Abstract: A display panel, including an active area and a peripheral area, which is located outside of the active area, wherein the active area comprises a base substrate, and a display structure layer and a touch structure layer sequentially arranged on the base substrate; the peripheral area includes an isolation dam, a first ground trace and a second ground trace arranged on the base substrate; and the first ground trace is located at a side of the isolation dam close to the active area, and the second ground trace is located at a side of the isolation dam away from the active area.

Abstract: An information handling system is configured to support first and second boot sequences, which invokes first and second bootloaders respectively. The bootloaders may be stored in an NVMe storage boot partition. Each bootloader may be associated with a corresponding encryption key generated by a trusted platform module, which may seal the first and second keys in accordance with one or more measurements taken during the respective boot sequences. The system determines whether a boot sequence in progress comprises is to invoke the first or second bootloader. The system then unseals the appropriate encryption key to access the appropriate bootloader. The first bootloader may be a host OS bootloader and the second bootloader may be for a recovery resource invoked when the host OS fails to load. The recovery resource may enables BIOS to connect to a remote store and download an image via a HTTP mechanism.

Abstract: Disclosed herein is a wide-range temperature electrolyte, a preparation thereof and a lithium ion battery. The wide-range temperature electrolyte includes a glycerin segment, a diisocyanate segment and a segment containing at least two terminal hydroxyl groups and one disulfide bond, and the self-healing electrolyte has a three-dimensional cross-linked network structure. The wide-range temperature electrolyte introduces a large number of repetitive disulfide bond groups and self-complementary hydrogen bond structures into molecules of an electrolyte base material having self-complementary hydrogen bond structures, so as to form the three-dimensional cross-linked network structure. An intermolecular exchange reaction of the disulfide bonds realizes a cross-scale (molecular, micro, and macro-scale) damage sensing response of the electrolyte and a rapid self-healing of the material, and further achieves a multi-level (molecule-component-device-system) self-healing repair function.

Abstract: The present invention provides use of lncRNA XR_595534.2 in the preparation of a medicine for the treatment or prevention of chronic pain. In the present invention, trigeminal neuralgia induced by chronic constriction injury of infraorbital nerve in rats is used as a pain model. A specifically and differentially highly expressed long-chain non-coding RNA gene lncRNA XR_595534.2 is screened in the model. An interfering RNA targeting lncRNA XR_595534.2 is provided for disease treatment. The present invention discovers for the first time that lncRNA XR_595534.2, which is specifically and differentially highly expressed in a pain model, has significantly reduced expression by stereotactic injection of an interfering RNA to relieve the pain behavior, and is useful in the preparation of a medicine for the treatment or prevention of trigeminal neuralgia, neuropathic pain, migraine and cancer pain where lncRNA-XR595534.2 is a target.

Abstract: A method for recycling a lithium iron phosphate positive plate with low energy consumption and low Al content, including: crushing a lithium iron phosphate positive plate to be recycled into a granular material with a particle size of 1-15 mm by using a crusher; heating the granular material obtained in step (1) to 350-500° C. in an atmosphere furnace in an inert atmosphere; and keeping the granular material at 350-500° C. for 0.5-2 h followed by cooling to a preset temperature to obtain a calcined product; grinding the calcined product obtained in step (2) by using a grinder to obtain a ground product with D50 larger than or equal to 50 ?m; and classifying the ground product obtained in step (3) by using an air classifier to remove Al simple substance to obtain a recovered positive material with an Al content below 200 ppm.

Abstract: A method for preparing a non-corrosive fire extinguishing agent, including combining a methyl phosphate organosilane material and a perfluorohexanone to prepare the fire extinguishing agent.

Abstract: Disclosed is a method for improving the performance of a layered electrode material. An interlayer spacing of the layered electrode material is measured and donated as (b). A salt compound is selected and added into a solvent with a molecular diameter of (c) to prepare an electrolytic solution, where a diameter (a) of a cation in the salt compound is smaller than the interlayer spacing (b), and c>b?a. The electrolytic solution is used as the working electrolytic solution for the layered electrode material.

