150 results about "Spatial maps" patented technology

A system and method for dynamic zoom adjustment based, in part, upon: the raster data in the user selected local area is disclosed; and / or the knowledge of a prevailing font size in a user selected region such that the text in that region is enlarged to be just readable. To achieve this, the detail in the local area is examined and a zoom factor is calculated that depends on the image detail and / or the viewing screen resolution. A document server may be employed to develop the information needed to enable this functionality. In one embodiment, the information is developed by RIPping the document, and then storing a spatial map of localized details (e.g., font sizes at several display resolutions) to automatically adjust a zoom level or factor and thereby facilitate navigation and reading.

Systems, methods and devices for determination of disease class scores for patient tissue are disclosed. The disease class scores may be based on the probability or probability-like metric for a disease condition or outcome. The system includes an imaging apparatus and a computing system with instructions executable by a processor. The computer system may locate one or more points-of-interest on the pre-processed images of the patient tissue using a point-of-interest detector and generate one or more disease spatial maps including one or more probability or probability-like metric of disease classifications on the detected points-of-interest. The information in the disease spatial maps is aggregated to produce disease class scores.

A method and system for displaying predictions on a spatial map includes using a data analyzer for analyzing heterogeneous data having a spatial component to find utilizable data and using machine learning to automatically extract relationships from the utilizable data. The extracted relationships are used to make a prediction about at least one location on the spatial map and present that prediction in an oblique or perspective view. An interface presents the prediction on the spatial map in the form of a heat map overlying a 3-D topographical map. Although the 3-D map can be shown as any form of graphical projection including an oblique projection or orthographic projection, preferably a perspective view is used. It is also preferred that the graphical projection be interactive. The heat map may be 2-D or 3-D and be selectively displayed depending on the preference of a user.

Methods and systems for characterizing tissue of a subject include acquiring and receiving data for a plurality of time series of fluorescence images, identifying one or more attributes of the data relevant to a clinical characterization of the tissue, and categorizing the data into clusters based on the attributes such that the data in the same cluster are more similar to each other than the data in different clusters, wherein the clusters characterize the tissue. The methods and systems further include receiving data for a subject time series of fluorescence images, associating a respective cluster with each of a plurality of subregions in the subject time series of fluorescence images, and generating a subject spatial map based on the clusters for the plurality of subregions in the subject time series of fluorescence images. The generated spatial maps may then be used as input for tissue diagnostics using supervised machine learning.

A system and method of dynamically localizing a measurement of parameter characterizing tissue sample with waves produced by spectrometric system at multiple wavelengths and detected at a fixed location of the detector of the system. The parameter is calculated based on impulse response of the sample, reference data representing characteristics of material components of the sample, and path lengths through the sample corresponding to different wavelengths. Dynamic localization is effectuated by considering different portions of a curve representing the determined parameter, and provides for the formation of a spatial map of distribution of the parameter across the sample. Additional measurement of impulse response at multiple detectors facilitates determination of change of the measured parameter across the sample as a function of time.

Disclosed are various examples and embodiments of systems, devices, components and methods configured to detect a location of a source of at least one cardiac rhythm disorder in a patient's heart. In some embodiments, electrogram signals are acquired from inside a patient's heart, and subsequently normalized, adjusted and / or filtered, followed by generating a two-dimensional spatial map, grid or representation of the electrode positions, processing the amplitude-adjusted and filtered electrogram signals to generate a plurality of three-dimensional electrogram surfaces corresponding at least partially to the 2D map, one surface being generated for each or selected discrete times, and processing the plurality of three-dimensional electrogram surfaces through time to generate a velocity vector map corresponding at least partially to the 2D map. The resulting velocity vector map is configured to reveal the location of the source of the at least one cardiac rhythm disorder, which may be, by way of example, an active rotor in a patient's myocardium and atrium.

Spatial mapping of wireless access point service area. A means is presented by which a WACN's (Wireless Access Control Node's) service area is spatially mapped providing information corresponding to coverage region(s) within the WACN's service area. This spatial mapping may be generated and stored within either communication device at either end of a communication link (e.g., in a WACN or in a communication device operable to connect to the WACN). From the WACN's perspective, the spatial map can include its one or more coverage regions within its service area. From a communication device's perspective (e.g., a communication device that is capable to connect to a WACN), the spatial map can include multiple service areas provided by multiple WACNs and the various coverage regions therein. The partitioning of a WACN's service area into coverage areas can be performed along various lines (e.g., signal strength, history of connectivity, operational parameters employed, etc.).

