Abstract: Embodiments maintain a data pool that includes heterogeneous data sets, and receiving a first data batch of a data set from a data source into the data pool. Embodiments determine a current state of the data set based on a data set state diagram including a plurality of data set states, and identify a condition of the first data batch. Embodiments further set a data batch state for the first data batch, based on a data batch state diagram, and update the data batch state of a prior data batch received before the first data batch, based on the condition of the first data batch. Embodiments additionally transition the data set state diagram, based on the condition of the first data batch, to an updated data set state. Embodiments maintain a data state repository storing the data set state for each of the plurality of heterogeneous data sets.

Abstract: Systems and methods for processing storage transactions are disclosed. A transaction between a storage device and a host computing device is identified. The storage device determines that the transaction satisfies a criterion, and inserts data into a packet associated with the transaction. The data may be for identifying a memory subsystem of the host computing device. The storage device transmits the packet, including the data, to the host computing device for storing the packet in the memory subsystem based on the data.

Abstract: A multiple function storage device is disclosed. The multiple function storage device may include an enclosure, a storage device associated with the enclosure, and an bridging device associated with the enclosure. The storage device may include a connector to receive a first message using a first protocol originating at a host, a physical function (PF) and a virtual function (VF) exposed by the storage device via the connector, storage for data relating to the first message, and a controller to manage writing a write data to the storage and reading a read data from the storage.

Abstract: A container, comprising a container body and a container cover frame which are injection molded as a whole. The container body and the container cover frame are connected by means of breaking points; during sealing, the container body and the container cover frame are separated during the process of covering the container cover frame with a container cover film. The material cost is reduced, and the container can be used for multiple times; the provision of an anti-opening member on the container cover frame can prevent opening and avoid secondary sealing; by providing a sealing structure on the container body and the container cover frame, the container has a good sealing effect when reused for multiple times.

Abstract: A multiple function storage device is disclosed. The multiple function storage device may include an enclosure, a storage device associated with the enclosure, and an bridging device associated with the enclosure. The storage device may include a connector to receive a first message using a first protocol originating at a host, a physical function (PF) and a virtual function (VF) exposed by the storage device via the connector, storage for data relating to the first message, and a controller to manage writing a write data to the storage and reading a read data from the 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 packaging storage container used for accommodating a sheet-like object includes a container bottom portion, a container cover portion, a ridge member and a tray. The container bottom portion and the container cover portion are hinged to the ridge member, and form a sealed container body with the ridge member. The tray is configured to hold the sheet-like object; the ridge member is provided with a pair of articulated shaft-receiving bases, the tray is connected to a pair of articulated shaft-receiving bases through an articulated shaft provided on the tray, an inner space for self-adaptive rotation and shock absorption of the articulated shaft is formed in the articulated shaft-receiving base, the articulated shaft is provided with a pair of flange portions, the longitudinal length of the articulated shaft between the pair of flange portions is configured to be accommodated in the inner space.

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: The present application relates to a packaging storage container, including a container bottom portion, a container cover portion, a ridge member and a tray. The container bottom portion is provided with a pair of articulated shaft-receiving bases, the tray is connected to a pair of articulated shaft-receiving bases through an articulated shaft, an inner space for self-adaptive rotation and shock absorption of the articulated shaft is formed in the articulated shaft-receiving base. The articulated shaft-receiving bases comprises a connecting piece and a pair of limiting walls, and the connecting piece is provided between the pair of limiting walls and is an arc-shaped piece curved upwards, the articulated shaft is provided with a pair of protruding portions with column shape in axial direction thereof, a longitudinal length of the articulated shaft between the pair of protruding portions is configured to correspond to the articulated shaft-receiving base.

Abstract: A multi-function device is disclosed. A first port may be used to communicate with a host processor. A second port may be used to communicate with a storage device. A third port may be used to communicate with a computational storage unit. Circuit may be used to route a message from the host processor to at least one of the storage device or the computational storage unit.

Abstract: A container, comprising a container body and a container cover frame which are injection molded as a whole. The container body and the container cover frame are connected by means of breaking points; during sealing, the container body and the container cover frame are separated during the process of covering the container cover frame with a container cover film. The material cost is reduced, and the container can be used for multiple times; the provision of an anti-opening member on the container cover frame can prevent opening and avoid secondary sealing; by providing a sealing structure on the container body and the container cover frame, the container has a good sealing effect when reused for multiple times.

