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RapidFort Test Blog Blog 4 Test Test Blog 3 Test 2 Mythos Vulnerability Assessment: Eliminate Real Risk, Not Just CVEs Securing Modern AI Workloads for National Security RBOM vs SBOM: The Critical Difference Between Software Inventory and Runtime Reality The Remediation Gap: When AI-Powered Discovery Outpaces Human Defense You Only Control 15% of Your Software. Here's How to Secure the Rest. Free ATO Readiness Cohort: Shorten Your Path to Federal Market US Cyber Strategy & Software Supply Chain Security EU CRA for Containers & Kubernetes: Scope, Deadlines & Steps PyPI, npm, and the New Frontline of Software Supply Chain Attacks GitHub Actions Security Audit: CI/CD Risk & Shell Injection EU Cyber Resilience Act & Open Source Risk RapidFort Raises $42M Series A for Software Supply Chain Security Fintech Container Security 2026: SASM & RBOM™ RF Analyzer: Precision Container CVE Intelligence Kimia: Secure Kaniko Alternative for Kubernetes Builds AI-Powered Cyberattacks: How Defenders Must Adapt RapidFort Pioneered DoD Container Hardening | Industry Standard Turn Scanner Output into Verified CVE Elimination RapidFort's Giant Washing Machine: Cleaning Open Source at Scale Why SBOMs Fail: RBOM™ & Near-Zero CVE Images Fix the Gap Defeat NPM Supply Chain Worms: Near-Zero CVE Defense Bitnami & Chainguard Alternatives: Free Near-Zero CVE Images Runtime Profiling: Eliminate up to 99.9% of Container CVEs Flow Defending: AI-Speed Container Hardening & Runtime Visibility AI in Software Supply Chain Security: Defense vs Attackers SBOM vs RBOM™: Why Runtime Bill of Materials Wins AI-Powered Container Stack: Built, Hardened & Defended AI-Generated Code Vulnerabilities: Runtime Defense for Containers Container Vulnerability Management Reimagined | RBOM™ 35,000+ Near-Zero CVE Images: FIPS, STIG & AI-Era Standard RBOM™ Runtime Intelligence: Cut CVE Noise & Improve Accuracy EU Vulnerability Database (EUVD): Impact on CVE Management Critical Infrastructure Cyber Resilience: Near-Zero CVE DoD Software Procurement: SWIFT, cATO & Container Security Stop Fixing CVEs One by One: Eliminate up to 99.9% Before Production Break the Patch-and-Pray Cycle: Proactive CVE Management Beyond FedRAMP Checklists: Continuous CVE Elimination Why RapidFort Outperforms the Competition: The Future of Secure Containers FedRAMP Fast-Track: Near-Zero CVE Images & Zero Patching Hidden Costs of Manual CVE Elimination | Automate with RapidFort PCI DSS, SOC 2, FedRAMP & HIPAA Compliance via CVE Elimination Emerging Cyber Threats 2024: Protect Containers with RapidFort Container Supply Chain Security: From Source to Deployment Build a Robust Security Stack with RapidFort's SASM Platform Securing Containerized Environments: Best Practices Identify & Eliminate Common App Vulnerabilities in 3 Steps Near-Zero CVE Blueprint: Securing Your Software Supply Chain Eliminate up to 99.9% of Container CVEs in 3 Steps | No Code Changes DoD Innovation: SpaceWERX, AFWERX & Defense Tech Firsthand Developer Security Training Do's & Don'ts Top 5 Software Security Myths Debunked AI-Generated Code Security Risks: CEO Insights Using AI in Software Development: Security Tips & Considerations RapidFort Wins Intellyx Digital Innovator Award | Runtime Security 3 Tips to Conquer CVE Alert Fatigue Mature DevSecOps Teams: Key Traits & Security Best Practices Top 3 Software Security Trends 2024: AI, Compliance & SASM Software Security Budgeting 2024: Eliminate CVEs by up to 99.9% & Measure ROI RapidFort 2023 Year in Review: Milestones & Container Security Wins OSS Vulnerability Scanning & Container Hardening RapidFort Joins Microsoft Pegasus Program | Container Security Runtime Container Protection: 90% Attack Surface Reduction Black Hat USA 2023: AI, CISO Trends & Cybersecurity Insights SOC 2 Type 2 Compliance for Container Security RapidFort Achieves SOC 2 Type 2 | Enterprise Security Validated Common Container Security Risks & How to Fix Them 6 Steps to Securing Your Software Supply Chain Harden Containers with Coverage Scripts & RBOM™ Profiling Container Vulnerability Management Best Practices Minimize Software Attack Surface | RBOM™-Powered SASM Docker Container Security Best Practices 2023 | Harden & Scan What Is Container Hardening? 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What Is RBOM™? Runtime Bill of Materials vs SBOM Explained
Saty Sundarram · 2026-02-27 · via RapidFort Blog

