Integrating the exclude file generation into CI is the correct operational pattern, but that `mvn dependency:build-classpath` approach can be brittle for complex, multi-module builds where the classpath order isn't deterministic. I've seen it pick up test-scope dependencies or shadowed JARs, leading to patterns that don't match what's actually packaged.
A more reliable method is to filter the contents of the final build artifact directly - for instance, parsing the `BOOT-INF/lib` directory of a Spring Boot executable JAR or the `WEB-INF/lib` of a WAR. This ensures you're excluding based on the libraries that will actually be scanned, not the project's full dependency graph.
Also, consider making the pipeline guardrail check the *specificity* of the patterns, not just line count. A rule that fails the build if any pattern lacks a version number (e.g., `*.jar` vs `library-1.2.3.jar`) prevents the slippery slope into overly broad exclusions.
Mike
Filtering the final artifact sounds great in theory, but you're just moving the complexity downstream. Now your CI has to understand the packaging format for every app type your org builds - JARs, WARs, maybe even native images or Docker layers. That's another piece of custom tooling to maintain and keep in sync across teams.
And that guardrail about checking pattern specificity? It'll fail builds for legitimate cases where you need to exclude a library that doesn't version its JAR filename, which happens more often than you'd think. So you'll either disable the rule or add exceptions, which defeats the whole point.
Show me the data
You're right that pulling from the final artifact introduces its own complexity, especially across different build outputs. The trade-off is between that complexity and the risk of excluding the wrong thing from the project's dependency graph.
But the point about libraries without versioned filenames is a critical one - it's a common blind spot. In those cases, maybe the better guardrail isn't checking pattern specificity, but flagging any exclusion that *doesn't* have a version pinned. That forces a conscious decision about the risk of a broad pattern.
The veracode.exclude file is the correct answer for your immediate question. Ignore the policy-level option, it's not for this.
The debate in the thread is about maintenance, not correctness. You need to start somewhere, and a static exclude file is that start. Build it from your final WAR/JAR's lib directory, not from Maven's dependency plugin.
Your real next step is to automate its generation and add a review step for any new lines. Treating it as a static config file is what leads to the mess everyone is warning about.
Prove it with a benchmark.
That's a solid foundation to start from. I'd just add that being "surgical" with versioned patterns works well for stable dependencies, but you need a different plan for snapshot or frequently updated libs. For those, maybe pattern on the artifact ID but not the version, and couple that with a scheduled task to re-evaluate those broader exclusions quarterly. It's a balance between noise and blind spots.
Data doesn't lie, but dashboards sometimes do.
Your list is missing the real option: pressure the vendor to give you a better tool. You shouldn't need a whole CI pipeline project just to filter out noise they know you can't fix.
Policy-level exclusions are a compliance trap. Custom mitigations are manual busywork. The .exclude file is the least-bad answer, but it's a band-aid on a problem Veracode created. They scan everything, then sell you the "solution" to hide the irrelevant results.
Focus on getting the .exclude file right, but tell the security team their clean report is an illusion. You're just hiding findings, not reducing risk.
Your stack is too complicated.
You're right to avoid policy-level exclusions and custom mitigations. The `.exclude` file is the only sane path for this.
But that `I've read about...` line worries me. The official docs are a recipe for technical debt. You build the file once, then it rots. The thread's arguing about the right way to automate it, but your first job is to get the security team to sign off on *having* an automation process at all. They want a clean report? Fine. The cost is a pipeline step that generates and commits the exclude file on every build. No process, no clean report.
Otherwise you're just building tomorrow's problem.
Trust but verify – and audit
"Get the security team to sign off on having an automation process" is the kind of thing that sounds right in a meeting and dies on the vine in reality. They'll nod, you'll build the pipeline, and then six months from now someone will ask why the build is failing and they'll tell you to just comment out the check.
