MLOps & Model Operations
MLOps that keeps production models versioned, monitored and safe to retrain
We build the pipelines, registries, release workflows and monitoring that let your team train, ship and roll back models as routinely as application code. Every model in production can be traced to the data, code and evaluation results behind it.
AI & Data
What is MLOps?
MLOps, short for machine learning operations, is the set of engineering practices and tooling that takes models from experiment to dependable production service. It covers versioning of data, code and models, automated training and evaluation pipelines, controlled deployment and rollback, and monitoring for data drift and degrading accuracy, so models can be retrained and released routinely.
Training a good model is a fraction of the work. The harder part is knowing which data and code produced the model now in production, retraining it without a week of manual steps, releasing a new version safely and noticing when real-world inputs stop resembling the training data. Without that, models quietly degrade and teams become reluctant to touch them.
We treat models like any other production software, with a few additions. Data snapshots, feature code, parameters and evaluation results are versioned together. Training runs in a pipeline anyone on the team can trigger. A model registry records which version is approved for which environment, and releases use the same CI/CD, containers and infrastructure as code as the rest of your platform.
Monitoring closes the loop. We track input distributions, prediction patterns, latency and, once ground truth arrives, real accuracy, with alerts tied to clear runbooks. The platform is sized to your team: sometimes a lightweight pipeline with scheduled checks, sometimes a Kubernetes-based platform shared by several data science teams.
Challenges
The problems we are usually brought in to solve
Models nobody can reproduce
The model in production was trained on someone's laptop months ago, and no one can say exactly which data, code or settings produced it.
Manual, risky releases
Shipping a new model means copying files and editing configuration by hand, so releases are rare and rollbacks are improvised under pressure.
Silent drift in production
Customer behaviour, prices, sensors or upstream feeds change, and accuracy falls for weeks before anyone connects poor results to the model.
Training and serving out of step
Features are calculated one way in the training notebook and another way in the live application, so the model receives inputs it never learned from.
Retraining only one data scientist can run
The steps to retrain and redeploy a model live in one person's head and scripts, so the model becomes untouchable the moment they change role.
Compute costs nobody tracks
Training jobs and inference endpoints run on oversized or idle infrastructure because utilisation and spend are not reported per model.
Capabilities
What the service covers
Data and model versioning
Training data snapshots, feature code, parameters and model artefacts linked under one version, so any production prediction can be traced back to its source.
Automated training pipelines
Reproducible pipelines that pull data, build features, train, evaluate and register a candidate model, triggered on a schedule, on new data or on demand.
Model registry and approval gates
One record of every model version with its metrics, lineage and status, plus sign-off steps before a candidate reaches staging or production.
CI/CD for machine learning
GitHub Actions or GitLab CI pipelines that test feature code, validate data, compare candidates with the live model and build deployable containers.
Controlled release strategies
Shadow, canary and blue-green releases with automatic rollback when error rates, latency or prediction checks breach agreed limits.
Drift and performance monitoring
Prometheus metrics and Grafana dashboards for input drift, prediction drift, data quality, latency and accuracy once real outcomes are known.
Consistent feature pipelines
Shared feature logic for training and serving, with validation that catches missing or out-of-range inputs before they reach the model.
Terraform for training and serving environments
Training environments, serving clusters, storage and permissions on AWS, Azure or Google Cloud defined in code, so staging matches production and either can be rebuilt on demand.
Per-model compute cost reporting
Autoscaling inference, scheduled shutdown of idle GPU and training resources and spend reported for each model, so compute cost is visible next to the value it supports.
Our process
How an engagement runs
Every engagement has a named lead, a written scope and working software to review every one to two weeks.
- 01
Assess the current model lifecycle
We review how models are trained, stored, released and monitored today, and rank the gaps by the risk they pose to the business.
- 02
Design the target platform
We pick a level of MLOps maturity that fits your team size and model count, and document environments, tools, approvals and ownership.
- 03
Take one model end to end
A single production model goes through versioning, automated training, registry, deployment and monitoring to prove the workflow on real work.
- 04
Connect monitoring to runbooks
Drift, data quality and performance alerts are linked to runbooks that state who investigates, when to retrain and how to roll back.
- 05
Onboard further models and hand over
Additional models move onto the platform using shared templates, and your engineers and data scientists are trained to run and extend it.
Technology
Technology we use
Chosen per project for fit, maintainability and your team's ability to own it.
Pipelines and serving
- Python
- FastAPI
- Docker
- Kubernetes
- Helm
CI/CD and infrastructure
- GitHub Actions
- GitLab CI
- Argo CD
- Terraform
Monitoring
- Prometheus
- Grafana
Cloud and storage
- AWS
- Microsoft Azure
- Google Cloud
- PostgreSQL
Use cases
Where it makes the biggest difference
Scheduled retraining for forecasts
Demand or sales models retrain weekly on fresh data, are compared with the live version and are promoted only when they score higher on the same test.
Productionising an inherited model
A model built by a former team member is refactored into a versioned pipeline and API, so the wider team can deploy, monitor and retrain it.
Shared platform for a data science team
Several data scientists use one set of pipelines, registry, deployment templates and dashboards instead of maintaining their own scripts.
Drift alerts on risk and fraud scoring
Input and score distributions are checked daily, and reviewers are alerted when shifts suggest new fraud patterns or a broken upstream feed.
