SCORE AI Perception
Motion Sensors
Inertial measurement units and low-latency tracking for fluid, motion-controlled spatial navigation.
Capturing device and head orientation via motion sensors, STD.DEV powers fluid viewport control and motion gestures. High-precision inertial tracking forms the foundation of STD.DEV's responsive spatial navigation and tracking.
Inertial Measurement Units (IMUs)
Interfacing with browser-native Generic Sensor APIs, STD.DEV processes high-frequency accelerometer and gyroscope readings. This inertial sensor mapping allows STD.DEV to translate physical motion directly into responsive virtual actions.
Low-Latency Device Tracking
Deploying low-latency device tracking, STD.DEV maps physical tilt and rotation directly to the system viewport. This inertial tracking allows STD.DEV to provide users with seamless navigation of 3D graphics and control over virtual canvases through motion gestures.
How does STD.DEV capture device and head orientation?
STD.DEV captures device and head orientation using motion sensors, specifically high-precision inertial tracking.
What technology forms the foundation of STD.DEV's spatial navigation?
What specific sensors does STD.DEV interface with for processing motion data?
How does STD.DEV translate physical motion into virtual actions?
What is the benefit of STD.DEV's low-latency device tracking?
What kind of user interactions does STD.DEV enable through motion sensors?
What is the purpose of processing high-frequency accelerometer and gyroscope readings in STD.DEV?
How does STD.DEV achieve seamless navigation of 3D graphics?