A working LLMOps lifecycle must carry versions, evaluation evidence, approvals, promotion state, monitoring findings, and rollback lineage through one connected path.

We build a working lifecycle for models, prompts, data, evaluations, deployments, monitoring, approvals, and lineage. Your team can see which version moved, what evidence supported it, who approved it, and how it behaves in operation.

One representative change travels the tested lifecycle slice end to end, from versioned artifact to monitored deployment, with the evidence that approved each move attached to it.

Illustration of LLMOps & Model Lifecycle Platform Implementation: a team monitoring and operating an AI system in production

Some of the 500+ brands we've worked with

See all references
  • DenizBank
  • Cimri
  • Defacto
  • Obilet
  • Canbebe
  • Doremusic
  • Groupama

We prove one complete lifecycle slice before expanding the platform, giving each integration a clear purpose and owner.

  1. Map the lifecycle

    We trace how models, prompts, data, evaluations, deployments, monitoring events, approvals, and lineage move through the current systems.

    AI assist
    Tools trace configs across existing systems to draft the lifecycle map.
    Human gate
    Is the first lifecycle slice, its owner, and its acceptance path clear? Your platform owner confirms the first lifecycle slice and its acceptance path.
  2. Build the thin slice

    We implement the smallest useful path from versioned artifact through evaluation gate and environment promotion, using the systems that already fit.

    AI assist
    Tools scaffold the versioning and evaluation-gate wiring for the thin slice.
    Human gate
    Can one representative change move through the path with its evidence attached? Engineering confirms one representative change moves through with evidence attached.
  3. Integrate operating controls

    We connect identities, approvals, exceptions, monitoring, rollback, and lineage so the platform records both normal flow and blocked changes.

    AI assist
    Tools draft the permission and exception-routing rules from the mapped roles.
    Human gate
    Do permissions and exception paths keep consequential decisions with your team, not the platform? Your platform owner confirms consequential decisions stay in human hands.
  4. Test and hand over

    We run representative and adverse cases to check promotion, rollback, dependencies, and the operating handoff.

    AI assist
    Tools run the acceptance cases and log promotion and rollback results.
    Human gate
    Does the accepted platform behavior match the evidence and ownership model? Your platform owner accepts the tested behavior before handoff.

The output is a tested lifecycle slice plus the architecture, evidence, exceptions, and ownership needed to operate and extend it.

  • Architecture document

    Working lifecycle implementation and control map

    A working lifecycle path for versioning, evaluation, promotion, monitoring, approval, rollback, and lineage in the agreed scope.

  • Risk register

    System dependencies and platform constraints ledger

    The source systems, integration dependencies, assumptions, constraints, exceptions, owners, and unresolved decisions behind the platform.

  • Test evidence

    Promotion, rollback, and blocked-approval findings report

    Test results for the normal path, blocked approvals, missing evidence, failed promotion, rollback, and monitoring linkage.

  • Decision record

    Accepted roles, permissions, and extension-priority list

    The accepted scope, operating roles, permissions, open conditions, extension priorities, and next review point.

Experiments can reach production, but their versions, evidence, approvals, and operating history do not travel together yet.

A good fit when

  • Model, prompt, data, and evaluation versions sit in separate systems, so nobody can reconstruct the exact configuration that reached production.
  • Promotion depends on manual coordination, yet the approval evidence and lineage trail do not travel with the version moving between environments.
  • Monitoring shows a production problem, but the finding cannot be linked back to the evaluation evidence and configuration behind that deployment.
  • Version records exist across several tools, but model, prompt, data, deployment, and monitoring workflows do not share one lineage path.
  • The lifecycle architecture names environments and identities, yet system dependencies and blocked exception paths remain implicit.
  • A representative artifact can be versioned, but evaluation gates, promotion, and rollback controls are not connected in one working slice.
  • Acceptance tests run, yet the operating owner lacks documentation that ties behavior to named responsibilities.

Better handled as other work when

  • You want every engineering tool replaced even though a smaller integration can carry versioning, evidence, and approvals through the lifecycle.
  • Platform automation should approve production risk or policy exceptions. Those consequential decisions remain with the people named in the operating model.
  • You need unrelated model or application features built alongside the lifecycle slice. Those product changes require their own scope.

If one of these is closer to your situation, start here instead: View the parent service

  • PromptLayer

    versions prompts as first-class lifecycle artifacts with release labels

  • Confident AI / DeepEval

    attaches repeatable evaluation evidence to every promotion gate

  • Langfuse

    links released versions to their real production traces and outcomes

  • Datadog

    connects lifecycle events to deployment, infrastructure, and incident telemetry

  • MLflow

    registers model versions, evidence, stages, approvals, and promotions

  • DVC

    versions datasets and pipeline inputs beside the released code

Point us to one representative model or prompt change and the systems it touches. We will define the thinnest working lifecycle slice.
Talk to Zeo

We need to see the current model, prompt, data, evaluation, deployment, monitoring, approval, and lineage workflows, along with the systems and environments behind them, representative examples, access constraints, operating owners, and the authority who can accept the first lifecycle slice.