Computer vision managed services

Managed Computer Vision Services

Models that were accurate at launch drift as lighting, cameras and products change. We monitor, maintain and retrain your computer vision models in production, so accuracy holds up and your team doesn't carry the pager.
  • Drift and accuracy monitoring
  • Relabelling and retraining
  • Staged rollouts with rollback
model-health · sample dashboard
Drift alert
Weekly precision · pallet-damage detector v1.3Threshold 0.90
0.950.900.85W1W2W3W4W5W6W7W8W9W10
Drift alert, week 7: precision 0.88, below 0.90. Low confidence rising on night-shift frames.

1/4Accuracy, confidence and latency are tracked in production. A drop below the agreed threshold raises an alert.

Why it matters

A vision model is never finished

The world in front of the camera keeps changing. Without monitoring, accuracy slips quietly until someone notices wrong alerts or missed defects.

Maintenance is the most ignored line in most budgets. Our cost breakdown of a computer vision system puts ongoing retraining, monitoring and fixes at roughly 15–40% of the original system cost per year.

  • Lighting and seasons

    Night shifts, glare and winter light look nothing like the training data.
  • Cameras move

    A bumped or replaced camera changes angles, focus and resolution.
  • New products

    New packaging, uniforms or SKUs appear that the model has never seen.
  • Infrastructure

    Devices overheat, drivers update, streams drop and latency creeps up.
TopicDeploy and hopeManaged by AxcelerateAI
DriftFound weeks later, from user complaintsCaught by thresholds on accuracy and confidence
RetrainingAd hoc, when someone has timeScheduled or triggered, focused on hard cases
ReleasesSwap the model and watch what breaksValidation gate, shadow run, staged rollout, rollback
OwnershipFalls on whoever built the first versionA named team with agreed response times

How it works

Monitor, relabel, retrain, redeploy

A closed loop that turns production mistakes into better models, with a person checking every step that changes what runs in production.

  • Works with models we built and models you built
  • Cloud, on-prem and edge fleets
  • Model weights versioned like code
  1. Stage 1

    Agree the baseline

    We measure current accuracy on a representative test set and agree thresholds for accuracy, confidence and latency that reflect your business risk.
    Baseline and alert thresholds
  2. Stage 2

    Monitor in production

    Latency, throughput, confidence distributions and device health are logged continuously, and accuracy is checked on regularly reviewed samples.
    Health dashboardPrometheusGrafana
  3. Stage 3

    Alert and triage

    When a threshold is crossed we find the cause: new data, a model weakness, or a hardware and pipeline issue. Not every alert needs retraining.
    Root cause and fix plan
  4. Stage 4

    Collect and relabel

    Active learning pulls the frames the model is least sure about. Annotators label them to the agreed guidelines, with quality checks.
    New labelled examplesCVATActive learning
  5. Stage 5

    Retrain and validate

    A candidate model is trained and must beat the live model on a fixed test set, including slices for the conditions that caused the drift.
    Approved model versionPyTorchMLflow
  6. Stage 6

    Roll out safely

    The new version runs in shadow mode, then goes to a canary site and the wider fleet, with the previous version ready for rollback.
    Updated fleet, loop restartsDockerKubernetesNVIDIA Triton

What's covered

Everything after go-live

We scope the service to how critical the system is. These are the parts teams usually hand over.

  • Computer vision monitoring

    Drift detection on accuracy and confidence, plus latency, throughput and error tracking with alerts.
    Early warning before users notice
  • Model maintenance and retraining

    Active learning pipelines, relabelling and regular retraining so the model keeps up with real conditions.
    Scheduled and on-demand model refresh
    Model training service
  • Edge fleet updates

    Over-the-air model updates for NVIDIA Jetson and other devices, rolled out in stages with rollback.
    Devices kept on known-good versions
    Edge deployment
  • Infrastructure and cost

    Batching, caching and right-sized GPUs, because inference often becomes the largest long-term cost.
    Lower GPU spend at the same speed
    What drives CV costs
  • Support and incidents

    A named team that fixes pipeline bugs and incidents, with coverage and response times set in your contract.
    Escalation path agreed up front
  • Reporting

    Regular reports on accuracy, incidents and changes, so stakeholders can see the system is doing its job.
    Clear record of every model version

At production scale

We build systems meant to run for years

Property image intelligence for PropTexx

Real estate platforms receive huge volumes of broker photos. We built a distributed pipeline of YOLO-based detection and segmentation models that tags property features and flags compliance problems such as faces, licence plates and watermarks.
  • Millions of images processed monthly
  • About 250 ms per image
  • 50+ property features and 15+ compliance violation types
Kitchen listing photo with automatically detected features labelled, including kitchen island, range hood, double oven and tile floor
Features detected and tagged on a single listing photo.

Edge fleets that keep improving

Cameras and devices in the field face the most drift: weather, dust, new layouts. Edge devices run inference locally and send hard examples back for retraining, and updates return over the air. Read how we approach hybrid edge and cloud operations.
  • Device health and model accuracy in one view
  • Hard examples collected without streaming video
  • Staged over-the-air updates
Diagram: a camera streams to an NVIDIA Jetson Nano that runs object detection, marks a defective can and alerts a desktop
A Jetson-based inspection pipeline of the kind we monitor and update.

MLOps infrastructure

Runs where your data is allowed to be

We containerise pipelines with Docker and Kubernetes and serve models with NVIDIA Triton where it fits, in your cloud account, on your servers or on edge devices.

  • Deploy in your own cloud or on-premises
  • Model weights and configuration versioned in a registry
  • Automated CI/CD for model releases
  • Access limited to what the service needs

Getting started

Start with a health check

Whether we built the model or not, we first find out how it is really performing.

  1. Step 1: Health check

    Review

    We review the model, pipeline and infrastructure, and measure accuracy on fresh production data.

    • Clear list of risks
  2. Step 2: Set up the loop

    Onboarding

    Monitoring, alert thresholds, labelling guidelines and a release process are put in place.

    • Baseline agreed with you
  3. Step 3: Ongoing operation

    Ongoing

    We monitor, retrain and redeploy, and report back on accuracy and incidents.

    • Response times in your contract

FAQ

Questions, answered

Common questions about monitoring, maintenance and support.

Need engineers inside your own team instead? Hire computer vision developers.

  • We take responsibility for keeping your computer vision system accurate and running after launch: monitoring, relabelling, retraining, redeploying and fixing issues, so your internal team can focus on product work.

Book a strategy session

Talk to an AI engineer about your project

Tell us what you want to automate. The first call is a 30-minute working session with an engineer, not a sales pitch.

  • Send the form, it takes 2 minutes
  • We reply within 1 business day, under NDA if you need it
  • A 30-minute call to scope feasibility and next steps

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