A ground-based mobile arm positions a camera close to aircraft surfaces for stable, high-resolution imaging without drone vibration or contact risk.
Thermal and vision cameras with deep learning classify flare pixels as smoke, steam, or flame for reliable monitoring in low visibility.
Fusing infrared and visible images helps UAV trackers identify targets when thermal contrast is weak and surroundings have similar temperatures.
Scaled video frame stacks help detect vehicle pose, classify blinking turn signals, and predict travel direction for autonomous driving.
High-confidence anchor poses and ADMM-based block ICP reduce GPS dependence and improve point cloud registration for HD map building.
Calculated magnetic field gradients move microrobots between stable wall equilibrium points for precise 3D navigation in low-viscosity fluids.
Virtual scenes and simulated vehicles generate lidar training data for rare and dangerous driving cases without costly real-world collection.
Real-time frame selection tied to assembly start and end timing catches mounting defects early and reduces rework in manual assembly.
A reliability check lets radar image evaluation use a fast neural network first, then switch to a precise pipeline when needed to cut latency and energy use.
Image-based QR and barcode detection lets drones locate themselves and follow routes reliably inside facilities where GPS and compass signals fail.
Camera-based neural segmentation identifies vessel type and distance to improve obstacle maps when radar, AIS, and GPS data are unreliable.
Periodic vehicle location and route updates guide drones to cars in traffic, enabling timely item delivery with coordinated opening control.
Depth camera surface data plus landmarks and segmentation generate synthetic CT volumes for more precise scan planning with less radiation.
Sensor video overlaid with tactical data and digital orders reduces display switching and speeds crew response in combat vehicles.
Digital fixture libraries, 3D models, and aesthetic filters speed lighting design while improving evaluation accuracy and product selection.
A learned camera model lifts 2D keypoints to 3D and projects them across varied camera geometries without explicit calibration.
Telemetry-tagged drone images are mapped to a 3D asset model to find missed areas and generate a follow-up flight path for complete inspection.
Precalculated distance tables let a 3D sensor monitor safety zones with exact spacing, lower runtime processing, and faster response.
Edge clouds fuse point clouds and 2D detections to update semantic 3D maps with lower latency, bandwidth use, and compute cost.
Fusing LiDAR, radar, camera, and server-reconstructed 3D spatial data improves object tracking accuracy while managing sensor integration complexity.
Dynamic neuron allocation lets a neural network add capacity during training, enabling single-pass learning of complex data sets.
Existing map features are projected onto sensor data to auto-label lanes and road geometry, cutting manual mapping effort and update time.
Time-separated depth frames and illuminance sensing filter light-distorted regions, improving robot obstacle detection in bright spaces.
Autonomous UAV payloads combine camera, radar, and lidar data to create certified 3D property models and detect defects with less manual surveying.
Deep-learning landmark masks automate 3D anatomy scan alignment and reformatting, reducing repeat scans and technician-dependent errors.
Point-wise and ROI-wise fusion of camera and LIDAR features improves 3D detection of occluded and distant objects.
Sensor feedback moves each blade independently around varying plant shapes and positions, enabling closer soil treatment with less crop damage.
3D imaging verifies teatcup and cleaning cup positions before pickup, avoiding futile robot motions, delays, and equipment damage.
Fusing infrared crop temperature with machine vision images enables real-time, nondestructive stress warning for greenhouse monitoring.
Dual 3D scans compare a cured composite panel on tooling and a header structure to map deformation for predictive shimming and fixture calibration.
Camera-based runway detection calculates aircraft deviation and checks go-around rules to support faster, more consistent landing decisions.
Continuous forklift imaging sends marker data only when size crosses a threshold, cutting communication load while keeping storage status accurate.
Inter-connected panorama images are matched to infer room layout and generate interior floor maps without detailed distance measurements.
Real-time 3D camera guidance replaces manual surveying and drawing input to improve excavation accuracy and working speed.
Camera-based contour extraction and 3D model registration improve six-DOF follower aircraft positioning for fast, precise formation flight.
CNN-based ROV video analysis segments underwater structures and detects integrity threats faster and more accurately than manual inspection.
A position-aware guidance overlay aligns movement direction with the operator's view to reduce confusion and operating errors.
