AR/VR Egocentric Training Data in North America: First-Person Data for Augmented and Virtual Reality AI
Corpshore AI collects egocentric video and sensor data for AR and VR AI training in North America, covering enterprise training applications, spatial computing, and head-mounted display interaction scenarios.

Egocentric data as the foundation for AR and VR AI
Augmented reality and virtual reality systems are inherently egocentric. They present information from the user's first-person perspective, respond to what the user is looking at and doing, and need to understand the physical environment from that perspective. Training the AI that powers these systems requires egocentric data: footage and sensor streams captured from head-mounted or wrist-mounted devices that replicate the AR/VR user's perspective.
Enterprise AR applications, including maintenance assist systems, surgical guidance overlays, warehouse picking guides, and training simulations, require domain-specific training data captured in the actual environments where the application will be used. A maintenance AR application designed for aircraft technicians needs footage from aircraft maintenance environments, not generic office footage.
Corpshore AI's North American AR/VR programs capture egocentric data in the specific environments that enterprise AR applications require: manufacturing facilities, warehouses, clinical settings, construction sites, and field service environments. Programs are designed in consultation with the client's AR development team to ensure data coverage aligns with the application's training requirements.
Hand tracking and gesture data for AR/VR AI
Hand tracking is a core capability of AR/VR interaction systems. Training hand tracking models requires large volumes of egocentric footage that captures the full range of hand poses, gestures, and interactions in real environments. This includes near-field hand interactions with virtual UI elements, physical object manipulation, and two-handed coordination tasks.
Corpshore AI's AR/VR collection programs use hardware configurations with high-frame-rate cameras optimized for hand tracking capture. Activity protocols cover a defined gesture vocabulary alongside natural interaction scenarios that capture the variation in hand appearance, lighting conditions, and background clutter that real-world deployment will encounter.
Annotation for hand tracking data includes hand landmark keypoints, finger joint angles, grasp type classification, gesture event labels, and interaction target identification. Corpshore AI's annotation team includes specialists in hand pose annotation who work to the tight accuracy tolerances that AR/VR hand tracking models require.
Gaze and attention data for AR/VR
Gaze estimation is critical for AR systems that need to know what the user is looking at before surfacing relevant information. Training gaze models requires egocentric footage with ground-truth gaze labels, captured using eye-tracking-enabled hardware that records both the scene video and the gaze position simultaneously.
Corpshore AI can configure collection rigs with integrated eye tracking for programs where gaze data is required. Gaze data is synchronized with scene video and delivered with annotation that maps gaze positions to identified objects or regions of interest in each frame. This data supports both gaze estimation model training and attention-aware AR application development.
Gaze programs are designed around the specific application requirements: a medical AR application may need gaze data during surgical procedures and anatomy review; a retail AR application may need gaze data during product selection and shelf scanning tasks.
Spatial computing and scene understanding data
AR systems that anchor virtual objects to real-world surfaces need to understand the 3D structure of environments in real time. Training spatial computing models requires egocentric footage with depth data, surface normal annotation, and object anchor point labels that align virtual and physical coordinate systems.
Corpshore AI's AR/VR programs can incorporate depth sensors alongside RGB cameras to produce RGBD egocentric datasets for spatial computing applications. These datasets support training of simultaneous localization and mapping (SLAM) systems, surface reconstruction models, and physics-aware AR rendering systems.
Contact Corpshore AI at https://corpshore.ai/contact to discuss AR/VR egocentric data collection for your spatial computing or enterprise AR program in North America.
Frequently asked questions
- What enterprise AR applications use egocentric training data from North America?
- Aircraft maintenance guidance, medical procedure overlays, warehouse picking assist, manufacturing assembly guides, field service technician assist, and safety training simulations. Each requires environment-specific egocentric collection.
- Does Corpshore AI support eye-tracking data collection for AR gaze estimation?
- Yes. Rigs with integrated eye tracking are available for programs requiring gaze ground truth data. Gaze data is synchronized with scene video and annotated with gaze-to-object mappings for each frame.
- What hardware does Corpshore AI use for AR/VR egocentric data collection?
- Collection hardware is matched to the client's target HMD platform. Options include high-frame-rate RGB cameras with IMU, RGBD rigs with structured light or ToF depth, and eye-tracking-enabled configurations. All hardware is calibrated before deployment.
- Can Corpshore AI collect AR training data in the client's own facilities?
- Yes. On-site programs in client facilities are available. This is common for enterprise AR applications where the specific equipment, environment, and workflow are proprietary and cannot be replicated in a neutral collection environment.
- What annotation is available for AR/VR egocentric data?
- Hand landmark keypoints, gesture event labels, gaze position annotation, surface segmentation, 3D anchor point labels, object detection, activity classification, and UI interaction event labels. Custom annotation schemas are supported.
Published by
Corpshore AI
https://corpshore.ai