Abstract: A storage device is disclosed. The storage device may include a host interface to receive a write request from a host, the write request may include a data and a logical address of the data. The storage device may further include a first storage for the data. The storage device may further include a retention period determiner to determine a retention period for the data. The storage device may further include a translation layer to select a physical address in the first storage to store the data based at least in part on the retention period. The storage device may further include a second storage for a logical-to-physical mapping table to map the logical address to the physical address and the retention period. Finally, the storage device may include a controller to program the data into the physical address in the first storage.

Abstract: A device is disclosed. The device may include a storage device to store a content stream, and a network interface device to transmit a filtered content stream. A processing circuit may be connected to the storage device and the network interface device. The processing circuit may apply a filtering policy to the content stream to produce the filtered content stream.

Abstract: A system and method for automatic deletion in a persistent storage device. In some embodiments, the method includes: receiving, by a persistent storage device, a first read command, for a first logical block of data; determining that a total number of read operations, for the first logical block of data, equals or exceeds a first threshold value; and in response to determining that the total number of read operations, for the first logical block of data, equals or exceeds the first threshold value, arranging for deletion of the first logical block of data from the persistent storage device.

Abstract: A device is disclosed. An interface may connect the device to a processor. The interface may support a first protocol. A first storage and a second storage may the data. The second storage may support a second protocol different from the first protocol. A controller may be connected to the interface and the first storage. A bridge may be connected to the interface, the first storage, and the second storage. The bridge may include a filter configured to coordinate a data transfer between the first storage and the second storage.

Abstract: A memory device is disclosed. The memory device may include an interface to connect the memory device to a processor, a first storage for a data, and a second storage for the data. A controller may process a request received from the processor via the interface using the first storage or the second storage. A policy engine may instruct the controller regarding a storing of the data in the first storage or the second storage.

Abstract: A multi-function device is disclosed. The multi-function device may include a first connector for communicating with a storage device, a second connector for communicating with a Fully Homomorphic Encryption (FHE) circuit, and a third connector for communicating with a host processor. The multi-function device is configured to expose the storage device to the host processor via the third connector.

Abstract: A system and method for automatic deletion in a persistent storage device. In some embodiments, the method includes: receiving, by a persistent storage device, a first read command, for a first logical block of data; determining that a total number of read operations, for the first logical block of data, equals or exceeds a first threshold value; and in response to determining that the total number of read operations, for the first logical block of data, equals or exceeds the first threshold value, arranging for deletion of the first logical block of data from the persistent storage device.

Abstract: A multi-function device is disclosed. The multi-function device may include a first connector for communicating with a storage device, a second connector for communicating with a first computational storage unit, a third connector for communicating with a second computational storage unit, and a fourth connector for communicating with a host processor. The multi-function device is configured to expose the storage device and the first computational storage unit to the host processor via the fourth connector.

Abstract: A method may include receiving, at a memory system having a block modification characteristic, a write request for a data structure arranged in the memory, storing, based on the write request, data in the data structure, receiving, at the memory system, a read request for the data structure, reading, based on the read request, the data from the data structure, and indicating, based on the reading, the data for modification. The method may further include receiving, at the memory system, a second write request for the data structure, wherein the first write request and the second write request have an order, storing, based on the second write request, second data in the data structure, and determining, based on the read request, based on the order, the first data, wherein the reading may be further based on the determining.

Abstract: A storage device is disclosed. The storage device may include a host interface to receive a write request from a host, the write request may include a data and a logical address of the data. The storage device may further include a first storage for the data. The storage device may further include a retention period determiner to determine a retention period for the data. The storage device may further include a translation layer to select a physical address in the first storage to store the data based at least in part on the retention period. The storage device may further include a second storage for a logical-to-physical mapping table to map the logical address to the physical address and the retention period. Finally, the storage device may include a controller to program the data into the physical address in the first storage.

Abstract: A memory channel command interface for one or more memory channels includes, for each memory channel, programmable storage for memory commands, a single channel processor for executing the memory commands, and a task engine for communicating output of the single channel processor to a memory medium. The memory commands may be organized into jobs including operations that include tasks. The tasks may be stored as part of operations in an operation memory, or may be stored in a task memory with pointers to the tasks being stored as part of operations in the operation memory. The memory channel command interface may further include a memory medium status storage that stores a priority indication for a memory command, based on a condition other than order of arrival or receipt of the memory command, and the single channel processor controls order of execution of memory commands based on the priority indication.