Computer Vision Development

The computer vision development company that starts with your dataset

BinaryBrill is a computer vision development company building systems that read images and video — defect detection, object counting, OCR, image recognition and safety video analytics AI that hold up on a real production line, not just a curated test set. You get computer vision solutions for business built by in-house senior engineers who start with the dataset and the annotation strategy, because that is what most vision projects actually fail on.

A senior engineer replies within 24 hours — not a sales rep.

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

Why most computer vision projects stall between demo and the shop floor

The model is fine. The dataset is the problem.

Teams arrive convinced they need a cleverer architecture when the real limit is a few hundred inconsistently labelled images, half of them shot in different lighting from the camera that will run in production. A vision model can only learn the distinctions your labels actually mark, and no amount of tuning fixes a dataset that never contained the defect you care about.

It worked on the sample and failed on the line

The prototype scored well on a curated folder of clean images. In the plant the camera meets glare, motion blur, a new product variant nobody mentioned and a night shift with different lighting. Accuracy measured on tidy data tells you almost nothing about accuracy on the images the system will actually see.

So many false alarms the operators switched it off

A detector tuned to miss nothing flags everything, and within a week the people it was meant to help are ignoring it or muting it entirely. The false-positive rate a team can realistically act on is a design constraint, not an afterthought — a model nobody trusts is worse than no model, because it still cost you the build.

There's no way to run it where the cameras are

Streaming continuous video to the cloud for inference runs into bandwidth limits, latency your process can't wait for, or a privacy rule that forbids footage leaving the site. If nobody worked out where the model has to run before it was built, the version that scored well in a notebook has no home on the factory floor.

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

How a computer vision development company should actually work

Most of the outcome in a vision project is decided before any model is trained — in what you can capture, how it is labelled, and where the thing has to run. We spend our time there, because that is where vision systems are won or lost.

The dataset and annotation strategy come first

Before any training we look hard at what you can capture and how it will be labelled: which classes matter, how edge cases get marked, who arbitrates disagreements between annotators, and whether the images represent the conditions the camera will really see. It is unglamorous work and the single biggest lever on the result.

Tested against the conditions the camera actually meets

We evaluate on images drawn from the real environment — the glare, the angles, the variants, the night shift — not a clean sample. Where the data is thin we use augmentation and staged capture to cover the hard conditions deliberately, rather than discovering them in production once a customer has.

Thresholds tuned to the false-positive rate you can staff

Detection is a trade-off between misses and false alarms, and the right balance depends on what your operators can realistically handle. We tune the threshold against that tolerance and show you the precision-recall curve behind the choice, so the setting is a business decision you made rather than a default you inherited.

Where it runs is decided before it's built

Edge or cloud, GPU or CPU, real-time or batch — we settle the deployment target up front, because it constrains the model. When bandwidth, latency or a privacy rule rules out cloud inference we build for constrained hardware from the start, exporting to ONNX or TensorRT and running on devices like NVIDIA Jetson at the site.

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

What this covers

Pick the piece you need, or bring us the problem and we'll tell you which applies.

Defect & Quality Detection

Vision on the production line that catches surface flaws, missing components and assembly errors the process moves too fast for a person to see reliably. The work is mostly in the dataset — capturing enough examples of each defect, including the rare ones — and in setting a threshold that catches what matters without stopping the line for every shadow.

  • Models trained on your own line footage, including the rare defects that matter most
  • Detection and segmentation using PyTorch, YOLO or Detectron2
  • Threshold tuning against the false-positive rate your line can absorb
  • Edge deployment beside the camera where cloud inference is too slow or not allowed

Object Detection & Counting

Locating and counting things in a frame — parcels, vehicles, people, stock — where a manual tally is slow, error-prone or simply impossible at volume. Accuracy hinges on handling occlusion, overlap and objects at the edge of the frame, which is where naive counters quietly undercount.

  • Detection and tracking across frames so moving objects aren't counted twice
  • Counting under occlusion and overlap, tuned to your camera angles
  • Zone and line-crossing logic for entries, exits and dwell time
  • Real-time on edge hardware or batch over recorded footage, whichever fits

OCR & Document / Label Recognition

Reading text off images — labels, serial numbers, container codes, forms and scanned paperwork — into fields your systems can use. General OCR gets you most of the way; the value is in handling your specific fonts, layouts and the damaged or angled labels a generic engine gives up on.

