Integrating Patching into Secure Development Lifecycle

If you’re tracking NIST #SSDF, NIST just published the initial public draft of SP 800-218r1 (SSDF v1.2), and Amit Katz did a great job distilling the key changes into practical next steps. Learn what’s coming around continuous improvement, more resilient software updates, and stronger expectations for validating real-world configurations. These updates push teams toward repeatable, provable security practices (not one-off checklists). And it’s exactly where Cycode customers are already strong, with the visibility and evidence to show what’s working across the SDLC. Worth a read: https://lnkd.in/d7Z_KZ8u

The OWASP® Foundation Top 10 for Agentic Applications (2026) signals a quiet but important shift in how software security risk is being understood. Not around models. Not around infrastructure. But around behavior. What the framework surfaces is a structural visibility gap in modern security stacks: • limited visibility into developer and autonomous agent actions • across tools, identities, memory, delegation, and execution • before traditional security controls engage When read holistically, a clear pattern emerges: • the most consequential failures start upstream • before code is deployed • before infrastructure is provisioned • before runtime enforcement is possible This is not a failure of existing security controls. It reflects how software systems have evolved toward autonomous execution. From this perspective, Developer Security Posture Management (DevSPM) emerges as an architectural response to that gap. DevSPM focuses on observing and contextualizing developer and AI-agent actions early—serving as an upstream behavioral control plane that complements downstream security enforcement rather than replacing it. Get more insights in our recent blog post: https://lnkd.in/d9bXHdu4

Authorization is easy… until you actually have to scale it. 🔐 Most teams start with simple RBAC (Role-Based Access Control). It’s clean, it’s intuitive, and it works—until your 5 roles turn into 500, and nobody knows who actually has access to what. This is the "Role Explosion" trap. If you’re building for modern security (Zero Trust) or complex compliance, you might need to move toward ABAC (Attribute-Based Access Control). It’s powerful, but are you ready for the implementation complexity? I’ve put together a quick cheat sheet on the 4 most common Authorization strategies we use today: 🔹 RBAC: The gold standard for internal teams. Simple, but watch out for role bloat. 🔹 ABAC: The future of granularity. Uses "Context" (Time, Location, Device) to decide access. 🔹 OAuth 2.0: Not just for "Login with Google." It’s the backbone of modern API security. 🔹 ACL: Old school? Maybe. But for file-level permissions, it’s still incredibly effective. The big question for the architects here: I personally find ABAC the most resilient, but the "Policy Engine" overhead can be a nightmare to maintain. On the other hand, RBAC almost always becomes a mess after the first year of scaling. 👇 Which one are you using in your current project? Or are you running a "Hybrid" approach? Let’s discuss in the comments! 📌 Found this useful? Save it for your next System Design interview or Architectural review! #SystemDesign #CyberSecurity #SoftwareArchitecture #IAM #Coding #TechCommunity #CloudSecurity #Programming #WebDev #MeghashyamV

If your application security mitigation strategy starts at the code and not at the edge, you’re already behind. That edge is where F5 ASM operates as part of the application, not in front of it. Modern applications are multi-tier and multi-team by design. A single vulnerability can touch interfaces, logic, shared libraries, vendor code and platform config, which means multiple teams, coordinated testing, and long lead times. There are two main causes of modern security incidents: CVEs and Development issues. CVE > Shared frameworks, libraries, and platforms. One CVE can hit many apps and tiers across many teams. Deploying new Vendor Libraries means finding every affected service, coordinating owners, testing across tiers, then waiting for change windows and deployments. That can take days or weeks/months. Developer mistakes > Not incompetence but normal realities: missing validation, unsafe assumptions, untested edge cases. Fixing these properly still requires code changes, review, retesting, and a safe release. So either way, the app or apps have known, likely public issues that are not immediately mitigated. 🛡️F5 ASM can mitigate risk immediately using: • Standard and custom signatures • Entity-based configurations aligned to how the application actually behaves • Advanced F5 ASM/WAF mitigations This allows same-day risk reduction, while teams work toward the correct long-term fix. Mitigations can be staged, monitored, and reported, something rarely possible with application-level fixes, which increases testing time and delays. THE F5 TMOS is the outer tier of the application. See it that way, and the boundaries and responsibilities finally make sense. Fix the Core app code, but don’t leave the front door open while you wait 3 months for a code release. 👣 Follow me for real-world F5 ASM insights and training from real-world and global, business-critical deployments. -

