Abstract: Provided is a virtual interface, a “Forwarder” and a Virtual Block Storage Device (VBSD). The virtual interface is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from a virtual machine monitor, and a common interface of the Forwarder. The Forwarder receives I/O commands in a format associated with the common interface and converts the commands into a generic I/O format. The reformatted command is transmitted to the VBSD. The virtual machine monitor sends a read or write (R/W) request to the virtual interface, which passes the request to the Forwarder. The Forwarder receives the request, converts the request into a form readable by the VBSD and transmits the converted request to the VBSD. The VBSD transmits the request to a block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the virtual interface with the response from the ABSD. The virtual interface then responds to the virtual machine monitor.

Abstract: Provided is a virtual interface, a “Forwarder” and a Virtual Block Storage Device (VBSD). The virtual interface is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from a virtual machine monitor, and a common interface of the Forwarder. The Forwarder receives I/O commands in a format associated with the common interface and converts the commands into a generic I/O format. The reformatted command is transmitted to the VBSD. The virtual machine monitor sends a read or write (R/W) request to the virtual interface, which passes the request to the Forwarder. The Forwarder receives the request, converts the request into a form readable by the VBSD and transmits the converted request to the VBSD. The VBSD transmits the request to a block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the virtual interface with the response from the ABSD. The virtual interface then responds to the virtual machine monitor.

Abstract: Provided is a virtual interface, a “Forwarder” and a Virtual Block Storage Device (VBSD). The virtual interface is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from a virtual machine monitor, and a common interface of the Forwarder. The Forwarder receives I/O commands in a format associated with the common interface and converts the commands into a generic I/O format. The reformatted command is transmitted to the VBSD. The virtual machine monitor sends a read or write (R/W) request to the virtual interface, which passes the request to the Forwarder. The Forwarder receives the request, converts the request into a form readable by the VBSD and transmits the converted request to the VBSD. The VBSD transmits the request to a block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the virtual interface with the response from the ABSD. The virtual interface then responds to the virtual machine monitor.

Abstract: Provided is a virtual interface, a “Forwarder” and a Virtual Block Storage Device (VBSD). The virtual interface is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from a virtual machine monitor, and a common interface of the Forwarder. The Forwarder receives I/O commands in a format associated with the common interface and converts the commands into a generic I/O format. The reformatted command is transmitted to the VBSD. The virtual machine monitor sends a read or write (R/W) request to the virtual interface, which passes the request to the Forwarder. The Forwarder receives the request, converts the request into a form readable by the VBSD and transmits the converted request to the VBSD. The VBSD transmits the request to a block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the virtual interface with the response from the ABSD. The virtual interface then responds to the virtual machine monitor.

Abstract: Provided is a virtual interface, a “Forwarder” and a Virtual Block Storage Device (VBSD). The virtual interlace is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from a hypervisor, and a common interface of the Forwarder. The Forwarder receives I/O commands in a format associated with the common interface and converts the commands into a generic I/O format. The reformatted command is transmitted to the VBSD. The hypervisor sends a read or write (R/W) request to the virtual interface, which passes the request to the Forwarder. The Forwarder receives the request, converts the request into a form readable by the VBSD and transmits the converted request to the VBSD. The VBSD transmits the request to a block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the virtual interface with the response from the ABSD. The virtual interface then responds to the hypervisor.

Abstract: In a method for utilizing metadata for autofill fields, a computer causes a first form input field to be displayed, the first form input field having two or more form input field entries associated with the first form input field. The computer determines that the two or more form input field entries are similar. The computer determines data describing each form input field entry of the two or more form input field entries.

Abstract: Provided is a virtual interface, a “Forwarder” and a Virtual Block Storage Device (VBSD). The virtual interlace is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from a hypervisor, and a common interface of the Forwarder. The Forwarder receives I/O commands in a format associated with the common interface and converts the commands into a generic I/O format. The reformatted command is transmitted to the VBSD. The hypervisor sends a read or write (R/W) request to the virtual interface, which passes the request to the Forwarder. The Forwarder receives the request, converts the request into a form readable by the VBSD and transmits the converted request to the VBSD. The VBSD transmits the request to a block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the virtual interface with the response from the ABSD. The virtual interface then responds to the hypervisor.

Abstract: An embodiment of the invention pertains to debugging program code associated with graphical objects, wherein the code responds to events of user interactions with the object. A menu is generated that includes user interaction events, and an associated program window is adapted to present the menu to a user when requested, wherein the user can select user interaction events from the menu. For each selected event, the method identifies a component of the program code that is responsive to that selected event. The method further includes setting a breakpoint in the program code in selected relationship with each identified program code component, wherein the subsequent occurrence of one of the selected user interaction events triggers a corresponding one of the breakpoints.

Abstract: In a method for creating a social networking check-in location for social networking applications, a computer receives a geographic location for each user computing device in a plurality of user computing devices. The computer determines a portion of the plurality of user computing devices that exhibit an area density exceeding a threshold. The area density is defined as a number of user computing devices per unit area. The computer receives two or more social networking messages from the portion of the plurality of user computing devices. The computer determines a common subject between the two or more social networking messages. The computer creates a social networking check-in location.

Abstract: Provided is conduit configured such that a hypervisor does not need to include logic for communicating directly with an I/O storage device. A virtual Asynchronous Service Interface (VASI) is the interface between a Command/Response Queue (CRQ), which receives CRQ commands from the hypervisor, and a Common Data-Link Interface (CDLI) of a Forwarder. The Forwarder receives I/O commands in a format associated with the CDLI and converts the commands into a generic I/O format understood by a Virtual Block Storage Device (VBSD). The reformatted command is transmitted to the VBSD, which issues commands to the native I/O stack. The hypervisor sends a read or write (R/W) request to the VASI, which passes the request to the Forwarder. The Forwarder converts the request and transmits the converted request to the VBSD. The VBSD transmits the request to the block storage device and returns the response to the Forwarder. The Forwarder replies to the request from the VASI with the response from the ABSD.

