Capture and ingestion
Upload or live capture with frame rate, resolution and orientation normalised, and metadata recorded so a later reanalysis is reproducible.
Solution
Applications that extract measurements from images and video: tracking movement, reading conditions, and turning frames into numbers a person can act on.

Overview
Computer vision is useful when the information you need already exists as an image and the alternative is a person watching and writing things down.
The work divides into detection, tracking and measurement. Detection finds the thing in a frame, tracking follows it across frames, and measurement turns the trajectory into a number with units.
The measurement step is where most projects succeed or fail, because a pixel path is only meaningful once it is calibrated against something real.
Teams extracting useful observations from images or recorded video, with a defined tolerance for uncertainty.
Separate detection, tracking and measurement. A pixel trajectory needs calibration before it becomes a physical measurement. Evaluate lighting, camera angle, occlusion and device quality with representative footage before choosing an approach.
Modules
Upload or live capture with frame rate, resolution and orientation normalised, and metadata recorded so a later reanalysis is reproducible.
Object, marker or pose detection per frame, chosen against the accuracy the measurement needs rather than the most elaborate model available.
Association of detections across frames into a continuous path, with smoothing and gap handling when a frame misses.
Pixel to real world scaling from a known reference, so outputs carry units. Without calibration a path is a picture, not a measurement.
Overlays synchronised to the video, scrubbing, frame stepping and side by side comparison between attempts or time periods.
Velocity, displacement, angle, timing, count and dwell, computed from the tracked path and defined explicitly.
Queued jobs with progress reporting, retries and a cost ceiling, because video processing is slow and expensive enough to need both.
Retention rules, access control, and blurring or discarding of identifiable material where the use case does not require it.
Architecture
A typical implementation flow, with explicit responsibilities at each boundary.
Validate footage, orientation, duration and processing consent.
Run bounded detection and tracking jobs with versioned model settings.
Show source footage alongside results, uncertainty and controls for human interpretation.
Security and controls
Restrict identifiable footage, define retention and keep upload access private. Rate-limit expensive jobs and cap processing cost. Do not claim biometric or safety accuracy that evaluation has not established.
We select the final stack after reviewing your existing systems and operating requirements.
Security and IP practicesFAQ
It depends on capture conditions, frame rate and calibration, and it is measured against known references during the build rather than claimed in advance. We report the accuracy we achieve on your footage.
Detection and tracking can run on device for short clips on current hardware, which removes upload time and keeps footage local. Longer or higher resolution work is better queued to a server.
Without a known reference in the frame, the system can tell you a path in pixels but not in centimetres. Calibration is what turns a picture into a measurement.
In object storage you own, with a retention policy set per use case and signed short lived links for playback. Footage is not kept longer than the purpose requires.
No. We do not build facial recognition or identification systems. The work here is movement, object and condition measurement.
It scales with clip length, resolution and the model used. Jobs are queued with progress reporting and a cost ceiling so a long upload never runs away.
Tell us where the current process breaks down. We can map the workflow, examine the integration requirements and define a practical scope for the build.