  • Text detection and recognition tuned to your labels, fonts and layouts
  • Handling of skew, glare, low contrast and partially damaged text
  • Structured extraction into typed fields with a confidence score per read
  • A review path for low-confidence reads instead of a silent wrong value

Image Recognition Development Services

Image recognition development services for classifying and recognising what an image contains — product category, condition, brand, species, document type. The engineering that decides whether it holds up is the labelling scheme and the evaluation set, not the choice of backbone, so that is where we start.

  • Classification and fine-grained recognition trained on your labelled images
  • Visual search that finds the closest matches in your own catalogue
  • Evaluation on images from the real environment, not a curated sample
  • Confidence thresholds that route uncertain images to a person

Video Analytics AI & Safety Monitoring

Video analytics AI that watches a live or recorded stream for the events that matter — people in a restricted zone, missing PPE, a vehicle where it shouldn't be, a queue building. The point is to alert a person in time to act, with few enough false alarms that they keep paying attention.

  • Real-time event detection on live camera feeds with alerting to the right person
  • People, vehicle and zone monitoring that counts and flags without identifying individuals
  • Alarm rates tuned so operators trust the system rather than mute it
  • Edge processing on site where footage can't leave for privacy or bandwidth reasons

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

The stack we build on

Chosen to fit the problem — not because it's what we used last time.

Models & frameworks

  • PyTorch
  • OpenCV
  • YOLO
  • Detectron2
  • torchvision
  • Ultralytics

Data & annotation

  • CVAT
  • Label Studio
  • Roboflow
  • FiftyOne
  • Albumentations

Edge & serving

  • ONNX Runtime
  • TensorRT
  • NVIDIA Triton
  • NVIDIA Jetson
  • Docker

Cloud vision & MLOps

  • AWS Rekognition
  • Google Cloud Vision
  • Azure AI Vision
  • MLflow
  • Weights & Biases

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

How we'll work together

Every stage ends with something in your hands — not a status update.

  1. 01

    Dataset and annotation review

    We start with the images, not the model: what you can capture, how much of it exists, how it is labelled and whether it covers the conditions the camera will meet in production. Often this reshapes the scope, and it is far cheaper to find a gap here than after a model has been trained around it.

    You get: A dataset assessment covering coverage, label quality and the conditions still missing, an annotation guideline, and a prioritised plan for the data you need to capture or relabel.

  2. 02

    Spike the hardest case with a score

    We build the single hardest slice first — the defect that hides in shadow, the class the model keeps confusing, the object at the edge of the frame — and score it against images from your real environment. If the capability isn't achievable at the quality you need, you find out in weeks.

    You get: A working spike against your own footage, a scored result on the hardest cases with a precision-recall read, and a clear recommendation to continue, adjust scope or stop.

  3. 03

    Harden into a service on the right hardware

    The spike becomes a versioned service on the deployment target we agreed — a cloud endpoint, or an optimised model exported to ONNX or TensorRT running at the edge. It gets typed inputs and outputs, logging of the frames it acted on, and documentation your team can build against immediately.

    You get: A deployed vision service or edge build with API documentation, a staging environment, and the evaluation suite wired into your pipeline.

  4. 04

    Deploy, tune thresholds and monitor

    Once real images arrive we tune the decision threshold against the false-positive rate your operators can handle, and watch for the model drifting as products, cameras or seasons change. Retraining is a defined procedure, not a rebuild.

    You get: The production deployment, dashboards for accuracy and throughput, an alerting configuration for drift, and a retraining runbook your engineers can operate.

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

Where we've applied this

Manufacturing

Surface-defect and assembly-verification models trained on your own line footage and deployed at the edge, catching flaws the line moves too fast for a person to reliably see.

Logistics & warehousing

Pallet, parcel and vehicle counting from cameras already mounted in the yard, plus label and container-code recognition that reads what the handheld scanner missed.

Retail

Shelf-gap and planogram monitoring from in-store cameras, and footfall or queue analytics that respect privacy by counting people without identifying them.