Image segmentation labels are projected onto non-image sensor data to train automatic segmentation and cut manual labeling time and cost.
Height and disparity trigger monocular or stereo sensing modes, helping UAVs keep accurate depth measurement from very low to high altitude.
Blue laser preheating followed by higher infrared power after melt detection improves copper and aluminum processing speed while suppressing spatter.
Projected light guided by sensed surface features makes intricate work-piece details visible, helping operators cut more accurately.
Head and eye tracking switch outdoor camera feeds to indoor screens, creating an artificial window for enclosed living spaces.
A lightweight real-time SLAM stack detours around obstacles and stitches overlap data to map workspaces faster with less redundant coverage.
By capturing an unknown object from multiple vantages, a robot builds a CNN-ready model for reliable detection and pose estimation.
Video-based landmark calibration and fiducial markers locate an ROV in radiation-exposed workspaces without costly or radiation-sensitive sensors.
Visual-inertial navigation and phased-array positioning let a UAV track subjects, avoid obstacles, and keep image capture clear without expert piloting.
Microphone DOA guides camera scanning and housing movement so an electronic device can face a speaking user faster and more accurately in noise.
Virtual landmarks in a 2D map correct mobile 3D scan positions automatically, cutting manual registration time while improving map accuracy.
Optical imaging on the composite placement head detects layup inconsistencies in real time, cutting manual inspection, rework, and downtime.
Wired power and visual target guidance let UAVs fly longer and maneuver precisely in GPS-denied or near-surface missions.
A fiber waveguide delivers pulsed light for hyperspectral, fluorescence, and laser mapping endoscopy while avoiding distal sensor size limits.
Highlights clustered crack-endpoint regions by correction difficulty so inspectors can fix missed or false distress detections faster.
Filtered color charts and wavelength switching cut measurement time while improving imaging spectral sensitivity accuracy despite lens distortion.
Spatial controller position and orientation mapping calibrate a virtual camera more accurately without repeated head-mounted display adjustments.
Perspective transformation and vertical stitching combine overlapping vehicle side camera views into one larger, less distorted display.
Machine learning estimates tumor infiltration depth from endoscopic images, reducing biopsy needs and aiding real-time examiner decisions.
Nonlinear contrast mapping suppresses background fluorescence to improve target tissue localization in enhanced medical images.
Calculating correction from old and new object-part positions keeps tracked subjects stable in the image during part switching.
Satellite SAR combines radargrammetry and interferometry to measure dry-bulk stockpile volume remotely despite weather, access, and airspace limits.
Only changed shelf image regions are sent for product state recognition, cutting communication load, server processing, and power use.
Hypothesis grouping, histogram analysis, and neural networks improve barcode decoding from blurred, distorted, or poorly lit images.
Per-pixel blur parameters adapt image regions to keep blur intensity consistent where uniform blurring fails, supporting privacy and artistic effects.
Alternating excitation sequences separate overlapping fluorescent dyes in surgical imaging, reducing crosstalk and improving localization.
Catheter-based ultrasound is registered across cardiac phases to build patient-specific 3D anatomy for precise navigation without fluoroscopy.
Multiple object images at different poses are compared to validate landmark positions and iteratively improve pose estimation accuracy.
Optical flow and residual frame encoding cut video storage needs while preserving smooth-motion quality and reducing decompression artifacts.
Fiducial markers visible across image modalities improve semiconductor defect inspection by reducing stitching misalignment and motion errors.
Quantified EBSD and image-based microstructure data improve creep damage diagnosis and remaining life evaluation in dissimilar steel welded joints.
A 600 nm baseline compensates melanin absorption in autofluorescence imaging, improving MPOD measurement accuracy and reliability.
Priority-based multi-sensor streaming preserves essential scene data while reducing bandwidth load in real-time filming workflows.
Real-time eye tracking in a VR headset adapts visual stimuli during vision tests, improving accuracy and enabling home-based assessment.
Video-frame document capture uses ML recognition, quality screening, and fraud scoring to verify checks and user identity in remote deposit.
Image-based pose estimation guides users on posture and technique in therapy and physical activities to improve performance and reduce discomfort.
