CI/CD Security for DevSecOps
Secure CI/CD pipelines with real-time enforcement at the build layer.
DevSecOps Moves Fast, but Attackers Move Faster
CI/CD pipelines sit at the center of software delivery. They can access source code, deployment credentials, build secrets, and the automation paths used to produce trusted releases; they also pull packages, dependencies, actions, containers, and build tools from external registries, some of which can execute install scripts during the build. Attackers know this.
From SolarWinds to the 2025 tj-actions/changed-files breach, and now to TeamPCP and Shai-Hulud-style attacks against package ecosystems, GitHub Actions, and trusted developer tools, the pattern is clear: attackers are going after the build and software delivery layer. The recent LiteLLM-related compromise that reportedly disrupted Mercor’s work with major AI customers shows how quickly technical exposure can become business risk. If your DevSecOps practice ends at shift-left scanning and post-build SCA, you still have a critical gap.
How Our Build Application Firewall (BAF) Protects Your Pipeline
You wouldn’t run a web server without a WAF. Why run a build system without a BAF?
InvisiRisk’s Build Application Firewall sits inline with your CI/CD pipeline as a proxy, performing deep packet inspection of every network transaction during the build. It watches what happens in real time and enforces policy while the build is running, helping stop malicious code from entering your release artifacts and blocking unauthorized outbound activity such as secrets exfiltration or unapproved source-control commands.
The Blind Spot in Traditional Security Tools
SAST and code review catch issues in source code. SCA can identify vulnerable or risky dependencies before or after the build, and some package firewall tools can block packages based on known vulnerabilities, provenance, or policy rules. But these tools still do not fully monitor or control what happens inside the build as code executes:
Dependencies resolved from external registries
Packages substituted through dependency confusion
Install scripts or build tools making unexpected network calls
Secrets and credentials exposed during the build
Unauthorized outbound connections, git pushes, or source-control changes
That is the build-time blind spot: once malicious code runs, the question is no longer just whether the package looked risky in advance, but whether the build environment can stop secrets exfiltration, unauthorized communications, or other damaging actions in real time.
Real-Time Security Enforcement in the Build Environment
InvisiRisk enforces security policies while the build is running, not after the damage is done. Security teams can define which dependencies, registries, network destinations, source-control actions, and secrets activity are allowed, and InvisiRisk blocks activity that violates those rules in real time.
Block unapproved
dependencies
Restrict builds to trusted registries and reject packages that fail policy checks for age, provenance, maintainer history, or vulnerability and exploitability risk (including EPSS score and KEV status).
Stop suspicious network
behavior
Block unexpected outbound connections, unauthorized git activity, suspicious API calls, and data exfiltration attempts from the build environment.
Prevent secrets from leaving the pipeline
Detect credentials, API keys, tokens and other secrets before they are sent to an external endpoint or embedded into release artifacts.
Reduce exposure to day-zero threats
Identify and block malicious behavior based on what code tries to do during the build, not just whether it matches a known vulnerability signature.
For teams that want advanced control, policies can be written and customized in Rego, giving DevSecOps teams a flexible way to define build-time guardrails.
A New Layer of Defense with InvisiRisk
InvisiRisk adds a real-time enforcement layer between shift-left security tools and post-build scanners. Instead of only analyzing code before the build or scanning artifacts after the build, InvisiRisk monitors and controls what happens while the build is running.
For DevSecOps and platform engineering teams, that means:
Audit-ready build
records
for compliance, investigation, and incident response
Reduced risk of compromised builds
reaching staging, production, or downstream customers.
Automated policy
enforcement
that runs inside the build process without disrupting developer workflows.
Build-verified
SBOMs
that reflect what was actually assembled, not just what a manifest declared.
Built for DevSecOps and Platform Engineering Teams
InvisiRisk integrates with major CI/CD platforms, including GitHub Actions, Azure Pipelines, Jenkins, and GitLab CI. It deploys as a proxy in the build environment with minimal changes to pipeline configuration or developer tooling. Security teams define the build-time guardrails, while developers continue using the workflows they already know.
For teams that want advanced policy control, InvisiRisk supports Rego-based policies that can be customized to match each organization’s security, compliance, and software delivery requirements.
Secure the Last Mile of Software Delivery
Every build that passes through InvisiRisk can produce a verified SBOM, a complete policy evaluation record, and a detailed log of network activity during the build. When build activity violates policy, InvisiRisk can halt the build, black unauthorized outbound activity, and prevent compromised or unverified artifacts from moving downstream.
The result is stronger control over the last mile of software delivery: what enters the build, what happens during the build, and what is allowed to reach staging, production, or downstream customers.
DevSecOps Security FAQs
What security risks are common in DevSecOps pipelines?
Traditional application security tools were not designed to defend against many of the modern attacks now targeting DevOps and CI/CD pipelines. These include dependency confusion attacks, compromised build scripts, malicious package install scripts, secrets exfiltration from build environments, unauthorized source-control actions, and release artifact manipulation. The same speed, automation, and privileged access that make CI/CD effective also make it an attractive target for attackers.
Why are CI/CD pipelines a primary target for software supply chain attacks?
CI/CD pipelines are attractive targets because they often operate with elevated privileges, access source code and secrets, pull packages and build tools from external sources, and produce the release artifacts that ship to customers. If an attacker compromises the build process, they may be able to exfiltrate secrets, manipulate source control, or insert malicious code into trusted releases without attacking production systems directly. From SolarWinds to the 2025 tj-actions/changed-files breach and more recent TeamPCP and Shai-Hulud-style attacks, the pattern is clear: attackers are targeting the software delivery layer.
How can DevSecOps teams monitor activity inside build environments?
DevSecOps teams can monitor build activity by placing enforcement inline with the CI/CD pipeline, where it can inspect network transactions as the build runs. InvisiRisk sits inline as a proxy, performing deep packet inspection of build-time network activity to show which packages are pulled, which registries and endpoints are contacted, and whether the build attempts suspicious outbound connections, secrets exfiltration, or unauthorized source-control actions. This gives security teams real-time visibility and control without requiring agents on individual build machines.
What types of attacks occur during the software build process?
Build-time attacks include dependency confusion, malicious package install scripts, compromised or tampered dependencies, secrets exfiltration from build environments, unauthorized source-control actions, and release artifact manipulation. In practice, that can mean substituting a malicious package for an internal dependency, executing unwanted commands during installation, extracting credentials from the build environment, pushing unauthorized changes to source control, or modifying the release artifact before it reaches production.
These attacks exploit the trust, automation, and privileged access built into CI/CD workflows.