AI system for remote patient monitoring
- 20%
- reduction in clinical decision-making time
MLOps Services | Model Monitoring and Retraining
Model accuracy degrades as real-world data diverges from training data. Fraud detection that was 94% accurate at launch might be 81% accurate today. A recommendation engine that drove conversions six months ago is now surfacing irrelevant results. You find out when a business metric drops, not when the model starts failing.
We build MLOps systems that close the gap between AI deployment and AI maintenance: model monitoring, drift detection, automated retraining pipelines, and experiment tracking infrastructure. Every AI system we build comes with the operational layer it needs to stay accurate.
Model performance monitoring with custom metrics aligned to business outcomes, not just accuracy
Data drift detection that fires alerts when incoming data diverges from training distribution
Automated retraining pipelines triggered by drift thresholds, not calendar schedules
Experiment tracking and model registry so every build decision is reproducible and auditable
Recent outcomes
Voice AI · Research
6× deeper insights
Text-based interviews converted to automated phone calls
AI Automation · Ops
20k+ txns day one
Manual invoice OCR across 40+ gas stations
Loyalty · Retail
1,062 users in 4 weeks
SuperValu & Centra loyalty platform with receipt validation
SaaS · Logistics
2,000+ shipments yr 1
Multi-carrier shipping hub for Indonesian eCommerce
The problem
Do you know what your model's performance looks like today, compared to the day you deployed it?
When your AI output quality drops, how long before your business metrics tell you?
Short answer
RaftLabs builds MLOps infrastructure for production AI systems across the US, UK, Europe, Canada, GCC, South Africa, and Southeast Asia: model monitoring, drift detection, and automated retraining pipelines. 20+ AI products shipped. Fixed-price delivery after a 1-week discovery phase that locks scope before development starts.
Key takeaways
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A model that was accurate when you deployed it is rarely accurate two years later at the same level. The data changes. Customer behaviour evolves. New product types appear that the model has never seen. Fraud patterns shift. Seasonal patterns create distribution shifts the training data did not represent.
According to a Gartner May 2026 prediction, only 40% of organizations deploying AI will implement dedicated observability tools to monitor model performance by 2028, meaning the majority of production AI systems are running without the instrumentation needed to detect degradation before it becomes a business problem.
Without monitoring, you find out from the business metric, not the model metric. Conversions drop. Fraud losses climb. Customer complaints increase. By the time the downstream signal reaches you, the model may have been underperforming for months.
MLOps infrastructure catches the degradation at the source.
Capabilities
Continuous tracking of model output quality using metrics tied to your business outcomes, not just generic ML metrics. Classification models get precision, recall, and F1 by class plus the business metric that matters, like fraud dollars caught versus false positive rate. Per-prediction logging feeds your data warehouse, alert thresholds are calibrated from the first weeks of production data, and alerts route to the model owner, not the general on-call.
Statistical monitoring of incoming feature distributions against training baselines, using tests matched to each feature type. Thresholds are weighted by feature importance, so drift on a high-signal feature alerts while the same drift on a low-signal feature stays quiet. Concept drift gets its own treatment: sliding-window performance monitoring where labels arrive fast, proxy metrics and change detection where they lag. Dashboards rank drifting features by estimated business impact.
Trigger-based retraining pipelines that rebuild models when drift thresholds are crossed, not on a fixed calendar schedule. Every retrained model passes validation gates: held-out accuracy, business-logic assertions, and known edge cases. Passing models go to shadow mode before full promotion, and the previous champion stays in production for immediate rollback. Failed validation alerts the model owner with the exact assertion that failed.
Experiment tracking infrastructure configured for your team's workflow. Every training run logged with parameters, metrics, data version, and code version. Model registry with staged promotion from development to staging to production, plus champion-challenger tracking for A/B tests between model versions. Reproducible environments with dependency pinning so any experiment can be recreated six months later, the audit trail that makes AI development a managed engineering process rather than a series of undocumented experiments.
Centralised feature storage that makes model features consistent between training and serving. An online feature store handles low-latency retrieval at inference time; an offline store handles training data preparation and backtesting. Feature versioning and lineage tracking eliminate training-serving skew, and for teams with multiple models consuming the same features, the feature store avoids redundant computation and inconsistent definitions across models.
End-to-end MLOps platform setup on your cloud infrastructure or self-hosted. Pipeline orchestration, container-based training environments, and model serving infrastructure with auto-scaling and canary deployments. Infrastructure as code so your entire MLOps stack is version-controlled and reproducible, integrated with your existing CI/CD pipelines and data infrastructure. Built for your team to operate and extend independently after delivery.
How we work
Every MLOps engagement follows the same four phases. Scope is locked and price is fixed before development starts.
We assess your current model infrastructure, data pipelines, deployment environment, and monitoring gaps. You leave week 1 with a written scope document and a fixed-price quote covering exactly which monitoring, drift detection, and pipeline components will be built. No development starts without your sign-off.
We design the monitoring schema, drift detection thresholds, alert routing, and retraining pipeline architecture before writing production code. Decisions made here cost far less than the same decisions made in week 8. The technical spec is locked before the build starts.
Monitoring infrastructure deployed to a staging environment by the end of sprint one. Bi-weekly demos. Integration tests run against your model endpoints and data pipelines. QA runs in parallel with every sprint, not as a phase at the end.
