Computer Vision Agency

As a computer vision agency, we build object detection, segmentation and tracking systems that run on your own edge hardware or inside your mobile. We handle dataset curation, task specific optimization, model training, quantization, and on-device integration, then hand over the weights and source code, and make sure you have a completed worry free system.

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Computer vision agency object detection

What we build

Object detection and segmentation

Custom YOLO and CNN models trained on your parts, products or scenes to detect objects, count items and isolate defects in live video.

Edge camera deployment

INT8 and FP16 model quantization and runtime integration on NVIDIA Jetson Orin Nano, Raspberry Pi 5 with Hailo-8L, or ESP32-S3.

Dataset annotation and training pipelines

Image collection, Roboflow annotation workflows and semi-automated labeling pipelines when no off-the-shelf dataset exists for your domain.

Camera calibration and geometry

ArUco marker pose estimation, perspective correction, motion-blur gating and region-of-interest cropping before frames reach the neural network.

Vision for robotics and machines

Closed-loop visual feedback wired into ROS 2 nodes, robot arms and factory line controllers so detections trigger physical actions in real time.

Mobile and backend vision APIs

Phone camera capture paired with FastAPI or Django inference endpoints, live dashboards and push alerts for operators in the field.

Where does the vision model run?

Depending on your power, latency and hardware budget, we run inference directly on the device or on your server:

  • NVIDIA Jetson Orin Nano (7–25 W): multi-stream video, full PyTorch or ONNX Runtime pipelines, and larger vision models.
  • Raspberry Pi 5 with a Hailo-8L accelerator (~1.5 W): real-time YOLO object detection at the camera without a data center round trip.
  • Phone camera + FastAPI backend: the mobile app captures and preprocesses frames while a cloud or on-premise server returns classifications and logs telemetry.

We compare the edge board trade-offs in ESP32-S3 vs Jetson Orin Nano vs Hailo-8L.

What if we don't have a labeled dataset yet?

Most custom computer vision development projects start with raw camera footage or a few sample parts rather than a clean dataset. We set up the capture protocol, annotate the initial batch in Roboflow, and build a semi-automatic labeling pipeline as the base model improves so your team isn't stuck labeling tens of thousands of frames by hand.

How do you handle motion blur, glare and tight crops?

A model is only as reliable as the frame fed into it. Before a frame reaches the detector, we write the OpenCV and geometric preprocessing around it:

  • Motion-stability gating: when a camera is mounted on a moving robot, we check IMU or kinematic angular rates before triggering capture so motion blur doesn't ruin small-object detection.
  • Marker and ROI alignment: we use fiducial markers and geometric transforms to mask, rotate and crop only the target surface into the model's native input resolution.
  • Two-stage boundary filtering: we run inference with a wider context margin and filter detections against a tighter inner boundary to reject edge reflections and false positives.

What computer vision work have you built?

  • JAXA-NASA Kibo Robot Programming Challenge (4th worldwide): we built the onboard vision and autonomous navigation pipeline for NASA's Astrobee robot on the International Space Station, turning a 1280×720 camera feed into ArUco-aligned 480×480 crops for landmark and target detection on legacy Android 7.1.1 hardware. Read the technical breakdown in Our Journey to the 6th Kibo-RPC International Round.
  • Diet Engine (published on ScienceDirect): a real-time food recognition phone app using YOLOv8 and deep CNNs that identifies meals from a smartphone photo with 86% classification accuracy and estimates macro and micronutrient breakdowns. See Diet Engine.
  • CORTEX-Health: quantized medical imaging models for edge deployment where INT8 optimization reduced inference time by 40% while preserving clinical diagnostic accuracy.

Can we hire you for just one part of the pipeline?

Yes. Some clients use us as their full computer vision development firm from camera selection to PCB, firmware and mobile app. Others bring a trained PyTorch model that runs too slowly and only need us to quantize it and deploy it onto a Jetson or Raspberry Pi. We scope only the part you need.

Tested against the world's best.

4th globally

JAXA-NASA Kibo RPC 2025

Autonomous robot control on the ISS: computer vision and zero-gravity path planning.

11th globally

International Rover Design Challenge 2023

Mars rover with terrain segmentation and 6-DOF arm inverse kinematics.

Stanford Online ML Specialization

Multiple team members certified in neural networks, optimization, and deployment.

Questions clients ask

How much does a custom computer vision project cost?

It depends on whether you already have a labeled dataset, a trained model, or target hardware. We start with a technical feasibility review, then give a fixed-scope or monthly quote for the build. The first consultation is free.

Who owns the trained weights and code?

You do. Every training script, quantized model file and firmware or backend repository is handed over to your team on completion.

Will you sign an NDA before looking at our images or hardware?

Yes. Most of our industrial and medical computer vision work is under NDA, and we sign yours before you share sample footage, schematics or requirements.

Do you work with teams in the US and EU?

Yes. We are based in Dhaka, Bangladesh and work remotely with hardware and product teams worldwide. You work directly with the engineers writing the vision and embedded code, with overlapping hours for live reviews.

The R&D Lifecycle

Four stages, from the first question to the fleet in the field. You can start at any of them.

  1. 01

    Feasibility Study and PoC

    We analyze the physical constraints, such as power budget, connectivity range, environment and regulatory requirements, report on whether the idea is feasible, then build a proof of concept (PoC) of the part most likely to fail.

    You get
    A written feasibility report and a PoC of the riskiest part
    We check
    Power budget / Connectivity range / Environment / Regulatory requirements
  2. 02

    Rapid MVP and Bench Testing

    We use off-the-shelf components so as to validate Firmware, Software and AI models before committing to custom hardware.

    You get
    A working MVP on off-the-shelf boards, tested on the bench
    We use
    Raspberry Pi / NVIDIA Jetson / ESP32 / STM32 / PyTorch / OpenCV / ROS 2
  3. 03

    Industrialization and DFM

    This part is where we optimize for production. Custom drivers, latency reduction, model quantization, custom PCB integration, and firmware hardening.

    You get
    Hardened firmware, custom drivers and quantized models on your custom PCB
    We use
    TensorFlow Lite / Yocto Project / Rust
  4. 04

    Deployment

    Scaling the fleet with OTA update infrastructure, telemetry pipelines, and cloud dashboard setup for monitoring thousands of devices. This means, you don't have to worry once your device ships.

    You get
    A fleet you can update over the air and monitor from one dashboard
    We use
    AWS IoT / Docker

How can we help
you succeed?