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Computer vision

Make the scene conditions part of the model.

Werkon builds vision systems around the image before the prediction: device, light, angle, distance, scale, motion, occlusion, background, compression, privacy, and the evidence a person needs to accept or reject the result.

Vision-task contract

Define the scene, visual unit, label, and decision together.

The vision boundary begins where an image or frame is captured and ends after a validated result, review or abstention, downstream action, feedback, and retention decision. It includes the physical and digital transformations between those points.

Inputs

Task and consequence
Image, frame, clip, object, region, pixel, text, pair, or sequence unit; class, location, mask, measurement, reading, comparison, or anomaly output; users; current method; error consequences; and human authority.
Capture and scene
Device, sensor, lens, placement, resolution, color, frame rate, lighting, range, angle, scale, motion, focus, background, occlusion, weather, compression, preprocessing, timestamp, and calibration.
Dataset and annotation
Source and capture provenance, rights, consent, privacy, retention, scene and subject coverage, label and region guide, annotator expertise, disagreement, difficult cases, duplicates, splits, leakage, and deletion.
System and operation
Model and baseline, device or server runtime, latency, volume, storage, identity, permissions, thresholds, abstention, review, integration, action, monitoring, attacks, incidents, change, rollback, and manual fallback.

Outputs

Capture and scene specification
Supported devices and image formats, placement, acceptable quality, scene conditions, calibration, privacy boundaries, prohibited capture, preprocessing, metadata, failure states, and operator guidance.
Versioned visual dataset
Lawful source images with capture provenance, annotation and region evidence, scene and subject segments, difficult and adversarial cases, protected splits, leakage checks, access, retention, deletion, and reproducible transforms.
Traceable vision component
A bounded classifier, detector, segmenter, reader, comparator, or anomaly step that returns source identity, image region, result, confidence or uncertainty, quality state, model version, and review status.
Evaluation and operating pack
Baseline and candidate evidence by scene and consequence, error analysis, stress and attack results, thresholds, abstention and reviewer load, dashboards, capture checks, feedback, incident response, revalidation, rollback, and handover.

Vision path

Observe the camera workflow before choosing a model.

Many vision failures start before inference through inconsistent placement, lighting, focus, calibration, framing, or operator behavior. The first work is to understand and, where practical, improve the capture system.

  1. 01

    Observe scenes and decisions

    Follow how images are captured and used, document devices, environments, variability, privacy, operator actions, current judgments, downstream consequences, errors, and conditions that make a result impossible.

  2. 02

    Sample and annotate conditions

    Collect lawful representative scenes, preserve capture metadata, write label and region guidance, measure annotator disagreement, include rare and poor-quality cases, and create protected splits without related-image leakage.

  3. 03

    Compare capture and model baselines

    Test better positioning or lighting, deterministic image processing, operator guidance, existing services, and model candidates under the same scene, segment, consequence, and review measures.

  4. 04

    Challenge the complete path

    Exercise blur, glare, darkness, distance, angle, scale, occlusion, clutter, motion, compression, novel objects, corrupted files, adversarial changes, unavailable devices, invalid outputs, and downstream failure.

  5. 05

    Run in shadow and monitor scenes

    Compare against current decisions without immediate consequence, inspect regions and errors, tune abstention and review, stage authority, monitor scene distribution and capture health, and retain rollback and manual inspection.

Vision task

Choose the output shape from the decision that follows.

A whole-image label, object box, pixel mask, and text record answer different questions. Choosing the wrong output can make a strong benchmark useless to the actual workflow.

01One scene-level label is sufficient

Whole-image classification

Classify an image or frame when the decision depends on a defined overall state and the label remains meaningful despite variation in object position, scale, and background.

Evidence: Class guide, scene coverage, confusion matrix, per-class and per-condition results, calibration, unknown-class behavior, threshold, and review samples.

02The item and its location matter

Object localization

Detect instances and return regions when a user or downstream system must know what was found, where it appears, how many instances exist, or whether objects overlap.

Evidence: Box or point guide, small and crowded objects, missed and duplicate instances, localization measures, region review, threshold, tracking needs, and count errors.

03Shape, area, boundary, or extent matters

Segmentation or measurement

Return pixel or region masks when the downstream decision depends on geometry, coverage, contour, distance, area, volume proxy, or separation between touching regions.

Evidence: Mask guide, boundary disagreement, calibration, scale reference, per-region results, measurement error, edge cases, image resolution, and downstream tolerance.

04Visible language must become data

Document or scene text

Locate and read text when layout, rotation, handwriting or typeface, glare, perspective, language, and field relationships are part of the visual problem rather than plain text input.

Evidence: Region and transcription guide, language and script coverage, field-level results, layout and rotation cases, character and semantic errors, confidence, and source crop review.

Vision controls

Keep the frame, transformation, and region evidence connected.

Resizing, cropping, color conversion, compression, rotation, augmentation, and coordinate changes can alter evidence or break the link between a prediction and the scene a person must inspect.

Image lineage is reversible
Record source identity, device and capture metadata where lawful, hashes, transforms, crop and scale coordinates, model input, and mapping from returned regions to the approved original image.
Scene conditions are measured
Track device, light, range, angle, scale, motion, occlusion, background, compression, focus, environment, and other relevant factors so performance changes can be located rather than averaged away.
Abstention is a valid result
Reject unsupported formats, poor quality, out-of-scope scenes, novel objects, ambiguous regions, low confidence, privacy conflicts, and model or device failures into an owned recapture or review path.
Privacy and action stay outside the model
Enforce capture authorization, access, minimization, retention, deletion, identity, approval, and consequential state changes with server-side and operational controls. Do not let a visual prediction create authority.

Engagement fit

Use computer vision when visual evidence can be captured and acted on consistently.

Good reason to begin

  • A repeated visual task has a defined image unit, scene boundary, label or region, downstream decision, and measurable current baseline.
  • Representative lawful images, capture and device expertise, annotators, domain reviewers, system owners, and operators are available.
  • The workflow can preserve reviewable images and regions, abstain or request recapture, and stage authority before automatic action.
  • Scene, device, class, quality, review, workflow, and incident measures can be monitored with a manual fallback.

Resolve before beginning

  • The camera cannot see the required evidence consistently, the desired label is not visually observable, or capture conditions cannot be bounded enough to evaluate.
  • Image rights, subject consent, privacy, retention, deletion, security, or permission for the proposed capture and use remain unresolved.
  • The plan relies on a benchmark, vendor demo, or curated dataset without representative devices, scenes, protected evaluation, region evidence, and live-workflow review.
  • The requested use involves consequential biometric, medical, safety, or surveillance decisions without the required legal, domain, risk, and human-authority governance.

Source basis

Sources behind the control model.

  • 01

    NIST AI Resource Center

    AI RMF Core

    Current voluntary guidance calls for test sets and methods tied to deployment conditions, segment results, safety and security evaluation, monitoring, user and expert input, limitations, appeal, and feedback. AI RMF 1.0 is currently under revision.

  • 02

    National Institute of Standards and Technology

    Adversarial Machine Learning: A Taxonomy and Terminology of Attacks and Mitigations

    The March 2025 report describes attacks and mitigations across training and inference, including evasion and poisoning risks relevant to vision systems and the limits of proposed defenses.

[ WORKFLOW / SYSTEMS AUDIT ]
THE FIRST ENGAGEMENT

Start with one real workflow

A Systems Audit is the usual starting point. If the opportunity is already clear, we can move directly into a focused build.

Show Us the WorkflowStart with the free automation readiness checklist

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