping code.
Practical implication: security teams should evaluate whether findings land in the tools developers already use and whether the output supports immediate remediation.
How scan speed becomes a governance control
Slow scanning is not just an efficiency problem. In fast-moving pipelines, a tool that takes hours or days effectively turns security review into a batch process that cannot keep pace with release velocity. That creates a governance gap between code acceptance and risk verification. Shorter setup times and faster scans change the control model from periodic inspection to continuous verification. For API security, that matters because exposure windows shrink only when testing is frequent enough to keep up with commits, deployments, and infrastructure changes.
Practical implication: treat scan duration as a control attribute and align it to deployment cadence, not only to reporting preferences.
Threat narrative
Attacker objective: The attacker aims to reach untested API surfaces and exploit hidden authorization or secret-handling weaknesses before defenders can observe them.
- Entry occurs when undocumented or shadow APIs are left outside configuration-based scanning and therefore evade pre-deployment testing.
- Credential access or abuse follows when those exposed endpoints carry secrets, tokens, or service account pathways that were never fully enumerated.
- Impact emerges when insecure APIs reach production with untested authorization paths, creating data exposure and abuse opportunities.
NHI Mgmt Group analysis
Shadow API blind spots are now an identity governance problem, not only an AppSec problem. When testing tools depend on explicit configuration, undocumented endpoints and service interfaces remain invisible. That creates a governance gap because secrets, tokens, and delegated access often live exactly where the scanner cannot see them. The control failure is not just missed testing, but incomplete inventory. Practitioners should treat discovery coverage as part of identity and access governance for application estates.
Developer-native security output is becoming the difference between policy and practice. Security findings that arrive in separate dashboards create delay, and delay creates exception handling. When results land in pull requests or ticketing systems, teams are more likely to act before insecure code ships. That is why workflow integration is not a convenience feature. It is a control alignment issue for modern AppSec and NHI-adjacent API estates.
Speed is now a control attribute in continuous testing programmes. A scanner that cannot complete within the deployment window cannot provide meaningful assurance. In modern pipelines, latency between commit and verification is itself a risk signal. The market is moving toward tooling that compresses that window, and teams should re-evaluate whether their current process is enforcing security after release rather than before it.
Automated discovery is the clearest answer to API sprawl, but it must be tied to governance evidence. Discovery alone is not enough if the organisation cannot prove which endpoints were actually tested, when they were tested, and what changed since the previous run. That evidence chain matters for compliance, incident response, and NHI oversight. Practitioners should prioritise auditability alongside coverage.
What this signals
API testing is becoming an identity-adjacent control surface. As applications generate more machine-to-machine interfaces, security teams need to understand where authentication material and delegated access are exposed. The practical shift is toward linking API discovery with secrets review, access scope review, and evidence of testing coverage across release cycles.
Modern AppSec programmes will increasingly be judged on coverage quality, not just scan volume. Teams should expect pressure to prove that every externally reachable and internal API path was actually tested, especially where services expose tokens, certificates, or automation credentials. That makes auditability and source-of-truth inventory essential programme inputs.
The governance lesson is straightforward. If a testing process cannot keep pace with the pace of delivery, it will not constrain real risk. Practitioners should align tooling, reporting, and review cadence to the operational tempo of the development organisation, not to legacy quarterly release assumptions.
For practitioners
- Inventory shadow APIs before you test them Map endpoints from source code, gateways, and runtime telemetry so configuration does not define the limits of coverage. This is the fastest way to reduce blind spots around undocumented interfaces and deprecated services.
- Push findings into developer workflows Deliver results in pull requests, issue trackers, and collaboration tools so remediation happens where engineers are already working. Separate security portals should be the exception, not the primary response path.
- Set scan time targets by deployment cadence Measure whether setup and scan duration fit the release window for each application class. If a scan cannot complete before the next deployment, it is not functioning as a continuous control.
- Tie API testing to secrets and privilege review Review whether discovered endpoints can expose tokens, service accounts, or delegated access paths, then require follow-up on any endpoint handling authentication material.
Key takeaways
- Legacy DAST breaks down when discovery, configuration, and scan time no longer match modern release velocity.
- API blind spots are not just testing gaps, they are governance gaps that can hide secrets and delegated access paths.
- Teams should measure whether testing results arrive fast enough and close enough to development work to change outcomes before release.
Standards & Framework Alignment
This section maps relevant standards and security frameworks to the operational risks and controls described in this guidance.
MITRE ATT&CK and OWASP Non-Human Identity Top 10 address the attack and risk surface, while NIST CSF 2.0, NIST SP 800-53 Rev 5 and CIS Controls v8 set the governance and control requirements practitioners need to meet.
| Framework | Control / Reference | Relevance |
|---|---|---|
| NIST CSF 2.0 | PR.AC-1 | API discovery and access path coverage map to identity and access control visibility. |
| NIST SP 800-53 Rev 5 | AC-2 | Account management matters where APIs expose service credentials and delegated access. |
| MITRE ATT&CK | TA0006 , Credential Access; TA0009 , Collection | Hidden API paths and exposed secrets support credential abuse and data collection. |
| OWASP Non-Human Identity Top 10 | NHI-03 | Secret exposure through APIs is a direct NHI governance concern. |
| CIS Controls v8 | CIS-5 , Account Management | API-related access and service identities require disciplined account management. |
Map shadow API exposure to credential-access and collection techniques to prioritise test coverage.
Key terms
- Shadow API: An API endpoint that exists in production but is not fully known, reviewed, or governed by the security programme. Shadow APIs often emerge through fast delivery, copy-paste development, or overlooked internal routes, and they create untracked exposure because they sit outside inventory, policy, and ownership processes.
- Developer-native security testing: A security testing approach that delivers findings inside the tools engineers already use, such as pull requests or ticketing systems. It reduces handoff friction, shortens remediation time, and improves the chance that issues are fixed before code is merged or deployed.
- Continuous Verification: A Zero Trust practice that re-evaluates trust during the session instead of relying on a single successful login. The control is stronger when context signals are available in real time and when the identity programme can act on those signals without creating excessive exceptions.
- Service Account: A special-purpose account used by applications, automated tools, or services rather than a human user to interact with systems, APIs, and infrastructure. Service accounts are a primary category of NHI and one of the most frequently exploited attack vectors.
What's in the full article
StackHawk's full blog covers the operational detail this post intentionally leaves for the source:
- A side-by-side comparison of setup friction across the listed DAST tools and how teams should evaluate migration cost.
- Practical guidance on API discovery coverage for shadow APIs, internal microservices, and deprecated endpoints.
- Implementation detail on native CI/CD integration patterns, including PR comments, Slack, and JIRA delivery.
- Tool-specific notes on false-positive reduction, proof-based scanning, and AI-assisted prioritisation.
Deepen your knowledge
The NHI Foundation Level course, the industry's only accredited NHI security programme, covers NHI governance, machine identity security, and secrets management. It is a useful foundation for practitioners who need to connect identity control with modern application security workflows.
Published by the NHIMG editorial team on August 1, 2026.
NHI Mgmt Group — the independent authority on Non-Human Identity, IAM, and Agentic AI security. nhimg.org