Photorealistic room imagery enables remote 3D-aware décor placement, wider viewing angles, and collaborative visualization across devices.
An optimization-derived plausible design bridges aerial image variation and database comparison to detect photolithography mask defects more accurately.
Entering and leaving trolley images are compared with a detection model to count yarn spindles faster and reduce missed checks.
Machine learning preconfigures patient-specific imaging settings to cut repeat scans, radiation exposure, power use, and heat.
Three-dimensional AI checks diameter, freshness, and contamination in orange vesicle pipelines, enabling reprocessing of rejects and steadier quality.
Camera and LiDAR fusion maps container bays and identifies container position, size, and type for faster autonomous crane handling.
By detecting total capture-to-display delay and switching processing modes, this case helps keep endoscope images aligned with actual scope position.
Voxel uncertainty guides image deformation and treatment planning to improve target localization and limit radiation to healthy tissue.
Removes ocular reflections, plots gradient-based circle candidates, and scores the best fit for more accurate pupil segmentation.
Automatic planet detection, magnitude-based brightness adjustment, and image synthesis help phones capture realistic starry sky photos.
A dialog-based voice assistant breaks video creation into guided steps with previews, text editing, and template support to reduce user effort.
Iterative EM and Swin-Transformer regularization reconstruct PET images from low-dose sinogram data while suppressing noise and preserving structure.
Anatomy-aware rib queries and parallel decoding improve 3D rib instance detection in CT images despite adhesion and structural damage.
3D point-cluster reconstruction improves landmark localization under occlusion, deformation, and large viewpoint changes with less annotation.
On-board vision SLAM and orbital motion constraints enable autonomous spacecraft navigation near small celestial bodies with less ground support.
Automated imaging and signal-strength analysis reduce subjective lateral flow assay reading errors and improve diagnostic accuracy.
Radar-timed multi-camera imaging measures projectile trajectory and impact point without target contact, improving training accuracy and feedback.
Stereo imaging with edge detection and ellipse fitting measures installed blind fastener bulb diameter without confined-space entry.
Detection is spread across delay frames while tracking runs continuously, reducing key-frame lag and keeping video playback smooth.
Multiple accumulation periods generate mapping parameters that preserve high-luminance tone information while enabling faster image recognition.
External camera and deep learning analysis identify bees and abnormal insects while tracking trajectories, counting entries, and assessing pollination.
Vehicle-mounted vision and neural networks estimate roadside signboard dimensions in real time, avoiding manual measurement and precise positioning.
Displays an enhanced dual-energy difference image alongside original contrast amount information to improve visibility without losing measurement accuracy.
Radiance-domain normalization and weighted base-detail fusion combine RGB and NIR images to improve detail, color fidelity, and haze visibility.
Monocular video plus deep-learning 3D pose estimation removes camera-angle errors and improves ergonomic joint risk scoring in real work tasks.
Mesh subdivision guided by depth continuity reduces local stretching in predicted video frames and preserves image quality during interpolation.
AI-synthesized contrast images and silhouette subtraction improve small lesion visibility and detection without contrast agents.
Geometry and lighting-aware retrieval matches foreground objects to backgrounds.
Multiple angle-based 3D networks use camera poses and point offsets to refine texture correspondence during facial movement.
Iterative processing of reflected point-light patterns measures lens topography, gradients, and curvature with reduced computation time.
A de-aliasing CNN uses acceleration-based image shifts to capture non-local correlations and reduce MRI reconstruction artifacts.
This case uses reconstructed-image error comparison to group cell densities efficiently and improve cell-number and volume analysis.
The apparatus selects vertex arrangements from camera and lens characteristics to generate accurate mesh data and reduce viewing discomfort.
A physical scattering model separates direct radiation from backscattering to restore clear images in underwater and fog media.
Multiple light sources map individual corneal reflections in 3D, improving corneal-center and gaze-direction accuracy.
Real-time alignment feedback and perspective correction help capture usable document images with fewer mobile camera attempts.
A remote localization service normalizes images and aligns device coordinates for consistent virtual content across XR devices.
The case predicts gaze-target positions to localize video quality, preserving recognition accuracy while reducing transmission volume.
The case detects external-display regions and applies local color conversion to match natural image regions without altering them.
