Abstract: A storage product manufactured as a standalone computer component and installed in a computing device having a computer bus connecting the storage product to a local host system. The storage product has an artificial intelligence accelerator, a network interface operable on a computer network, and a local storage device having a storage capacity accessible via the network interface and configured to store an artificial neural network model having instructions executable by the artificial intelligence accelerator. Over the computer bus the local host system controls access, made via the network interface, to the storage capacity. The storage product can perform, using the artificial intelligence accelerator, at least a portion of computations of the artificial neural network model to generate a neural network output from neural input data received via the network interface.

Abstract: A storage product manufactured as a standalone computer component and installed in a computing system to implement an internet application. The storage product includes a network interface, a host interface, computing circuits, and a local storage device having a storage capacity accessible via the network interface. A data generator is connected to the network interface. A local host system is connected to the host interface to control access, made via the network interface. The data generator can send bulk data to the network interface. The computing circuits can generate derived data from the bulk data and store the derived data and/or the bulk data in the local storage device. A central server and/or a user device can connect over internet via to the network interface of the storage product to access the derived data and/or the bulk data.

Abstract: A storage product having a network interface and a bus switch connecting a random-access memory, a processing device, and a storage device, and connected via an external computer bus to an external processor. The storage product can receive via the network interface first messages and second messages for network storage services. The bus switch is operable to provide a first bus between the processing device and the random-access memory to buffer the first messages into the random-access memory, a second bus between the processing device and the storage device to buffer the second messages into a local memory of the storage device, and a third bus between the processor and the random-access memory to retrieve the first messages from the random-access memory and generate third messages. The storage device is configured to process the second and third messages to provide network storage services.

Abstract: A computing device having: a local host system running a data application; and a storage product. The storage product has: a local storage device; a network interface to receive storage access messages from a remote host system; and a processing device configured to identify, from storage access messages, a first subset for processing by the data application, and a second subset bypassing the local host system. The first subset of the storage access messages includes first write messages configured by the remote host system to write first data into the storage product. The data application running in the local host system can generate second data based at least in part on the first data. The storage product can write the second data into the local storage device in response to the first write messages.

Abstract: An apparatus having a solid-state drive, a host interface, a network interface, and a controller configured to recover, from packets received in the network interface from a remote host system, first control messages and data messages containing host data provided by the remote host system. The controller is further configured to: send the first control messages via the host interface to a local host system to receive second control messages from the local host system; and process the second control messages and the data messages, without sending the data message to the local host system, to write the host data into the solid-state drive. When the first control messages include read requests, the controller is further configured to retrieve data from the solid-state drive and send, via the network interface, the retrieved data to the remote host system without going through the local host system.

Abstract: A memory sub-system connectable to a microprocessor to provide network storage services. The memory sub-system has a random-access memory configured with: first queues for the microprocessor and a network interface; second queues for the microprocessor and a processing device; and third queues for the processing device and a storage device. The processing device is configured to: generate first control messages and first data messages from packets received by the network interface; place the first control messages into the first queues for the microprocessor; and place the first data messages into the third queues for the storage device. The microprocessor processes the first control messages to implement security and administrative functions and place second control messages in the second queues. The storage device is configured to retrieve the first data messages from the third queues and second control messages from the second queues for processing.

Abstract: A storage product manufactured as a standalone computer component, having a bus connector to an external processor, a storage device, a random-access memory, a computational storage processor, and a processing device to identify, among storage access messages from a computer network, first messages, second messages, and third messages. The random-access memory hosts first queues shared between the processing device and the external processor, and second queues shared between the processing device and the computational storage processor. The processing device can place the first messages in the first queues for the external processor to generate fourth messages, place the second messages in the second queues for the computational storage processor to generate fifth messages, and provide the third messages to the storage device. The storage device can process the third messages, the fourth messages, and the fifth messages to implement requests in the storage access messages.

Abstract: A storage product manufactured as a computer component and configured to have: a secure memory region to store cryptographic keys; a network interface; a local storage device having a storage capacity accessible via the network interface; and a host interface to be connected to a local host system. The local host system can control access, made via the network interface, to the storage capacity without receiving a portion of storage access messages received in the network interface. The storage product includes an access controller configured to determine whether a message, received in the network interface from the computer network or in the host interface from the local host system, has a valid verification code according to the cryptographic keys; and if not, the message can be rejected, deleted, discarded, or ignored without further processing.

Abstract: A storage product manufactured as a computer component to facilitate network storage services. The storage product has a bus connector, a network interface, and a local storage device. A message selection configuration can be written into the storage product to control separation of incoming messages received in the network interface into first messages and third messages. The first messages are sent through the bus connector for processing by a local host system to generate second messages. The second messages and the third messages are sent to the local storage device. The local storage device processes the second messages and the third messages to implement the network storage services.

Abstract: A standalone storage product having: a first bus connector for connecting to an external processor; a second bus connector for connecting to an external network interface; a storage device accessible over the network interface; and a processing device configured to communicate, via the second bus connector, with the network interface to obtain storage access messages represented by incoming packets received at the network interface from a computer network. The processing device can: identify, from the storage access messages, first messages and second messages; provide, the first messages via the first bus connector, to the processor; and provide, the second messages, to the storage device without the second messages going through the processor. The storage device is configured to: receive, via the first bus connector, third messages from the processor; and execute commands in the second messages and the third messages to implement a network storage service.

