Abstract: Systems, video cameras, and methods for using audio sensors to control surveillance video capture are described. A video camera and audio sensor are deployed so that the audio sensor has an audio field that is at least partially outside the field of view of the video camera. The audio sensor collects audio data from the audio field and a controller for the video camera uses audio events from the audio data for modifying the video capture operations of the video camera. Video data is then captured based on the modified video capture operations, such as initiating video capture, changing the video capture rate, or changing the camera position.

Abstract: Systems, video cameras, and methods for using audio sensors to control surveillance video capture are described. A video camera and audio sensor are deployed so that the audio sensor has an audio field that is at least partially outside the field of view of the video camera. The audio sensor collects audio data from the audio field and a controller for the video camera uses audio events from the audio data for modifying the video capture operations of the video camera. Video data is then captured based on the modified video capture operations, such as initiating video capture, changing the video capture rate, or changing the camera position.

Abstract: A storage device is provided that allows a controller to directly access bytes of data in data latches connected to memory, as opposed to through controller RAM. The storage device may include a memory, a plurality of data latches connected to the memory, and a controller coupled to each of the data latches. The controller is configured to access one or more bytes of decoded data in one or more of the data latches. For instance, the controller may provide a command including an address for data in the memory, and may process one or more bytes of the data in at least one of the data latches in response to the command. The controller may also store a mapping of addresses for each of the word lines, including the address provided in the command. As a result, operation latency may be reduced and controller RAM savings achieved.

Abstract: A data storage device including, in one implementation, a non-volatile memory device including a memory block that includes a plurality of memory dies and a controller that is coupled to the non-volatile memory device and that allocates power to non-memory components based on a determined usage of the memory dies. The controller is configured to monitor a utilization of the plurality of memory dies, determine a utilization state of the plurality of memory dies, and calculate an amount of available power allocated to the plurality of memory dies in response to determining that the plurality of memory dies are in a low utilization state. The controller is also configured to determine whether the amount of available power is above a predetermined threshold, and reallocate the available power to one or more components within the data storage device in response to determining that the amount of available power is above the predetermined threshold.

Abstract: A storage system and method for event-driven data stitching in surveillance systems are provided. In one embodiment, a storage system is provided comprising a memory and a controller. The controller is configured to track an object in a plurality of video streams; determine which video frames in each of the plurality of video streams contain the object; create a separate video stream from the video frames that contain the object; and store the created separate video stream in the memory. Other embodiments are provided.

Abstract: Aspects of a storage device including a memory and a controller are provided. The memory includes a plurality of non-volatile memory packages coupled to the switch, in which each non-volatile memory package includes a plurality of non-volatile memory dies. The controller can select a non-volatile memory package with the switch. The controller can establish a data channel connection between the selected non-volatile memory package and the controller via the switch. In some aspects, the selected non-volatile memory package is transitioned into an active mode and one or more non-selected non-volatile memory packages are each transitioned into a standby mode. The controller also can perform one or more storage device operations with one or more non-volatile memory dies of the plurality of non-volatile memory dies within the selected non-volatile memory package. Thus, the controller may facilitate a switch based ball grid array extension, thereby improving memory capacity of the storage device.

Abstract: A storage device is provided that allows a controller to directly access bytes of data in data latches connected to memory, as opposed to through controller RAM. The storage device may include a memory, a plurality of data latches connected to the memory, and a controller coupled to each of the data latches. The controller is configured to access one or more bytes of decoded data in one or more of the data latches. For instance, the controller may provide a command including an address for data in the memory, and may process one or more bytes of the data in at least one of the data latches in response to the command. The controller may also store a mapping of addresses for each of the word lines, including the address provided in the command. As a result, operation latency may be reduced and controller RAM savings achieved.

Abstract: A non-volatile storage system includes a memory controller connected to an integrated memory assembly. The integrated memory assembly includes a memory die comprising non-volatile memory cells and a control die bonded to the memory die. The memory controller receives commands from a host, performs logical address to physical address translation (“address translation”) operations for the commands, and instructs the integrated memory assembly to perform one or more operations in support of the command. The control die also includes the ability to perform the address translation. When performing a command from the host, the memory controller can choose to perform the necessary address translation or instruct the control die to perform the address translation. When the control die performs the address translation, the resulting physical address is used by the control die to perform one or more operations in support of the command.

Abstract: An integrated memory assembly comprises a memory die and a control die bonded to the memory die. The memory die includes a memory structure of non-volatile memory cells. The control die is configured to program user data to and read user data from the memory die in response to commands from a memory controller. To utilize space more efficiently on the memory die, the control die compacts fragmented data on the memory die.

Abstract: A data storage device and method for application identifier handler heads-up for faster storage response are provided. In one embodiment, a data storage device is provided comprising a volatile memory, a non-volatile memory, and a controller. The controller is configured to: receive data and a logical address from a host, wherein the data is tagged with an identifier of an application on the host; store the data at a physical address in the non-volatile memory; maintain a logical-to-physical address table that comprises an entry associating the logical address, physical address, and identifier; determine that the application is subsequently reloaded on the host; and cache, in the volatile memory, a portion of the logical-to-physical address table that comprises the entry for the identifier. Other embodiments are provided.

