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RapidFort Test Blog Blog 4 Test Test Blog 3 Test 2 Mythos Vulnerability Assessment: Eliminate Real Risk, Not Just CVEs 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 What Is RBOM™? Runtime Bill of Materials vs SBOM Explained 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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Securing Modern AI Workloads for National Security
Austin Sedaghatpour · 2026-05-15 · via RapidFort Blog

AI-driven coding practices and workload modifications are introducing system vulnerabilities while claiming to accelerate mission performance. The core problem is that existing vulnerability management practices cannot keep pace with rapidly evolving AI tools, making it difficult to minimize risk to troops conducting operational missions.

Operating with confidence in the field means knowing your tools are not going to fail, whether it is an M27 IAR or the AI-driven tactical C2 putting fires on target. RapidFort specializes in making software systems reliable by eliminating software container risks through its comprehensive Software Supply Chain (SSC) security platform.


Container Vulnerabilities Are a Growing Risk in Defense Software

Every software-driven organization grapples with container vulnerabilities. The DoW's drive to field the best systems to operational troops increases this risk. Most mission systems rely on core software from Linux distributions and community software bases with overly large software baselines. Systems built on this software commonly contain known and unknown Critical Vulnerabilities and Exposures (CVEs).

Using curated images that include fixes for these CVEs dramatically reduces the attack surface. In addition, unnecessary code represents unnecessary risk, as this code may harbor CVEs. Deploying hardened software images mitigates this risk by eliminating unnecessary code. Without hardening, excess code expands the vulnerable attack surface and introduces hidden CVEs.


Why AI Coding Tools Are Accelerating the Problem

AI coding tools are resource-intensive engines used to develop, train, and deploy models, but often focus on end states rather than optimizing operational compute and storage. AI coding tools amplify security problems by indiscriminately using open-source distributions rather than curated and hardened images from RapidFort.

Modern AI coding tools constantly change, use more open-source dependencies, and deploy more pervasively than traditional tools. Models, frameworks, and supporting services update daily or weekly rather than quarterly or annually. Every non-hardened software artifact that is implemented by these tools magnifies the risk. These are not new risks but old ones that are now accelerating: vulnerability backlogs grow faster as more software is deployed. The CVE list in 2025 averaged 132 new vulnerabilities per day, up 20% from last year, and triple the number from 2020.

132 / day

New CVEs averaged in 2025

+20%

Up from the previous year


Operational Consequences of Poor Vulnerability Management

Operational consequences from poor vulnerability management include:

  • Restrictions on ATO-accessible technologies, with fewer AI tools approved for production
  • AI deployment slowdowns as container stacks fail compliance on mission timelines
  • Inability to compete with adversary AI tactics, increasing mission risks
  • Recurring, high financial costs to manage vulnerability backlogs
  • Highly skilled engineers focused on chasing and patching CVEs rather than delivering new capabilities

Vulnerability management practices for DoW solutions must meet mission timelines, whether or not AI is involved. AI-enabled platforms should improve cyber defense, not increase security exposure. The solution requires addressing runtime-relevant exposure, reducing CVE counts, and allowing authorizing officials to distinguish noise from mission impact. Solving this problem prevents units from pursuing one-off hardening efforts through leveraging a leading-edge solution, creating a consistent, data-driven pipeline.


The Solution: RapidFort's Curation and Hardening Platform

RapidFort provides a practical curation and hardening platform for containerized workloads to reduce risk, manage vulnerabilities, and deploy new capabilities at mission speeds.

DoW software deployments across Marine, Army, Navy, Air Force, and Space Force show that RapidFort optimized images are able to reduce vulnerabilities by up to 99.9%. This happens by curating and hardening images to remove excess code, and curating patched images to remediate source vulnerabilities.


How It Works

Start With Minimal Risk by Deploying Curated, Near-Zero CVE Images

RapidFort has created an extensive catalog of curated images, which includes base operating systems and third-party services built on long-term support distributions. Deploying images from the Iron Bank Container Catalog and comparable commercial solutions with curated, near-zero CVE packages reduces overall vulnerability numbers by over 90%. RapidFort offers over 35,000+ curated container images, more than any other offering, and is the only platform-based solution.

Create Real-Time Vulnerability Awareness

RapidFort starts with the Software Bill of Materials (SBOM) as the existing state and then measures what actually runs with a Runtime Bill of Materials (RBOM) before fixing what matters today. RapidFort identifies which binaries, libraries, and files are actually used by profiling the runtime operation during mission-representative operation. Components not exercised are identified for removal, allowing teams to make policy, code removal, and testing decisions iteratively.