Abstract: A method for preparing a non-corrosive fire extinguishing agent, including combining a methyl phosphate organosilane material and a perfluorohexanone to prepare the fire extinguishing agent.

Abstract: An information handling system is configured to support first and second boot sequences, which invokes first and second bootloaders respectively. The bootloaders may be stored in an NVMe storage boot partition. Each bootloader may be associated with a corresponding encryption key generated by a trusted platform module, which may seal the first and second keys in accordance with one or more measurements taken during the respective boot sequences. The system determines whether a boot sequence in progress comprises is to invoke the first or second bootloader. The system then unseals the appropriate encryption key to access the appropriate bootloader. The first bootloader may be a host OS bootloader and the second bootloader may be for a recovery resource invoked when the host OS fails to load. The recovery resource may enables BIOS to connect to a remote store and download an image via a HTTP mechanism.

Abstract: An information handling system includes a message application, a system BIOS, and a storage device. The message application receives event identifiers based upon events received from devices of the information handling system. The system BIOS includes a first message table having a plurality of first entries, each first entry including a first event identifier and an associated first event message. The storage device includes a second message table having a plurality of second entries, each second entry including a second event identifier and an associated second event message. The message system receives a third event identifier from a particular device, determines that the third event identifier corresponds to a first entry in the first message table, displays the associated first event message, determines that the third event identifier corresponds with a second entry in the second message table, and displays the associated second event message.

Abstract: In one or more embodiments, one or more systems, one or more methods, and/or one or more processes may receive first user input that indicates a first graphical user interface (GUI) profile, which includes first multiple GUI zones that are adjacent and non-overlapping; receive second user input that associates first multiple graphical user interfaces (GUIs) with the first multiple GUI zones; receive third user input that indicates a second GUI profile, which includes second multiple GUI zones that are adjacent and non-overlapping; receive fourth user input that associates second multiple GUIs with the second multiple GUI zones; display the first multiple GUIs within the first multiple GUI zones of the first GUI profile; determine that an event has occurred; determine that the event is associated with the second GUI profile; and display, via the display, the second multiple GUIs via the second multiple GUI zones of the second GUI profile.

Abstract: Disclosed herein is a wide-range temperature electrolyte, a preparation thereof and a lithium ion battery. The wide-range temperature electrolyte includes a glycerin segment, a diisocyanate segment and a segment containing at least two terminal hydroxyl groups and one disulfide bond, and the self-healing electrolyte has a three-dimensional cross-linked network structure. The wide-range temperature electrolyte introduces a large number of repetitive disulfide bond groups and self-complementary hydrogen bond structures into molecules of an electrolyte base material having self-complementary hydrogen bond structures, so as to form the three-dimensional cross-linked network structure. An intermolecular exchange reaction of the disulfide bonds realizes a cross-scale (molecular, micro, and macro-scale) damage sensing response of the electrolyte and a rapid self-healing of the material, and further achieves a multi-level (molecule-component-device-system) self-healing repair function.

Abstract: Disclosed is a method for improving the performance of a layered electrode material. An interlayer spacing of the layered electrode material is measured and donated as (b). A salt compound is selected and added into a solvent with a molecular diameter of (c) to prepare an electrolytic solution, where a diameter (a) of a cation in the salt compound is smaller than the interlayer spacing (b), and c>b?a. The electrolytic solution is used as the working electrolytic solution for the layered electrode material.