Abstract: Aspects of a storage device including a memory and a controller are provided. The memory includes a plurality of non-volatile memory packages coupled to the switch, with each non-volatile memory package including a plurality of non-volatile memory dies. The controller monitors a wear level of each non-volatile memory package in the plurality of non-volatile memory packages connected to the controller via the switch. The controller determines whether a wear level of a first non-volatile memory package of the plurality of non-volatile memory packages exceeds a wear level threshold. The controller also can transfer data from the first non-volatile memory package to a second non-volatile memory package of the plurality of non-volatile memory packages through the switch based on the wear level of the first non-volatile memory package exceeding the wear level threshold. Thus, the controller may facilitate a persistent switch-based storage controller, thereby improving memory capacity of the storage device.

Abstract: Aspects of a storage device including a memory and a controller are provided. The memory includes a plurality of non-volatile memory packages coupled to the switch, in which each non-volatile memory package includes a plurality of non-volatile memory dies. The controller can select a non-volatile memory package with the switch. The controller can establish a data channel connection between the selected non-volatile memory package and the controller via the switch. In some aspects, the selected non-volatile memory package is transitioned into an active mode and one or more non-selected non-volatile memory packages are each transitioned into a standby mode. The controller also can perform one or more storage device operations with one or more non-volatile memory dies of the plurality of non-volatile memory dies within the selected non-volatile memory package. Thus, the controller may facilitate a switch based ball grid array extension, thereby improving memory capacity of the storage device.

Abstract: An integrated memory assembly comprises a memory die and a control die bonded to the memory die. The memory die includes a memory structure of non-volatile memory cells. The control die is configured to program user data to and read user data from the memory die in response to commands from a memory controller. To utilize space more efficiently on the memory die, the control die compacts fragmented data on the memory die.

Abstract: A data storage device and method for application identifier handler heads-up for faster storage response are provided. In one embodiment, a data storage device is provided comprising a volatile memory, a non-volatile memory, and a controller. The controller is configured to: receive data and a logical address from a host, wherein the data is tagged with an identifier of an application on the host; store the data at a physical address in the non-volatile memory; maintain a logical-to-physical address table that comprises an entry associating the logical address, physical address, and identifier; determine that the application is subsequently reloaded on the host; and cache, in the volatile memory, a portion of the logical-to-physical address table that comprises the entry for the identifier. Other embodiments are provided.

Abstract: A data storage device including, in one implementation, a non-volatile memory device including a memory block that includes a plurality of memory dies and a controller that is coupled to the non-volatile memory device and that allocates power to non-memory components based on a determined usage of the memory dies. The controller is configured to monitor a utilization of the plurality of memory dies, determine a utilization state of the plurality of memory dies, and calculate an amount of available power allocated to the plurality of memory dies in response to determining that the plurality of memory dies are in a low utilization state. The controller is also configured to determine whether the amount of available power is above a predetermined threshold, and reallocate the available power to one or more components within the data storage device in response to determining that the amount of available power is above the predetermined threshold.

Abstract: An integrated memory assembly comprises a memory die and a control die bonded to the memory die. The memory die includes a memory structure of non-volatile memory cells. The control die is configured to program user data to and read user data from the memory die in response to commands from a memory controller. To utilize space more efficiently on the memory die, the control die compacts fragmented data on the memory die.

Abstract: A data storage device including, in one implementation, a non-volatile memory device including a memory block that includes a plurality of memory dies and a controller that is coupled to the non-volatile memory device and that allocates power to non-memory components based on a determined usage of the memory dies. The controller is configured to monitor a utilization of the plurality of memory dies, determine a utilization state of the plurality of memory dies, and calculate an amount of available power allocated to the plurality of memory dies in response to determining that the plurality of memory dies are in a low utilization state. The controller is also configured to determine whether the amount of available power is above a predetermined threshold, and reallocate the available power to one or more components within the data storage device in response to determining that the amount of available power is above the predetermined threshold.

Abstract: Systems and methods for host-assisted storage device error correction are described. A host may first encode host data with a forward error correction code (ECC) and send the encoded host data to the storage device. The storage device may further encode the host data using its own ECC. The host may also provide the forward ECC parity information to be stored on the storage device in a different location than the host data. When the host data is read by the storage device, the storage device will decode with its ECC. If the storage device ECC decode is incomplete and the bit error rate is below the recoverable error threshold of the forward error correction, the partially-recovered host data will be sent to the host. The host will complete decode using the forward ECC and parity data. Forward ECC may be selectively applied to important host data.

Abstract: A storage system and method for event-driven data stitching in surveillance systems are provided. In one embodiment, a storage system is provided comprising a memory and a controller. The controller is configured to track an object in a plurality of video streams; determine which video frames in each of the plurality of video streams contain the object; create a separate video stream from the video frames that contain the object; and store the created separate video stream in the memory. Other embodiments are provided.

Abstract: Systems and methods for host-assisted storage device error correction are described. A host may first encode host data with a forward error correction code (ECC) and send the encoded host data to the storage device. The storage device may further encode the host data using its own ECC. The host may also provide the forward ECC parity information to be stored on the storage device in a different location than the host data. When the host data is read by the storage device, the storage device will decode with its ECC. If the storage device ECC decode is incomplete and the bit error rate is below the recoverable error threshold of the forward error correction, the partially-recovered host data will be sent to the host. The host will complete decode using the forward ECC and parity data. Forward ECC may be selectively applied to important host data.