Tomosynthesis extracts anatomical structures from projection images for positioning evaluation independent of synthesized image changes.
Pre-training learns stain-invariant histologic features from unannotated images, supporting accurate biomarker prediction from fewer labels.
Metadata comparison targets only relevant image regions, reducing processing load while maintaining seamless replacement accuracy.
This case combines super-resolved and artifact-suppressed MR images to preserve edge information while reducing Gibbs artifacts.
A trained model removes camera color fringing while preserving image brightness.
Stereoscopic processing compares geometric and temporal 3D estimates to refine depth while limiting complex computation to moving regions.
A semi-supervised model learns from unmarked images and adjusts detection thresholds for faster deployment in low-defect scenarios.
Preprocessing improves blurry or low-contrast images before neural style transfer, while brightness weighting limits excessive color differences.
A rope-attached camera frame uses 3D photogrammetry to measure diameter, roundness, and pitch without contact.
A GPU pipeline stages NLM before NLB to improve patch matching and denoising stability while preserving video details.
Precomputed angular displacement values compensate for corneal refraction, improving real-time pupil positioning and XR alignment.
Sensor data detects difficulty holding a phone and triggers application-specific UI changes for clearer, easier interaction.
Virtual camera images train AI to measure vehicle gaps and alert drivers to unsafe following conditions in real time.
Pixel-specific recursive protocols separate gas-present regions from backgrounds for more accurate fugitive-emission quantification.
This case projects depth-derived 3D points onto a target plane, then maps shape centers and radii back for precise robotic localization.
Combining ultrasound, optical, and thermal sensors enables real-time fluid passage estimates and more informed transfusion decisions.
This case uses LIDAR point clouds, photography, and AI analysis to identify roof shingle damage and limit unnecessary replacements.
Automatic image filter tuning reduces manual effort and training demands while improving structure detection for new objects.
A task-agnostic extractor reuses common image features while task-specific branches restore effects and prune channels.
This case combines infrared and projection-off TOF data to correct overexposure and support faster, more secure facial recognition.
A single-wavelength source and machine learning separate cellular signals from background light for rapid, in-situ detection.
Image-based 3D measurement derives coordinates without calibration plates or reference points.
Video analysis compares address-based reference angles with downswing angles, helping players judge swing path accuracy.
Staged outlier filtering and distance estimation help monitor vehicle surroundings accurately while limiting computation and energy use.
This case uses first-image iris and pupil segmentation to speed second-image glint detection and eye-pose estimation.
This case verifies perforation size, shape, alignment, reflection, and background to detect forged document features.
Geostatistical interpolation compares measured and predicted data to assess high-value region accuracy, position, and area.
Multi-camera coordinate transformation aligns moving-body positions in real space.
A modular control tower combines imaging and instrument data to deliver dynamic AR overlays tailored to surgical roles.
A virtual bronchoscope and device model coordinate endoscope guidance and second-device placement to improve lesion localization.
Feature matching between live and simulated ultrasound images identifies probe pose with minimal equipment and workflow disruption.
Style-content disentanglement transfers diverse defect patterns while preserving backgrounds, enriching inspection datasets from scarce samples.
A camera processor blends in-focus regions from different focal lengths to create composite frames with uniform focus.
Evaluate scanner test images with objective and subjective scores to reduce manual inconsistency and testing time.
This case combines segmentation, background inpainting, packed depth maps, and AR rendering to deliver interactive 3D messages efficiently.
A hybrid 2-D/3-D neural denoiser aligns depth-bin neighborhoods to improve 3-D image quality while reducing computational overhead.
This case groups image samples by normal vectors into one super voxel, improving ground plane estimation as surface elevation changes.
This case merges XR images with external tracking data to preserve hand location when occlusion or field-of-view loss increases battery use.
Computer vision tracks projectile positions across video frames to calculate throwing locations, reducing manual review and errors.
This case uses graph convolutional networks on MRI-derived brain surfaces to predict features and provide interpretable activation maps.
This case uses cropped objects, masking areas, and editing handlers to improve composition before generative inpainting or outpainting.
Image segmentation and contour detection select projectors dynamically, reducing setup and processing demands for scalable 3D mapping.
Luminance and intensity ratios guide pixel blending, preserving fluorescence visibility and natural color transitions.
Separate row and column warping stages use partial-frame memory to reduce latency and support extreme scaling and foveated rendering.
A pre-trained large model compares imitation and target videos in 3D to deliver objective posture feedback for self-guided training.
Global and ROI registration with a transition buffer improves DSA image accuracy where independent motion causes artifacts.
A Bayesian classifier maps MRI white matter connections to identify acute-stage mTBI and support earlier, objective diagnosis.