Abstract: A method for recycling a lithium iron phosphate positive plate with low energy consumption and low Al content, including: crushing a lithium iron phosphate positive plate to be recycled into a granular material with a particle size of 1-15 mm by using a crusher; heating the granular material obtained in step (1) to 350-500° C. in an atmosphere furnace in an inert atmosphere; and keeping the granular material at 350-500° C. for 0.5-2 h followed by cooling to a preset temperature to obtain a calcined product; grinding the calcined product obtained in step (2) by using a grinder to obtain a ground product with D50 larger than or equal to 50 ?m; and classifying the ground product obtained in step (3) by using an air classifier to remove Al simple substance to obtain a recovered positive material with an Al content below 200 ppm.

Abstract: A fire extinguishing system for a lithium battery energy storage unit based on stagewise warning and multiple spraying includes a power management system, a warning control system connected to the power management system and a fire extinguishing device connected to the warning control system. The fire extinguishing device is externally connected to a temperature-sensing fire detection tube, a large-flow release pipeline and a local release pipeline. The warning control system is externally connected to a local data collection module and a lithium battery energy storage pack. The fire extinguishing system of this application is designed to perform cyclical detection according to fire signals, in which a starting signal can be repeatedly sent to achieve multiple starting, so as to suppress a lithium battery fire for a long time and solve the problem of re-ignition.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may determine that an information handling system is to be powered down and provide, to a non-volatile memory medium via a power coupling of the non-volatile memory medium, information indicating that the non-volatile memory medium is to be powered down. For example, the power coupling of the non-volatile storage medium may include one or more conductors, and the information indicating that the non-volatile memory medium is to be powered down may be provided via at least one of the one or more conductors. In one or more embodiments, the non-volatile memory medium may include volatile storage and non-volatile storage. For example, based at least on the information indicating that the non-volatile memory medium is to be powered down, the non-volatile memory medium may store information, that is stored by the volatile storage, via the non-volatile storage.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may receive a first device identification from a first device of a first information handling system; determine an identification associated with the first information handling system; determine a first identifier based at least on the identification associated with the first information handling system and the first device identification; provide the first identifier, based at least on the identification associated with the first information handling system and the first device identification, and a first version identification of a first firmware associated with the first device of the first information handling system to a second information handling system, different from the first information handling system, via a network; and receive a second firmware, different from the first firmware, via the network. In one or more embodiments, the second firmware may be installed to the first device.

Abstract: In one or more embodiments, one or more systems, methods, and/or processes may determine that an information handling system is to be powered down and provide, to a non-volatile memory medium via a power coupling of the non-volatile memory medium, information indicating that the non-volatile memory medium is to be powered down. For example, the power coupling of the non-volatile storage medium may include one or more conductors, and the information indicating that the non-volatile memory medium is to be powered down may be provided via at least one of the one or more conductors. In one or more embodiments, the non-volatile memory medium may include volatile storage and non-volatile storage. For example, based at least on the information indicating that the non-volatile memory medium is to be powered down, the non-volatile memory medium may store information, that is stored by the volatile storage, via the non-volatile storage.

Abstract: A swimsuit with lifesaving device is disclosed. The lifesaving device for the swimsuit includes an inflatable bag having an air inlet and embedded in a double-layer structure of the swimsuit to invisibly locate behind a front side of the swimsuit; a manual inflating tube connected at an end to the air inlet and embedded in the double-layer structure with an opposite end exposed from the swimsuit to provide a mouthpiece; a branch tube extended from the manual inflating tube and embedded in the double-layer structure; and an automatic inflator connected to a distal end of the branch tube and embedded in the double-layer structure to locate in a rear side of the swimsuit. The inflatable bag can be manually inflated via the mouthpiece or automatically inflated via the automatic inflator to serve as a buoy, which is helpful in learning swimming and in case of emergency in water.

Abstract: An exemplary backlight module includes at least one light source, a light guiding plate having a light incident portion adjacent to the at least one light source, a bezel having a plurality of protrusion; and a reflector disposed between the light guiding plate and the protrusions of the bezel. The protrusions abut edges of the reflector, and provide supporting force to attach the reflector to the bezel. A related liquid crystal display is also provided.