Abstract: This disclosure describes systems, methods, and devices related to installing a security certificate. A method may include identifying, by a network provisioning abstraction layer (NPAL) of a network provisioning system, a digital certificate file received from a certificate management system (CMS); identifying a session boarder controller (SBC) that supports transport layer security (TLS); uploading the digital certificate file to the identified SBC; installing a remote certificate at the identified SBC; enabling the remote certificate at the identified SBC; and sending, based on enabling the remote certificate at the identified SBC, a notification to the CMS indicating that a remote certificate has been installed at the identified SBC.

Abstract: A method for generating an executable application to transform and load data into a structured dataset includes receiving a metadata file that specifies values for parameters for structuring data feeds, received from a networked data source, into a structured database. The metadata file specifies logical rules for transforming the data feeds. The values of the parameters and the logical rules for transforming the plurality of the data feeds are validated to ensure logical consistency for each data feed. Data rules are generated that specify standards for transforming each data feed in accordance with the validated values of the parameters and logical rules. The executable application is generated that is configured to receive source data comprising a data feed from one or more data sources and transform the source data into structured data that satisfies the one or more standards for the structured data record in compliance with the data rules.

Abstract: A method for generating an executable application to transform and load data into a structured dataset includes receiving a metadata file that specifies values for parameters for structuring data feeds, received from a networked data source, into a structured database. The metadata file specifies logical rules for transforming the data feeds. The values of the parameters and the logical rules for transforming the plurality of the data feeds are validated to ensure logical consistency for each data feed. Data rules are generated that specify standards for transforming each data feed in accordance with the validated values of the parameters and logical rules. The executable application is generated that is configured to receive source data comprising a data feed from one or more data sources and transform the source data into structured data that satisfies the one or more standards for the structured data record in compliance with the data rules.

Abstract: A method for generating an executable application to transform and load data into a structured dataset includes receiving a metadata file that specifies values for parameters for structuring data feeds, received from a networked data source, into a structured database. The metadata file specifies logical rules for transforming the data feeds. The values of the parameters and the logical rules for transforming the plurality of the data feeds are validated to ensure logical consistency for each data feed. Data rules are generated that specify standards for transforming each data feed in accordance with the validated values of the parameters and logical rules. The executable application is generated that is configured to receive source data comprising a data feed from one or more data sources and transform the source data into structured data that satisfies the one or more standards for the structured data record in compliance with the data rules.

Abstract: Some embodiments provide imaging polarimeter systems comprising: a polarization modulator system configured to modulate a polarization state of an incident beam at a repetition frequency, and outputting a polarized modulated beam; a polarizer positioned to produce an intensity modulated beam; and a detector system comprising: an optical sensor array; a digital read-out integrated circuit (DROIC); and a polarization state system; wherein the optical sensor array is optically aligned with at least a portion of the beam path such that the intensity modulated beam impinges on the sensor array; wherein the DROIC, for each pixel of the optical sensor array, is configured to separate, over time and within an integration frame rate, sets of photo-generated counts; and wherein the polarization state system is configured to identify a series of polarization states for each pixel based on the sets of photo-generated counts and according to the integration frame rate.

Abstract: Applications may be created and registered to an online ecosystem and then execute within individual web applications such as productivity applications, communication applications, collaboration applications, and so on. These non-native applications may be enabled to interact with files and provide custom experiences for a user. The applications may also be enabled to interact with additional information discovered about the user within the ecosystem to provide custom experiences. The applications may further be enabled to create custom workflows to allow users to accomplish new tasks.

Abstract: A method for generating an executable application to transform and load data into a structured dataset includes receiving a metadata file that specifies values for parameters for structuring data feeds, received from a networked data source, into a structured database. The metadata file specifies logical rules for transforming the data feeds. The values of the parameters and the logical rules for transforming the plurality of the data feeds are validated to ensure logical consistency for each data feed. Data rules are generated that specify standards for transforming each data feed in accordance with the validated values of the parameters and logical rules. The executable application is generated that is configured to receive source data comprising a data feed from one or more data sources and transform the source data into structured data that satisfies the one or more standards for the structured data record in compliance with the data rules.

Abstract: Applications may be created and registered to an online ecosystem and then execute within individual web applications such as productivity applications, communication applications, collaboration applications, and so on. These non-native applications may be enabled to interact with files and provide custom experiences for a user. The applications may also be enabled to interact with additional information discovered about the user within the ecosystem to provide custom experiences. The applications may further be enabled to create custom workflows to allow users to accomplish new tasks.

