Abstract:
A method for operating a DRAM device. The method includes receiving in a memory buffer in a first memory module hosted by a computing system, a request for data stored in RAM of the first memory module from a host controller of the computing system. The method includes receiving with the memory buffer, the data associated with a RAM, in response to the request and formatting with the memory buffer, the data into a scrambled data in response to a pseudo-random process. The method includes initiating with the memory buffer, transfer of the scrambled data into an interface device.
Abstract:
In an example, the present invention provides a computing system. The system has a memory interface device comprising a counter, a dynamic random access memory device coupled to the memory interface device. The device comprises a plurality of banks, each of the banks having a subarray, each subarray having a plurality of memory cells. The device has a data interface coupled to the plurality of banks. The device has an address interface coupled to the plurality of banks, and a particular pre-charge command configured to be transferred to the memory interface device. The counter is adapted to count a measured time duration from a first time when data are available at the data interface to a second time when a pre-charge command is received by the address interface.
Abstract:
Techniques for a massively parallel and memory centric computing system. The system has a plurality of processing units operably coupled to each other through one or more communication channels. Each of the plurality of processing units has an ISMn interface device. Each of the plurality of ISMn interface devices is coupled to an ISMe endpoint connected to each of the processing units. The system has a plurality of DRAM or Flash memories configured in a disaggregated architecture and one or more switch nodes operably coupling the plurality of DRAM or Flash memories in the disaggregated architecture. The system has a plurality of high speed optical cables configured to communicate at a transmission rate of 100 G or greater to facilitate communication from any one of the plurality of processing units to any one of the plurality of DRAM or Flash memories.
Abstract:
A buffer integrated circuit device. The device comprising an output driver formed on the substrate member, the output driver having at least a command bus and an address bus. The device has a protocol and parity checking block (“Block”). The device has a table configured in the block. The table is programmable with a plurality of timing parameters. The device has a memory state block coupled to the table and a command history table coupled to the table to process protocol information for all commands that pass through the Block. The buffer integrated circuit device utilizes the protocol checking functionality to prevent failure propagation and enables data protection even in the case of host memory controller failure or system-level failure of any signal or signals on the command, control and address bus from the host memory controller to the buffer integrated device.
Abstract:
A method for operating a DRAM device. The method includes receiving in a memory buffer in a first memory module hosted by a computing system, a request for data stored in RAM of the first memory module from a host controller of the computing system. The method includes receiving with the memory buffer, the data associated with a RAM, in response to the request and formatting with the memory buffer, the data into a scrambled data in response to a pseudo-random process. The method includes initiating with the memory buffer, transfer of the scrambled data into an interface device.