Machine learning merges wearable motion events with video to preserve athlete identities through collisions and visual occlusion.
Segmentation removes extraneous sensor points for more accurate centroid prediction.
Frame-buffer capture, timing overlays, and expected-image comparison automate static and dynamic graphic verification offline.
Display driver corrects optical aberrations, reducing graphic processing unit loading and cost.
Self-generated narrowing rules exclude intermittent rectangles, resolving the trade-off between detection accuracy and model update complexity.
Depth sensor software adapts virtual workspace boundaries to patient movements.
A surgical imaging system replaces foreground obstructions with tissue sections from previous video frames.
Convolution filters separate structural and high-frequency noise regions in compressed images for precise artifact identification.
Wavelet decomposition of infrared camera images detects heart rate and respiratory rate without breaking the incubator seal.
A parameter estimation network aligns feature models to reference images using recurrent convolutional neural networks.
A graph convolutional neural network predicts instance labels from unified cluster feature vectors in point clouds.
An image processing device analyzes captured frames to verify target object presence before executing learned model tests.
Two-stage deep learning network generates quantitative parameter maps from undersampled magnetic resonance images.
Deep neural networks analyze facial color variance to recognize action units across databases, replacing slow manual coding with automated real-time annotation.
A mobile camera system detects subject profiles to determine tilt angles and automatically straightens images within the viewfinder interface.
Imaging sensor detects fluorescence and scattered light to measure fluid material concentrations.
Particle number ratios encode microarray beads, eliminating complex physical tags and reducing manufacturing costs.
A tracking apparatus combines fixed and adaptive candidate regions to determine object position in image sequences.
Computing platform modifies least significant bits to neutralize steganographic modifications embedded in images.
An image processing apparatus detects edges in original images and corrects pixel attributes to maintain consistent edge width during enlargement.
Aligning digital images via depth-region disparity analysis adjusts transformations for specific pixel blocks to correct parallax errors.
Detecting curbs instead of vehicles reduces algorithm complexity and computational costs while maintaining accuracy across varying weather conditions.
A head segmentation unit predicts bone and brain masks to align raw CT images, resolving geometric variability from diverse imaging protocols.
Relative histograms calculate ratios between primary color channels to correct tint imbalances without distorting skin tones.
Optical inspection system analyzes pallet strapping and alignment against manufacturing specifications to prevent defective inventory entry.
Segmenting measurement regions and extracting features sequentially resolves interference from multiple shape elements, preserving positioning precision.
A control section generates a joined image of the whole workpiece by switching between imaging field-of-views.
A reference line determination system adjusts visual elements using spatial position information from original images.
A stereo vision system uses downsampling and merge circuits to generate high-resolution disparity maps from widely spaced camera inputs.
An object tracking apparatus detects video data to identify objects and performs tracking processing of a second object in association with a first object.
Computer system processes SPECT scan data to automatically identify tumor regions and calculate volumes without manual boundary delineation.
Adaptive color flow modeling resolves the trade-off between motion robustness and appearance discrimination in complex video scenes.
Mirror reflections enable detection system calibration without complex external equipment, reducing setup time and resource consumption.
A display compensation module generates overdrive frames to reduce response time in liquid crystal displays.
Generative adversarial networks fill gaps in logging while drilling data, ensuring complete datasets for accurate well planning.
A camera roll angle estimation method uses ground plane geometry to calculate orientation from image coordinates.
Radial intensity analysis contours cartilage in MR images, resolving the trade-off between segmentation precision and manual productivity.
A disparity estimator detects stereoscopic image differences while processing circuitry applies a scale factor to generate output images.
Automated detection system applies knowledge-guided filters and adaptive models to resolve unbalanced training data challenges in semiconductor manufacturing.
Lookup table mesh points enable on-chip pixel interpolation, eliminating pipeline delay from full frame storage in degraded visual environments.
Local image inference eliminates network transfer delays and confidentiality risks by processing input pictures directly on the display device.
A non-iterative image registration method computes similarity values from template patches to locate surgical targets in live images.
Extended depth value ranges overlap between adjacent layers to reduce defects at discontinuous depth parts and enhance three-dimensional sense of depth.
Method extracts quantitative metrics from brain images to diagnose cognitive impairment despite anatomical variability.
Radial inward peeling mechanism removes protective member from semiconductor wafer surface.
An image processing apparatus extracts high-frequency and low-frequency components to determine a composite position for combining images.
Binary frame segmentation reduces processing load for real-time multi-object detection in high-definition videos.
A computer aided diagnosis system standardizes ultrasound image features using intensity normalization to enable cross-scanner compatibility.
A ROLO engine fuses camera and lidar data to detect traffic objects in real time.
