Abstract: A data storage method includes: in response to a stream ID carried by an IO write request of a host satisfying a first preset condition, writing data corresponding to the IO write request into a first storage unit; and in response to the stream ID carried by the IO write request satisfying a second preset condition, writing the data corresponding to the IO write request into a second storage unit, wherein the stream ID indicates write latency requirement information of the data corresponding to the IO write request, wherein a data write latency indicated by the stream ID satisfying the first preset condition is less than the data write latency indicated by the stream ID satisfying the second preset condition, wherein a read and write performance of the first storage unit is higher than the read and write performance of the second storage unit.

Abstract: The disclosed subject matter relates to lithium ion conductors and batteries (such as pseudo solid state and all solid state batteries), and methods of making and use thereof. Disclosed herein are lithium ion conductors comprising Li1+xNb1?xZrxOX4, wherein X is a halide; and 0?x?1. Also disclosed herein are methods of making and use of any of the lithium ion conductors (e.g., Formula I) disclosed herein. Also disclosed herein are devices comprising any of the lithium ion conductors disclosed herein (e.g., Formula I), such as a solid state battery.

Abstract: A method, apparatus and storage medium for starting up peripheral component interconnect express (PCIE) device are provided. According to the method, a basic input/output system (BIOS) attempts to verify firmware of a PCIE device to determine whether the firmware of the PCIE device is tampered with. Moreover, the BIOS may only start up a PCIE device with firmware that succeeds in the verification. Therefore, a computer device is prevented from starting up a PCIE device with firmware that is tampered with, thereby reducing the security risk caused by the PCIE device to the computer device.

Abstract: Disclosed are a data query method, a data query device, a storage device, and an electronic device. The data query method comprises: receiving a data query request carrying a keyword associated with data to be queried; querying the keyword in the main cache, wherein ordered views that have been accessed historically are stored in the main cache and each of the ordered views comprises a plurality of historical keywords; in a case that a historical keyword matching the keyword is not found in the main cache, querying the data corresponding to the keyword in the hard disk and the memory based on the keyword and obtaining the data to be queried; and in a case that a historical keyword matching the keyword is found in the main cache, querying the data corresponding to the keyword in the memory based on the keyword and obtaining the data to be queried.

Abstract: A data storage method includes: in response to a stream ID carried by an IO write request of a host satisfying a first preset condition, writing data corresponding to the IO write request into a first storage unit; and in response to the stream ID carried by the IO write request satisfying a second preset condition, writing the data corresponding to the IO write request into a second storage unit, wherein the stream ID indicates write latency requirement information of the data corresponding to the IO write request, wherein a data write latency indicated by the stream ID satisfying the first preset condition is less than the data write latency indicated by the stream ID satisfying the second preset condition, wherein a read and write performance of the first storage unit is higher than the read and write performance of the second storage unit.

Abstract: A log-structured merge-tree (LSM-Tree) based key-value (KV) data storage method includes writing KV data into a NAND flash memory. The KV data includes a key-value pair including a key and a corresponding value. The KV data is stored in a key-value solid state drive (KVSSD), which includes a storage class memory (SCM) and the NAND flash memory. The method further includes storing metadata of the KV data in the SCM. The metadata of the KV data includes the key and index information of the corresponding value of the KV data, and the index information of the corresponding value of the KV data indicates address information of the KV data in the NAND flash memory.

Abstract: Disclosed is a solid-state ion-conducting composite electrolyte comprising: a) a polymer host; b) an alkali metal salt comprising a monovalent metal cation, wherein the alkali metal salt is dispersed in the polymer host; and c) a functional additive comprising at least one divalent and/or trivalent metal cation; wherein an ionic radius of the at least one divalent and/or trivalent metal cation of the functional additive is substantially similar to an ionic radius of the monovalent metal cation of the alkali metal salt; and wherein the functional additive is substantially dissolved within the polymer host; and wherein the solid-state ion-conducting composite electrolyte has an ionic conductivity of at least about 10?4 S/cm at room temperature.

Abstract: A log-structured merge-tree (LSM-Tree) based key-value (KV) data storage method includes writing KV data into a NAND flash memory. The KV data includes a key-value pair including a key and a corresponding value. The KV data is stored in a key-value solid state drive (KVSSD), which includes a storage class memory (SCM) and the NAND flash memory. The method further includes storing metadata of the KV data in the SCM. The metadata of the KV data includes the key and index information of the corresponding value of the KV data, and the index information of the corresponding value of the KV data indicates address information of the KV data in the NAND flash memory.

Abstract: A data storage method includes: in response to a stream ID carried by an IO write request of a host satisfying a first preset condition, writing data corresponding to the IO write request into a first storage unit; and in response to the stream ID carried by the IO write request satisfying a second preset condition, writing the data corresponding to the IO write request into a second storage unit, wherein the stream ID indicates write latency requirement information of the data corresponding to the IO write request, wherein a data write latency indicated by the stream ID satisfying the first preset condition is less than the data write latency indicated by the stream ID satisfying the second preset condition, wherein a read and write performance of the first storage unit is higher than the read and write performance of the second storage unit.

Abstract: A peripheral component interconnect express device startup method and apparatus, and a storage medium are provided, and pertain to the field of computer technologies. According to this method, a BIOS attempts to verify firmware of a PCIE device to determine whether the firmware of the PCIE device is tampered with. Moreover, the BIOS may only start up a PCIE device where firmware that succeeds in the verification is located. Therefore, a computer device is prevented from starting up a PCIE device of which firmware is tampered with, and a security risk caused by the PCIE device to the computer device is reduced.

Abstract: The present disclosure relates to an electrolyte membrane for an alkali metal or an alkali metal ion battery, comprising: a composite membrane comprising an ionically conductive polymer; an alkali metal salt; and a filler comprising a carbon nitride nanosheet, an oxygenated carbon nitride nanosheet or a combination thereof.

