Simultaneous 3D and 2D scanning on a moving platform registers coordinates in real time to improve coverage and cut scan time.
Image warping and camera stitching correct side-view distortion so lateral vehicles can be detected with more accurate bounding boxes.
LiDAR suspicious-point analysis plus camera reflection verification helps robots detect glass and specular surfaces for safer mapping and navigation.
Probabilistic occupancy and pose grids cut SLAM compute load while handling sensor uncertainty for robust mobile navigation.
A camera tracks tag visibility and motion on the work platform to count finished clothing pieces in real time despite frequent order changes.
Known reference points let drones calibrate moving cameras on live-action sets with fewer cameras, less setup time, and accurate alignment.
Image analysis of weld-zone light emission detects small ERW steel pipe edge mismatch without mirror-surface measurement errors.
Vision and image processing on the receiver aircraft enable autonomous air-to-air refueling by tracking relative position and tanker attitude.
Laser distance sensing and bird's-eye point mapping stabilize crop row recognition despite lighting changes and seasonal crop variation.
Frame-to-frame bladder feature analysis verifies scan success before extraction, improving urine volume measurement accuracy.
Projects 3D vehicle paths into image space and steers around low-confidence depth regions to reduce collision risk in complex scenes.
Fusing image features with sparse range data improves long-distance object detection and tangential velocity estimation for autonomous vehicles.
By switching phased-array radar resources based on driving state and data urgency, vehicles can send critical data in real time without losing needed object detection.
Deep neural feature extraction matches online LiDAR points to map keypoints for robust, centimeter-level vehicle localization.
Dynamic sensor fusion adjusts object detection intervals to relative velocity, preserving ADAS tracking accuracy while reducing hardware use.
Uses torque sensing and multi-view marker imaging to track fastener position in narrow fluid-control assemblies while reducing tool complexity.
Projection mapping and perspective tracking create a shared 3D virtual venue without wearable AR gear, improving immersion and sanitation.
Removing sensor and location bias from build-layer images enables real-time defect detection and beam adjustment with less data processing.
A moving assisting vehicle supplies calibration targets and relative positioning so truck sensors can stay accurately calibrated during operation.
An AI network combines low-resolution emission data with higher-resolution CT or MR volumes to speed quantitative image reconstruction.
Straight-line features from multiple cameras help delivery robots build accurate outdoor maps and localize where GPS precision is insufficient.
Multisensor time-series data is converted into situation images so abnormal facility states and related sensor locations can be detected more accurately.
In-flight pose correction and model updates let a UAV scan concave, irregular targets more completely and accurately in one visit.
Small IMU and time-of-flight sensors are fused with a prebuilt 3D space model to localize confined-space inspection tools without heavy hardware.
UV laser marking creates durable identification on elastomer medical components without labels, leachables, or surface damage.
Gaussian conditional random fields classify point clouds into ground and obstacles in real time with lower computational cost.
An AI-guided carrier with detachable mobile tools improves selective weed removal near crops while reducing manual labor in organic farming.
Local latent scoring with CPC and smoothing isolates anomalous time-series regions without labels, improving subsequence-level detection.
Multi-view robot vision builds a reusable model of an unknown object, enabling later detection and pose estimation without pre-existing 3D models.
A disposable scale platen with imaging and color-change coating helps sterile chemotherapy compounding reduce exposure and document dosing.
Image analysis assigns herbicide, mechanical, or thermal weed treatment by area to maintain control while reducing chemical use.
Brightness-based spatter detection is refined with color filtering to remove arc-light reflections and improve weld spatter counts.
Image analysis and machine learning select weed control methods by area, cutting herbicide use while maintaining effective vegetation control.
Infrared and visual cameras outside a SAG mill detect worn balls and broken media in real time, helping control ball loss and grating issues.
GPS coordinates are corrected with onboard images and street-view matching to improve vehicle location accuracy and shorten search time.
Time-series image features let a PLC detect unusual equipment and product conditions more accurately than fixed image pattern checks.
An onboard deep neural network detects target objects in real time, reducing preprocessing and operator analysis in underwater imagery.
User image data is converted into skeleton-based skill motions, enabling personalized game character actions without manual animation work.
