2094 results about "Sub region" patented technology

Apparatus for and method of fully automatic rapid scanning and digitizing of an entire microscope sample, or a substantially large portion of a microscope sample, using a linear array detector synchronized with a positioning stage that is part of a computer controlled microscope slide scanner. The invention provides a method for composing the image strips obtained from successive scans of the sample into a single contiguous digital image. The invention also provides a method for statically displaying sub-regions of this large digital image at different magnifications, together with a reduced magnification macro-image of the entire sample. The invention further provides a method for dynamically displaying, with or without operator interaction, portions of the contiguous digital image. In one preferred embodiment of the invention, all elements of the scanner are part of a single-enclosure that has a primary connection to the Internet or to a local intranet. In this embodiment, the preferred sample type is a microscope slide and the illumination and imaging optics are consistent with transmission mode optics optimized for diffraction-limited digital imaging.

A system and method for an automatic conversion of web pages to shared structured web pages. An input web page is augmented with syntactic elements of a server-based software tool to create and customize group-writeable web pages. Sub-regions of the web page that are to be individually-editable items are identified, and syntactic elements are added to show where these editable regions begin and end, and where clickable buttons will appear that trigger the editing of an individual item, the addition of a new item, or other editing features. Also, syntactic elements are added that act as templates for the layout of any item to be added or modified. The conversion process includes parsing the Web page into an intermediate structure, adding information to individual tokens about the structures in which the tokens play a part, and them generating the new page while making one or more final passes through the intermediate structure from beginning to end.

An information processing apparatus includes a display unit and a control unit. The display unit is configured to display a dividing region dividing a main display region into two sub regions. The control unit is configured to control the display unit to display a plurality of icons in the dividing region, to change position of the dividing region in the main display region based on user input, and to display, when an icon of the plurality of icons is selected, information corresponding to the icon in at least one of the sub regions.

The present invention relates to method for assisting a user in generating an itemised medical report from at least one medical image. The at least one medical image is displayed in a display area of single computer display unit. In the same display area, a sub-region containing a checklist specific to the one or more images is displayed. Items from the checklist can be de-selected. This checklist comprises a list of selectable items, each item representing an organ, structure, or abnormality that has to be checked by the user. Linked to each item in the checklist is a default statement that is a pre-prepared statement indicative of the normality of the item. The default statement is not displayed by default as part of the checklist. The user can select an item from the checklist for providing comments by dictation thereon responsive to an observation in the radiological image. At the end of the image analysis, an editable itemised medical report is generated containing each item of the checklist as a heading and either the dictated comment or the default statement associated with the item as an observation. The editable itemised medical report is rapidly and accurately generated, information is confined to a single screen reducing the look-away time and general discomfort over time for the user.

A method (38) and system (56) evaluate the accuracy of an Automatic Location Identification (ALI) system (36) deployed within an environment (20) and configured to location a wireless communication device (24) originating an emergency call (22) through a wireless communication network (26). The method (38) includes a subprocesses that identify a validation region (144) in which a service area (106) of a public service answering point (PSAP) (32) and an RF coverage area (129) overlap, classify sub-regions within the validation region (144) according to a predetermined set of test scenarios (148) representing unique calling environments, and select test points (200) within the validation region (144) from which test calls, that simulate emergency calls, will be performed. The method (38) further includes an empirical test call execution subprocess (50) for performing test calls within the validation region (144) and a predictive test call execution subprocess (52) for simulating test calls within a simulated environment (260).

A method is described for determining a region-of-interest (ROI) for a client device on the basis of at least one HEVC-tiled (panorama) video stream wherein the method comprises: receiving a ROI video stream for rendering a first ROI defining a first sub-region within the full image region of said HEVC-tiled video stream, the positions of HEVC tiles in said HEVC-tiled panorama video being defined by tile position information; providing ROI position information associated with at least one video frame of said ROI video stream, said ROI position information comprising at least first position of said first ROI; identifying one or more HEVC tiles of said HEVC-tiled video stream on the basis of said ROI position information and said tile position information, preferably one or more HEVC tiles that overlap with said first ROI; and, requesting video data associated with said one or more identified HEVC tiles for rendering a second ROI defining a second sub-region within the full image region of said HEVC-tiled video stream.