Healthcare

Imaging triage support that flags studies for a specialist's attention, with every prediction reviewed by a clinician and the model version behind it retained for audit.

Construction & site safety

Video analytics for PPE compliance, exclusion-zone breaches and vehicle-pedestrian proximity, alerting a supervisor in time to act rather than replacing one.

Agriculture & food

Grading and sorting of produce by size, ripeness or defect on a moving line, plus count and yield estimates from field and greenhouse imagery.

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

Questions buyers ask us

How do we know computer vision is the right tool for our problem?

The test is whether a competent person could make the call from the image alone. If a trained eye can see the defect, read the label or spot the breach in the picture, a vision model can usually be taught to do it at scale — provided you can capture enough representative examples. If the judgement needs context the camera can't see, or the thing you care about isn't reliably visible, vision is the wrong tool and we'll say so during discovery.

Start with a cloud vision API — AWS Rekognition, Google Cloud Vision or Azure AI Vision — when the task is generic: reading printed text, detecting common objects, moderating content. They're fast to integrate and you pay per call. You move to a custom model when the task is specific to you — your defects, your products, your labels — when off-the-shelf accuracy isn't good enough, or when a per-image cost or a privacy rule rules out sending images to a third party. Often the answer is a mix.

It depends on how subtle the distinction is, but useful models often start in the low thousands of labelled images per class, and fine-tuning a pretrained model needs far less than training from scratch. Having none is a normal starting point — the first phase is a capture and annotation plan, and sometimes staged capture or augmentation covers the rare cases you can't wait to observe naturally. What kills accuracy isn't low volume so much as labels that are inconsistent between annotators.

Data first, deployment target second, accuracy bar third. If the labelled images don't exist yet, capture and annotation is frequently the largest line item; a model that runs on constrained edge hardware takes more work than a cloud endpoint; and moving from decent to reliable takes far more iteration than getting to decent. On timeline, a scored spike on the hardest case is usually a few weeks and a hardened, deployed system a few months — longer with no dataset to start from, because rushing annotation produces a model that fails on exactly the cases you built it for.

Yes, and often it should. Where bandwidth, latency or a privacy rule makes streaming video to the cloud impractical, we build for the edge from the start — exporting the model to ONNX or TensorRT and running it on devices like NVIDIA Jetson beside the camera. That keeps footage on your premises and inference fast enough for a real process. It does constrain model size, which is exactly why the deployment target is decided before the model is chosen, not after.

None honestly, before we've seen your images — anyone quoting a number blind is guessing. What we commit to is measuring it early: a scored spike on the hardest cases, using data from your real environment, tells you the achievable accuracy within the first phase. If it's below what your process needs, we'll say so rather than build it. And accuracy is two numbers, not one — the miss rate and the false-alarm rate trade against each other, and which matters more is your call.

No. Your images stay within your environment and your accounts wherever the architecture allows, and they aren't used for anything outside your project. Trained weights from models we build on your data are yours. Where a cloud vision provider sits in the design we tell you exactly which one, what leaves your premises and under what retention terms before you approve it — and for footage that can't leave at all, edge deployment keeps it on site.

When the signal isn't reliably in the image — if lighting, occlusion or camera position means the thing you care about often isn't visible, no model recovers it. When a sensor is cheaper and more reliable than a camera, use the sensor. When you need a guaranteed exact answer every time, a probabilistic model is a liability. And when you can't capture representative data, the project isn't ready. We'd rather establish that in discovery than bill you to find it out.

Our own in-house engineers in Sahibzada Ajit Singh Nagar, Punjab — 45+ of them, with over a decade of combined delivery experience, delivering for clients in 15+ countries. Nothing is subcontracted. You own the code, the repository, the trained weights and the pipeline from day one, and the person demonstrating the work each sprint is the person who built it.

BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT | BINARYBRILL - BRILLIANCE IN EVERY BIT

Tell us what the camera needs to see

Describe what you're trying to detect, read or count, and whatever you know about the images you can capture. A senior engineer replies within 24 hours with a straight read on the dataset you'll need, where the model would have to run, and whether the hardest part is achievable at the quality your process needs — including if vision is the wrong tool for it.