Pre- and post-opening scans detect content position and damage, then refine cutting parameters to reduce opening damage without slowing throughput.
A stationary camera maps non-broadcasting objects to location coordinates, enabling lower-cost vehicle collision avoidance.
Grayscale and color cameras share localization and recognition tasks to cut power while keeping real-time mapping and positional accuracy.
Cameras and projected indicia verify vehicle service target placement, improving sensor calibration accuracy without manual measurement.
3D workspace imaging and fixture-based pose calibration let users program robot paths accurately without CAD models or physical teaching.
Segmented image strips enable real-time detection of holes and splashed material in laser joining while reducing false positives.
Combined image and height data enable neural evaluation of laser machining errors without expert parameter tuning or long production interruptions.
Hierarchical grid mapping marks obstacle presence and refines positions only where needed, improving vehicle navigation in narrow spaces.
Rendering user-defined 3D models into annotated images cuts manual collection and labeling effort while preserving training data quality.
A 3D CNN cost-volume approach refines LiDAR map matching to infer vehicle pose with centimeter-level accuracy and less scenario-specific tuning.
Automatic 3D calibration links robot and imaging spaces to align a needle with occluded targets, reducing repeat punctures and radiation exposure.
When self-position is lost, recorded obstacle surface coverage guides route planning to sense incomplete areas and restore localization faster.
Adjacent spectrum-image detections are merged by coordinate and power analysis to preserve boundary-spanning signal accuracy without slowing processing.
Dynamic ROI adjustment detects foreign objects during intraoral scanning to exclude them and improve 3D model accuracy without optical changes.
Counterposed coaxial camera-projector channels combine complementary reflections to improve 3D measurement of specular surfaces.
Cross-sectional image matching against ridge templates identifies contour differences and abnormalities in formed objects on agricultural fields.
Relative texture characteristics turn complex multi-angle coating data into clear visual differences for faster, more accurate texture matching.
Multiple inference models automatically select accurate results to build higher-quality training data with less manual effort.
When hats, glasses, or headsets hide facial landmarks, accessory pose is fused with visible features to keep head pose tracking accurate.
Map-based road context and onboard images help detect low visibility near the vehicle for timely hazard mitigation.
Accelerated carbon, proton, or helium beams ablate arrhythmogenic cardiac tissue while contouring and gating limit motion-driven collateral damage.
Regional breast ultrasound mapping links glandular tissue evaluation to partial breast zones, improving local cancer risk assessment.
Directional filtering and cross-correlation separate blink frames from retinal SLO scans, improving OCT tracking and image quality.
A third camera with overlapping views iteratively aligns tracking and broadcast cameras without external markers or a wide baseline.
Noise-map and signal-to-noise processing reduce fluorescence unmixing noise while preserving Poisson behavior for clearer dye separation.
Cloud-based 4D flow MRI processing automates error correction, segmentation, and validation to cut procedure time and improve throughput.
Overlapping PET frame re-binning and PCA separate respiratory and cardiac waveforms, reducing motion blur without external sensors.
Position-based transmission filtering lets mobile terminals share route videos only when relevant, improving availability while reducing terminal burden.
Real-time vessel path masks and child vessel detection guide catheter repositioning, cutting contrast use and shortening procedures.
Textural analysis and machine learning speed online adaptive replanning by correcting contours and generating synthetic CT in clinical time.
Sequential expansion of a difference region preserves adjacent 3D image boundaries when one segmented region is reduced.
Maps image pixels to LIDAR point clouds to isolate crack regions and measure real-world crack dimensions despite complex backgrounds.
Overlaying a calibration image on a second camera view makes temporal misalignment visible and supports accurate camera parameter adjustment.
Ball detection, trajectory analysis, and camera time sync automate multi-angle sports video editing without costly professional equipment.
Spectrogram image comparison speeds voice quality evaluation and supports wideband audio without PESQ's complex alignment steps.
Orthorectified maps and calibrated camera images enable fast, accurate direction finding when direct target observation is not possible.
Image sensors detect gestures near independent objects to grant access without touch, cutting electromechanical hardware and installation cost.