A method of assembling situational Web-based dashboard from a wide array of web pages, digital media and components with just a few clicks and no programming, so a user can view scattered information from disparate sources on a single web-based screen. The components that can be included into dashboard pages are: live-area components created on-demand from any sub-region of any web page or web application; any rich media component such as rich text, video, picture, widget; and any office document (Microsoft Office documents and PDF etc.). Each dashboard page can contain any number of components. The size, position, location and layout of the components in the dashboard can be easily configured using a computer mouse, or through a touch screen interface. Each component in the dashboard can do auto-refresh from the source with a specified time interval, which also prevents user session timeout for secured web sites. The resulting dashboard can also be shared with others for collaboration. A set of dashboard pages can also be bundle together, and automatically display in a slideshow mode on-screen to auto display and monitor large number of information.

The apparatus includes a coarse map creating unit creating a coarse map which includes path information of the mobile robot; and a virtual door extracting unit extracting virtual doors which divide the coarse map into a plurality of sub regions, where the mobile robot sequentially cleans the sub regions one by one. The method includes creating a coarse map which includes path information of the mobile robot; extracting virtual doors which divide the coarse map into a plurality of sub regions; and sequentially cleaning the sub regions one by one.

A method according to some embodiments of the invention includes defining an active region by forming a trench device isolation region on an integrated substrate, forming a mask pattern that exposes a channel sub-region of the active region and the trench device isolation region adjacent to the channel sub-region, etching the trench device isolation region, which is exposed by the mask pattern, to be recessed to a first depth using the mask pattern as an etch mask, etching the channel sub-region to form a gate trench having a second depth that is deeper than the first depth using the mask pattern as an etch mask, and forming a recess gate that fills the gate trench.

A method for detecting an arbitrary number of touches from an input image of a multi-touch device comprising the following steps:processing said input image and obtaining a processed image;segmentation by thresholding of said processed image (8000) and obtaining a segmented image;identifying regions of the segmented image;finding local maxima, each local maximum being of size one pixel on a sub-region inside each region;determining at least one touch position based on said local maxima.

A soft-sided insulated container assembly has a generally box-shaped form like a school lunch box, having a main body and a lid. The lid is formed of one of the largest panels of the box-structure, and is joined to the main body of the box by a hinge that lets the lid lie flat next to the main body when the box is open. The inside face of the lid then defines a work surface on which to place objects such as foodstuffs and beverages. The work surface may be formed in a substantially rigid molded stiffener member, and may be divided into sub-regions with raised retainers to discourage sliding of objects where not precisely level. The container assembly may include a rigid internal liner with which the lid may mate zipperlessly. The mating portion of the lid may be formed in the same rigid member as the work surface.

Methods for establishing a location-based leaderboard by a computer game system are disclosed. The world may be partitioned into a set of regions and sub-regions by the computer game system using a hierarchical spatial data structure, wherein the regions and sub-regions are arranged according to a hierarchy, each sub-region being encompassed by a higher-level sub-region or region, and two or more highest-level sub-regions being encompassed by a region. A location of a user of the computer game system along with one or more statistics associated with the user may be assigned to a smallest sub-region created by the hierarchical spatial data structure. A rank of the user may then be determined within a region or sub-region encompassing the smallest sub-region to which the user's location was assigned, wherein the rank is determined using the one or more statistics associated with the user. One or more users may then be notified of the rank.

The present invention provides a unique system and method that facilitates obtaining high performance and more secure HIPs. More specifically, the HIPs can be generated in part by caching pre-rendered characters and / or pre-rendered arcs as bitmaps in binary form and then selecting any number of the characters and / or arcs randomly to form a HIP sequence. The warp field can be pre-computed and converted to integers in binary form and can include a plurality of sub-regions. The warp field can be cached as well. Any one sub-region can be retrieved from the warp field cache and mapped to the HIP sequence to warp the HIP. Thus, the pre-computed warp field can be used to warp multiple HIP sequences. The warping can occur in binary form and at a high resolution to mitigate reverse engineering. Following, the warped HIP sequence can be down-sampled and texture and / or color can be added as well to improve its appearance.

