Abstract: Described are memory modules that include address-buffer components and data-buffer components that together support wide- and narrow-data modes. The address-buffer component manages communication between a memory controller and two sets of memory components. In the wide-data mode, the address-buffer enables memory components in each set and instructs the data-buffer components to communicate full-width read and write data by combining data from or to from both sets for each memory access. In the narrow-data mode, the address-buffer enables memory components in just one of the two sets and instructs the data-buffer components to half-width read and write data with one set per memory access.

Abstract: An apparatus comprises at least one processing device comprising a processor coupled to a memory and a drive bay enclosure of a storage system comprising a housing with one or more drive bays, the housing of the drive bay enclosure comprising one or more status indicators proximate an opening for at least a given one of the one or more drive bays. The at least one processing device is configured to perform steps of determining status information for the given drive bay, and controlling the one or more status indicators proximate the opening for the given drive bay based at least in part on the determined status information.

Abstract: Systems and methods for providing object versioning in a storage system may support the logical deletion of stored objects. In response to a delete operation specifying both a user key and a version identifier, the storage system may permanently delete the specified version of an object having the specified key. In response to a delete operation specifying a user key, but not a version identifier, the storage system may create a delete marker object that does not contain object data, and may generate a new version identifier for the delete marker. The delete marker may be stored as the latest object version of the user key, and may be addressable in the storage system using a composite key comprising the user key and the new version identifier. Subsequent attempts to retrieve the user key without specifying a version identifier may return an error, although the object was not actually deleted.

Abstract: A method for managing a memory system may include monitoring one or more accesses of a page of memory, determining, based on the monitoring, an access pattern of the page of memory, and selecting, based on the access pattern, a coherency bias for the page of memory. The monitoring may include maintaining an indication of the one or more accesses. The determining may include comparing the indication to a threshold. Maintaining the indication may include changing the indication in a first manner based on an access of the page of memory by a first apparatus. Maintaining the indication may include changing the indication in a second manner based on an access of the page of memory by a second apparatus. The first manner may counteract the second manner.

Abstract: When load requests are generated to support data processing operations, the load requests are buffered in pending load buffer circuitry prior to being carried out. Coalescing circuitry determines for a first load request whether a set of one or more subsequent load requests buffered in the pending load buffer circuitry satisfies an address proximity condition. The address proximity condition is satisfied when all data items identified by the set of one or more subsequent load requests are comprised within a series of data items which will be retrieved from the memory system in response to the first load request. When the address proximity condition is satisfied, forwarding of the set of one or more subsequent load requests is suppressed.

Abstract: A memory controller includes a first buffer configured to receive a first memory request from a host and store the first memory request, a request scheduler configured to determine an order in which the first memory request is transferred to a command generator, a request generator configured to generate one or more second memory requests based on a generation parameter of the first memory request, in response to an address of the first memory request corresponding to a processing in memory (PIM) memory, the command generator configured to generate a first command corresponding to the first memory request and one or more second commands corresponding to the one or more second memory requests, and store the generated first command and the one or more second commands in a second buffer, and a command scheduler configured to schedule the first command and the one or more second commands.

Abstract: Semiconductor devices, packaging architectures and associated methods are disclosed. In one embodiment, a multi-chip module (MCM) is disclosed. The MCM includes a common substrate and a first integrated circuit (IC) chip disposed on the common substrate. The first IC chip includes a first memory interface. A second IC chip is disposed on the common substrate and includes a second memory interface. A first memory device is disposed on the common substrate and includes memory and a first port coupled to the memory. The first port is configured for communicating with the first memory interface of the first IC chip. A second port is coupled to the memory and communicates with the second memory interface of the second IC chip. In-memory processing circuitry is coupled to the memory and controls transactions between the first memory device and the first and second IC chips.

Abstract: A processor of an aspect includes a plurality of packed data registers, and a decode unit to decode a no-locality hint vector memory access instruction. The no-locality hint vector memory access instruction to indicate a packed data register of the plurality of packed data registers that is to have a source packed memory indices. The source packed memory indices to have a plurality of memory indices. The no-locality hint vector memory access instruction is to provide a no-locality hint to the processor for data elements that are to be accessed with the memory indices. The processor also includes an execution unit coupled with the decode unit and the plurality of packed data registers. The execution unit, in response to the no-locality hint vector memory access instruction, is to access the data elements at memory locations that are based on the memory indices.

Abstract: A memory control device 100 of the present invention includes a data storage processing unit 101 that stores, in an additional data area that is an area for storing additional data in memory-stored data including compressed data and the additional data to be stored in a memory, an error correcting code of the compressed data and compression information representing the degree of compression of the compressed data, and a read processing unit 102 that controls readout of the memory-stored data on the basis of the degree of compression represented by the compression information in the additional data area of the memory-stored data, when reading out the memory-stored data from the memory.

Abstract: Apparatuses and methods for memory array accessibility can include an apparatus with an array of memory cells. The array can include a first portion accessible by a controller of the array and inaccessible to devices external to the apparatus. The array can include a second portion accessible to the devices external to the apparatus. The array can include a number of registers that store row address that indicate which portion of the array is the first portion. The apparatus can include the controller configured to access the number of registers to allow access to the second portion by the devices external to the apparatus based on the stored row addresses.