LiDAR SLAM fused with high-rate IMU data delivers smooth, precise AR pose tracking in dynamic or featureless GPS-denied spaces.
Automated vessel trendline analysis locates multiple lesion sites in medical images with clearer visualization and less manual review.
Sequential single-color lighting adds implicit color to grayscale camera images, improving segmentation accuracy for precise robotic grasping.
Masked pixel blocks and self-attention let super-resolution models learn beyond the receptive field while reducing unnecessary computation.
A low-dose 3D scanogram is transformed into a synthetic pre-contrast CT volume, improving subtraction quality while avoiding extra radiation.
Building candidate points and a relational matrix speed urban 3D point cloud building extraction while preserving instance accuracy.
Factory two-source calibration plus field single-source updates separate dark current from signal to improve infrared image uniformity and reduce noise.
Multiple focal-plane images are fused into optical profiles to evaluate curved surfaces accurately despite depth-of-field blur.
High-speed eye images are processed by a trained neural network to localize eyelids consistently for quantitative blink reflex diagnosis.
Single-stroke input and preprocessing enable fast region recoloring on mobile devices with less user effort and lower compute demand.
Jointly trained geometric and color NeRFs use lidar, camera data, and an occupancy grid to model outdoor vehicle scenes more densely and accurately.
Machine learning turns one 2D image into texture and depth maps for stereo XR viewing, adding immersion without multi-camera complexity.
Color mapping limits near-white luminance to render super saturated colors, expand gamut, cut metameric errors, and manage power use.
A loss function combining feature distance and overlap helps object tracking stay accurate when similar targets, occlusion, or pose changes confuse IDs.
Mobile 3D body scanning uses front and side images to improve apparel size recommendations without specialized equipment or skills.
Conventional image inspection labels fault and fault-free container images on site, cutting expert setup time while preserving detection reliability.
Clusters background pixels into binary content slices to isolate foreground regions in variable document headers without semantic analysis.
Time-series luminance analysis across culture wells improves bacterial growth and antibiotic susceptibility detection without unstable image thresholds.
A diffusion-based editing approach relocates and recolors design assets to preserve readability, contrast, and visual harmony.
Quantified image analysis compares representative values across test strip lines to reduce visual misjudgment in positive and negative results.
Joint-based body part templates and CRF refinement cut manual labeling time while preserving accurate human-part segmentation.
Machine learning locates blur, judges its impact on text regions, and applies stitching or filtering to correct images automatically.
A two-stage horizontal correction with 90-degree rotation enables real-time binocular image stitching while reducing hardware load and ghosting.
When a subject region disappears in later frames, detection expands beyond the prior area to maintain accurate, continuous tracking.
Precomputed marker calibration cuts real-time processing while improving monocular distance, yaw, and roll estimation in dynamic scenes.
Continuous image capture tracks posture and movement, helping imaging systems detect occlusion and trigger timely safety procedures.
A matrix camera and neural networks separate upper, lateral, and corner surfaces for faster defect detection and quality scoring.
The inspection system identifies outlier tiles and dynamically adjusts Tmax to detect large defects and image misalignment.
This case uses reference spectra and selected wavelength bands to analyze makeup presence, concentration, and type.
Example image data lets one pre-trained model process varied images, improving quality without separate models or re-training.
Three-dimensional imaging and morphology-adjusted models support quantitative edema assessment when manual or unilateral methods vary.
Threshold and corrugation functions register fluorescent features despite overlap in high-density polynucleotide arrays.
An interceptor routes front and back images to parallel processors, using conversion feedback to conserve resources across document types.
Treatment tools can distort endoscope detection values; weighted luminance areas preserve suitable brightness for the region of interest.
This case selects printed-sheet inspection levels from overlap proportions, reducing manual setup while preserving object-specific accuracy.
This case refines offsets from new reference points to improve vertebral landmark accuracy when direct regression is ambiguous.
This case synthesizes realistic restricted-zone samples by segmenting, resizing, and blending anomalous organisms with backgrounds.
3D-registered X-ray processing highlights bone landmarks within a defined volume.
A scene geometry network and map-relative regressor improve pose accuracy without depth maps or point clouds, reducing training demands.