Methods for establishing a location-based leaderboard by a computer game system are disclosed. The world may be partitioned into a set of regions and sub-regions by the computer game system using a hierarchical spatial data structure, wherein the regions and sub-regions are arranged according to a hierarchy, each sub-region being encompassed by a higher-level sub-region or region, and two or more highest-level sub-regions being encompassed by a region. A location of a user of the computer game system along with one or more statistics associated with the user may be assigned to a smallest sub-region created by the hierarchical spatial data structure. A rank of the user may then be determined within a region or sub-region encompassing the smallest sub-region to which the user's location was assigned, wherein the rank is determined using the one or more statistics associated with the user. One or more users may then be notified of the rank.

The invention discloses a dynamic indoor region coverage division method and device for a mobile robot. The dynamic indoor region coverage division method at least includes that scanning each row of a raster map to divide the indoor region for two times, dividing the indoor region into an independent sub-region block and an independent region block, wherein the independent region block comprises a plurality of adjacent independent sub-region blocks; acquiring the topology planning sequence of the independent sub-region block and the topology planning sequence of each independent sub-region block of the independent region block based on a reverse searching mode and a minimum tree principle; acquiring the optimal route of the mobile robot in the indoor region based on a Dijkstra algorithm according to the topology planning sequences. The dynamic indoor region coverage division method and device for the mobile robot start from the environment cognition habits of the human to divide the indoor environment for two times, the completeness of the region with a certain function in the environment is guaranteed, and meanwhile, the region with a certain function is divided into the independent sub-regions where the mobile robot can walk; the dynamic indoor region coverage division method and device for the mobile robot conform to the robot thought.

A medical imaging system includes an image sensor that receives imaging signals from a region of interest, a memory coupled to the image sensor, and a processor coupled to the memory. The memory stores image data derived from the imaging signals for first and second sub-regions of the region of interest acquired during a first and second occurrence of a physiologic cycle. The processor initiates display of the first image data while the second image data is being acquired and initiates display of the first image data joined with the second image data after the second image data is acquired.

A display which includes a plurality of sub-pixels each split into a plurality of sub-regions. Each sub-pixel includes a single gate line and a single signal line, and each sub-region within a given sub-pixel includes a corresponding storage capacitor line. An optical element cooperatively combines with the plurality of sub-pixels to create distinct angularly dependent brightness functions in association with corresponding sub-regions within the sub-pixels. Control electronics are configured to provide image data levels in the form of signal data voltages to each sub-region included within each sub-pixel via the gate line and signal line included within the sub-pixel; and to independently modify the signal data voltages provided to each sub-region within the sub-pixels via the corresponding storage capacitor lines whereby the display operates in accordance with at least two different image functions.

The embodiment of the present invention discloses an electronic device and a method for displaying application software windows thereof. The display area of ​​the electronic device is divided into multiple independent sub-areas, including: obtaining the type of application software to be run; Determine the corresponding relationship between the type of application software and the sub-area, determine the sub-area corresponding to the type of application software that needs to be run as the target sub-area; display the application software window in the target sub-area. The present invention enables the application software window to be displayed in each sub-area of ​​the display area through the above settings, and the user can see the use status of the application software window at any time, making the user's use more intuitive and quick, saving operation time, and improving work efficiency. And the application software windows of the same type are displayed in the same sub-area without overlapping each other, and the type and type of application software displayed in each sub-area can be customized by the user, which meets the personalized needs of users in different usage environments.

A system and computer implemented method is provided for monitoring dynamic application data. A request to monitor a sub-region within a display page of a user interface of a second application may be accepted in a first application. The first application may iteratively capture data during the operation of the second application. The first application may determine that an instance of the captured data matches data representing the requested sub-region or page and in response, may extract content associated with the requested sub-region from the captured data. The first or second application may display the extracted content, for example, for monitoring the requested sub-region of the second application.

