Abstract: The present disclosure involves system, methods, and media for displaying and exploring software object relationships in an interactive manner. In general, complex structures can have relationships between objects, such as parent/child relationships, general associations, and dependencies. Additionally, some objects may have multiple dependencies. For example, an object representing “low battery” may be a child object for both a screen failure object and a GPS failure object. The n-column explorer allows for exploring relationships between objects of arbitrary categories and in hierarchies of arbitrary depth, without the need to duplicate objects. For example, the “low battery” object need not be duplicated for both the GPS failure and the screen failure.

Abstract: The present disclosure involves system, software, and computer implemented methods for presenting a workdesk comprising three viewports in a graphical user interface (GUI). The first viewport displays an active application, a second viewport displays a toolbar including one or more icons that indicate applications that are available for interactions, and a third viewport displays a toolbar including one or more cross-application tools. Upon receiving a selection of a cross-application tool in the third viewport, an action associated with the selected cross-application tool is performed for at least one of the one or more indicated applications in the second viewport, and results of the action are overlaid in the first viewport.

Abstract: The disclosure relates to a 5th generation (5G) or 6th generation (6G) communication system for supporting a higher data transmission rate. A method and a network entity for dynamic spectrum sharing (DSS) between long term evolution (LTE) cell and new radio (NR) cell in a wireless network are provided. The method includes determining a plurality of DSS parameter, determining a resource split between at least one bearer of a plurality of bearers of the LTE cell and at least one bearer of a plurality of bearers of the NR cell based on the plurality of DSS parameters, determining optimal key performance indicator (KPI) parameters for an overlapped LTE cell and NR cell combination based the resource split, and applying optimal tuning parameters on the overlapped LTE cell and NR cell combination in the wireless network based on the optimal KPI parameters.

Abstract: The present disclosure involves system, software, and computer implemented methods for presenting a workdesk comprising three viewports in a graphical user interface (GUI). The first viewport displays an active application, a second viewport displays a toolbar including one or more icons that indicate applications that are available for interactions, and a third viewport displays a toolbar including one or more cross-application tools. Upon receiving a selection of a cross-application tool in the third viewport, an action associated with the selected cross-application tool is performed for at least one of the one or more indicated applications in the second viewport, and results of the action are overlaid in the first viewport.

Abstract: The present disclosure involves system, software, and computer implemented methods for presenting a workdesk comprising three viewports in a graphical user interface (GUI). The first viewport displays an active application, a second viewport displays a toolbar including one or more icons that indicate applications that are available for interactions, and a third viewport displays a toolbar including one or more cross-application tools. Upon receiving a selection of a cross-application tool in the third viewport, an action associated with the selected cross-application tool is performed for at least one of the one or more indicated applications in the second viewport, and results of the action are overlaid in the first viewport.

Abstract: The present disclosure involves system, software, and computer implemented methods for presenting a workdesk comprising three viewports in a graphical user interface (GUI). The first viewport displays an active application, a second viewport displays a toolbar including one or more icons that indicate applications that are available for interactions, and a third viewport displays a toolbar including one or more cross-application tools. Upon receiving a selection of a cross-application tool in the third viewport, an action associated with the selected cross-application tool is performed for at least one of the one or more indicated applications in the second viewport, and results of the action are overlaid in the first viewport.

Abstract: The present disclosure involves system, methods, and media for displaying and exploring software object relationships in an interactive manner. In general, complex structures can have relationships between objects, such as parent/child relationships, general associations, and dependencies. Additionally, some objects may have multiple dependencies. For example, an object representing “low battery” may be a child object for both a screen failure object and a GPS failure object. The n-column explorer allows for exploring relationships between objects of arbitrary categories and in hierarchies of arbitrary depth, without the need to duplicate objects. For example, the “low battery” object need not be duplicated for both the GPS failure and the screen failure.

Abstract: The present disclosure involves system, methods, and media for displaying and exploring software object relationships in an interactive manner. In general, complex structures can have relationships between objects, such as parent/child relationships, general associations, and dependencies. Additionally, some objects may have multiple dependencies. For example, an object representing “low battery” may be a child object for both a screen failure object and a GPS failure object. The n-column explorer allows for exploring relationships between objects of arbitrary categories and in hierarchies of arbitrary depth, without the need to duplicate objects. For example, the “low battery” object need not be duplicated for both the GPS failure and the screen failure.

Abstract: Systems, devices, and methods for managing fragmentation in hardware-assisted compression of data in physical computer memory which may result in reduced internal fragmentation. An example computer-implemented method comprises: providing, by a memory management program to compression hardware, a compression command including an address in physical computer memory of data to be compressed and a list of at least two available buffers for storing compressed data; using, by the compression hardware, the address included in the compression command to retrieve uncompressed data; compressing the uncompressed data; and selecting, by the compression hardware, from the list of at least two available buffers, at least two buffers for storing compressed data based on an amount of space that would remain if the compressed data were stored in the at least two buffers, wherein each of the at least two selected buffers differs in size from at least one other of the selected buffers.