Abstract: A multiple function storage device is disclosed. The multiple function storage device may include an enclosure, a storage device associated with the enclosure, and an bridging device associated with the enclosure. The storage device may include a connector to receive a first message using a first protocol originating at a host, a physical function (PF) and a virtual function (VF) exposed by the storage device via the connector, storage for data relating to the first message, and a controller to manage writing a write data to the storage and reading a read data from the storage.

Abstract: A packaging container for a multimedia storage carrier includes a panel portion and a peripheral side portion. The panel portion is arranged in the peripheral side portion in a sunken manner, and an inner cavity for accommodating the multimedia storage carrier is defined by the panel portion and an inner wall of the peripheral side portion. An inner edge of the peripheral side portion is provided with a snap portion and a snap groove portion opposite to the snap portion. The snap portion and the snap groove portion are configured to fix the multimedia storage carrier in the inner cavity. The snap portion is provided with a support member that abuts against a bottom surface of the multimedia storage carrier, and the support member is configured to support the multimedia storage carrier.

Abstract: A packaging container for a multimedia storage carrier includes a panel portion and a peripheral side portion. The panel portion is arranged in the peripheral side portion in a sunken manner, and an inner cavity for accommodating the multimedia storage carrier is defined by the panel portion and an inner wall of the peripheral side portion. An inner edge of the peripheral side portion is provided with a snap portion and a snap groove portion opposite to the snap portion. The snap portion and the snap groove portion are configured to fix the multimedia storage carrier in the inner cavity. The snap portion is provided with a support member that abuts against a bottom surface of the multimedia storage carrier, and the support member is configured to support the multimedia storage carrier.

Abstract: Systems and methods that facilitate securing data associated with a memory from security breaches are presented. A memory component includes nonvolatile memory, and a secure memory component (e.g., volatile memory) used to store information such as secret information related to secret processes or functions (e.g., cryptographic functions). A security component detects security-related events, such as security breaches or completion of security processes or functions, associated with the memory component and in response to a security-related event, the security component can transmit a reset signal to the secure memory component to facilitate efficiently erasing or resetting desired storage locations in the secure memory component in parallel and in a single clock cycle to facilitate data security. A random number generator component can facilitate generating random numbers after a reset based on a change in scrambler keys used by a scrambler component to descramble data read from the reset storage locations.

Abstract: Systems and methods that facilitate securing data associated with a memory from security breaches are presented. A memory component includes nonvolatile memory, and a secure memory component (e.g., volatile memory) used to store information such as secret information related to secret processes or functions (e.g., cryptographic functions). A security component detects security-related events, such as security breaches or completion of security processes or functions, associated with the memory component and in response to a security-related event, the security component can transmit a reset signal to the secure memory component to facilitate efficiently erasing or resetting desired storage locations in the secure memory component in parallel and in a single clock cycle to facilitate data security. A random number generator component can facilitate generating random numbers after a reset based on a change in scrambler keys used by a scrambler component to descramble data read from the reset storage locations.

Abstract: An audio interface is coupled to received a music signal and a microphone signal. The music signal and a volume control signal are combined in a multiplier to produce a volume adjusted music signal. In response to an input signal from a user, the volume control signal is gradually changed in predetermined increment levels. Thus, the multiplier gradually changes the audible volume in these predetermined increment levels. The resulting music and microphone signal are stored in corresponding partitions of a single memory, and thereafter provided to a mixing circuit. The mixing circuit combines signal samples read from the memory to produce four output signals each containing first and second channel samples. The resultant 8 channel samples are gated in a formatter with respective channel mute signals which, when asserted, effectively mute their corresponding channel sample.

Abstract: An audio interface is coupled to received a music signal and a microphone signal. The music signal and a volume control signal are combined in a multiplier to produce a volume adjusted music signal. In response to an input signal from a user, the volume control signal is gradually changed in predetermined increment levels. Thus, the multiplier gradually changes the audible volume in these predetermined increment levels. The resulting music and microphone signal are stored in corresponding partitions of a single memory, and thereafter provided to a mixing circuit. The mixing circuit combines signal samples read from the memory to produce four output signals each containing first and second channel samples. The resultant 8 channel samples are gated in a formatter with respective channel mute signals which, when asserted, effectively mute their corresponding channel sample.