Dockerfile Security Best Practices
Six question-driven answers on Dockerfile hardening: pinning, root users, multi-stage builds, secrets, and the review gates that catch supply chain risk early.
Deep dives, practical guides, and incident analyses from engineers who build Safeguard. No fluff, no vendor FUD — just what you need to ship secure software.
Six question-driven answers on Dockerfile hardening: pinning, root users, multi-stage builds, secrets, and the review gates that catch supply chain risk early.
Runtime drift is the last honest witness in container supply chain defence. This post covers what drift signals tell you, how to instrument for them, and how to investigate without overwhelming on-call.
Kubernetes security spans four layers — cloud, cluster, container, code — and misconfiguration, not novel exploits, causes most real-world incidents.
A practical Kubernetes monitoring guide: what to track across nodes, control plane, and workloads, the tools teams use, and where monitoring alone misses supply chain risk.
Kubernetes RBAC controls who can do what in your cluster. Here's how Roles, Bindings, and ClusterRoles work — and where they commonly fail.
Kubernetes clusters default to flat, all-to-all pod networking. Here's how NetworkPolicy objects, CNI enforcement, and default-deny rules actually stop lateral movement.
Field notes on running Tetragon, Falco, and Cilium eBPF controls in production Kubernetes clusters, with observed overhead, policy traps, and kernel constraints.
A practical container runtime comparison for 2026 buyers: containerd, CRI-O, gVisor, Kata, and Youki measured against real production workloads.
Pod Security Standards replaced PodSecurityPolicy in Kubernetes 1.25. Here's what Kubernetes pod security means and how to enforce it in production.
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