A GUI highlights percentile-based LAT outliers, enabling selective removal and regeneration of a more accurate electrophysiological map.
A triggered image effect transfers one object's color onto another, using mapping and blur to improve visual quality.
Machine learning compares rendered 3D assets with reference images using color histograms and texture scoring for scalable quality control.
Machine learning scores endoscopy timelines and selects key-frame thumbnails, reducing manual review time while preserving salient findings.
Machine learning compares feature constellations with verified units to flag dimensional anomalies and limit defect propagation.
Multi-light imaging and machine learning automate consistent tool wear assessment.
A separated backbone and prediction network reduces computational load while preserving pose estimation accuracy on limited devices.
A depth-map edge adjustment makes pixel offsets uniform, eliminating uneven black blocks in the second stereoscopic image.
This case adjusts mapping curve parameters using display luminance and coefficients to preserve tone accuracy across devices.
Local structure descriptors speed depth mapping while reducing noise sensitivity.
Heat maps refine object proposals for more robust localization and counting.
Color analysis estimates hemoglobin concentration and fluid level in a canister for more precise extracorporeal blood-volume tracking.
This case uses context-driven models and symmetric encoding to compress sliced sensor data while reducing decoder complexity.
Naturally emitted infrared signals yield thermal metrics and diagnostic scores that improve specificity for subtle cancer types.
This case uses vehicle-mounted thermal imaging and reflected scene views to build disparity maps for more reliable mobile navigation.
Perspective-corrected infrared data from a carbon fiber calorimeter enables precise high-current beam divergence analysis.
Lightweight DNNs use LiDAR range images and multiple frames to track motion despite occlusion and limited training data.
This vehicle monitoring case combines video, telematics, and periodic analysis to detect tailgating while conserving computing resources.
This motion monitoring case combines ankle, racket, and image data to recognize hitting actions and support personalized player training.
Operator-reviewed CNN classifications help AOI inspection reduce false calls and retrain for changing manufacturing defects.
A unified pipeline combines 3D implicit geometry with 2D parametric appearance embeddings to render realistic hair views from one image.
This mask inspection approach uses a second sample's results to filter nuisances while maintaining defect detection sensitivity.
A normalization model learns from unlabeled tissue images and supports disease prediction with fewer labeled samples.
Similarity-based filter placement creates an intuitive image-filter space for faster comparison, navigation, and customized blending.
2D image labels generate pseudo-labeled point clouds for multi-task 3D pose training, reducing manual LIDAR annotation time and cost.
A cascaded transformer combines cross-attention and self-attention to address monocular depth ambiguity with efficient 3D reconstruction.
Adaptive beam geometry masking removes logos, annotations, and PHI while improving ultrasound model generalizability across devices.
An IMU, image sensor, and control actuator system digitally correct spin and motion artifacts for real-time projectile imagery.
Cameras compare surgical devices with digital preference cards, guiding accurate operating-room setup while reducing manual checking.
Two-step encoding, AdaIN, and Color Consistency Loss control target color while preserving apparel structure in one GAN.
Weighted dilation regions and delayed updates reduce afterimages while revealing background content through bright clothing.
Frame synthesis displays a lower-quality preview before high-quality output, reducing waiting stress and enabling early quality checks.
A mixture-of-experts model combines phenomic embeddings to improve neuronal perturbation analysis while reducing computational demands.
This case combines real and virtual frames with tailored timing to reduce motion discomfort from mixed reality display delays.
This case uses iterative spatio-temporal inference to improve multi-object decomposition and future trajectory prediction.
A trained derivation model aligns tomographic images to set accurate 3D structure coordinates while reducing processing burden.
Statistical domain temporal filters eliminate false color noise in low-light images, preventing smearing artifacts during compression.
An eye surgery visualization system processes captured image data to correct lateral orientation discrepancies in the displayed view.
Automated test chart analysis determines optimal compensation values for defective inkjet printing nozzles, eliminating manual errors and visible defects.
A multi-camera system combines blind spot images with stereo vision data to create a seamless see-through view for drivers.
A multi-channel convolutional encoder-decoder generates response maps from MRI data to locate prostate tumors.
A camera system analyzes image frames to count direction changes within a region of interest for vital sign extraction.
