
What is an AI gateway?
An AI gateway centralizes model access, routing, resilience, policy, cost controls, and telemetry across production LLM applications and agents.
Practical guides to building, running, and improving ML and AI in production.
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An AI gateway centralizes model access, routing, resilience, policy, cost controls, and telemetry across production LLM applications and agents.

Reduce the impact of generated-code failures with Polyaxon workload configuration, Kubernetes admission and network controls, minimal credentials, and incident evidence.

Test RAG systems for poisoned documents, cross-tenant retrieval, stale permissions, citation leaks, and unauthorized tool actions.

Treat prompts as versioned production artifacts with lineage, evaluations, promotion workflows, rollback, ownership, and runtime observability.

Review the trust boundary for LLM-generated code before execution, mapping permissions, trusted controllers, output handling, and promotion controls in Polyaxon.

Learn which GPU utilization metrics explain capacity, device activity, memory pressure, and useful ML throughput—and how to avoid misleading averages.

Test AI agent permissions, memory, handoffs, retries, and tool actions with a practical security matrix and reproducible evaluation workflow.

Move notebook experiments into repeatable ML jobs with explicit inputs, versioned code, reproducible containers, and Polyaxon tracking.

Scale AI agents with admission control, dependency-aware concurrency, durable state, bounded authority, backpressure, and outcome-based capacity planning.

Connect tokens, model calls, retrieval, tools, retries, and infrastructure with quality and task outcomes to control production LLM costs.

Understand how GPU orchestration connects workflows, queues, resource placement, and recovery across shared ML infrastructure.

Build prompt injection tests for user input, retrieved documents, and tool responses, with checks for data access and actual side effects.

Use kubectl edit for deliberate live Kubernetes changes while avoiding controller conflicts, configuration drift, wrong-cluster edits, and unrecoverable fixes.

Operate dynamic AI agent plans with Polyaxon execution, explicit policy checks, cumulative budgets, durable request state, and independent evaluation.

Understand Kubernetes CPU requests, limits, throttling, and the failure modes caused by weak resource configuration.

Design agent data paths that preserve source identity, versions, permissions, freshness, retrieval evidence, and verification results.

Use offline evaluation for reproducible release decisions and online evaluation for real production behavior, then connect both in one feedback loop.

Compare NVIDIA MIG and GPU time-slicing on Kubernetes, including memory isolation, resource names, scheduling behavior, and workload fit.

Use explicit kubeconfig contexts, namespaces, identities, and verification checks to reduce wrong-cluster changes across development, staging, and production.

Use LLMs as scalable evaluators without treating them as ground truth: design clear rubrics, calibrate against humans, and monitor bias and drift.

Estimate AI sandbox operating costs from measured active and idle resources, retries, storage, and engineering ownership using Polyaxon workload evidence.

Design ML pipelines with explicit dependencies, resource placement, safe caching, bounded retries, and complete evaluation evidence in Polyaxon.

Use Polyaxon joins to select comparable evaluation runs and build application-owned leaderboards with explicit cohort, completeness, and artifact evidence.

Understand AI sandboxes for development and agent execution, including runtime isolation, credentials, storage, network access, GPUs, and lifecycle.