An RBOM, or Runtime Bill of Materials, is not an explosive, but it can reduce vulnerable code in similarly decisive ways. An RBOM operates as a dynamic, execution-aware refinement of the Software Bill of Materials (SBOM). SBOMs record all software artifacts associated with a build, whereas RBOMs capture only the components that are actually executed or loaded into memory at runtime. Thinking about how RBOM improves compliance requires deeply analyzing large codebases, identifying unused components, isolating what is truly essential, and reducing SBOM elements that unnecessarily expand the attack surface.

One of the best ways to think about RBOM is in terms of risk reduction. In many DevSecOps pipelines, teams believe security has been fully integrated once scanning is enabled and builds are passing. However, if a scanner is configured too permissively or lacks meaningful baselining, there may be no effective comparison between versions or visibility into what truly changed. Simply comparing one build to the next does not always provide actionable insight. RBOM goes further by establishing a runtime baseline and evaluating which libraries, binaries, dependencies, and other code elements are actually executed. This approach ensures that organizations do not spend time managing vulnerabilities in code their product does not use.

FedRAMP, under CM-8 guidance, requires a complete and up-to-date inventory of all system components. This process often begins with an SBOM. However, just because you can bring every possible item does not mean you should - bringing six bathing suits to a ski vacation is unnecessary. Returning to RBOM, the first step is analyzing all components within the codebase. Comparing the SBOM to the RBOM brings clarity to what is actually required versus what merely exists.

The rise of open-source usage, AI-assisted development, and rapid coding practices has significantly expanded dependency trees. Many projects include just-in-case libraries that are never used at runtime. RBOM comparison identifies unused components within the overall package, uncovering what might otherwise take engineers hundreds of hours to manually analyze and resolve.

The next RBOM step highlights unused components for further evaluation and potential removal. These elements are flagged for deeper analysis within the platform. For example, one Python graphics library used by a RapidFort customer had over 3,200 packages installed, yet only 200 were actually used at runtime. This does not imply that the remaining packages were malicious or without value - only that they were not used in that deployment. Many production environments lack a systematic way to surface these inactive components.

Highlighting which packages are actually used can significantly reduce security vulnerabilities. In this case, eliminating unused packages reduced Common Vulnerabilities and Exposures (CVEs) associated with dormant code while shrinking the overall attack surface. Beyond lowering security risk, this reduction also improved build times and increased efficiency within production pipelines.

RBOM supports two primary approaches for eliminating excess SBOM components. The first is less of a removal and more of a swap - using RapidFort’s curated library to replace open-source images with hardened, near-zero-CVE equivalents in a one-for-one exchange. Think of this as a washing-machine approach: vulnerable open-source images go in, and hardened images come out. The second approach removes unused code - such as the 3,000 dormant Python packages - to streamline the artifact down to essential runtime components. Ultimately, the RBOM should closely align with the SBOM. This means no explaining discrepancies to auditors, no securing unused code, and no engineering time wasted on non-essential remediation efforts.

Overall, RBOM is an efficient tool for evaluating the SBOM at runtime, ensuring that everything listed in the inventory is actually being used. One final metaphor: if you run a retail store, you stock items that sell. If 90% of your inventory never moves, it occupies valuable space. If your platform or product uses 80% of its footprint for unused components - and 95% of your vulnerabilities reside there - it may be time to deploy an RBOM. Break down large codebases, identify unused components, isolate essential runtime elements, and eliminate unnecessary vulnerabilities. If you want to dramatically reduce CVEs and strengthen your compliance posture, contact the RapidFort team for a demo.