Abstract: A coherent memory fabric includes a plurality of coherent master controllers and a coherent slave controller. The plurality of coherent master controllers each include a response data buffer. The coherent slave controller is coupled to the plurality of coherent master controllers. The coherent slave controller, responsive to determining a selected coherent block read command is guaranteed to have only one data response, sends a target request globally ordered message to the selected coherent master controller and transmits responsive data. The selected coherent master controller, responsive to receiving the target request globally ordered message, blocks any coherent probes to an address associated with the selected coherent block read command until receipt of the responsive data is acknowledged by a requesting client.

Abstract: A solid state drive (SSD) enabled to process and store block addressable and byte addressable data, includes a first storage region for storing byte addressable data, a second storage region for storing block addressable data, and an SSD controller coupled to the first storage region and the second storage region by a bus. The SSD controller includes a processor and an interface for receiving data packets from a host. The SSD controller receives a data packet from the host at the interface, determines whether the data packet includes byte addressable data or block addressable data at the processor, selects either the first storage region or the second storage region based on the determination, and stores the data associated with the data packet in the selected storage region.

Abstract: API in conjunction with a bridge chip and first and second hosts having first and second memories respectively. The bridge chip connects the memories. The API comprises key identifier registration functionality to register a key identifier for each of plural computer processes performed by the first host, thereby to define plural key identifiers; and/or access control functionality to provide at least computer process P1 performed by the first host with access, typically via the bridge chip, to at least local memory buffer M2 residing in the second memory, typically after the access control functionality first validates that process P1 has a key identifier which has been registered, e.g., via the key identifier registration functionality. Typically, the access control functionality also prevents at least computer process P2, performed by the first host, which has not registered a key identifier, from accessing local memory buffer M2, e.g., via the bridge chip.

Abstract: A streaming engine employed in a digital data processor specifies a fixed read only data stream defined by plural nested loops. An address generator produces address of data elements. A steam head register stores data elements next to be supplied to functional units for use as operands. An element duplication unit optionally duplicates data element an instruction specified number of times. A vector masking unit limits data elements received from the element duplication unit to least significant bits within an instruction specified vector length. If the vector length is less than a stream head register size, the vector masking unit stores all 0's in excess lanes of the stream head register (group duplication disabled) or stores duplicate copies of the least significant bits in excess lanes of the stream head register.

Abstract: Examples herein relate to a storage system that separately handles portions of a write operation that are aligned and misaligned with respect to retrievable segments from a storage device. For misaligned portions, a buffer can be used to store misaligned retrievable segments and update the segments with content provided with the write operation. Aligned portions of content associated with a write request can be written directly to the storage medium or overwrite corresponding retrievable segments present in the buffer. A table or array can track logical block addresses that correspond to content in the buffer or in the storage. Content in the buffer can be kept in the buffer without being backed-up or persisted to the storage until a triggering event occurs such as power loss or low space in the buffer.

Abstract: A method for compressing data in a local cache of a web server is described. A local cache compression engine accesses values in the local cache and determines a cardinality of the values of the local cache. The local cache compression engine determines a compression rate of a compression algorithm based on the cardinality of the values of the local cache. The compression algorithm is applied to the cache based on the compression rate to generate a compressed local cache.

Abstract: A data storage device includes a memory device and a controller coupled to the memory device. The controller is configured to allocate two or more zones to a first superblock of a plurality of superblocks. The controller is further configured to allocate a zone to a second superblock, where the second superblock only stores data of the zone. The first superblock has a first priority and the second superblock has a second priority, where the second priority is greater than the first priority. Data is moved from the first superblock to another superblock dedicated for a single zone after the first superblock is closed.

Abstract: A neural network computing chip includes a translation circuit and a computing circuit. After input data is processed by the translation circuit, a value of each element of the data input into the computing circuit is not a negative number, thereby meeting a value limitation condition imposed by the computing circuit on the input data.

Abstract: An apparatus for data storage, includes circuitry and a plurality of memory cells. The circuitry is configured to store data in a group of multiple memory cells by writing multiple respective input storage values to the memory cells in the group, to read respective output storage values from the memory cells in the group after storing the data, to generate for the output storage values multiple respective confidence levels, to produce composite data that includes the output storage values, to test a predefined condition that depends on the confidence levels, upon detecting that the condition is met, to compress the confidence levels to produce compressed soft data, and include the compressed soft data in the composite data, and to transfer the composite data over an interface to a memory controller.

Abstract: The application discloses a device and a method for picking up top k values from N values. The method comprises: A) controlling a buffer to receive values into a data pool until the number of values in the data pool reaches the predetermined memory size; B) dividing the values in the data pool into a first portion and a second portion; C) discarding the values in the second portion and controlling the buffer to continue to receive values into the data pool; D) repeating steps B to C until the buffer has received all the N values; E) dividing the values in the data pool into the first portion and the second portion until the number of values in the first portion reaches k; and F) controlling the buffer to output the k values in the first portion as the top k values.