Abstract:
A first memory access request is obtained, where the first memory access request is used to request to access a first sub-row in a memory. A to-be-scheduled queue of the memory is searched for a second memory access request, where the to-be-scheduled queue of the memory includes multiple memory access requests, the second memory access request is used to request to access a second sub-row in the memory. The first sub-row and the second sub-row are located in a same row in the memory. The first memory access request and the second memory access request are combined to generate a first activation instruction, where the first activation instruction is used to instruct to activate the first sub-row and the second sub-row in the memory. The first activation instruction is sent to the memory.
Abstract:
A magnetic storage track and a magnetic memory are provided. The magnetic storage track includes multiple stacked storage track units. A transition layer is disposed between two neighboring storage track units. The transition layer is constituted by a semiconductor material deposited on an insulating material, and includes a gating circuit and a read/write apparatus. Because the magnetic storage track includes multiple stacked storage track units, a track length of the magnetic storage track is constituted by track lengths of the multiple storage track units. Therefore, when a storage capability of the magnetic storage track needs to be improved, the track length of the magnetic storage track may be increased by adding the storage track unit.
Abstract:
A storage unit includes a U-shaped magnetic track, a first drive circuit, a second drive circuit, a first drive port, and a second drive port. The U-shaped magnetic track includes a first port, a second port, a first storage area, and a second storage area. By controlling input voltages of the first port, the second port, the first drive port, and the second drive port and driving the first drive circuit, a current pulse is generated in the first storage area, and a magnetic domain wall in the first storage area is driven to move. By controlling the input voltages of the first port, the second port, the first drive port, and the second drive port and driving the second drive circuit, a current pulse is generated in the second storage area, and a magnetic domain in the second storage area is driven to move.
Abstract:
An intention identification model learning method includes receiving positive data that corresponds to a first skill, generating, based on the positive data that corresponds to the first skill, negative data that corresponds to the first skill, determining a second skill similar to the first skill, obtaining data that corresponds to each second skill, generating a second base model based on the data that corresponds to the second skill and a first base model stored on the server, and performing learning based on the second base model, the positive data, and the negative data that correspond to the first skill, and generating an intention identification model.
Abstract:
An information writing method is applied to an non-volatile dual in-line memory module (NVDIMM), the NVDIMM includes an NVDIMM controller and a non-volatile memory (NVM), and the method includes receiving, by the NVDIMM controller, a sanitize command from a host, where the sanitize command is used to instruct the NVDIMM controller to sanitize data in the NVM using a first write pattern, and the first write pattern is one of at least two patterns of writing information into the NVM, and writing, by the NVDIMM controller, information into the NVM according to the sanitize command.
Abstract:
An information writing method is applied to an non-volatile dual in-line memory module (NVDIMM), the NVDIMM includes an NVDIMM controller and a non-volatile memory (NVM), and the method includes receiving, by the NVDIMM controller, a sanitize command from a host, where the sanitize command is used to instruct the NVDIMM controller to sanitize data in the NVM using a first write pattern, and the first write pattern is one of at least two patterns of writing information into the NVM, and writing, by the NVDIMM controller, information into the NVM according to the sanitize command.
Abstract:
A computer system includes a memory controller and a non-volatile dual in-line memory module (NVDIMM) connected to the memory controller. The NVDIMM comprises a non-volatile memory (NVM) for storing data and a media controller. After receiving a read command for reading first data stored in the NVDIMM from the memory controller, the media controller reads multiple data subblocks of the first data from the NVM. After sending multiple ready signals to notify the memory controller that multiple data subblocks of the first data are available, the media controller receives multiple send commands for fetching the multiple data subblocks. The media controller then transmits to the memory controller the multiple data subblocks in response to the multiple send commands.
Abstract:
An electronic device includes a processor, a volatile memory, and a non-volatile memory. The non-volatile memory stores a first operating system, and the electronic device works in a first working mode and a second working mode. When the electronic device is in the first working mode, a second operating system is run in the volatile memory. When the processor detects that the electronic device reaches a preset condition for entering the second working mode, the non-volatile memory is enabled, and non-system data in the volatile memory is moved to the non-volatile memory. The non-system data does not include the second operating system. After the movement of the non-system data is completed, the volatile memory is disabled, and the first operating system is run in the non-volatile memory, so that the electronic device enters the second working mode.
Abstract:
A recording play method, terminal and non-transitory computer-readable storage medium are provided, where the recording play method includes obtaining a recording file, wherein the recording file comprises saved recording data in all sound source directions via the at least three microphones; receiving a first gesture on an interface displayed on the screen, wherein the first gesture indicates a first recording play direction; determining, according to the first gesture, a first recording data matching the first recording play direction from the saved recording data in all sound source directions; and playing the first recording data matching the first recording play direction.
Abstract:
A memory access technology applied to a computer system includes a first-level memory, a second-level memory, and a memory controller. The first-level memory is configured to cache data in the second-level memory. A plurality of access requests for accessing different memory blocks has a mapping relationship with a first cache line in the first-level memory, and the memory controller compares tags of the plurality of access requests with a tag of the first cache line in a centralized manner to determine whether the plurality of access requests hit the first-level memory.