An infrared imaging system classifies pixel intensity values using reflectance correlation to determine the total number of objects in an image.
A camera module captures two-dimensional images of stored items to identify contents and determine internal locations within a chilled chamber.
Segmenting head contours resolves accuracy issues when users stand sideways, enabling precise virtual try-on applications.
Dual imaging units capture performer and audience visuals for real-time excitement heat maps.
A distance measurement device derives dimensions for multiple targets simultaneously using directional light rays and an imaging unit.
An electronic device detects wafer placement states by dividing container space into sub-areas for targeted artificial intelligence image processing.
Fiducial marker detection automates camera configuration, eliminating manual network manipulation and reducing setup errors.
Fuses Quad Bayer and standard Bayer image frames to balance resolution and light sensitivity in electronic devices.
Semantic segmentation rendering encodes structural identifiers in pixel values to localize components, resolving high-fidelity data volume trade-offs.
Generative adversarial networks replace physical staining to reduce time, cost, and environmental pollution while maintaining diagnostic visibility.
Multi-feature calibration target corrects distance error and motion artifacts, resolving benchmarking inconsistency across diverse 3D camera evaluations.
An information processing apparatus manages chronologically captured images from a moving agricultural vehicle to retrieve specific targets.
A smart security inspection system automates passenger screening through modular units and centralized data processing.
A synthesizing device selects a reference image with minimal object motion to blend frames and reduce noise.
Interpolation creates virtual pixels for precise tracking, resolving errors from large displacements and noise sensitivity.
An image processing system calculates object distances using a uniform view transformation and bounding box indications.
Feature extraction establishes coarse alignment before iterative closest point refinement, correcting inaccurate GPS estimates to improve registration speed.
A conversion unit transforms Perceptual Quantization image data into Hybrid Log Gamma format using a shared transfer function for associated parameters.
Progressive GANs synthesize diagnostic images from native MRI signals, eliminating gadolinium toxicity risks while maintaining tissue differentiation clarity.
A trajectory tracking system segments head images to maintain motion paths during occlusion.
A gas leak position estimation device segments infrared images into pixels to identify the specific source of a leak.
A binary descriptor generation method processes point pairs using tridimensional rotation information from inertial sensors.
Segmenting PET data into frames enables live image display during scanning, resolving delays in conventional reconstruction methods.
A mixed reality headset projects virtual surgical jigs onto bone surfaces using 3D spatial mapping cameras for precise alignment guidance.
A texture mapping apparatus detects identical texel values to select simplified filtering operations.
Overlay image generation adjusts signal strength using base and modification datasets to resolve vessel-instrument recognition conflicts.
A projection transformation parameter estimation device fits a quadratic surface to correspondence points for accurate geometric mapping.
A stereo camera device estimates continuous structure degrees from parallax slopes to identify vehicles.
A coarse mask rendering method uses transmission-matched subpixels to represent polygon fragments and edge fields.
Extracts representative text and background colors from image regions to apply matching styles to translation overlays.
A virtual reality radiology practice apparatus uses head-mounted displays and hand sensors to simulate equipment operation.
Electronic device captures environment images to detect obstacles, resolving navigation reliability issues caused by physical barriers.
A microscopy system generates all-focused images by shifting focal planes and fields of view within a single exposure period.
A urine sediment image processing method merges adjacent grid feature vectors into general combination vectors to enhance precision.
A marine electronic device generates guard zones via continuous touch patterns on a display screen.
Statistical evaluation of multiple machine learning trials identifies reliable areas and reduces artifacts without increasing data collection time.
A length measurement system calculates optimal smoothing parameters to determine true size and edge roughness from noisy pattern images.
Classifies candidate red-eye objects using YUV color space conversion and luminance summation to reduce false detection rates in complex visual scenes.
Segmented photon counting channels apply variable shaping times to manage noise and pile-up, improving detection accuracy across varying flux rates.
Segmenting 3D medical datasets into object and background regions to apply randomization operations that protect patient privacy.
A method generates diverse counterfactual explanations by applying minimal perturbation vectors to disentangled latent representations.
A head-mounted display estimates target object positions by combining monocular camera data with motion detection information.