Data collection & annotation
Our expert team collects diverse datasets and uses in-house tools for complex annotations, including detailed landmarks, segmentation masks, and attribute labels.
DEEPIXEL
We are a pioneering computer vision startup, redefining how machines see and understand the world.
One camera. A deeper understanding.
01 / About us
Deepixel develops computer vision AI across the full pipeline, from data collection, annotation, and augmentation to deep learning model architecture, training, and optimization.
Our team of experts uses in-house annotation tools to handle complex labeling tasks across diverse datasets. Combined with data augmentation, this work supports models for human detection, tracking, segmentation, and analysis under real-world conditions.
Our Human-X engine brings this work onto devices. We continually improve inference speed, memory use, and computational efficiency to deliver accurate, real-time AI on resource-constrained hardware.
Our expert team collects diverse datasets and uses in-house tools for complex annotations, including detailed landmarks, segmentation masks, and attribute labels.
Expand training variation in lighting, pose, and appearance to improve model robustness and generalization.
Design task-specific neural networks that balance recognition accuracy with efficient computation.
Refine training and inference to reduce model size and computational cost while preserving accuracy.
Accelerate CPU inference with XNNPACK and SIMD on supported platforms, while optimizing memory use and keeping data on the device.
02 / Human-X
Detection, Tracking, Segmentation, Measurement and Analysis
Human-X turns camera images into landmarks, poses, masks, and analysis results. Its task-specific modules provide the visual information needed for interactive applications, from virtual try-on to human-machine interfaces.
Deploy across PCs, Android, iOS, web browsers, and edge devices, with AI processing kept on-device.
Runs AI inference without a dedicated GPU; 3D rendering is handled separately.
Task-specific architectures balance accuracy, memory use, and inference speed.
Dedicated modules provide the outputs each application needs.
AR Virtual Try-ons, Beauty AI, Skin Analysis, Image Filters
Health Monitoring, Action Recognition, Sports Tech., Smart Fitness
Human Metadata Recognition, Physical AI, Human–Robot Interaction (HRI), Human–Computer Interaction (HCI)
See it in motion
Watch Human-X recognize and follow movement in real time from a single camera feed.
Algorithm modules
Explore all modules for detection, tracking, segmentation, measurement, and analysis.
Face bounding boxes and detection confidence.
Open module ↗ 02108-point, 282-point, or mesh output with head pose.
Open module ↗ 03Face shape and estimated age from validated facial landmarks.
Open module ↗ 04Distance estimate in millimeters with measurement status.
Open module ↗ 05Dedicated ring-finger points, mask, and cylinder pose.
Open module ↗ 0621-point skeletal tracking in real time.
Open module ↗ 07Wrist mask, cylinder pose, and tracking confidence.
Open module ↗ 08Upper-body masks for foreground compositing.
Open module ↗ 09Facial skin masks for cosmetics and surface effects.
Open module ↗ 10Capture a frame to explore skin scores and six analysis overlays.
Open module ↗ 11Hair-region masks for virtual color effects.
Open module ↗ 12Left and right foot masks with 3D poses.
Open module ↗ 1333-point body tracking with estimated 3D world landmarks.
Open module ↗We are continually expanding what Human-X can understand.
Use cases
These examples show how our core computer vision algorithms power real-world applications. StyleAR, one of our product lines, brings this technology to augmented reality virtual try-on.
Facial landmarks and 3D eyewear placement.
Try on ↗ 02Ring-finger pose and occlusion.
Try on ↗ 03Wrist pose and watch occlusion.
Try on ↗ 04Left and right foot pose with occlusion.
Try on ↗ 05Facial tracking and layered makeup effects.
Try on ↗ 06Hair segmentation and live color effects.
Try on ↗ 07Facial tracking and paired earring placement.
Try on ↗More experiences are being built.
Understanding Human-X
Human-X is Deepixel’s on-device computer vision engine. It turns camera images into information applications can use: the locations of facial and hand landmarks, the movement of body regions, segmentation masks, and visual attributes. Each module is designed for a specific task, with deep learning architectures optimized for accuracy and efficient inference. Explore the Human-X modules to see the capabilities in action.
Human-X runs AI inference on the CPU without requiring a dedicated GPU, and its modules can run directly in a compatible browser. Lightweight models, XNNPACK-optimized operators, and SIMD vector processing help accelerate inference on supported platforms. Actual speed depends on the hardware, selected module, and input resolution. For applications such as virtual try-on, 3D graphics are rendered separately using WebGL and may use the device’s GPU.
Deepixel develops the technology, from data collection, annotation, and augmentation to model architecture and on-device optimization. Human-X is the core computer vision engine that makes these capabilities available to applications. StyleAR is one of our product lines, applying this engine to augmented reality virtual try-on for eyewear, jewelry, watches, footwear, and beauty products. Explore the application demos or visit StyleAR to learn more.
Explore the individual modules to evaluate specific computer vision capabilities, or try the application demos to see them in a complete experience. Camera demos require a compatible browser, a secure connection, and camera permission. For an integration discussion, share your use case, target devices, and performance requirements with deepixel@deepixel.xyz. We can discuss suitable modules, deployment options, and licensing.
03 / For developers
Read Deepixel’s public integration examples, algorithm documentation, and evaluation tools. These are related developer resources; APIs and model outputs may differ from the browser demos. Check each repository for licensing and platform requirements.
Facial keypoints, head pose, and Python integration examples.
Wrist landmarks, orientation, and wearable alignment concepts.
Portrait masks and foreground separation documentation.
Tools for measuring mask overlap and boundary quality.
A guide to measuring model inference performance.
PlayCanvas setup and virtual try-on implementation examples.
04 / Contact us