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Polyaxon vs Runloop

Compare Polyaxon and Runloop across sandbox isolation, agent tooling, environment lifecycle, snapshots, evaluation, GPUs, and platform ownership.

Which platform fits

The core problem is governing the complete AI workload lifecycle on organization-controlled Kubernetes.

Software agents need isolated development computers, agent-specific integrations, and evaluation workflows.

Runloop executes coding-agent work while Polyaxon schedules and records downstream AI workloads.

Capability comparison

This table describes product scope and operating responsibility. It is not a benchmark or a count of integrations.

Product boundary

An AI workload and lifecycle platform with interactive access inside service runs.

A platform for building and optimizing software-engineering agents using Devboxes, Axons, Blueprints, Snapshots, and Benchmarks.

Isolation

Sandbox access inherits the service container boundary, runtime identity, mounts, connections, and network policy.

Devboxes are isolated, ephemeral virtual machines intended to protect code, secrets, data, and connected systems.

Environment lifecycle

Interactive sessions use scheduled service runs and the same lifecycle controls as other Polyaxon operations.

Devboxes support ephemeral and stateful modes, including create, shutdown, suspend, resume, and snapshot flows.

Execution interfaces

Python, CLI, SSH, PTY, tmux, process, and filesystem access operate inside the workload container.

Python and TypeScript SDKs, CLI, dashboard, named shells, PTYs, SSH, files, tunnels, and command logs operate Devboxes.

Reusable environments

Images, components, connections, presets, and init logic define reusable workload specifications.

Blueprints build reusable images from setup actions or Dockerfiles; snapshots branch from an existing disk state.

Agent evaluation

Evaluation workloads, artifacts, metrics, matrices, pipelines, and registries use the general Polyaxon run model.

Benchmarks, scenarios, and orchestrated evaluations are product areas specifically aimed at agent performance.

Compute scope

Jobs, services, GPU workloads, distributed clusters, pipelines, and sandboxes share Kubernetes scheduling controls.

Devboxes offer selectable instance sizes and virtual workstation environments focused on agent code execution.

Best fit

ML and platform teams operating heterogeneous AI workloads on Kubernetes.

Teams building software-engineering agents that require managed computers, tool access, and benchmark loops.

When each platform fits

Choose Polyaxon when

  • The primary outcome is reliable scheduling and governance for training, evaluation, services, data jobs, and distributed compute.
  • Interactive work must share the same storage, GPU, image, and network configuration as a Polyaxon workload.
  • Lifecycle metadata, artifacts, registries, and multi-cluster policy should stay in one general-purpose AI platform.

Choose Runloop when

  • The main workload is a software-engineering agent operating Git repositories, build tools, browsers, and developer utilities.
  • Virtual-machine isolation, snapshots, suspend/resume, network policies, and agent gateways are central requirements.
  • The team wants agent-specific benchmarks and observability alongside the execution environment.

Using Polyaxon with Runloop

Runloop can host the agent's repository work, tool calls, and benchmark environment while Polyaxon receives approved code or images for GPU training, batch evaluation, pipelines, and registry workflows. The boundary should be explicit and observable.

  • Separate agent workspace credentials from the credentials used to submit governed Polyaxon workloads.
  • Promote immutable source revisions or images rather than relying on undocumented Devbox state.
  • Link Devbox, benchmark, commit, image, and Polyaxon run identifiers in both systems.

Evaluation plan

  • Choose a representative agent task

    Use a repository change that needs setup, command execution, file edits, network access, validation, and an inspectable result.

  • Exercise state and controls

    Test blueprint startup, snapshot or suspend/resume, egress rules, secrets, parallel branches, logs, and cleanup.

  • Continue into the AI workload

    Submit the resulting code or image to Polyaxon and assess queues, GPUs, artifacts, tracking, retries, and lineage.

Sources

Product capabilities change. Follow the linked documentation for current details.

Compare against your requirements

We can map your current scheduler, tracking stack, storage, GPU policy, and migration constraints before you commit to a platform change.