The current 'shift-left' security approach often creates unmanageable noise and toil for developers, leading to security fatigue rather than improved posture. Large, generic base images, while initially convenient, lead to increased attack surface, more vulnerabilities, and significant security and operational drag over time. Adopting secure, purpose-built foundations like hardened container images can reduce complexity, improve developer experience, and offer performance benefits. When secure foundations are the default, security hardening and supply chain hygiene are managed centrally by experts, reducing interruptions and freeing developers for product work. Effective software security scales by leveraging strong defaults and secure foundations, not by forcing developers to constantly address security issues at the application layer. https://lnkd.in/gy7TFnnu

The article emphasizes that enhancing security outcomes begins with establishing solid foundations, like hardened images, to create a safer, smoother development process. I found it interesting that prioritizing developer experience can lead to improved security without hindrances. How do you think organizations can better integrate security into their development workflows?

🚨 NIS2: Compliance Theater or Real Security? 🚨 The EU’s NIS2 directive is live, and CISOs everywhere are drowning in red tape. The reality? Most organizations are still stuck in the old game: 📄 Write endless Word docs 📊 Build Excel role models 📂 Archive PDFs nobody reads But here’s the truth: Documentation ≠ Security. What NIS2 really demands: ✅ Concrete technical measures ✅ Processes that enforce them ✅ Evidence they actually work Modern approach: 🔐 Policies as Code – IAM roles in Git, deployed via CI/CD 📦 SBOM-driven vulnerability management – not scanner PDFs 🛡 Automated SOC pipelines – reporting baked into incident workflows 🤖 AI-assisted CIEM & CNAPP – kill overprivileged and false positives Why this matters: Fines hit €10M or 2% of global revenue. But the bigger risk? Cyberattacks that wipe out your business. Stop treating compliance as a Word doc project. Build it into your architecture. If your IaC, pipelines, and SIEM don’t generate audit trails automatically, you’re doing it wrong. Compliance should be a side effect of sound engineering, not a separate department writing novels. 💥 Hook: If your compliance strategy still lives in Excel, you’re already behind. Automation isn’t optional; it’s survival. #CyberSecurity #NIS2 #Compliance #DevSecOps #IaC #CIEM #CNAPP #SBOM #CloudSecurity #ZeroTrust #InfoSec #BlueTeam #RiskManagement #Automation

2026 is here, and at Redpoint, we encourage you and your company to double down on improving how application security is approached at your company! Here’s some ideas to implement this year: ✅ Secure SDLC Integration – Building security earlier in the development process, not just at the end. ✅ Hands-On Developer Training – Practical, role-specific workshops to turn awareness into skill. ✅ Advanced Secure Code Reviews – Going beyond tools to evaluate business logic and subtle vulnerabilities. ✅ Third-Party & Supply Chain Risk – Identifying weaknesses in dependencies before they become breaches. ✅ Threat Modeling & In-House Guidance – Making it easy for teams to understand and mitigate risk in their context. ✅ Logging, Alerting, and Response Improvements – Closing gaps before incidents escalate. ✅ Continuous Knowledge Refresh – Revisiting OWASP Top Ten, emerging risks, and real-world case studies. Security isn’t static. Vulnerabilities evolve, frameworks change, and attackers innovate. Where do we think focus should be in 2026? Capability over compliance, skill over checklists, and proactive security at every stage of development. 💡 How is your organization improving its AppSec program this year?

Small oversights can cause big problems. Recently, we came across a security incident. It was a strong reminder of how unforgiving software systems can be. In engineering, assumptions are often the weakest link. When you run an IT outsourcing company, attention to detail is not optional. - Every dependency - Every configuration - Every environment They all matter. This experience reinforced something I deeply believe in. Responsibility does not end with writing code. Even if infrastructure is managed by the client, we still verify. Even if a task feels routine, we double check. Security cannot be delegated. Ownership cannot be partial. At the end of the day, our job is not just to deliver features. It is to protect the systems our clients trust us with. Small details decide outcomes. They always have.

One of the first clear signals we saw was around security testing at scale. A customer had a sensitive business logic model that changed every single day. They assigned three full-time security engineers just to pentest that one piece of the application. Even with that team, they could not match the pace of their R&D. Each update created new behavior and new potential attack paths. Manual testing could not keep up with a system that evolved every day. This situation is more common than you think. Any rapidly changing service creates a security surface that grows faster than humans can revalidate. Teams need a way to test at the speed code is shipped. That’s the problem I’m focused on: continuous, high-depth validation for components that change frequently, with real-time confirmation of whether new issues were introduced or old ones resurfaced. Modern development moves fast so naturally security teams need tools that move at the same rate.