Abstract: In one embodiment, the invention is a method and apparatus for secure and reliable computing. One embodiment of an end-to-end security system for protecting a computing system includes a processor interface coupled to at least one of an application processor and an accelerator of the computing system, for receiving requests from the at least one of the application processor and the accelerator, a security processor integrating at least one embedded storage unit and connected to the processor interface with a tightly coupled memory unit for performing at least one of: authenticating, managing, monitoring, and processing the requests, and a data interface for communicating with a display, a network, and at least one embedded storage unit for securely holding at least one of data and programs used by the at least one of the application processor and the accelerator.

Abstract: A multi-core processor system supporting simultaneous thread sharing across execution resources of multiple processor cores is provided. The multi-core processor system includes a first processor core with a first instruction queue and dispatch logic in communication with a first execution resource of the first processor core. The multi-core processor system also includes a second processor core with a second instruction queue and dispatch logic in communication with a second execution resource of the second processor core. A high-speed execution resource bus couples the first and second processor cores. The first instruction queue and dispatch logic is configured to issue a first instruction of a thread to the first execution resource and issue a second instruction of the thread over the high-speed execution resource bus to the second execution resource for simultaneous execution of the first and second instruction of the thread on the first and second processor cores.

Abstract: In one embodiment, the invention is a method and apparatus for secure and reliable computing. One embodiment of an end-to-end security system for protecting a computing system includes a processor interface coupled to at least one of an application processor and an accelerator of the computing system, for receiving requests from the at least one of the application processor and the accelerator, a security processor integrating at least one embedded storage unit and connected to the processor interface with a tightly coupled memory unit for performing at least one of: authenticating, managing, monitoring, and processing the requests, and a data interface for communicating with a display, a network, and at least one embedded storage unit for securely holding at least one of data and programs used by the at least one of the application processor and the accelerator.

Abstract: A multi-core processor system supporting simultaneous thread sharing across execution resources of multiple processor cores is provided. The multi-core processor system includes a first processor core with a first instruction queue and dispatch logic in communication with a first execution resource of the first processor core. The multi-core processor system also includes a second processor core with a second instruction queue and dispatch logic in communication with a second execution resource of the second processor core. A high-speed execution resource bus couples the first and second processor cores. The first instruction queue and dispatch logic is configured to issue a first instruction of a thread to the first execution resource and issue a second instruction of the thread over the high-speed execution resource bus to the second execution resource for simultaneous execution of the first and second instruction of the thread on the first and second processor cores.

Abstract: A design structure embodied in a machine readable medium used in a design process includes an apparatus for dynamically selecting compiled instructions for execution, the apparatus including an input for receiving static instructions for execution on a first execution unit and receiving dynamic instructions for execution on a second execution unit; and an instruction selection element adapted to evaluate throughput performance of the static instructions and dynamic instructions based on current states of the execution units and select the static instructions or the dynamic instructions for execution at runtime on the first execution unit or the second execution unit, respectively, based on the throughput performance of the instructions.

Abstract: A method, apparatus, and computer program product dynamically select compiled instructions for execution. Static instructions for execution on a first execution and dynamic instructions for execution on a second execution unit are received. The throughput performance of the static instructions and the dynamic instructions is evaluated based on current states of the execution units. The static instructions or the dynamic instructions are selected for execution at runtime on the first execution unit or the second execution unit, respectively, based on the throughput performance of the instructions.

Abstract: A virtual computing and display system and method. The system includes a plurality of microprocessor-based devices which run software applications, and each microprocessor-based device generates at least one graphic processing unit command stream including a packet of graphic commands. The system further includes at least one communication network which directly receives the graphics processing unit command stream from each of the microprocessor-based devices and transfers each of the generated graphics processing unit command streams via a respective active channel, at least one multi-core adaptive display server which receives and processes the graphics processing unit command streams, and at least one display which receives the packets via the at least one active channel per user session and displays at least one image.

Abstract: A design structure embodied in a machine readable medium used in a design process includes an apparatus for dynamically selecting compiled instructions for execution, the apparatus including an input for receiving static instructions for execution on a first execution unit and receiving dynamic instructions for execution on a second execution unit; and an instruction selection element adapted to evaluate throughput performance of the static instructions and dynamic instructions based on current states of the execution units and select the static instructions or the dynamic instructions for execution at runtime on the first execution unit or the second execution unit, respectively, based on the throughput performance of the instructions.

Abstract: A method, apparatus, and computer program product dynamically select compiled instructions for execution. Static instructions for execution on a first execution and dynamic instructions for execution on a second execution unit are received. The throughput performance of the static instructions and the dynamic instructions is evaluated based on current states of the execution units. The static instructions or the dynamic instructions are selected for execution at runtime on the first execution unit or the second execution unit, respectively, based on the throughput performance of the instructions.

Abstract: A method of testing critical paths in integrated circuits begins by simulating at least one operation of an integrated circuit chip design to produce chip timing data. Next, critical paths of the integrated circuit chip design are identified based on the chip timing data. The method applies functional test signals to simulations of the critical paths and monitors the number of times each of the functional test signals propagate from the beginning to the end of each of the critical paths. This allows the method to identify stress producing test signals as those that propagate along the critical paths more than other test signals. These stress producing test signals are applied to integrated circuit chip hardware manufactured according to the integrated circuit chip design to stress test the hardware.