Abstract: A method and system for allocating memory to a memory operation executed by a processor in a computer arrangement having a first processor configured for unified operation with a second processor. The method includes receiving a memory operation from a processor and mapping the memory operation to one of a plurality of memory heaps. The mapping produces a mapping result. The method also includes providing the mapping result to the processor.

Abstract: A receiver, transmitter and method for early packet header verification are provided. In one embodiment, the method includes: (1) receiving a payload flit of a preceding packet and a header flit of a current packet; and (2) using a Cyclic Redundancy Check (CRC) in the header flit to verify the payload flit of the preceding packet and the header flit of the current packet.

Abstract: Systems, methods, and devices for heat management of heating implements for a water pipe.

Abstract: A multi-chambered water pipe comprising an inner chamber and exterior chamber.

Abstract: A CRC generator, a method for computing a CRC of a data packet, and an electronic system, such as a circuit board, are disclosed herein. In one embodiment the method is for computing the CRC of a data packet to be transmitted on a serial communications link having multiple lanes. In one embodiment, the CRC generator includes: (1) a CRC calculator configured to define a CRC calculation of a data packet in sequential order and perform parallelized computations, according to the sequential order and the multiple lanes, to generate sub-CRC values and (2) combination circuitry configured to combine the sub-CRC values to provide the CRC value for the packet.

Abstract: A multi-chambered water pipe comprising an inner chamber and exterior chamber.

Abstract: A multi-chambered water pipe comprising an inner chamber and exterior chamber.

Abstract: A multi-chambered water pipe comprising an inner chamber and exterior chamber.

Abstract: Existing multiprocessor computing systems often have insufficient memory coherency and, consequently, are unable to efficiently utilize separate memory systems. Specifically, a CPU cannot effectively write to a block of memory and then have a GPU access that memory unless there is explicit synchronization. In addition, because the GPU is forced to statically split memory locations between itself and the CPU, existing multiprocessor computing systems are unable to efficiently utilize the separate memory systems. Embodiments described herein overcome these deficiencies by receiving a notification within the GPU that the CPU has finished processing data that is stored in coherent memory, and invalidating data in the CPU caches that the GPU has finished processing from the coherent memory. Embodiments described herein also include dynamically partitioning a GPU memory into coherent memory and local memory through use of a probe filter.

Abstract: A receiver, transmitter and method for enabling a replay using a packetized link protocol are provided. In one embodiment, the method includes: (1) transmitting a stream of packets including an untagged packet and (2) using synchronized counters to determine a sequence ID of the untagged packet, which is a corrupt/lost packet that needs to be retransmitted.

Abstract: A method and system for allocating memory to a memory operation executed by a processor in a computer arrangement having a first processor configured for unified operation with a second processor. The method includes receiving a memory operation from a processor and mapping the memory operation to one of a plurality of memory heaps. The mapping produces a mapping result. The method also includes providing the mapping result to the processor.

Abstract: Remotely synchronizing data communicated in an electronic computing system. Ordered writing of a data set of discrete data packets (data) and a following associated semaphore packet (semaphore) from a source electronic device (source) to a bridge interface device (bridge). Relaxed writing of the data set from the bridge to discrete target memory addresses (targets) of a data-consuming electronic device (consumer), wherein the order of the data and the semaphore written to the targets is different than the order of the data and semaphore written with the ordered writing. Monitoring, by the consumer, the relaxed writing of the semaphore to one of the targets. Issuing a synchronization command to the bridge upon detection of the semaphore having been written to the one target. Sending a synchronization confirmation reply from the bridge after all of the data has been written to the targets.

Abstract: A receiver, transmitter and method for early packet header verification are provided. In one embodiment, the method includes: (1) receiving a payload flit of a preceding packet and a header flit of a current packet; and (2) using a Cyclic Redundancy Check (CRC) in the header flit to verify the payload flit of the preceding packet and the header flit of the current packet.

Abstract: Remotely synchronizing data communicated in an electronic computing system. Ordered writing of a data set of discrete data packets (data) and a following associated semaphore packet (semaphore) from a source electronic device (source) to a bridge interface device (bridge). Relaxed writing of the data set from the bridge to discrete target memory addresses (targets) of a data-consuming electronic device (consumer), wherein the order of the data and the semaphore written to the targets is different than the order of the data and semaphore written with the ordered writing. Monitoring, by the consumer, the relaxed writing of the semaphore to one of the targets. Issuing a synchronization command to the bridge upon detection of the semaphore having been written to the one target. Sending a synchronization confirmation reply from the bridge after all of the data has been written to the targets.

Abstract: A receiver, transmitter and method for early packet header verification are provided. In one embodiment, the method includes: (1) receiving a payload flit of a preceding packet and a header flit of a current packet; and (2) using a Cyclic Redundancy Check (CRC) in the header flit to verify the payload flit of the preceding packet and the header flit of the current packet.

Abstract: A CRC generator, a method for computing a CRC of a data packet, and an electronic system, such as a circuit board, are disclosed herein. In one embodiment the method is for computing the CRC of a data packet to be transmitted on a serial communications link having multiple lanes. In one embodiment, the CRC generator includes: (1) a CRC calculator configured to define a CRC calculation of a data packet in sequential order and perform parallelized computations, according to the sequential order and the multiple lanes, to generate sub-CRC values and (2) combination circuitry configured to combine the sub-CRC values to provide the CRC value for the packet.

Abstract: A receiver, transmitter and method for enabling a replay using a packetized link protocol are provided. In one embodiment, the method includes: (1) transmitting a stream of packets including an untagged packet and (2) using synchronized counters to determine a sequence ID of the untagged packet, which is a corrupt/lost packet that needs to be retransmitted.

Abstract: A receiver, transmitter and method for early packet header verification are provided. In one embodiment, the method includes: (1) receiving a payload flit of a preceding packet and a header flit of a current packet; and (2) using a Cyclic Redundancy Check (CRC) in the header flit to verify the payload flit of the preceding packet and the header flit of the current packet.

Abstract: Methods, systems, and computer readable media generalize control registers in the context of memory address translations for I/O devices. A method includes maintaining a table including a plurality of concurrently available control register base pointers each associated with a corresponding input/output (I/O) device, associating each control register base pointer with a first translation from a guest virtual address (GVA) to a guest physical address (GPA) and a second translation from the GPA to a system physical address (SPA), and operating the first and second translations concurrently for the plurality of I/O devices.

Abstract: A method and system for allocating memory to a memory operation executed by a processor in a computer arrangement having a first processor configured for unified operation with a second processor. The method includes receiving a memory operation from a processor and mapping the memory operation to one of a plurality of memory heaps. The mapping produces a mapping result. The method also includes providing the mapping result to the processor.