Abstract: An embodiment of the invention pertains to debugging program code associated with graphical objects, wherein the code responds to events of user interactions with the object. A menu is generated that includes user interaction events, and an associated program window is adapted to present the menu to a user when requested, wherein the user can select user interaction events from the menu. For each selected event, the method identifies a component of the program code that is responsive to that selected event. The method further includes setting a breakpoint in the program code in selected relationship with each identified program code component, wherein the subsequent occurrence of one of the selected user interaction events triggers a corresponding one of the breakpoints.

Abstract: A computer implemented method, data processing system, and apparatus for hardware resource arbitration in a data processing environment having a plurality of logical partitions. A hypervisor receives a request for a hardware resource from a first logical partition, wherein the request corresponds to an operation. The hypervisor determines the hardware resource is free from contention by a second logical partition. The hypervisor writes the hardware resource to a hardware resource pool data structure, as associated with the first logical partition, in response to a determination the hardware resource is free. The hypervisor presents the hardware resource to the first logical partition. The hypervisor determines that the operation is complete. The hypervisor release the hardware resource from a hardware resource pool, responsive to the determination that the operation is complete.

Abstract: In a method for utilizing metadata for autofill fields, a computer causes a first form input field to be displayed, the first form input field having two or more form input field entries associated with the first form input field. The computer determines that the two or more form input field entries are similar. The computer determines data describing each form input field entry of the two or more form input field entries.

Abstract: In a method for creating a social networking check-in location for social networking applications, a computer receives a geographic location for each user computing device in a plurality of user computing devices. The computer determines a portion of the plurality of user computing devices that exhibit an area density exceeding a threshold. The area density is defined as a number of user computing devices per unit area. The computer receives two or more social networking messages from the portion of the plurality of user computing devices. The computer determines a common subject between the two or more social networking messages. The computer creates a social networking check-in location.

Abstract: A computer implemented method, data processing system, and apparatus for hardware resource arbitration in a data processing environment having a plurality of logical partitions. A hypervisor receives a request for a hardware resource from a first logical partition, wherein the request corresponds to an operation. The hypervisor determines the hardware resource is free from contention by a second logical partition. The hypervisor writes the hardware resource to a hardware resource pool data structure, as associated with the first logical partition, in response to a determination the hardware resource is free. The hypervisor presents the hardware resource to the first logical partition. The hypervisor determines that the operation is complete. The hypervisor release the hardware resource from a hardware resource pool, responsive to the determination that the operation is complete.

Abstract: A computer implemented method, data processing system, and apparatus for hardware resource arbitration in a data processing environment having a plurality of logical partitions. A hypervisor receives a request for a hardware resource from a first logical partition, wherein the request corresponds to an operation. The hypervisor determines the hardware resource is free from contention by a second logical partition. The hypervisor writes the hardware resource to a hardware resource pool data structure, as associated with the first logical partition, in response to a determination the hardware resource is free. The hypervisor presents the hardware resource to the first logical partition. The hypervisor determines that the operation is complete. The hypervisor release the hardware resource from a hardware resource pool, responsive to the determination that the operation is complete.

Abstract: A method for selective link aggregation in a virtualized data processing environment is provided in the illustrative embodiments. A data packet is received at a switch. An identifier associated with the data packet is determined. The identifier corresponds to a logical partition in a logical partitioned data processing system. A lookup is performed in a data structure to determine a set of ports associated with the identifier. The set of ports is retrieved from the data structure. A port is selected from the set of ports and the data packet is transmitted from the port to the logical partition.

Abstract: Controlled partition shut-down is provided within a shared memory partition data processing system including a shared memory partition, a paging service partition, a hypervisor and a shared memory pool within physical memory. The hypervisor manages access to logical pages within the pool and page-out of pages from the pool to external paging storage via the paging service partition. A respective paging service stream exists between the paging service partition and hypervisor for each shared memory partition, with each stream including a stream state. The control method includes: responsive to a shut-down initiating event, notifying the paging service partition to shut down, and determining whether a shared memory partition is currently active, and if so, signaling the hypervisor to complete paging activity for the active memory partition and waiting for its stream state to enter a suspended or a completed state before automatically shutting down the paging service partition.

Abstract: A method, system, and computer usable program product for selective link aggregation in a virtualized data processing environment are provided in the illustrative embodiments. A data packet is received at a switch. An identifier associated with the data packet is determined. The identifier corresponds to a logical partition in a logical partitioned data processing system. A lookup is performed in a data structure to determine a set of ports associated with the identifier. The set of ports is retrieved from the data structure. A port is selected from the set of ports and the data packet is transmitted from the port to the logical partition.

Abstract: A computer implemented method, data processing system, and apparatus for hardware resource arbitration in a data processing environment having a plurality of logical partitions. A hypervisor receives a request for a hardware resource from a first logical partition, wherein the request corresponds to an operation. The hypervisor determines the hardware resource is free from contention by a second logical partition. The hypervisor writes the hardware resource to a hardware resource pool data structure, as associated with the first logical partition, in response to a determination the hardware resource is free. The hypervisor presents the hardware resource to the first logical partition. The hypervisor determines that the operation is complete. The hypervisor release the hardware resource from a hardware resource pool, responsive to the determination that the operation is complete.