Production deployment with monitoring dashboards and alerting activated on launch day. 8 weeks of post-launch support included. Retraining pipeline validated with real production drift scenarios before handoff.
Why us
The engineers who assess your model infrastructure also build the monitoring and retraining systems. No bait-and-switch, no offshore handoff after the contract is signed. The team you meet in week 1 ships in week 10.
We scope the work, calculate the cost, and lock it in writing before any development starts. A scope change is a change request: priced, agreed, or dropped. It never absorbs into the project and appears on the final invoice.
Clients include Vodafone, T-Mobile, Aldi, Nike, Cisco, and Lockheed Martin. Track record across AI, SaaS, mobile, automation, and enterprise platforms across healthcare, fintech, logistics, and hospitality.
HIPAA, GDPR, SOC 2 - compliance requirements are scoped in week 1, not retrofitted before launch. We have shipped HIPAA-compliant AI systems for US healthcare clients and GDPR-compliant products for European markets. MLOps infrastructure handles sensitive model inputs and outputs; audit trails and access controls are built in, not bolted on.
30 minutes. You walk away with a clear cost, timeline, and team. No commitment.
What clients say
Three-year average engagement. Founders and operators describing the work in their own words. No marketing varnish.

All of the sprints were completed on schedule and on budget. We highly recommend RaftLabs!
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Read moreMLOps, machine learning operations, is the set of practices and infrastructure that keeps AI models performing reliably in production over time. Most AI projects focus heavily on model development and treat deployment as the finish line. In practice, deployment is where the ongoing work begins. Real-world data changes constantly: customer behaviour shifts, product catalogues expand, fraud patterns evolve, sensor environments change. A model trained on historical data gradually becomes a model trained on the wrong data as the world it was built to understand diverges from the world it is asked to predict. MLOps puts monitoring and maintenance infrastructure in place before this becomes a problem. Model monitoring tracks key metrics continuously. Drift detection identifies when incoming data no longer matches the training distribution. Automated retraining pipelines rebuild and validate the model when drift thresholds are crossed. Experiment tracking ensures every model version is reproducible. These systems turn AI from a one-time build into a maintained capability.
Data drift occurs when the statistical properties of the input data your model receives in production diverge from the data it was trained on. There are two types that matter. Feature drift means the inputs themselves are changing, your customer demographics are shifting, transaction volumes are moving, or the distribution of product categories in your catalogue has changed. Concept drift means the relationship between inputs and correct outputs has changed, fraud tactics have evolved, customer preferences have shifted, or the macro environment has changed the meaning of the signals your model uses. Feature drift is detectable statistically by comparing incoming data distributions to training data. Concept drift is harder to detect because it requires ground truth labels from production, which often arrive with a delay. Our monitoring design accounts for both. For each use case, we define the appropriate drift metrics, detection thresholds, and alert logic based on how quickly drift translates to business impact in your specific context.
Automated retraining pipelines work in three stages: trigger, retrain, and validate. The trigger is a drift threshold, when model performance metrics or data distribution metrics cross a defined boundary, the pipeline fires. Retraining pulls fresh labelled data from your data pipeline, combined with historical training data, and runs the model training job in a reproducible environment. Validation runs the retrained model against a held-out evaluation set and a set of business-logic tests before it is promoted to production. If the retrained model fails validation, it does not deploy and the team is alerted. If it passes, it deploys through your standard deployment pipeline and the previous model version is retained for rollback. The trigger thresholds and validation criteria are defined during scoping based on how sensitive your use case is to model degradation. Some contexts warrant retraining when drift crosses a statistical threshold. Others require business metric confirmation. We design the pipeline around the tolerance for false positives and false negatives in your specific application.
Application monitoring watches whether the system is up and responding: response times, error rates, infrastructure health. MLOps monitoring watches whether the outputs are correct: whether the model's predictions are still accurate, whether the data flowing through the system still looks like it should, and whether business metrics tied to AI output are tracking as expected. Both matter, but they catch different failure modes. Application monitoring tells you the API is returning 200. MLOps monitoring tells you the answers it is returning are wrong. For AI systems where accuracy directly affects revenue, fraud exposure, or customer experience, monitoring only the application layer is a significant gap. We integrate with your existing application monitoring infrastructure and add the model-specific monitoring layer on top.
MLOps engagements vary in scope. A focused monitoring and drift detection layer for a single production model typically runs between $15,000 and $40,000 depending on the number of features monitored, the complexity of alert routing, and the monitoring tooling selected. A full MLOps platform build including experiment tracking, model registry, automated retraining pipelines, and feature store integration starts around $50,000 and scales with the number of models, data sources, and cloud environment complexity. All engagements are scoped at a fixed price after a 1-week discovery phase. You receive a written quote before any development starts.
The stack depends on your existing infrastructure and team. For experiment tracking and model registry, we work with MLflow and Weights and Biases. For pipeline orchestration, we use Apache Airflow, Prefect, and AWS SageMaker Pipelines. For model monitoring, we deploy Evidently AI or Arize, or custom Prometheus-based monitoring exported to Grafana. Data versioning is handled with DVC. Infrastructure is defined as code using Terraform. We work across AWS SageMaker, Azure ML, and Google Vertex AI. We do not have a preferred vendor lock-in, the right tool for your team and infrastructure is the right tool for the job.
Work with us
We scope MLOps Services in 30 minutes. You walk away with a clear cost, timeline, and approach. No commitment required.