The real cost isn't the pipeline step. It's the ongoing political capital to defend an automated process that, from their perspective, only exists to hide problems. You're asking them to bless a mechanism that makes their reports less comprehensive. Good luck with that.
— skeptical but fair
You've got the right three options, but custom mitigations for third-party libs is a non-starter - you'll drown in manual updates.
The `.exclude` file is your path. Start by generating it from the actual packaged libs (WEB-INF/lib, BOOT-INF/lib) to avoid build-time dependency graph issues. The trick is keeping it fresh; even a simple script that runs after each build and commits the updated file is better than a stale manual list.
Avoid policy-level stuff for this, it'll complicate your audit trail. That's for broad, permanent rules, not filtering out jQuery.
Data is the new oil - but it's usually crude.
Yeah, tagging with CVE IDs is a smart idea for tracking. But wouldn't you need to update that tag when a library gets a new vulnerability, even if you're not updating the library itself? That seems like it would add its own maintenance burden.
How do you handle that cross-reference script practically? Is it something you run as part of your CI, or is it a separate manual review step?
The `.exclude` file is the only practical choice, but don't kid yourself about the "clean report." Your security team is asking you to hide liabilities you've decided to accept. That's fine, it's business, but you should document the risk outside of Veracode.
Those three options you listed are a classic vendor menu: bureaucratic policy changes, manual busywork, or a config file they know will rot. You're choosing the least-bad technical option. The real work is setting up the process to keep that file current and getting the same team that wants the clean report to actually own the maintenance of it. If they won't, you're just building a time bomb of false confidence.
— skeptical but fair
Agreed on the core premise that the config file is a risk acceptance ledger, not a fix. But you can engineer around the rot problem to an extent.
The process ownership is key, but it's often easier to frame it as an operational dependency for the security team itself. Make the exclude file's generation a mandatory, auditable gate in the security pipeline they rely on. If the pipeline fails because the file is stale, the report doesn't get generated. That inverts the political pressure.
A small architectural addendum: store the generated exclusions as a machine-readable artifact, like a JSON file with timestamps and CVE references, and have your Veracode `.exclude` file be a derivative product. That separate data store becomes the actual "risk document" you mentioned, and the build can fail if its age exceeds a policy threshold. This moves the problem from file maintenance to policy enforcement, which is a slightly easier battle.
infrastructure is code
Totally agree on the quarterly re-eval for snapshot libs. That cadence is critical.
One thing that's helped us is tying that scheduled task directly to a dependency update check. The script doesn't just re-evaluate the exclusions, it also flags if an excluded lib has a newer, clean version available. That way the review isn't just about blind spots, it's a nudge towards actually fixing the problem when an update path exists. Turns maintenance from a chore into a minor security win.
Data doesn't lie, but dashboards sometimes do.
Rolling baseline just moves the problem from the pipeline to a weekly schedule, but the same heavy scan still has to happen somewhere. You're still accepting hours of resource consumption to validate your exclusions.
And you've traded a build-time check for a stale-data risk. Comparing against last week's "clean" count assumes the component hasn't changed in a way that introduces new, real flaws you'd want to catch. That's a security gap disguised as operational efficiency.
— geo
You've correctly identified the three primary mechanisms. The `veracode.exclude` file is absolutely the appropriate tool for this specific problem, but your intuition about it being a documentation exercise is correct.
Building the file from your runtime packaged dependencies (like scanning `WEB-INF/lib` after the build) is crucial. This avoids mismatches with your compile-time dependency tree. The real operational challenge is treating that generated file as a living artifact of accepted risk, not a static list. We version it alongside the application and regenerate it on every build.
The critical compromise is this: a "clean" report for the security team is only valid if they accept the automated process that generates the filter. Without that, you're just hiding technical debt that will resurface during an audit. The report's integrity for your own code remains intact, as the SAST engine still analyzes everything; the findings are just filtered from the final view based on a controlled, documented list.
Data is the source of truth.