Fleet updates for edge vision models
Computer vision models on site devices are versioned, rolled out in stages and reverted remotely if detection quality falls.
Release discipline for LLM features
Prompt versions, evaluation sets, model routing and cost tracking for generative AI features managed through the same pipelines as other models.
Industries
Industries we apply this to
Why Softweb Planet
Why teams choose us for this work
Model releases on your existing delivery pipeline
Our DevOps and SRE engineers work with CI/CD, Kubernetes, AWS and Google Cloud, so model releases use the same pipelines, rollbacks and alerting as your application code rather than a parallel process.
ML and platform engineers working together
Our senior AI/ML engineer sits with the DevOps team, so platform decisions reflect how models are actually trained, evaluated and debugged.
Right-sized, not over-built
We recommend the lightest setup that solves your problem and expand to a full platform only when the number of models and teams justifies it.
Pipelines your team can run without us
Each engagement has a named lead and a written scope, with working pipelines to review every one to two weeks and runbooks your engineers can follow on their own after handover.
What you can expect
- Every production model traceable to its data, code and evaluation results
- Model releases and rollbacks run through a pipeline instead of manual steps
- Drift and data problems caught early, with a clear runbook for the response
- Retraining that happens on schedule or on evidence, not when someone remembers
- Compute spend visible per model and kept in proportion to value
MLOps & Model Operations FAQ
Frequently asked questions
DevOps automates building, testing and releasing application code, while MLOps applies that discipline to machine learning, where behaviour depends on data as well as code. That adds data versioning, training pipelines, a model registry, evaluation gates before release and monitoring for drift and accuracy, not only uptime. In practice MLOps reuses your DevOps tooling, such as CI/CD, containers and infrastructure as code, and extends it for models.
You need MLOps once a model influences real decisions and will need updating, which is usually earlier than teams expect. Warning signs include models nobody can reproduce, retraining that depends on one person, releases done by copying files and no alert when accuracy drops. With one or two models a lightweight pipeline, registry and monitoring is enough. A fuller platform makes sense when several teams or many models are involved.
We detect drift by comparing live inputs and predictions with the training data and recent history, and by measuring real accuracy once outcomes arrive. Statistical checks flag shifts in feature distributions, missing values and prediction patterns, while delayed ground truth such as actual sales or confirmed fraud shows true performance. Alerts go to a named owner with a runbook explaining whether to investigate the data source, retrain or roll back.
There is no universal interval; retrain when data or performance evidence calls for it, or on a schedule that matches how quickly your domain changes. A demand forecast may benefit from weekly retraining, while a document classifier can stay stable for months. We usually combine a regular schedule with drift-triggered retraining, and every retrained model must beat the current version on a held-out test before it is promoted.
We release new versions as containers behind a stable API and shift traffic gradually, so the previous version keeps serving until the new one proves itself. Depending on risk, a candidate first runs in shadow mode, scoring live requests without affecting users, then takes a small share of traffic as a canary. If latency, errors or prediction checks breach limits, traffic returns automatically to the earlier version.
We choose tools to fit your existing platform rather than installing a new stack by default. Typical building blocks are Python pipelines, Docker containers, Kubernetes with Helm and Argo CD for deployment, GitHub Actions or GitLab CI for automation, Terraform for infrastructure and Prometheus with Grafana for monitoring. Experiment tracking and the model registry use an open-source option or your cloud's managed service, whichever your team will actually maintain. Where you already use managed machine learning services on AWS, Azure or Google Cloud, we build around them instead of replacing them.
Yes, and for most teams that is the right place to start. We refactor the existing training code into a reproducible pipeline, separate configuration from code, add data validation and automated evaluation, register the model artefact and deploy it behind an API with monitoring. Your data scientists keep working in familiar tools, while the path from experiment to production becomes repeatable, reviewable and no longer dependent on one person.
Yes, with a different emphasis. LLM applications usually call a hosted model rather than train one, so the focus moves to versioning prompts, retrieval settings and model choices, running evaluation sets before each release, tracing requests, and tracking cost and latency. The release discipline stays the same: every change is tested against agreed cases, rolled out gradually and reversible if quality drops.
Taking one production model through versioning, automated training, deployment and monitoring is typically a focused first phase of a few weeks after discovery. The main drivers are how many models you run, your current infrastructure and how much existing training code needs refactoring. Onboarding further models is quicker once templates exist, and a shared multi-team platform is delivered in stages you review every one to two weeks.
Cost depends on scope, and the main question is whether you need one model's pipeline or a platform shared by several teams. Other drivers are the number of models and environments, how much training code must be refactored and your security requirements. After a discovery call we provide a written proposal with a fixed quote for the agreed scope, plus an estimate of ongoing GPU, storage and monitoring costs, with idle training resources and oversized endpoints designed out from the start.
Training data snapshots and model artefacts stay in your cloud account and chosen region, readable only by the pipelines and named people that need them. Each artefact in the registry is stored with a checksum, so the file deployed is provably the one that passed evaluation. Pipeline logs are kept free of raw personal data, secrets live in a managed vault, and every train, approve and deploy action is recorded. We work within your existing security and compliance requirements.
Yes, and the platform is designed with that in mind. Pipelines, infrastructure code, dashboards and runbooks live in your repositories and cloud accounts, and we document how to train, release, monitor and roll back each model. Your engineers and data scientists learn by running real releases with us during the project. Afterwards you can operate it alone or ask us for ongoing support, upgrades and model onboarding.
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