The invention provides an MRI (Magnetic Resonance Imaging) brain tumor localization and intratumoral segmentation method based on a deep cascaded convolution network, which comprises the steps of building a deep cascaded convolution network segmentation model; performing model training and parameter optimization; and carrying out fast localization and intratumoral segmentation on a multi-modal MRIbrain tumor. According to the MRI brain tumor localization and intratumoral segmentation method provided by the invention based on the deep cascaded convolution network, a deep cascaded hybrid neuralnetwork formed by a full convolution neural network and a classified convolution neural network is constructed, the segmentation process is divided into a complete tumor region localization phase andan intratumoral sub-region localization phase, and hierarchical MRI brain tumor fast and accurate localization and intratumoral sub-region segmentation are realized. Firstly, the complete tumor region is localized from an MRI image by adopting a full convolution network method, and then the complete tumor is further divided into an edema region, a non-enhanced tumor region, an enhanced tumor region and a necrosis region by adopting an image classification method, and accurate localization for the multi-modal MRI brain tumor and fast and accurate segmentation for the intratumoral sub-regions are realized.

A method for capturing at least one sub-region of a three-dimensional geometry of at least one object, for the purpose of updating an existing virtual three-dimensional geometry of the sub-region, optionally after elements of the object present in the sub-region have been modified, removed and / or added, wherein the method includes the following steps: a) providing the existing virtual three-dimensional geometry of the object, for example, from an earlier image capture, b) capturing of two-dimensional images from which spatial information of the three-dimensional geometry of the objects is obtained, c) automatic addition of spatial information obtained to existing spatial information, if applicable d) updating the existing virtual three-dimensional geometry of the sub-region of the object based on added information, e) optionally repeating the process from step b).

Methods and system to enable a user of an input action recognition text input system to edit any incorrectly recognized text without re-locating the text insertion position to the location of the text to be corrected. The System also automatically maintains correct spacing between textual objects when a textual object is replaced with an object for which automatic spacing is generated in a different manner. The System also enables the graphical presentation of menu choices in a manner that facilitates faster and easier selection of a desired choice by performing a selection gesture requiring less precision than directly contacting the sub-region of the menu associated with the desired choice.

A soft-sided insulated container assembly has a generally box-shaped form like a school lunch box, having a main body and a lid. The lid is formed of one of the largest panels of the box-structure, and is joined to the main body of the box by a hinge that lets the lid lie flat next to the main body when the box is open. The inside face of the lid then defines a work surface on which to place objects such as foodstuffs and beverages. The work surface may be formed in a substantially rigid molded stiffener member, and may be divided into sub-regions with raised retainers to discourage sliding of objects where not precisely level. The container assembly may include a rigid internal liner with which the lid may mate zipperlessly. The mating portion of the lid may be formed in the same rigid member as the work surface.

A cooking device includes a base, a housing, a lid, a control module, a heating module and an exhaust module. The heating module includes bottom heating units disposed at different locations inside a storage compartment of the housing. The exhaust module includes an air-filled element, an air-extraction element, an inlet passage, and an exhaust passage used to exhaust fog or oil flume generated in an inner pot(s). An inner surface of the lid is provided with multiple first sealing units, a second sealing unit and a third sealing unit. The third sealing unit is arranged corresponding to an opening of the storage compartment. The second sealing unit is connected with the third sealing unit to divide a region surrounded by the third sealing unit into sub-regions with different sizes. The first sealing units are arranged corresponding to the bottom heating units and in the sub-regions with different amounts.

Embodiments of the present invention relate to automated methods and systems for determining a degree of presence of a movable object in a physical space. Video images are used to define a region of interest (1305) in the space and partition the region of interest into an array of sub-regions (1310). Then, first and second spatial-temporal visual features are determined, and metrics are computed (1320), (1340), to characterise whether or not each sub-region contains a moving or stationary object. The metrics are used to generate (1350) an indication of the overall degree of presence within the region of interest.