Ensure Secure Supply Chains for Today and Tomorrow's Operations

RapidFort continuously rebuilds using the smallest footprint. The Runtime Bill of Materials (RBOM) retains only required components. Unused shells, package managers, utilities, and any known or unknown CVEs hidden in unused code are eliminated. Across representative workloads, this process also reduces image sizes by up to 90% and vulnerabilities by 70 to 90%.

In one Java example, the RapidFort process reduced a project from 839 MB and 101 CVEs to 241 MB and 0 CVEs, a 71% and 100% reduction respectively. In a Ubuntu instance, reductions included 801 MB to 244 MB, 83 CVEs to 1, and packages from 244 to 63. This allows engineers to focus on building mission capability today.


The Platform: Four Core Tools

RapidFort employs a unique, leading-edge platform to make the mission happen. This allows integrating and coordinating solutions, curating answers, and maintaining secure systems. The four elements below compose the RapidFort platform:


Use Case: Hardening a Zero Trust AI Platform

Organizations using RapidFort are able to employ core functions. For example, a DevSecOps engineer responsible for a zero trust access analytics platform follows a simple sequence:

1

Discover and Analyze

Without changing code, the engineer runs RapidFort on the unit's registry and Kubernetes cluster. RapidFort inventories images, builds SBOMs, and reconciles CVEs to create a consolidated risk assessment, including independent RF-Advisory suggestions.

2

Replace Base Images

Curated, near-zero CVE images from RapidFort's catalogs and Iron Bank content for proprietary USAF and USSF applications are swapped for community or legacy images across the current instantiation. In some cases, a single-line Dockerfile change immediately reduces the environment's CVE volume.

3

Profile Under Mission Operation

The engineer executes tests and representative mission scenarios. RapidFort profiles container behavior and produces an RBOM for each, listing only used components.

4

Generate Hardened Images

RapidFort builds hardened images containing only RBOM-required components, plus any team-designated, whitelisted items. Removal of unused tools, libraries, and associated vulnerabilities happens here.

5

Optimize and Operate

Hardened images are re-scanned. Remaining CVEs map only to runtime-necessary components, simplifying accreditation and risk acceptance. RapidFort integrates into CI/CD pipelines so each change triggers build, analyze, profile, harden, and deploy for the baseline container and subsequent Kubernetes clusters.


Mission Effects and Insight

RapidFort's secure process enables faster, safer AI-enabled operations, a stronger zero-trust container foundation, and high-fidelity software supply chain risk data for commanders.

Faster, Safer AI-Enabled Operations

Start with near-zero CVE images, then eliminate additional vulnerabilities by removing unused components rather than patching to shorten acceptable risk paths. Hardened images possess smaller attack surfaces and clearer risk narratives to accelerate accrediting AI-enabled systems, freeing cyber teams to focus on higher-priority missions instead of endless vulnerability triage.

Stronger Zero-Trust Container Foundations

SBOMs, RBOMs, and hardened images give operators and security teams a layered, runtime-accurate view of containerized AI workloads. This approach directly supports zero trust principles and aligns with the Enduring Security Framework (ESF) team's software supply chain visibility requirements, showing what is in the software, its behavior, and delivery mechanisms.

High-Fidelity Software Supply Chain Risk Data for Command

Maturing DoW risk scoring and attestation practices, supported by RapidFort and other contributors, accompany containers with machine-readable artifacts and technical security bulletins. Developers and operators subscribe to needed containers and receive consistent risk scores and alerts if new issues arise. For Command, this acts as a practical "check engine light" on critical software stacks, enabling decisions to move beyond commercial discovery into direct mission alignment at the speed of AI-driven operations.

RapidFort partnered with Iron Bank to release 25 hardened images under a TACFI incentive. Across multiple customers, these reductions routinely eliminate CVE counts by up to 99.9% and attack surfaces by up to 90%.


Conclusion: Continuous Security at Mission Speed

RapidFort provides government teams with a repeatable tactic for securing mission systems, including rapidly evolving AI tools. If the goal is rapid, secure operations using cutting-edge technology, RapidFort makes that happen.

The tasks start with curated near-zero CVE images, observe real runtime behavior, rebuild minimal hardened images under policy, and continuously maintain zero-trust container infrastructure. Continuous operations, continuous security, all delivered at mission speed.