Computer Vision Development

Custom-built deep learning models that see, understand, and act on visual data — trained on your specific industry and deployed where you need them.

500+
AI Models Deployed
97%
Average Model Accuracy
5+
Years of CV Expertise
12+
Industries Served
YOLO PCB Micro-defect Detection UI

Custom Computer Vision Development

Computer vision is the branch of artificial intelligence that enables machines to interpret and understand visual information from the world — photographs, video streams, thermal imagery, and more. At CloudZigs, we design and build production-grade computer vision systems from the ground up, tailored to your specific operational requirements rather than forcing generic, off-the-shelf models onto your unique challenges.

From dataset collection and annotation through model architecture selection, training, validation, and deployment — our end-to-end development process ensures that every computer vision solution we deliver is accurate, robust, and optimised for your deployment environment, whether that is a cloud server, an on-premise GPU node, or a compact edge device with limited compute resources.

Our engineering team has built and deployed models spanning object detection (YOLO, Faster R-CNN, DETR), image classification (ResNet, EfficientNet, ViT), semantic segmentation, pose estimation, anomaly detection, optical character recognition (OCR), and multi-camera tracking systems. We have deployed solutions serving retail chains, poultry farms, warehouses, hospitals, and smart cities across India.

Core Capabilities

Object Detection & Tracking

Detect and track multiple objects simultaneously in real-time video streams — people, vehicles, products, animals, or custom objects — with bounding box precision and unique ID assignment across frames.

Image Classification

Classify images into custom categories with high accuracy. Ideal for quality control, defect detection, product identification, disease spotting in agriculture, and document processing.

Semantic Segmentation

Pixel-level understanding of scenes — identify and delineate every region of interest in an image. Used for medical imaging, satellite analysis, autonomous navigation, and manufacturing inspection.

Pose Estimation

Detect human body key-points and posture in real time. Applied for workplace ergonomics monitoring, sports performance analysis, rehabilitation tracking, and safety compliance.

Anomaly Detection

Train models to learn "normal" visual patterns and automatically flag deviations — product defects on manufacturing lines, unusual animal behaviour on farms, or suspicious patterns in surveillance feeds.

OCR & Document AI

Extract structured text from images, invoices, license plates, ID cards, and forms. Automate data entry workflows, vehicle access logs, and compliance documentation at scale.

Our Technology Stack

We work with the leading frameworks and platforms in computer vision and deep learning, ensuring your solution uses proven, industry-standard technology:

Frameworks & Libraries:
PyTorchTensorFlowOpenCVUltralytics YOLODetectron2MMDetectionHugging Face
Model Architectures:
YOLOv8 / YOLOv9RT-DETREfficientDetSAM (Segment Anything)Vision TransformerResNet / EfficientNet
Deployment Targets:
NVIDIA TensorRTONNX RuntimeOpenVINOAWS / Azure / GCPJetson Nano / AGXRaspberry Pi

Industry Applications

Agriculture & Poultry Farming

Dead bird detection, disease classification from visual symptoms, bird counting, feed/water level monitoring, egg production tracking, and flock behaviour analysis using overhead cameras.

Manufacturing & Quality Control

Inline defect detection on production lines at full production speed, surface scratch detection, dimension verification, component presence/absence checks, and label inspection.

Healthcare & Medical Imaging

AI-assisted radiology for lesion detection, tumour segmentation in CT/MRI scans, wound assessment, medication dispensing error detection, and patient fall prevention in hospitals.

Smart Transportation

Licence plate recognition for parking management, traffic flow counting, pothole detection on roadways, vehicle classification, and driver drowsiness detection systems.

Our Development Process

1
Discovery & Requirements

We analyse your operational challenges, existing camera/data infrastructure, performance requirements, and deployment constraints to define the precise scope of the CV solution.

2
Data Collection & Annotation

We collect diverse, representative training data from your environment and annotate it with bounding boxes, polygons, or masks. We also leverage data augmentation and transfer learning to reduce data requirements.

3
Model Training & Validation

We train, fine-tune, and validate models against held-out test sets, iterating on architecture, hyperparameters, and augmentation strategies until target accuracy metrics are consistently achieved.

4
Optimisation & Deployment

Models are quantised, pruned, and exported to optimised runtimes (TensorRT, ONNX, OpenVINO) for maximum inference speed on your target hardware — cloud GPU, edge device, or mobile.

5
Integration & Ongoing Support

We integrate the vision pipeline into your existing applications via REST API, gRPC, or MQTT streams, and provide ongoing model retraining services as your operational environment evolves.

Frequently Asked Questions

How much training data do I need to build a custom CV model?
It depends heavily on the complexity of the task and environmental variability. For many use cases, 500–2,000 annotated images per class can be sufficient when using transfer learning from pre-trained models. Our team can advise on the minimum viable dataset for your specific application and help with data collection strategies to reduce annotation effort.
How long does it take to build a custom computer vision solution?
A proof-of-concept model for a well-defined problem with existing labelled data can be ready in 2–4 weeks. Full production-grade systems including data collection, annotation, training, optimisation, and deployment typically take 6–16 weeks depending on complexity. We provide milestone-based delivery with weekly progress updates.
Can you build models that run on low-power edge devices?
Yes. We specialise in model compression techniques — quantisation (INT8/FP16), knowledge distillation, and architecture selection (MobileNet, EfficientDet-Lite) — that make high-accuracy models deployable on Raspberry Pi, Jetson Nano, and similar low-power edge hardware with real-time inference speeds.
Do you provide the source code and model weights?
Yes. Upon project completion, clients receive full ownership of the trained model weights, inference pipeline source code, training scripts, and annotation datasets. We can also retain an optional ongoing maintenance and retraining contract to keep models accurate as your environment changes.
What accuracy levels can we realistically expect?
For well-defined, consistent tasks (e.g., product defect classification under controlled lighting), we routinely achieve 95–99% accuracy. For complex real-world environments (variable lighting, occlusion, diverse backgrounds), typical accuracy ranges are 88–96%. We always establish clear accuracy benchmarks during the discovery phase and deliver against agreed KPIs.

Start Your CV Project

Tell us your use case and we'll scope a custom computer vision solution for you.

Book a Free Consultation
Call us directly
+91-9894218854

What We Deliver

  • Custom model training & fine-tuning
  • Dataset collection & annotation
  • Edge & cloud deployment
  • REST API / gRPC integration
  • Real-time video pipeline
  • Model optimisation (TensorRT)
  • Full source code ownership
  • Ongoing retraining support

Have a Vision Problem? We'll Build the AI to Solve It.

From concept to production-grade deployment, CloudZigs engineers custom computer vision solutions that deliver measurable business impact. Let's discuss your use case today.