Abstract: Operational management of an integrated circuit device can be performed by a microcontroller based on information associated with the notification messages generated by the integrated circuit device. The notification messages may include timestamps and metadata for different notification types which can be used to build a timeline. The microcontroller may use the information to monitor the operational health and performance of the integrated circuit device or can communicate this information to a remote management server.

Abstract: A method for initializing processor cores in a multiprocessor system. The method includes a microcontroller initializing a first processor utilizing a common initialization image for all processor cores within the first processor. The first processor detects and executes system firmware. All remaining processors are initialized utilizing the common initialization image. The executing firmware detects a system configuration of the multiprocessor system. A customized processor initialization image for each of the processor cores in the multiprocessor system is generated and stored to a storage device. The processor cores are triggered to enter a power save state in which all initialization settings of the processor cores are lost. In response to all the processor cores entering the power save state, the first processor core of the first processor is re-initialized using a first customized initialization image generated for the first processor core.

Abstract: A system and computer program product for initializing processor cores in a multiprocessor system. The system includes a microcontroller that initializes a first processor utilizing a common initialization image for all processor cores within the first processor. The first processor detects and executes system firmware. All remaining processors are initialized utilizing the common initialization image. The executing firmware detects a system configuration of the multiprocessor system. A customized processor initialization image for each of the processor cores in the multiprocessor system is generated and stored to a storage device. The processor cores are triggered to enter a power save state in which all initialization settings of the processor cores are lost. In response to all the processor cores entering the power save state, the first processor core of the first processor is re-initialized using a first customized initialization image generated for the first processor core.

Abstract: A method for initializing processor cores in a multiprocessor system. The method includes a microcontroller initializing a first processor utilizing a common initialization image for all processor cores within the first processor. The first processor detects and executes system firmware. All remaining processors are initialized utilizing the common initialization image. The executing firmware detects a system configuration of the multiprocessor system. A customized processor initialization image for each of the processor cores in the multiprocessor system is generated and stored to a storage device. The processor cores are triggered to enter a power save state in which all initialization settings of the processor cores are lost. In response to all the processor cores entering the power save state, the first processor core of the first processor is re-initialized using a first customized initialization image generated for the first processor core.

Abstract: A system and computer program product for initializing processor cores in a multiprocessor system. The system includes a microcontroller that initializes a first processor utilizing a common initialization image for all processor cores within the first processor. The first processor detects and executes system firmware. All remaining processors are initialized utilizing the common initialization image. The executing firmware detects a system configuration of the multiprocessor system. A customized processor initialization image for each of the processor cores in the multiprocessor system is generated and stored to a storage device. The processor cores are triggered to enter a power save state in which all initialization settings of the processor cores are lost. In response to all the processor cores entering the power save state, the first processor core of the first processor is re-initialized using a first customized initialization image generated for the first processor core.

Abstract: A method, apparatus, and computer program product to implement integrated documentation and functional application testing are provided. An integrated test engine drives both functional application testing and documentation testing for the application. The integrated test engine uses documentation instructions, which are embedded with metadata and represent how to automate each step in the documentation and the expected results, and runs a series of tests that ensure that the application works as expected and that the documentation accurately reflects how the application works.

Abstract: A method, apparatus and program product improve computer reliability by, in part, identifying a plurality of error occurrences from Error Correction Codes. It may then be determined if the plurality of error occurrences are associated with a single bit of a bus. The determined, single bit may correspond to a faulty component of the bus. This level of identification efficiently addresses problems. For instance, a corrective algorithm may be applied if the plurality of error occurrences are associated with the single bit. Alternatively, the bus may be disabled if the plurality of error occurrences are not associated with the single bit of the bus. In this manner, implementations may detect, identify and act in response to multiple failure modes.

Abstract: A mechanism is provided for locking an end device for the period of time that the device is needed, thus disabling access by any other application or process. Having the device locked, rather than the bus, allows other applications to use the bus to access other devices at the same time. This is achieved by providing a virtual bus arbitration, which arbitrates applications' use of the physical bus. The virtual bus arbitration algorithms allow bus operations from different applications to overlap on the physical bus as long as their target devices and associated bus locks are on different end devices.

Abstract: A method, apparatus, and computer program product to implement integrated documentation and functional application testing are provided. An integrated test engine drives both functional application testing and documentation testing for the application. The integrated test engine uses documentation instructions, which are embedded with metadata and represent how to automate each step in the documentation and the expected results, and runs a series of tests that ensure that the application works as expected and that the documentation accurately reflects how the application works.

Abstract: A method, apparatus and program product improve computer reliability by, in part, identifying a plurality of error occurrences from Error Correction Codes. It may then be determined if the plurality of error occurrences are associated with a single bit of a bus. The determined, single bit may correspond to a faulty component of the bus. This level of identification efficiently addresses problems. For instance, a corrective algorithm may be applied if the plurality of error occurrences are associated with the single bit. Alternatively, the bus may be disabled if the plurality of error occurrences are not associated with the single bit of the bus. In this manner, implementations may detect, identify and act in response to multiple failure modes.

Abstract: A mechanism is provided for locking an end device for the period of time that the device is needed, thus disabling access by any other application or process. Having the device locked, rather than the bus, allows other applications to use the bus to access other devices at the same time. This is achieved by providing a virtual bus arbitration, which arbitrates applications' use of the physical bus. The virtual bus arbitration algorithms allow bus operations from different applications to overlap on the physical bus as long as their target devices and associated bus locks are on different end devices.