Meet us at RSAC 2026 to explore runtime security for agentic workloads.
Solutions

Zero-Touch
Operations

No SDK. No sidecar. No proxy. A Linux kernel module that secures every workload on the node — any language, any framework, no code changes.

Your Security Layer Is Your Biggest Operational Burden

Your team adopted a service mesh for mTLS. Now you spend two days a week on mesh configuration tickets. Sidecars consume 30% of your cluster CPU. When one crashes, the workload goes dark and you're debugging Envoy at 2am. The tool you deployed for security has become the thing that pages you most.

Sidecars that page you

Every pod runs an Envoy proxy. If the sidecar crashes, the workload loses connectivity. Your security layer is your availability risk.

Sidecar resource consumption at scale

CPU, memory, and an additional network hop on every request. At scale, sidecar overhead rivals the workloads they protect.

SDK fragmentation across languages

Each language needs its own security SDK — Python, Go, Java, Node.js, Rust — each with its own configuration, upgrade cycle, and on-call runbook.

eBPF that can see but not act

eBPF programs are sandboxed by design. They cannot generate private keys, perform TLS handshakes, inject credentials, or enforce access policy. Visibility without enforcement is a dashboard, not security.

How It Works

Riptides deploys as a kernel module on each node. It handles identity, encryption, credential injection, and policy enforcement — transparently, for every process on the node. No sidecars, no SDKs, no per-app configuration.

2

Every workload is secured automatically

The module handles mTLS, credential injection, and access policy enforcement for every process on the node. Applications are completely unaware — no code changes, no configuration per workload.

3

Policy changes propagate in real time

The agent connects to the control plane and pushes identity policies, certificates, and credential bindings to the kernel module. Changes take effect immediately — no workload restarts.

Operational Safety

Node-level blast radius

Each node runs its own independent kernel module. A failure on one node does not affect any other node. Not a cluster-wide event.

Graceful degradation

If the module is unloaded, workloads revert to normal TCP behavior. The security layer degrades gracefully; workloads don't go dark.

Rolling upgrades via DaemonSet

Kernel module updates follow the same DaemonSet rolling update strategy you use for everything else. Node by node, with health checks between.

PERMISSIVE mode for safe onboarding

Start with PERMISSIVE — accepts both plaintext and mTLS. Monitor telemetry. Enforce when ready. No big bang cutover.

Where to Start

The Fastest Win

Drop the sidecars, keep the mTLS

Deploy Riptides on one cluster running a service mesh. Start in permissive mode — existing sidecar mTLS continues to work alongside kernel-level mTLS. Validate with telemetry, then remove the sidecars. One kernel module per node replaces hundreds of sidecar proxies.

Then Expand

Secure workloads you can't modify

Vendor software, databases, legacy systems — applications you cannot change get identity and mTLS without source code access. Any language, any framework.

Same security model beyond Kubernetes

Same kernel module on bare metal and VMs via .deb/.rpm packages. Same identity model, same policies, same control plane. Not limited to container environments.

Ready to secure your
workloads?

Kernel-level identity and enforcement. No code changes. Deploy in minutes.