Provided herein are robotic or automated multimodal tissue scanning or imaging systems and methods. The systems comprise a robotic delivery device configured to mechanically scan one or more zones of a tissue by co-registering at least two modalities, i.e., one or more of each of a sensor modality and an imaging modality and acquiring sensor modality data at one or more positions in the zone(s) as the sensor modality is dimensionally translated along the device axes. The system also comprises a computational core of a plurality of interlinked modules for planning, processing, tissue-sampling, visualization, fusion, and control of the delivery device and the system. The methods provided herein utilize the automated systems to produce spatial maps based on the analyzed sensor modality data.

A system and method for position tagging within an environment includes at least one mobile electronic device adapted to be moved within the environment and a pedestrian dead reckoning module. The at least one mobile electronic device includes an inertial measurement unit and at least one of a near field communication chip, barcode scanner, global positioning system, Bluetooth receiver or WiFi receiver. The pedestrian dead reckoning module is adapted to query and record time stamped readings from the inertial measurement unit and the at least one of the near field communication chip, barcode scanner, global positioning system, Bluetooth receiver or WiFi receiver. The system and method may generate one or more spatial maps of the environment through the collection of radio frequency signal data along with the time stamped readings.

A device is configured for interrogating a blood vessel to derive flow characteristics (S628) and for, responsive to the deriving and based on the derived characteristics, anatomically identifying the vessel. A spatial map of the vessels may be generated based on the interrogating, and specifically the Doppler power computed from data acquired in the interrogating. Subsequent interrogating (S668) may occur, based on the map and on a user-selected set of vessels and / or vessel categories, to derive clinical Doppler indices. The device can be designed to automatically set a sample volume (509) for the subsequent interrogating, and to operate automatically from the user selection to display of the indices. The display may further include an image (524) of the vessels summoned by the set, annotated by their individual anatomical names, and optionally a diagnosis relating to blood flow. The displayed image may be enlarged to zoom in on the user's onscreen selection. The device may feature a two-dimensional ultrasound non-phased array of transducer elements.

The invention discloses a mobile robot autonomous navigation method based on combined navigation and feature point matching, and the steps are as follows: S1, establishing a spatial map database; S2,planning a path; S3, obtaining position information of a mobile robot; S4, performing Kalman filtering iteration; and S5, correcting the inertial navigation of the mobile robot. Autonomous navigationbased on combined navigation and feature point matching is to use laser radar to scan and model the surrounding environment, extract the surrounding feature points, determine the location of the distance feature points, and then calculate the current position of the robot in the map according to the location of the feature points in the known map, so as to determine the position coordinates to compensate for the blocking out of the GPS signal of the patrol robot.

A medium of interest is interrogated according to ultrasound elastography imaging. A preliminary elasticity-spatial-map is formed. This map is calibrated against a reference elasticity-spatial-map that comprises an array (232) of different (240) elasticity values. The reference map is formed to be reflective of ultrasonic shear wave imaging of a reference medium. The reference medium is not, nor located at, the medium of interest, and may be homogeneous. Shear waves that are propagating in a medium are tracked by interrogating the medium. From tracking locations on opposite sides of an ablated-tissue border, propagation delay of a shear wave in the medium and of another shear wave are measured. The two shear waves result from respectively different pushes (128) that are separately issued. A processor decides, based on a function of the two delays, that the border crosses between the two locations. The calibrated map is dynamically updated and may include post-ablation border expansion (346) and time-annotated previous stages (344, 348).

A method is provided for measurement of dispersion or other optical and mechanical properties within a waveguide by inducing four-photon mixing at different locations within the waveguide by timing a pump signal to counter-collide with and abruptly amplify or attenuate one or both of a probe pulse and a signal pulse at each location. The measurement of the components of the resulting mixing signal created by each collision is used to calculate dispersion defined by the location at which the collision occurred. By combining the measurements from all of the locations, a spatial map of dispersion or other optical or mechanical properties within the waveguide can be generated.

A method and system for making predictions about business locations. The method includes providing a spatial map and analyzing heterogeneous data having a spatial component to find utilizable data. Relationships are automatically extracted from the utilizable data. The step of automatically extracting relationships includes generating a composite indicator, which correlates spatial data with unstructured data. The extracted relationships are presented on a spatial map to make a prediction about at least one business location. Preferably, the predictions are presented as a rank-ordered list on the spatial map and a heat map overlays the spatial map to indicate predictions about particular regions.

