srelens vs vCluster Platform
srelens
srelens.comvCluster Platform
vcluster.comSide by side
| Figure | srelens | vCluster Platform |
|---|---|---|
| Price from | Free | Free |
| Free plan | Yes | Yes |
| Free trial | — | Yes |
| Open source | Yes | Yes |
| Web | Yes | Yes |
| Windows | Yes | Yes |
| macOS | Yes | Yes |
| Linux | Yes | Yes |
| API | Yes | Yes |
| Self-hosted | Yes | Yes |
| Plans published | 1 | 3 |
| Spec score · Local Kubernetes Tools | 8.3 (#3) | 8.2 (#5) |
| Integrations | The built-in MCP server connects to MCP clients such as Claude Code, Claude Desktop, Cursor, and Codex over stdio or loopback HTTP. | The pricing feature list names Cluster API, Terraform, Rancher, Prometheus ServiceMonitor, Metrics Server, Argo CD, Vault, cert-manager, External Secrets Operator, KubeVirt and Istio integrations. |
| Purpose | srelens is a Kubernetes desktop workspace for browsing, inspecting, and operating clusters. | vCluster Platform provides a management plane for deploying, configuring, and operating tenant cluster fleets through a web UI, CLI, and API. |
| Support | The documentation directs users to open a GitHub issue with safely shareable application log details for reproducible bugs. | Enterprise plans include enterprise support, SLAs, and custom terms; the pricing page also lists priority support, private Slack or MS Teams channels, and video support. |
| System requirements | The published desktop targets are macOS 11 or newer, Windows 10 x64 or newer, and Linux x86_64. | The documented platform installation requires administrator access to Kubernetes, Helm 3.10.0 or newer and kubectl. |
| What it does | srelens is a Kubernetes workspace for investigating, analyzing and operating clusters through a desktop GUI, terminal UI or MCP server. | vCluster Platform is a management plane for deploying, configuring and operating fleets of isolated tenant Kubernetes clusters across connected control-plane clusters. |
Plans
In their own words
srelens
srelens is a Kubernetes desktop workspace for browsing, inspecting, and operating clusters. It covers more than 40 resource kinds, including workloads, networking, storage, RBAC, admission, autoscaling, and custom resources. Investigation tools include live watches, log streaming, in-pod terminals, port forwarding, Helm release views, and a schema-aware YAML editor. CPU and memory metrics for nodes and pods come through Kubernetes Metrics Server. Users can scale or restart workloads and cordon, drain, or evict nodes; destructive actions require confirmation. The desktop app connects directly to Kubernetes API servers using local kubeconfig credentials, without an intermediary srelens cloud service. Available operations depend on the selected context’s credentials and RBAC permissions. Added kubeconfig files stay local, and pasted configs are stored in the application directory. Secret values are masked by default and revealed per key. The built-in MCP server connects to clients such as Claude Code, Claude Desktop, Cursor, and Codex. srelens is free, open source under the MIT license, and requires no account or license key.
vCluster Platform
vCluster Platform is a management plane for deploying, configuring, and operating tenant cluster fleets through a web UI, CLI, and API. It manages tenants across EKS, GKE, AKS, bare metal, and private cloud, with isolated tenant clusters and shared-node, dedicated-node, private-node, Auto Nodes, and Standalone tenancy models. With vCluster Cloud, the platform is hosted while host and virtual clusters remain in the customer's infrastructure; self-hosted deployment puts the full platform there. The Free plan is free and permits unlimited virtual clusters within a limit of 64 CPUs or 32 GPUs, with a maximum of one HA vCluster. It also supports provisioning, multi-cluster management, policy enforcement, and upgrade management. Listed integrations include Terraform, Rancher, Argo CD, HashiCorp Vault, and Istio. Enterprise features include SSO, audit logging, vulnerability alerts, security review, FIPS-compliant images, enterprise support, and SLAs. One isolation caveat is that shared nodes share several underlying components across tenants, including the kernel, kubelet, node filesystem, and host network. The maker describes use by AI cloud providers and public and private cloud teams.