Comparing relative pixel intensity values in semiconductor wafer images reduces false alarms caused by gray level variations during inspection.
A method creates textured landmark representations from scanned vehicle surroundings to enrich map data.
Trained neural networks remove existing hair to create a clean face layer, resolving interference that obscures new styles.
A digital MR image processing system scales intensity values to align volume landmarks with a reference histogram for consistent data.
Patterned mask generation using second-harmonic signals resolves low contrast in collagen imaging systems.
Algorithm reconstructs volumetric heart anatomy from artifact-contaminated scans to predict precise ablation targets and reduce procedure duration.
An image signal processor removes shot noise from Bayer signals using stored reference brightness values and variation data.
A camera system warps and crops images using location data to maintain consistent perspective.
Ceiling-mounted downward cameras determine vehicle positions by calibrating poses with upward-facing robot cameras, resolving GPS-denied localization.
Convolutional neural networks process multi-view 2D silhouettes to generate accurate 3D avatars without specialized sensors.
A mark extraction network model processes road segment point cloud grayscale maps to identify and filter ground marks automatically.
An optical member uses transmissive units with different focal lengths to capture images reflecting distinct subject attributes.
A method generates segmentation confidence maps for retinal OCT data by calculating voxel-level confidence indicators from classification probabilities.
A noise reduction unit generates hierarchical images to suppress false color artifacts in high frequency regions.
A comparison unit monitors image data streams to detect deviations and triggers a switching unit to route the signal via a backup path.
Electronic device generates 3D datasets from 2D images using landmark alignment and texture mapping estimation.
Binocular cameras capture depth data to update high-resolution maps, reducing LiDAR survey costs while maintaining accuracy.
Processor circuitry generates person and object areas to determine interaction parameters for status indicators.
Machine learning identifies image artifacts automatically, resolving the contradiction between manual tagging time and system complexity.
Circuitry analyzes temporal CT mobility to assess pleural adhesion, resolving ultrasound coverage gaps.
A name bubble system dynamically adjusts text size and content based on zoom level and face dimensions.
A framework positions anatomical labels outside structures of interest using view-type selection.
A surveillance camera detects its installation angle by analyzing straight lines in captured images.
Reference and print images generate moiré fringes to measure substrate distortion, resolving precision versus complexity trade-offs in high-quality printing.
An automated control device uses Image Quality Assessment algorithms to evaluate image data during acquisition.
A geological image processing system joins multiple graphs into large-scale ground images using coordinate relations.
A multi-user augmented reality system generates a reference image on the fly by warping captured planar object views to establish a common coordinate frame.
A data collection apparatus evaluates road surface photographing environments using vehicle sensor data to control image transmission decisions.
Acquires object models from benchmark images to associate pre-existing reconstruction data across observation interruptions.
Medical X-ray devices adjust averaging amounts based on image deviation to reduce noise while preserving contrast in moving structures.
Arbitrary user poses enable motion capture calibration using inertial measurement units and video cameras.
A depth image filtering apparatus calculates standard deviations of depth values and average infrared intensity to generate a noise prediction model.
Coordinate transformation parameters map image frame targets to reference data positions.
A mobile terminal captures surroundings images and matches them against network-acquired reference data to determine its current location.
Segmenting the pipeline into independent modules eliminates complex truncation operations while reducing memory usage and design complexity.
Pretraining a pose estimation model with synthetic data resolves the trade-off between manual labeling time and dataset diversity.
A residual inception encoder-decoder network converts amyloid PET images between tracers to standardize measurements.
An asymmetric deformation approach aligns fractured bone segments without relying on symmetry assumptions, improving alignment reliability.
A video signal processing system transports sharpness information across color channels using multi-resolution representations.
Segments detection between radar and video sensors to resolve measurement precision versus reliability trade-offs during vehicle pitching.
A network management system detects facility utility metrics using sensor data to optimize equipment deployment decisions.
A 3D interface control system interprets hand motion and gaze data to enable direct manipulation of virtual objects.
A set-top box processor identifies repeated video frames to compile automatic highlight summaries.
A computer-implemented method transfers color information from a reference dental model to a primary model using non-rigid alignment and look-up tables.
An image-based irrigation controller processes vegetation color data to detect hydration states, eliminating water waste caused by fixed scheduling.
A neural network jointly estimates object locations and identifiers using probabilistic reasoning for interactions.
Location tracking prevents inadvertent control of wrong equipment by deregistering devices that leave the designated operating area.
Depth-based segmentation separates objects from owners in crowded scenes, resolving false positives caused by color similarity.
Orientation Transition Comparison method classifies video regions by edge orientation transitions.
Imaging system determines belt condition by calculating apparent velocities, eliminating expensive distance sensors.