Provided is a method of generating a spatial map using a freely travelling robot. The method of generating the spatial map includes calculating a global coordinate of the robot based on a local coordinate of the robot that is outputted from each of a plurality of location coordinate systems arranged in a space, and estimating a location of each of the plurality of location coordinate systems in the space based on the calculated global coordinate of the robot to generate a spatial map based on the estimated location of each of the plurality of location coordinate systems.

A method for designing an absorbent article. The steps of the method are generating a physical spatial map of saturation of a fluid within an absorbent in a physical test environment, generating a virtual spatial map of saturation of a fluid within an absorbent in a virtual test environment, identifying absorbent-fluid interaction properties for the absorbent such that the virtual spatial map of saturation approximates the physical spatial map of saturation, inputting the absorbent-fluid interaction properties into a virtual model of the absorbent article to produce a representation of at least one feature of the absorbent article, evaluating the virtual model of the absorbent article to determine the performance of the at least one feature of the absorbent article, modifying the design of the absorbent article in response to the performance of the at least one feature of the absorbent article determined from the virtual model of the absorbent article.

Various methods and devices for spatial molecular analysis from tissue is provided. For example, a method of spatially mapping a tissue sample is provided with a microarray having a plurality of wells, wherein adjacent wells are separated by a shearing surface; overlaying said microarray with a tissue sample; applying a deformable substrate to an upper surface of said tissue sample; applying a force to the deformable substrate, thereby forcing underlying tissue sample into the plurality of wells; shearing the tissue sample along the shearing surface into a plurality of tissue sample islands, with each unique tissue sample island positioned in a unique well; and imaging or quantifying said plurality of tissue sample islands, thereby generating a spatial map of said tissue sample. The imaging and / or quantifying may use a nucleic acid amplification technique.

The present invention provides a semantic space map construction method and device. The method comprises a step of acquiring image data of a plurality of images, a step of obtaining the position of each feature point, the description information of each feature point, the position and semantic information of each semantic feature according to the images if a condition that feature points and semantic feature points exist in the image data of the images is judged and known, a step of matching the positions of feature points among the multiple images according to the description information of each feature point, obtaining a feature point matching set among the images, matching the positions of the semantic features among the multiple images according to the semantic information of the semantic feature points in each image, and obtaining a semantic feature matching point set among the images, and a step of obtaining three-dimensional space positions corresponding to each feature point and each semantic feature point according to the two matching sets, and constructing a semantic spatial map of a scene of a map to be established on the above basis and the semantic information of eachsemantic feature. According to the method and the device, the semantic spatial map of a spatial map and a semantic map is constructed.

An obscuration ‘information’-aided mechanism controls which of a plurality of spatially diverse antennas having different views of a satellite is to be coupled to a receiver, by comparing respective spatial maps of quantized visibility values, representative of the abilities of the antennas to see the satellite, with information representative of the pointing directions of the antennas. The antenna having the best view of the satellite is selected.

A method for measuring the partially saturated fluid transport properties of an absorbent. The steps of the method are generating a physical spatial map of saturation of a fluid within an absorbent in a physical test environment, generating a virtual spatial map of saturation of a fluid within an absorbent in a virtual test environment, and identifying the absorbent-fluid interaction properties for the absorbent such that the virtual spatial map of saturation approximates the physical spatial map of saturation.

A method and system to build a spatial map for a defined location based on the data collected from moving devices to define, measure and categorize the space in any consumer based environment and optimize the location of goods in the defined area. A method and system to collect, store, compare and display the real time positioning data and comparison of emotional and rational decisions, timeframes, biometric data crossed with a store cashier system to verify a purchase decision allowing for the categorization of “heat points” on the spatial map. Also provided is a method that operates in wireless environments.

A method and system for two and three dimensional mapping of tissue density and / or structural changes from image data and / or spatial reflected or transmitted signal maps, and correlating the maps to changes in collagen density. The method and system includes the steps of: receiving an image or spatial maps of acoustic-derived RF signal data from tissue comprised of multiple pixels, segregating the image into groups of pixels, each group of pixels having characteristics within a defined class, establishing a baseline set of classes corresponding to initial conditions of the imaged / mapped tissue, measuring a differential in the set of classes for a group of pixels, the differential corresponding to a change in pixel values for the group of pixels, correlating said measured differential to a density change for the tissue corresponding to the group of pixels, and overlaying an indication of collagen density over the tissue image or mapped signal responses correlated with thermal dose indicating a change in collagen density for the tissue.