Abstract: A message processing method, apparatus, and system, which include: receiving a sharing request for a source message and sent by a terminal, the source message carrying a password and an enterprise account identifier, the sharing request including a sharing user account identifier; returning at least one account identifier to the terminal, and receiving a determined target account identifier with which the source message is shared and that is selected by the terminal; setting an electronic resource property for the source message according to a preset rule to generate a target message, sending the target message to a target user corresponding to the target account identifier; and transferring, according to the electronic resource property, an electronic resource corresponding to an associated account of the enterprise account identifier to an associated account of the sharing user account identifier if receiving a drawing request sent by the terminal and that carries the password.

Abstract: A connector (100) and a communications device is disclosed. The connector includes a connector body (41) and three connecting ends disposed on the connector body. M signal interfaces (51a) inside a first connecting end (42) are in communication with M signal interfaces (51b) inside a second connecting end (43) in a one-to-one correspondence. The first connecting end is connected to a backplane connector (32) on a backplane (31). The second connecting end is connected to one end (45a) of a transmission cable (45), and the other end (45b) of the transmission cable is connected to a communications component (46) on a target board (33a). The backplane is configured to implement communication between X boards (33), and the target board is any one of X boards, where M?1 and X?1. A third connecting end (44) is configured to secure the connector body to the target board.

Abstract: A connector (100) and a communications device is disclosed. The connector includes a connector body (41) and three connecting ends disposed on the connector body. M signal interfaces (51a) inside a first connecting end (42) are in communication with M signal interfaces (51b) inside a second connecting end (43) in a one-to-one correspondence. The first connecting end is connected to a backplane connector (32) on a backplane (31). The second connecting end is connected to one end (45a) of a transmission cable (45), and the other end (45b) of the transmission cable is connected to a communications component (46) on a target board (33a). The backplane is configured to implement communication between X boards (33), and the target board is any one of X boards, where M?1 and X?1. A third connecting end (44) is configured to secure the connector body to the target board.

Abstract: A connector (100) and a communications device is disclosed. The connector includes a connector body (41) and three connecting ends disposed on the connector body. M signal interfaces (51a) inside a first connecting end (42) are in communication with M signal interfaces (51b) inside a second connecting end (43) in a one-to-one correspondence. The first connecting end is connected to a backplane connector (32) on a backplane (31). The second connecting end is connected to one end (45a) of a transmission cable (45), and the other end (45b) of the transmission cable is connected to a communications component (46) on a target board (33a). The backplane is configured to implement communication between X boards (33), and the target board is any one of X boards, where M?1 and X?1. A third connecting end (44) is configured to secure the connector body to the target board.

Abstract: A connector (100) and a communications device is disclosed. The connector includes a connector body (41) and three connecting ends disposed on the connector body. M signal interfaces (51a) inside a first connecting end (42) are in communication with M signal interfaces (51b) inside a second connecting end (43) in a one-to-one correspondence. The first connecting end is connected to a backplane connector (32) on a backplane (31). The second connecting end is connected to one end (45a) of a transmission cable (45), and the other end (45b) of the transmission cable is connected to a communications component (46) on a target board (33a). The backplane is configured to implement communication between X boards (33), and the target board is any one of X boards, where M?1 and X?1. A third connecting end (44) is configured to secure the connector body to the target board.

Abstract: A connector (100) and a communications device is disclosed. The connector includes a connector body (41) and three connecting ends disposed on the connector body. M signal interfaces (51a) inside a first connecting end (42) are in communication with M signal interfaces (51b) inside a second connecting end (43) in a one-to-one correspondence. The first connecting end is connected to a backplane connector (32) on a backplane (31). The second connecting end is connected to one end (45a) of a transmission cable (45), and the other end (45b) of the transmission cable is connected to a communications component (46) on a target board (33a). The backplane is configured to implement communication between X boards (33), and the target board is any one of X boards, where M?1 and X?1. A third connecting end (44) is configured to secure the connector body to the target board.

Abstract: A connector (100) and a communications device is disclosed. The connector includes a connector body (41) and three connecting ends disposed on the connector body. M signal interfaces (51a) inside a first connecting end (42) are in communication with M signal interfaces (51b) inside a second connecting end (43) in a one-to-one correspondence. The first connecting end is connected to a backplane connector (32) on a backplane (31). The second connecting end is connected to one end (45a) of a transmission cable (45), and the other end (45b) of the transmission cable is connected to a communications component (46) on a target board (33a). The backplane is configured to implement communication between X boards (33), and the target board is any one of X boards, where M?1 and X?1. A third connecting end (44) is configured to secure the connector body to the target board.

Abstract: A member device of a stacked switches system receives a packet which is to be sent to every member device in the stack groups of the stacked switches system. The member device identifies an intra-group port and an aggregated stack link group which permit forwarding the packet based on an ingress member device identification of the packet. The member device sends the packet carrying the ingress member device identification via the identified intra-group stack port, via the identified aggregated stack link group and via a local data port.

Abstract: A port status synchronization method, related device, and system, where a physical layer (PHY) device or an external processor connected to the PHY device determines whether a first service interface of the PHY device changes, and when the first service interface changes, controls a second service interface of the PHY device to restart auto-negotiation and sends, using the second service interface, an auto-negotiation advertisement packet to a first device connected to the second service interface in order to trigger the first device to synchronize, according to the auto-negotiation advertisement packet, a status of the second service interface and a status of the first service interface such that performing port status negotiation and synchronization between a link layer (media access control (MAC)) device or the first device and the PHY device using a service interface is achieved, without a need of disposing a management data input/output (MDIO) interface.