Deeply positioned sensors can miss faint touches; a flexible capacitance sensor near the elastic shell improves touch and deformation detection.
Variable-width channels, ridges, and rubber linings hold mobile devices at a stable viewing angle while typing.
Priority-based notification placement helps wearable AR displays reduce visual clutter while keeping critical messages easy to find.
Camera-image keys let a head-mounted processor restore prior content states at startup, avoiding deep-menu selection and preserving immersion.
Eye-gaze detection adjusts interface immersion and highlights intended virtual objects, reducing manual inputs and interaction errors in AR/VR environments.
Conventional visual-axis estimates can misalign multifocal lenses; coincident retinal images improve measurement precision.
A dual-actuator layout uses separate housing sections and vibration-phase control to maintain haptic feedback across a folding flexible display.
Object recognition in camera previews lets users draw graphic elements that remain aligned with moving people, animals, or other objects.
Optical filters or two-dimensional patterns let sensors identify spectacle lenses without visible components and trigger device actions.
Existing aircraft cabin communication can be costly and complex; viewpoint-dependent surface patterns target information to passengers without extra display installation.
World-to-local spherical coordinate conversion makes indirect XR dragging follow the user's perceived direction, improving virtual-object manipulation.
A generic scene-understanding API separates real-scene data from XR rendering to support timely virtual-content integration.
Trigger and command signals activate an active stylus only when needed, reducing battery use and unnecessary ID transmission.
Coded notebook pages and an imaging-enabled writing instrument digitize handwriting directly, while thermal erasing supports repeated use and less paper waste.
Motion sensing and wireless signaling streamline buyer feedback in retail stores without dedicated installation space.
Virtual space and position lists help a call application select metaverse servers and exchange data with external devices.
An Avatar Engine converts facial expressions and gestures into 3D mesh commands, preserving a consistent presence when live video quality degrades.
Gaze position lets a wearable display function-specific controls for external devices, enabling hands-free operation without direct physical contact.
Grouping application screens into selectable areas lets wearable users adjust volume and transparency across apps at once.
Machine learning models recalibrate see-through cameras and display lenses online, correcting distortion after factory calibration for a more faithful VST XR view.
Eye-focused masks assign different resolutions across VST XR scene images, reducing processing load and latency while preserving detail where users look.
Ray casting can require extra controllers, while hand tracking lacks pressure feedback; this case uses one hand as a virtual palm touchpad for XR control.
Viewpoint-aware placement keeps fastening-location information accessible while reducing virtual-object obstruction of real-space task views.
AI predicts meal events, delivers partial insulin beforehand, and prompts patients when eating has not started.
Background matching aligns 3D user spaces with a shared meta-space, enabling real-time editing without physical relocation.
Object matching in eyewear identifies locations and triggers remote IoT outputs that change with device movement for immersive AR.
Segmented first electrodes linked by second electrodes keep sensor paths low resistance, limiting disconnection and voids that impair touch detection.
Eye tracking keeps high resolution in the viewer’s region of interest while lowering peripheral encoding and processing demands.
An LLM-mediated interface converts user descriptions into validated simulation inputs, reducing setup difficulty and missing-data errors.
Latency-triggered pauses adjust compression parameters before encoding resumes, reducing screen-sharing delay while preserving image quality.
An intermediate carrier and vibration dampers route actuator energy into the touch part, helping maintain uniform haptic feedback across uneven surfaces.
Periodic calibration stores updated parameters before tracking requests, shortening convergence and reducing power and computational use in AR/VR devices.
Optical systems can miss fast, repetitive taps; wearable vibration sensors identify the contacting finger with low latency.
Frequent switching between input screens can slow terminal text entry; this case keeps keyboard, voice, and handwriting controls visible together.
Hand-referenced sensing alerts users when an arm-mounted scanner shifts, helping prevent field-of-view occlusion and discomfort.
Edge computing predicts future device poses and generates virtual images remotely, helping lightweight AR wearables deliver seamless real-time overlays.
An HMD handles holographic display and interaction while a second computer processes productivity files, reducing device-side computation.
A handheld controller maps physical orientation to 3D audio positions, making sound-source and listener navigation intuitive without positional drift.
AR objects act as intermediaries between gestures or voice commands and IoT control signals, making device interaction more intuitive.
Public password entry can expose selections; concurrent user and distractor targets plus haptic or audio cues obscure input from observers.
Modality identifiers let centralized processing distinguish each data type and apply the correct mode for accurate results.
Noisy gaze, gesture, and voice inputs become probabilistic intention scores for accurate interactive-object focus selection.
Paired cameras let a head-mounted device request mobile-terminal consent, replacing complex manual input with optical connection setup.
Phase-inverted audio cancels keyboard vibration and environmental noise in integrated terminals, improving voice quality and user experience.
A receiver transducer captures backward ultrasonic waves and converts them to electricity, reducing wasted energy in mid-air haptics.
A wearable display shifts primary content to expose unused space for contextual controls, improving visibility on small or curved screens.
