Abstract: The present invention is concerned with dispersible compositions comprising rilpivirine or a pharmaceutically acceptable acid addition salt thereof as an active ingredient. Such compositions are useful in the treatment of HIV infection and their dispersibility properties lend themselves to be useful in particular amongst the pediatric or geriatric population.

Abstract: The present invention is concerned with dispersible compositions comprising rilpivirine or a pharmaceutically acceptable acid addition salt thereof as an active ingredient. Such compositions are useful in the treatment of HIV infection and their dispersibility properties lend themselves to be useful in particular amongst the pediatric or geriatric population.

Abstract: The present invention relates to pharmaceutical compositions, each comprising a multitude of granules that make up an intragranular phase of the composition, wherein the granules are produced by fluid bed granulation and comprise a HCl salt of Compound (1).xH2O wherein x is from 0 to 3, and one or more excipients selected from a disintegrant, a binder, and a wetting agent. The pharmaceutical composition also comprises one or more excipients that make up an extragranular phase of the composition, selected from a diluent, a disintegrant, a glidant, and a lubricant. The invention also relates to processes for producing the pharmaceutical compositions of the invention. The invention further relates to uses and methods of the pharmaceutical compositions in reducing the amount of influenza viruses in a biological in vitro sample or in a subject, inhibiting the replication of influenza viruses in a biological in vitro sample or in a subject, and treating influenza in a subject.

Abstract: The present invention is concerned with dispersible compositions comprising rilpivirine or a pharmaceutically acceptable acid addition salt thereof as an active ingredient. Such compositions are useful in the treatment of HIV infection and their dispersibility properties lend themselves to be useful in particular amongst the pediatric or geriatric population.

Abstract: Web pages, such as a captive portal web page, may be rendered on an electronic display such as a display of a television that is removably coupled to a content streaming device. The web pages may be rendered using a customized user interface (UI) of a captive portal application executable on the content streaming device. The UI of the captive portal application may be customized for viewing at a longer distance than a typical distance between a user and a handheld mobile device. A computer-executable script may be embedded or otherwise associated with source code of a web page to cause a focus outline of a selectable UI element to be displayed more prominently when a user navigates to the selectable UI element using, for example, a remote control device configured to communicate with the content streaming device.

Abstract: Web pages, such as a captive portal web page, may be rendered on an electronic display such as a display of a television that is removably coupled to a content streaming device. The web pages may be rendered using a customized user interface (UI) of a captive portal application executable on the content streaming device. The UI of the captive portal application may be customized for viewing at a longer distance than a typical distance between a user and a handheld mobile device. A computer-executable script may be embedded or otherwise associated with source code of a web page to cause a focus outline of a selectable UI element to be displayed more prominently when a user navigates to the selectable UI element using, for example, a remote control device configured to communicate with the content streaming device.

Abstract: A computing device is configured to receive an incoming communication from another computing device. The incoming communication may be for purpose of initiating a voice-exchange session. In response to receiving the incoming call, the computing device may identify or determine a message identifier of the other computing device. The message identifier is determined based at least in part on data provided with the incoming communication. The computing device may programmatically address a message to the other computing device using the message identifier determined from the incoming communication.

Abstract: A computing device is configured to receive an incoming communication from another computing device. The incoming communication may be for purpose of initiating a voice-exchange session. In response to receiving the incoming call, the computing device may identify or determine a message identifier of the other computing device. The message identifier is determined based at least in part on data provided with the incoming communication. The computing device may programmatically address a message to the other computing device using the message identifier determined from the incoming communication.

Abstract: A computing device is configured to receive an incoming communication from another computing device. The incoming communication may be for purpose of initiating a voice-exchange session. In response to receiving the incoming call, the computing device may identify or determine a message identifier of the other computing device. The message identifier is determined based at least in part on data provided with the incoming communication. The computing device may programmatically address a message to the other computing device using the message identifier determined from the incoming communication.

Abstract: A system includes a non-volatile mass storage unit, e.g., a flash memory device and/or a hard drive unit for instance. A memory device is used as a high speed data buffer and/or cache for the non-volatile storage unit. The memory device may be non-volatile, e.g., magnetic random access memory (MRAM) or volatile memory, e.g., synchronous dynamic random access memory (SDRAM). By buffering and/or caching the write data, fewer accesses are required to the mass storage device thereby increasing system performance. Additionally, mechanical and electrical degradation of the mass storage device is reduced. Certain trigger events can be programmed to cause data from the memory device to be written to the mass storage device. The write buffer contents may be preserved across reset or power loss events. The mass storage unit may be a data transport layer, e.g., Ethernet, USB, Bluetooth, etc.

Abstract: A computing device is configured to receive an incoming communication from another computing device. The incoming communication may be for purpose of initiating a voice-exchange session. In response to receiving the incoming call, the computing device may identify or determine a message identifier of the other computing device. The message identifier is determined based at least in part on data provided with the incoming communication. The computing device may programmatically address a message to the other computing device using the message identifier determined from the incoming communication.

Abstract: A computing device is configured to receive an incoming communication from another computing device. The incoming communication may be for purpose of initiating a voice-exchange session. In response to receiving the incoming call, the computing device may identify or determine a message identifier of the other computing device. The message identifier is determined based at least in part on data provided with the incoming communication. The computing device may programmatically address a message to the other computing device using the message identifier determined from the incoming communication.

Abstract: A system and computer system for improving data integrity and memory performance using non-volatile media. A system includes a non-volatile mass storage unit, e.g., a flash memory device and/or a hard drive unit for instance. A memory device is used as a high speed data buffer and/or cache for the non-volatile storage unit. The memory device may be non-volatile, e.g., magnetic random access memory (MRAM) or volatile memory, e.g., static dynamic random access memory (SDRAM). By buffering and/or caching the write data, fewer accesses are required to the mass storage device thereby increasing system performance. Additionally, mechanical and electrical degradation of the mass storage device is reduced. Certain trigger events can be programmed to cause data from the memory device to be written to the mass storage device. In one embodiment, the write buffer contents are preserved across reset or power loss events. In one embodiment, the mass storage unit may be a data transport layer, e.g.

Abstract: A system and computer system for improving data integrity and memory performance using non-volatile media. A system includes a non-volatile mass storage unit, e.g., a flash memory device and/or a hard drive unit for instance. A memory device is used as a high speed data buffer and/or cache for the non-volatile storage unit. The memory device may be non-volatile, e.g., magnetic random access memory (MRAM) or volatile memory, e.g., synchronous dynamic random access memory (SDRAM). By buffering and/or caching the write data, fewer accesses are required to the mass storage device thereby increasing system performance. Additionally, mechanical and electrical degradation of the mass storage device is reduced. Certain trigger events can be programmed to cause data from the memory device to be written to the mass storage device. In one embodiment, the write buffer contents are preserved across reset or power loss events. In one embodiment, the mass storage unit may be a data transport layer, e.g.

Abstract: In a computing device, customization data is persistently maintained independent of the device's operating system. Customization data may stored in a computing device's persistent memory (or ROM or equivalent memory component), along with but independent of the operating system. When the computing device is first initialized, or when the computing device is initialized immediately after a hard-reset event, the customization data is not lost.

Abstract: A computing device is configured to receive an incoming communication from another computing device. The incoming communication may be for purpose of initiating a voice-exchange session. In response to receiving the incoming call, the computing device may identify or determine a message identifier of the other computing device. The message identifier is determined based at least in part on data provided with the incoming communication. The computing device may programmatically address a message to the other computing device using the message identifier determined from the incoming communication.