Abstract: Applications may be created and registered to an online ecosystem and then execute within individual web applications such as productivity applications, communication applications, collaboration applications, and so on. These non-native applications may be enabled to interact with files and provide custom experiences for a user. The applications may also be enabled to interact with additional information discovered about the user within the ecosystem to provide custom experiences. The applications may further be enabled to create custom workflows to allow users to accomplish new tasks.

Abstract: Applications may be created and registered to an online ecosystem and then execute within individual web applications such as productivity applications, communication applications, collaboration applications, and so on. These non-native applications may be enabled to interact with files and provide custom experiences for a user. The applications may also be enabled to interact with additional information discovered about the user within the ecosystem to provide custom experiences. The applications may further be enabled to create custom workflows to allow users to accomplish new tasks.

Abstract: A configurable coprocessor interface between a central processing unit (CPU) and a coprocessor is provided. The coprocessor interface has an instruction transfer signal group for transferring different instruction types from the CPU to the coprocessor, sequentially or in parallel, a busy signal group, for allowing the coprocessor to signal the CPU that it cannot receive a transfer of one or more of the different instruction types, and an instruction order signal group for indicating to the coprocessor a relative execution order for multiple instructions that are transferred in parallel. In addition, the coprocessor interface includes separate data transfer signal groups for data being transferred from the CPU to the coprocessor, and for data being transferred from the coprocessor to the CPU, along with a data order signal group for indicating a relative order of data (if transferred out-of-order).

Abstract: A configurable coprocessor interface between a central processing unit (CPU) and a coprocessor is provided. The coprocessor interface has an instruction transfer signal group for transferring different instruction types from the CPU to the coprocessor, sequentially or in parallel, a busy signal group, for allowing the coprocessor to signal the CPU that it cannot receive a transfer of one or more of the different instruction types, and an instruction order signal group for indicating to the coprocessor a relative execution order for multiple instructions that are transferred in parallel. In addition, the coprocessor interface includes separate data transfer signal groups for data being transferred from the CPU to the coprocessor, and for data being transferred from the coprocessor to the CPU, along with a data order signal group for indicating a relative order of data (if transferred out-of-order).

Abstract: A configurable coprocessor interface between a central processing unit (CPU) and a coprocessor is provided. The coprocessor interface has an instruction transfer signal group for transferring different instruction types from the CPU to the coprocessor, sequentially or in parallel, a busy signal group, for allowing the coprocessor to signal the CPU that it cannot receive a transfer of one or more of the different instruction types, and an instruction order signal group for indicating to the coprocessor a relative execution order for multiple instructions that are transferred in parallel. In addition, the coprocessor interface includes separate data transfer signal groups for data being transferred from the CPU to the coprocessor, and for data being transferred from the coprocessor to the CPU, along with a data order signal group for indicating a relative order of data (if transferred out-of-order).

Abstract: An interface for transferring data between a central processing unit (CPU) and a plurality of coprocessors is provided. The interface includes an instruction bus and a data bus. The instruction bus is configured to transfer instructions to the plurality of coprocessors in an instruction transfer order, where particular instructions designate and direct one of the plurality of coprocessors to transfer the data to/from the CPU. The data bus is configured to subsequently transfer the data. Data order signals within the data bus prescribe a data transfer order that differs from the instruction transfer order by prescribing a transfer corresponding to a specific outstanding particular instruction, where the data transfer order is relative to outstanding instructions. The outstanding instructions are those of the particular instructions transferred to the one of the plurality of coprocessors that have not completed a data transfer.

Abstract: A system and method for program counter and data tracing is disclosed. The tracing mechanism of the present invention enables increased visibility into the hardware and software state of the processor core.

Abstract: A configurable coprocessor interface between a central processing unit (CPU) and a coprocessor is provided. The interface groups signals that together comprises all the necessary information for a coprocessor to issue and execute instructions. Multiple issue groups are formed where each group supports different types of instructions, such as arithmetic instructions, or data transfer instructions. The coprocessor interface has an instruction transfer signal group for transferring different instructions from the CPU to the multi-issue coprocessor, sequentially or in parallel, an issue group designator for specifying an issue path within the multi-issue coprocessor for execution of the instructions, a busy signal group, for allowing the coprocessor to signal the CPU that it cannot receive a transfer of one or more of the different instructions, and an instruction order signal group for indicating to the coprocessor a relative execution order for multiple instructions that are transferred in parallel.