
What is AI observability?
AI observability connects traces, metrics, evaluations, feedback, and runtime context so teams can understand and improve models, applications, and agents.
Practical guides to building, running, and improving ML and AI in production.
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AI observability connects traces, metrics, evaluations, feedback, and runtime context so teams can understand and improve models, applications, and agents.

Distinguish the security boundary, process runtime, and interpreter session when designing Polyaxon code execution for AI agents.

Use Kubernetes resource, object-state, and control plane metrics to diagnose scheduling delays, size workloads, and design actionable alerts.

Configure a DeepSeek V4 Pro service on B200 GPUs and check model loading, reasoning output, tool calls, and resource use.

Choose service boundaries for Kubernetes-based ML platforms without turning every component, model, or workflow step into a separate microservice.

Persist agent memory outside Polyaxon sandbox lifetimes using application stores, scoped connections, versioned snapshots, and reproducible evaluation.

Use Polyaxon tracking, sandbox execution receipts, artifacts, and run comparison to investigate coding-agent failures and qualify changes.

Assess and close the gaps in accelerator access, batch scheduling, inference, data, identity, observability, cost, and ownership before AI workloads scale on Kubernetes.

Create and verify Kubernetes Services with kubectl expose while keeping selectors, ports, exposure scope, and production configuration explicit.

Qualify AI-generated code with Polyaxon sandbox controls, tracked execution receipts, reusable evaluation jobs, artifacts, and explicit promotion boundaries.

Diagnose Kubernetes DiskPressure, understand eviction signals, and prevent images, logs, and local ML data from exhausting node storage.

Manage long-lived Polyaxon agent workspaces with explicit ownership, reproducible environments, checkpoints, bounded lifetimes, and safe replacement.

Use Polyaxon component versions, evaluation runs, pipeline dependencies, manual approval, and scoped execution to make agent releases reviewable.

Run recurring agent evaluations and controlled historical backfills with Polyaxon schedules, date-range matrices, explicit window identity, and fresh results.

Evaluate whether Kubernetes provides enough scheduling, isolation, portability, and operational leverage to justify its complexity for ML workloads.

Map AI execution data paths to Polyaxon compute placement, connections, artifacts, external providers, and documented residency controls.

Use Polyaxon DAGs, tracked outputs, artifacts, and run comparison to develop a reviewable classifier for ML workload failure reports.

Check kubectl, control-plane, node, and API compatibility before upgrades or while diagnosing inconsistent Kubernetes behavior.

Understand how Pods, Services, DNS, ingress, egress, and network policy shape the data paths used by training jobs and model services.

Qualify AI-generated code for Polyaxon pipelines using immutable candidate identity, independent evaluation, explicit approval, and versioned release artifacts.

Configure Django logs for container collection, useful request context, exception diagnosis, privacy, and correlation with Kubernetes workload state.

Use Polyaxon to run reinforcement-learning agent rollouts with bounded execution, separate reward evaluation, reproducible seeds, and isolated trajectory artifacts.

Use Hadolint to catch Dockerfile problems early while keeping base-image policy, dependency pinning, security scanning, and runtime validation separate.

Connect bounded LLM tools to Polyaxon sandboxes, validate calls in the host, retain execution receipts, and compare tool behavior in repeatable evaluation runs.