UWB radar compares spatio-temporal reflected-energy patterns with expected movements to reduce noise interference and computational intensity.
Hand-position trajectories distinguish waving from sliding gestures, enabling tap-free shooting-mode changes on smartphones and smart TVs.
Magnetic attraction keeps the torque-hinged leg accommodated, replacing a physical stopper to reduce stand thickness.
Lens distortion in VR can skew sensor signal magnitude; transparent areas guide reflected light to photoelectric sensors for more accurate pupil tracking.
A mixed-reality visor headset system dynamically controls pilot visibility through see-through camera technology and computer-generated imagery.
A head-worn display system processes camera images to enhance visual performance for users with various impairments.
A position and orientation determining system uses carrier phase difference measurements between antenna pairs to compute angles.
A head mounted display system spatially fixes symbol rotation axes to vehicle principal axes for stable visual output.
Client device detects evaluation triggers to produce program code results, resolving feedback delay and resource consumption trade-offs.
Segmenting behavior data from attribute data resolves the contradiction between representation effectiveness and ease of operation in virtual interfaces.
Segmented transparent and retractable non-transparent displays resolve ambient light interference to maintain pilot situational awareness.
A Keyboard Enhanced Interface system adapts input events to generate enhanced commands for direct output action invocation.
A slidable heat dissipating stand retracts into a host housing slot to maintain a compact profile.
Dynamic touch-inactive zones prevent unintentional gripping touches while maximizing usable screen area without physical bezels.
A hand tracking system switches between active and inactive modes to adjust gesture recognition parameters.
A wearable device uses a camera and haptic feedback to detect unhealthy food consumption.
Integrated optical cavities detect eye motion through self-mixing interference signals, eliminating external cameras and complex image processing.
Neural network interprets microphone and camera inputs to adjust character responses, eliminating complex training requirements.
Integrated tracking sensors detect user position and orientation to generate rendered left and right eye images.
An accelerometer captures motion data to authenticate users and send gesture commands, resolving security risks from distant voice control.
A driver monitoring system classifies gaze behavior to adjust vehicle operating parameters.
A wearable controller tracking system estimates hand grip from camera images and updates pose using inertial measurement unit data.
A capture and replay module automates computer testing by recording and executing signal sequences.
A heads-up display adjusts transparency based on eye convergence to reduce visual distraction.
Position tracking merges individual headsets into shared spaces, resolving isolation in single-user virtual reality experiences.
Mobile displays generate distinct tactile textures to differentiate selectable content, resolving visual ad blindness and accessibility gaps.
A 3D interactive device projects a pattern onto a surface to enable contact-free hand gesture recognition via depth image analysis.
A computing system detects user subjects and associated objects to output relevant attributes for device control.
A wearable device system processes multi-source biometric data to calculate energy expenditure and guide user breathing patterns.
A stereoscopic display device detects user body displacement to perform operations on virtual objects.
A wearable sensor module detects athletic movement using magnetic field and acceleration data for precise activity monitoring.
Augmented reality mobile application guides users through medical device setup and maintenance using interactive visual overlays.
A detection light irradiation section emits near-infrared light to illuminate a pointing element against a projected screen.
Switching motor waveforms with screen direction resolves the trade-off between fixed simplicity and user experience consistency.
Graph convolutional networks map pointer trajectories to classify entities, resolving accuracy complexity trade-offs in fraud detection systems.
A 2D cursor positioning system detects a presenter's face and hand in video to calculate screen coordinates.
A 3D sensing system detects hand movements to initiate peripheral disengagement actions.
Electromagnets actuate movable keycaps to resolve contradictions between tactile feedback and gesture scrolling in portable devices.
Audio system adjusts acoustic parameters using tracking cameras to determine headset position relative to the user's head.
Processor detects external smartphone to determine display mode, enabling intuitive screen switching and content movement between wearable and device screens.
An information display apparatus estimates user feelings from sensor data and controls the visual output based on that estimation.
A trigger button sensor stack integrates capacitive sensing layers within a handheld controller to detect finger movements.
A force measurement system integrates a visual display device to immerse subjects in virtual reality scenarios for balance assessment.
A rendering system segments overlays into semantically correlated groups to enable tailored user selection and concurrent presentation with background media.
Predicts subsequent frames to set overdriving parameters, preventing motion blur in head-mounted devices.
A collaboration system adjusts virtual canvas fields of view to synchronize object display across devices with varying resolutions.
A head-worn display device adapts image streams for multiple projection reference frames using dedicated spatial processing modules.
A gaze-based diagnosis device detects visual points to calculate evaluation values for causal understanding assessment.
Replacing fragile beam splitters with an aerial imaging element projects text into mid-air, eliminating tripod adjustments and camera obstruction.
A display apparatus controls a pointing object using relative and absolute coordinate methods based on remote device position.
Continuous tracking of touch displacement enables intermediate actions at specific thresholds, resolving limited singular end-actions in traditional interfaces.
A head-mounted display merges spatial movement images with visual perception tasks to stimulate the hippocampus and visual cortex simultaneously.