Abstract: To probe linear and non-linear relationships of entities in a network, in a graphical user interface, in a login session, a selection of an action on a first node is received. In response to the selection of the action on the first node, the action is automatically performed. A navigation breadcrumb is dynamically generated in the graphical user interface with a first navigation identifier corresponding to the action performed on the first node and a corresponding first state information of the nodes. In database tables in a database, the first state information of the nodes corresponding to the first navigation identifier is stored. Selection of the first navigation identifier on the navigation breadcrumb is received, and in response to the selection, the first state information of the nodes is retrieved from the database tables and displayed in a canvas in an area of focus.

Abstract: Provided are devices and methods for generating and capturing context related to a situation using a network visualization. In one example, the method includes identifying a plurality of entities that are associated with each other based on a common situational event and generating a plurality of nodes representing the plurality of entities, determining relationships between the plurality of entities based on respective attributes of each of the plurality of entities with respect to the common situational event, generating context between the plurality of entities by generating a network visualization including the plurality of nodes linked together based on the determined relationships between the plurality of entities, and outputting the network visualization including the plurality of nodes linked together based on the determined relationships to a user interface.

Abstract: Provided are methods and systems for memory decompression using a hardware decompressor that minimizes or eliminates the involvement of software. Custom decompression hardware is added to the memory subsystem, where the decompression hardware handles read accesses caused by, for example, cache misses or requests from devices to compressed memory blocks, by reading a compressed block, decompressing it into an internal buffer, and returning the requested portion of the block. The custom hardware is designed to determine if the block is compressed, and determine the parameters of compression, by checking unused high bits of the physical address of the access. This allows compression to be implemented without additional metadata, because the necessary metadata can be stored in unused bits in the existing page table structures.

Abstract: To probe linear and non-linear relationships of entities in a network, in a graphical user interface, in a login session, a selection of an action on a first node is received. In response to the selection of the action on the first node, the action is automatically performed. A navigation breadcrumb is dynamically generated in the graphical user interface with a first navigation identifier corresponding to the action performed on the first node and a corresponding first state information of the nodes. In database tables in a database, the first state information of the nodes corresponding to the first navigation identifier is stored. Selection of the first navigation identifier on the navigation breadcrumb is received, and in response to the selection, the first state information of the nodes is retrieved from the database tables and displayed in a canvas in an area of focus.

Abstract: Provided are methods, systems, and apparatus for managing and controlling memory caches, in particular, system level caches outside of those closest to the CPU. The processes and representative hardware structures that implement the processes are designed to allow for detailed control over the behavior of such system level caches. Caching policies are developed based on policy identifiers, where a policy identifier corresponds to a collection of parameters that control the behavior of a set of cache management structures. For a given cache, one policy identifier is stored in each line of the cache.

Abstract: Provided are methods and systems for memory decompression using a hardware decompressor that minimizes or eliminates the involvement of software. Custom decompression hardware is added to the memory subsystem, where the decompression hardware handles read accesses caused by, for example, cache misses or requests from devices to compressed memory blocks, by reading a compressed block, decompressing it into an internal buffer, and returning the requested portion of the block. The custom hardware is designed to determine if the block is compressed, and determine the parameters of compression, by checking unused high bits of the physical address of the access. This allows compression to be implemented without additional metadata, because the necessary metadata can be stored in unused bits in the existing page table structures.

Abstract: Provided are methods and systems for memory decompression using a hardware decompressor that minimizes or eliminates the involvement of software. Custom decompression hardware is added to the memory subsystem, where the decompression hardware handles read accesses caused by, for example, cache misses or requests from devices to compressed memory blocks, by reading a compressed block, decompressing it into an internal buffer, and returning the requested portion of the block. The custom hardware is designed to determine if the block is compressed, and determine the parameters of compression, by checking unused high bits of the physical address of the access. This allows compression to be implemented without additional metadata, because the necessary metadata can be stored in unused bits in the existing page table structures.

Abstract: Systems, devices, and methods for managing fragmentation in hardware-assisted compression of data in physical computer memory which may result in reduced internal fragmentation. An example computer-implemented method comprises: providing, by a memory management program to compression hardware, a compression command including an address in physical computer memory of data to be compressed and a list of at least two available buffers for storing compressed data; using, by the compression hardware, the address included in the compression command to retrieve uncompressed data; compressing the uncompressed data; and selecting, by the compression hardware, from the list of at least two available buffers, at least two buffers for storing compressed data based on an amount of space that would remain if the compressed data were stored in the at least two buffers, wherein each of the at least two selected buffers differs in size from at least one other of the selected buffers.

Abstract: Provided are methods, systems, and apparatus for managing and controlling memory caches, in particular, system level caches outside of those closest to the CPU. The processes and representative hardware structures that implement the processes are designed to allow for detailed control over the behavior of such system level caches. Caching policies are developed based on policy identifiers, where a policy identifier corresponds to a collection of parameters that control the behavior of a set of cache management structures. For a given cache, one policy identifier is stored in each line of the cache.

Abstract: Provided are methods and systems for memory decompression using a hardware decompressor that minimizes or eliminates the involvement of software. Custom decompression hardware is added to the memory subsystem, where the decompression hardware handles read accesses caused by, for example, cache misses or requests from devices to compressed memory blocks, by reading a compressed block, decompressing it into an internal buffer, and returning the requested portion of the block. The custom hardware is designed to determine if the block is compressed, and determine the parameters of compression, by checking unused high bits of the physical address of the access. This allows compression to be implemented without additional metadata, because the necessary metadata can be stored in unused bits in the existing page table structures.