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Polyaxon vs ClearML

Compare Polyaxon and ClearML across experiment tracking, agent-based execution, queues, pipelines, registries, and Kubernetes control.

Which platform fits

Kubernetes workload policy and lifecycle metadata should share one declarative platform.

Python experiment capture and agent-driven remote execution fit the team's existing workflow.

ClearML-instrumented code should keep logging while Polyaxon becomes the Kubernetes execution owner.

Capability comparison

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

Primary scope

Kubernetes AI workloads, orchestration, scheduling, tracking, and lifecycle registries.

Experiment management, datasets, models, agent-based automation, pipelines, and workload orchestration.

Compute execution

The control plane submits jobs, services, sandboxes, and distributed workloads to connected Kubernetes clusters.

ClearML Agents pull tasks from queues, reconstruct environments, and execute on machines, Docker, or Kubernetes.

Experiment tracking

Runs connect parameters, metrics, logs, artifacts, visualizations, code context, state, and lineage.

Tasks capture experiment configuration, code, environments, metrics, artifacts, and models for comparison and reproduction.

Workflow orchestration

Declarative DAGs, matrix runs, schedules, hooks, retries, and reusable components.

Python controllers or decorators define pipeline steps that run locally or remotely through agent queues.

Scheduling policy

Queues, priorities, concurrency, approvals, presets, resource requests, and multi-cluster routing are first-class.

Ordered queues and agents support strict-priority or round-robin polling, with Kubernetes pod settings configurable per queue.

Registry and lineage

Models, artifacts, components, prompts, and datasets remain linked to runs and workflows.

The model registry catalogs versions, provenance, lineage, comparisons, publishing, and downstream automation.

Execution contract

Containerized Kubernetes specifications and platform presets define reproducible execution.

The agent can reconstruct Python environments or execute Docker images from captured task definitions.

Best fit

Platform teams standardizing governed AI workloads on Kubernetes.

ML teams prioritizing low-friction Python capture and agent-driven execution across mixed compute.

When each platform fits

Choose Polyaxon when

  • Kubernetes resources, queues, approvals, distributed runtimes, services, and cluster routing drive the platform choice.
  • Users need one declarative workload contract rather than environment reconstruction as the primary execution path.
  • The organization wants execution policy, run state, artifacts, registries, and lineage under one operational owner.

Choose ClearML when

  • Adding tracking to existing Python code with minimal workflow change is the fastest adoption path.
  • Agents and queues should dispatch work across existing machines, Docker hosts, cloud autoscalers, or Kubernetes.
  • Teams already depend on ClearML Tasks, datasets, pipelines, model registry, or environment reconstruction.

Using Polyaxon with ClearML

ClearML-instrumented code can run in a Polyaxon-scheduled container and log to a reachable ClearML Server. In that boundary, Polyaxon owns Kubernetes submission, resources, queues, retries, and workload state; ClearML owns its task record, metrics, artifacts, and model views. Avoid also enqueuing that same task for ClearML Agent execution.

  • Choose Polyaxon or ClearML Agent as the execution owner for each task.
  • Store the Polyaxon run identifier in ClearML task metadata and keep artifact locations unambiguous.
  • Verify environment capture, cancellation, retry, offline logging, and failure propagation with a real workload.

Evaluation plan

  • Compare adoption paths

    Instrument the same training script and record the code, environment, secrets, artifacts, and metadata each platform requires.

  • Exercise remote execution

    Run on the intended Kubernetes queue or agent pool with a GPU request, dependency cache, retry, and cancellation.

  • Review operator ownership

    Score cluster policy, environment reproducibility, pipeline control, lineage, upgrades, observability, and support.

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.