Abstract: A computer system is provided. The computer system includes a memory and a processor coupled to the memory. The processor is configured to receive a first message from an identity provider, the first message including an arbitrary identifier generated by the identity provider, the arbitrary identifier being incompatible with a dependent process that is reliant upon the identity provider; encode, in response to reception of the first message, the arbitrary identifier into an encoded identifier that is compatible with the dependent process; and transmit a second message including the encoded identifier to the dependent process.

Abstract: Systems and methods for operating a computing system. The methods comprise: obtaining, by a first computing device, an original Security Identifier (“SID”); transforming, by the first computing device, the original SID into a composite SID by modifying the original SID to include at least (a) an SID format value indicating a structural format of an SID and (b) a pointer specifying a memory location at which non-SID authentication information is stored or a customer number indicating an entity to which a user is associated; and using the composite SID by the first computing device during SID based operation.

Abstract: A computer system is provided. The computer system includes a memory and a processor coupled to the memory. The processor is configured to receive a first message from an identity provider, the first message including an arbitrary identifier generated by the identity provider, the arbitrary identifier being incompatible with a dependent process that is reliant upon the identity provider; encode, in response to reception of the first message, the arbitrary identifier into an encoded identifier that is compatible with the dependent process; and transmit a second message including the encoded identifier to the dependent process.

Abstract: Systems and methods for operating a computing system. The methods comprise: obtaining, by a first computing device, an original Security Identifier (“SID”); transforming, by the first computing device, the original SID into a composite SID by modifying the original SID to include at least (a) an SID format value indicating a structural format of an SID and (b) a pointer specifying a memory location at which non-SID authentication information is stored or a customer number indicating an entity to which a user is associated; and using the composite SID by the first computing device during SID based operation.

Abstract: One or more aspects of this disclosure may relate to using a configurable server farm preference for an application, desktop or other hosted resource. Additional aspects may relate to moving server farm workloads based on the configurable server farm preference. Further aspects may relate to performing reboot cycles, a reboot schedule and on-demand rebooting. Yet further aspects may relate to staggering individual machine reboot operations over a specified period of time and performing reboot operations such that some machines are available for user sessions during a reboot cycle.

Abstract: One or more aspects of this disclosure may relate to using a configurable server farm preference for an application, desktop or other hosted resource. Additional aspects may relate to moving server farm workloads based on the configurable server farm preference. Further aspects may relate to performing reboot cycles, a reboot schedule and on-demand rebooting. Yet further aspects may relate to staggering individual machine reboot operations over a specified period of time and performing reboot operations such that some machines are available for user sessions during a reboot cycle.

Abstract: One or more aspects of this disclosure may relate to using a configurable server farm preference for an application, desktop or other hosted resource. Additional aspects may relate to moving server farm workloads based on the configurable server farm preference. Further aspects may relate to performing reboot cycles, a reboot schedule and on-demand rebooting. Yet further aspects may relate to staggering individual machine reboot operations over a specified period of time and performing reboot operations such that some machines are available for user sessions during a reboot cycle.

Abstract: One or more aspects of this disclosure may relate to using a configurable server farm preference for an application, desktop or other hosted resource. Additional aspects may relate to moving server farm workloads based on the configurable server farm preference. Further aspects may relate to performing reboot cycles, a reboot schedule and on-demand rebooting. Yet further aspects may relate to staggering individual machine reboot operations over a specified period of time and performing reboot operations such that some machines are available for user sessions during a reboot cycle.

Abstract: One or more aspects of this disclosure may relate to using a configurable server farm preference for an application, desktop or other hosted resource. Additional aspects may relate to moving server farm workloads based on the configurable server farm preference. Further aspects may relate to performing reboot cycles, a reboot schedule and on-demand rebooting. Yet further aspects may relate to staggering individual machine reboot operations over a specified period of time and performing reboot operations such that some machines are available for user sessions during a reboot cycle.

Abstract: One or more aspects of this disclosure may relate to using a configurable server farm preference for an application, desktop or other hosted resource. Additional aspects may relate to moving server farm workloads based on the configurable server farm preference. Further aspects may relate to performing reboot cycles, a reboot schedule and on-demand rebooting. Yet further aspects may relate to staggering individual machine reboot operations over a specified period of time and performing reboot operations such that some machines are available for user sessions during a reboot cycle.

Abstract: A system and method for updating a binary image stored across a block-structured memory device, such as a flash memory device. From comparison of original and new images, an update package is generated which includes an encoded instruction set comprising COPY and ADD operations instructing the copying of source data from locations in the memory device and adding other data provided in the update package. The instruction set comprises SETBLOCK operations that direct updating of the memory blocks in an order that optimizes the COPY and ADD operations required and resulting update package size. The instruction set further comprises SETCOPYOFFSET operations to toggle between copy-offset modes thereby allowing for improved efficient encoding of COPY operations. The update package further includes an array of status bits corresponding to the memory blocks to be updated, thereby allowing for reliable restarting of the update process following power loss or other interruption.

Abstract: A system and method for reducing the update package size used to convert an original image into a new image based on the differences between the two images. From comparison of original and new images, an update package is generated which includes ADD and COPY operations. This design introduces a RELOCATE operation. The update encoder attempts to re-express submitted COPY operations with one or more RELOCATE operations whose total length exceeds that of the original COPY. If this is the case, the RELOCATE operation(s) have progressed further through the images than the original COPY operation, thus producing a smaller update package. Each individual RELOCATE operation includes a number of instructions and a number of data items to be relocated.