Abstract: A storage application running in a local host system connected to a storage product to define and implement at least a function, feature, or aspect of network storage services provided via the storage product. The storage application can specify a configuration for message selection performed in the storage product. A first message selected from incoming messages received in a network interface of the storage product is processed by the storage application to generate second messages. The processing of the second messages in the storage product implements a new function not available in the storage product standalone. Responses to the second messages can be selected for processing by the local host system, based on which the storage application can generate a response to the first message. The response can be sent back to the storage product for transmission using its network interface.

Abstract: A storage product having a network interface and a bus switch connecting a random-access memory, a processing device, and a storage device, and connected via an external computer bus to an external processor. The storage product can receive via the network interface first messages and second messages for network storage services. The bus switch is operable to provide a first bus between the processing device and the random-access memory to buffer the first messages into the random-access memory, a second bus between the processing device and the storage device to buffer the second messages into a local memory of the storage device, and a third bus between the processor and the random-access memory to retrieve the first messages from the random-access memory and generate third messages. The storage device is configured to process the second and third messages to provide network storage services.

Abstract: A storage product having: a network interface operable on a computer network; a bus connector adapted to be connected to a computer bus; a storage device having a storage capacity accessible through network storage services provided over the network interface; and a processing device configured to at least generate storage access messages from incoming packets received by the network interface from the computer network. The storage product is operable in a standalone mode when no local host system is connected to the bus connector to control the storage product and operable in a slave mode when a local host system is connected to the bus connector to process a portion of the storage access messages.

Abstract: Exemplary methods, apparatuses, and systems include aggregating a plurality of memory status commands Each command of the plurality of memory status commands is assigned a corresponding bit on a memory interface. The plurality of memory status commands are sent in parallel as an aggregate status command to one or more memory components via the memory interface.

Abstract: A memory subsystem transmits a write granularity parameter that indicates a minimum memory write size of a write command to a host system. A write command is received from the host system, the write command being a size of one or more multiples of the write granularity parameter and the write command identifying one or more logical block addresses using a pointer. Data from the write command is written to a portion of non-volatile memory of the memory subsystem using a first cursor.

Abstract: A storage product manufactured as a standalone computer component, having a bus connector to an external processor, a storage device, a random-access memory, a computational storage processor, and a processing device to identify, among storage access messages from a computer network, first messages, second messages, and third messages. The random-access memory hosts first queues shared between the processing device and the external processor, and second queues shared between the processing device and the computational storage processor. The processing device can place the first messages in the first queues for the external processor to generate fourth messages, place the second messages in the second queues for the computational storage processor to generate fifth messages, and provide the third messages to the storage device. The storage device can process the third messages, the fourth messages, and the fifth messages to implement requests in the storage access messages.

Abstract: An apparatus with a solid state drive (SSD) having firmware to perform peer to peer transfer of proof of space plots. The SSD has a host interface configured to receive at least read commands and write commands from an external host system. The SSD has memory cells formed on at least one integrated circuit die, and a processing device configured to control executions of the read commands to retrieve data from the memory cells and executions the write commands to store data into the memory cells. The firmware is executable in the SSD according to configuration data to: identify an opportunity for a transfer of a proof of space plot; establish a peer to peer connection to a device that is separate from the solid state drive; and transfer, over the peer to peer connection, the proof of space plot between the solid state drive and the device.

Abstract: Operations include identifying a system failure affecting visibility, to at least one dual port node of a plurality of dual port nodes, of at least one of a first volume of a plurality of volumes of a first memory device or a second volume of the plurality of volumes, and modifying a visibility configuration to address the system failure. Each volume of the plurality of volumes includes a persistent memory region (PMR). Modifying the visibility configuration includes modifying the visibility of at least one of the first volume or the second volume to the at least one dual port node of the plurality of dual port nodes through its first port or its second port via the at least one switch domain of the plurality of switch domains.

Abstract: Data from a host system is received at a memory device, where the memory device includes a primary region to initially store the data received from the host system and one or more secondary regions to store data transferred from the primary region. A write operation is performed on one or more write units of the primary region with the data received from the host system, where a write unit of the primary region has lower density blocks than a write unit of the secondary region. Whether a subset of write units of the primary region corresponding to a pre-determined number of write units is written with at least a portion of the data received from the host system is determined. In response to determining that the subset of write units of the primary region is written, another write operation is performed on at least one write units of the secondary region with respective data of the subset of write units of the primary region.

Abstract: A memory sub-system can determine a block granularity for an input/output (I/O) data stream received from a host system. The memory sub-system can determine that the block granularity is different than a memory block granularity of a first memory region in a first namespace of the one or more memory devices, where the first memory region is to store the I/O data stream. The memory sub-system can accumulate blocks from the I/O data stream in a second memory region in a second namespace of the one or more memory devices. Responsive to a capacity of the accumulated blocks in the second memory region satisfying a threshold criterion, the memory sub-system can migrate the accumulated plurality of blocks from the second memory region to the first memory region.