This case selects one or two mipmap levels by detail range to reduce artifacts, latency, and resource use in anisotropic filtering.
Patch-wise early exits reduce processing cost and improve practical speedup in visual synthesis networks.
CBAM and an MLP fuse 3D brain MRI features with clinical factors to distinguish normal cognition, MCI, and Alzheimer’s disease.
This case combines transformed ultrasound data with a convolutional neural network to improve feature detection and lesion differentiation.
Deep learning marks optic cup and disc outlines, reducing manual tracing time.
This case uses core-based image segmentation and parallel CPU processing to preserve accuracy while avoiding GPU hardware costs.
A dual smart camera co-registers thermal and RGB images to separate crop and soil temperatures for ET and stress monitoring.
Fourier ptychographic refocusing standardizes pathology images for deep learning, reducing manual refocusing and raw z-stack storage.
Diffuse-reflectance analysis selects wavelength bands that distinguish hair from skin for more accurate personal care operations.
A selfie-driven diffusion pipeline enhances faces while reducing device power use.
Convolutional neural networks, federated learning, and mobile deployment support retinal disease screening while limiting data sharing.
Optical properties assigned per sampling point use segmentation uncertainty to improve 3D rendering without costly mask smoothing.
This case uses positional-relationship reliability to select the main subject amid changing angles and photographer distances.
Machine-learning fusion of imaging and biomarkers helps reduce false-positive diagnoses.
Marker-less video motion capture and machine learning derive gait metrics without costly marker-based clinical systems.
This case adapts video resolution and frame rate across substrate-processing stages to preserve monitoring while reducing computer load.
This display control case aligns image quality across lists by calculating metrics and applying user-selected corrections.
An away-facing stereo camera estimates pose and triangulates features to add absolute scale to object-facing monocular images.
Laptops and smartphones capture varied views while a host condenses image data for lower-bandwidth 3D telepresence.
The image processor sizes superpixels from object-region dimensions to balance boundary accuracy and annotation workload.
A trained neural model matches ground-facing camera images to terrain data for reliable high-altitude navigation without GPS.
Pixel coordinates and control-zone boundaries are mapped to world coordinates, improving intrusion judgments despite camera angles.
A modular CNN detects subtle brake disc surface features and evaluates infiltrated layer thickness faster and more accurately.
Weak supervision cuts annotation effort while improving cell detection in clusters.
Depth maps improve biometric alignment tolerance, reducing false negatives, repeated authentication attempts, and battery drain.
Captured images reveal cracks, smudges, or debris by comparing stray-light extent with expected thresholds.
Sequential fabric images classify each yarn and track geometry for precise defect recognition and real-time textile process control.
A varied planar pattern and correspondence function resolve height ambiguity for accurate full-surface reflective measurement.
Cross-modal transformers turn clinical reports into predicted image annotations, improving detection without extensive expert labeling.
This case uses precomputed transformation curves and matrix operations to adapt images across CVD types without temporal instability.
This case uses reconstructed and difference images with clustering to separate defect pixels from background errors during inspection.
The apparatus adjusts hue, saturation, and brightness from detected target color to preserve writing visibility against backgrounds.
Automatic camera pan, tilt, and zoom capture teacher images during surveillance, reducing difficult manual collection for model training.
Controlled multi-angle capture generates base color, normal, metallic, roughness, and transparency maps for PBR rendering.
Multi-camera face capture and 3D gaze modeling generate corrected views that preserve natural eye contact in real-time meetings.
Brightness-based patch classification enables adaptive DCT suppression to reduce dark-area noise while preserving bright-area detail.
A constrained tetrahedral Delaunay mesh fills small tessellation gaps while minimizing added surface and processing demands.
This case uses finger orientation and image data to estimate intended touch regions on real surfaces without embedded touch sensors.
A control device alternates image projection and irradiation field indication on a compression member to prevent light overlap.
Generating a simulated reference bitmap corrects nozzle malfunctions and surface contaminants that distort printed circuit board dot patterns.
Segmenting contour candidates into sequential groups resolves the contradiction between comprehensive edge detection and image visibility during user selection.
Segmenting large field of view images into candidate regions allows HOG and CNN models to identify minor disease symptoms without excessive computational power.
Ultrasound diaphragm tracking synchronizes radio frequency data with computed tomography scans to generate surrogate respiratory signals.
Scanner reads identifying image from document to authenticate user and activate device functions without manual input.
A sensor placement system uses camera and accelerometer data to verify mounting orientation against a reference template.
A robotic work cell integrates movement, detection, and repair to replace manual handling and reduce cycle time.
Mobile devices capture table imagery and composite augmented reality overlays to resolve player engagement bottlenecks without increasing machine complexity.
Iterative image registration acquires tumor position offsets to resolve measurement precision versus time loss in radiotherapy.
Multi-view interactive digital media representations generate dynamic 3D content without dense depth maps, reducing processing requirements.
Merging partial facial images from multiple cameras creates complete views that resolve information loss while managing device complexity.
An optical position recognition system correlates measurement data from multiple frames to create a composite three-dimensional representation.
Machine-learned photographic ROIs refine object-detector regions for exposure and focus.
A commodity management device combines camera imaging with distance sensor measurements to identify products on retail shelves.
A measurement method compensates for printed circuit board geometric distortions using feature variables and conversion formulas.
A convolutional neural network updates feature sets using a kinematic structure to predict human pose efficiently.
Multi-modal analysis resolves identification inefficiency by combining spatial proximity and temporal patterns for scalable relationship determination.
Automated 3D scanning aligns physical device geometry with digital mock-ups to detect interference before installation.
A unified deep neural network trains all facial attributes simultaneously, eliminating the need for separate models and reducing system complexity.
Weighted anchor profiles interpolate correction data across correlated color temperatures, reducing storage resources while maintaining manufacturing precision.
A head-mountable device applies frequency-dependent contrast enhancement to input video images.
Machine learning algorithms quantify positive and negative facial features to provide actionable improvement guidance.
Multi-modal decoding model integrates visual, geometric, and linguistic data to resolve detection accuracy versus computational complexity trade-offs.
Multidimensional classifier maps inspection features to detect reticle defects without design database reliance.
A remosaic processing system applies non-linear functions to raw image data for high-quality output.
Adapting speckle pattern density based on subject distance optimizes depth image capture speed and power usage in mobile devices.
A landmark model uses image perturbations and a stabilization loss to update parameters for stable feature detection.
Parallel classification branches process transverse, sagittal, and coronal views to reduce computational load while maintaining diagnostic accuracy.
A processing module determines tumor burden using adaptive standardized uptake value thresholds tailored to specific anatomical regions.
Decomposing projection images into distinct material thickness maps for accurate composition analysis.
Markov Random Field modeling differentiates cell types to resolve automation precision trade-offs in disease detection.
A gated time of flight camera uses multiple gates to create a multi-dimensional gating space for distance determination.
A dynamic threshold method divides image areas by comparing pixel differences against locally calculated standard deviations.
Networked vehicle cameras replace detected objects with virtual 3D models, resolving narrow field-of-view limitations that hinder automated driving accuracy.
Segmenting detection from sorting enables high-throughput cell analysis while maintaining compact equipment size.
A computer-implemented method computes target and component feature vectors from 3D point clouds to match points and verify component presence.
A deep reinforcement learning agent maps selected medical images to optimal imaging parameters.
A multispectral stereo camera self-calibration algorithm corrects external parameters by extracting and matching motion tracks of moving objects.
A pattern measuring apparatus reconstructs contours from multiple SEM images to enable precise measurement of closely spaced features.
A computing system evaluates inspection data suitability to train automatic defect classifiers for specific classes.
Segment document images to extract formatting features and machine-encoded text, resolving the loss of layout details in standard OCR.
A train camera monitoring system detects lens dirt using a dedicated detection unit that triggers processes based on operational state data.
A smart portable device determines distance by calculating the length of a target object side in an acquired image.
A video processing system applies gamma correction and color space transformation to segment chroma key regions automatically.
An image processing apparatus calculates optimal positions to superimpose design objects onto segmented images.
A multi-exposure image fusion method combines luminance, exposure, and local gradient weights to produce fused images with clear details.
Image processing unit interpolates visible-light pixel color with fluorescence intensity to generate natural pseudocolor output.