Abstract: Devices and systems for controlling pressure during sensing are disclosed. Such sensors and/or systems may be embodied in a wearable user device. The wearable user device may include a cuff configured to apply a pressure to a portion of a user at a plurality of discrete pressure levels over a plurality of time periods; a biometric sensor configured to obtain a plurality of sensor measurements associated with a blood vessel of the user at corresponding ones of the plurality of discrete pressure levels during corresponding ones of the plurality of time periods; and a wearable structure including the cuff and the biometric sensor.

Abstract: The present disclosure relates to a method for predicting an amount of water-sealed gas in a high-sulfur water-bearing gas reservoir. The method solves the problem that no method has yet been proposed for predicting the amount of water-sealed gas in a high-sulfur water-bearing gas reservoir. According to the technical solution, the method includes: considering that the volume of the gas reservoir does not change during the production of the constant-volume gas reservoir, deriving, based on a material balance method, a material balance equation of the high-sulfur water-bearing gas reservoir in consideration of water-sealed gas and water-soluble gas, solving and drawing a chart of water-sealed gas in the high-sulfur water-bearing gas reservoir by an iterative algorithm, obtaining a recovery factor of the high-sulfur water-bearing gas reservoir in consideration of water-sealed gas and water-soluble gas, and further obtaining the amount of water-seal gas in the high-sulfur water-bearing gas reservoir.

Abstract: A backlight module and a display device. The backlight module includes a backplane (1), a lamp board (2), a thermally conductive connecting layer (3), and a heat dissipation assembly (4), the backplane (1) has a first surface and a second surface, which are opposite each other; the lamp board (2) is arranged on the first surface of the backplane (1); the thermally conductive connecting layer (3) is arranged between the lamp board (2) and the backplane (1), and the thermally conductive connecting layer (3) is connected to the lamp board (2); the heat dissipation assembly (4) is arranged on the second surface of the backplane (1), and the heat dissipation assembly (4) passes through the backplane (1) and is then connected to the thermally conductive connecting layer (3).

Abstract: The disclosure provides an engine control method, system, and vehicle, and the vehicle comprises a battery and an engine, wherein the method includes: obtaining a current maximum discharge power value of the battery, and a current maximum external characteristic power value of the vehicle; obtaining a current opening value and a current opening change rate of an accelerator pedal of the vehicle; determining a driving intention based on the current opening value and the current opening change rate; and controlling start and stop of the engine according to the driving intention, the current maximum discharge power value, and the current maximum external characteristic power value of the vehicle.

Abstract: An assembly jig, comprises: a bearing platform, having a bearing area, a first limiting surface, a second limiting surface, and a plurality of adsorption holes penetrating the bearing area, wherein the first limiting surface is located on a side of the bearing area along a first direction, the second limiting surface is located on a side of the bearing area along a second direction, and the first direction intersects with the second direction; an adsorption component, being in communication with the plurality of adsorption holes and configured to form a negative pressure in the adsorption holes; a guide rail, limited on the bearing platform and provided on a side where the bearing area is located, wherein a length direction of the guide rail is parallel to the second direction; and a press component, slidably limited on the guide rail and having a press surface towards the bearing area.

Abstract: A backlight module and a display device. The backlight module includes a backplane (1), a lamp board (2), a thermally conductive connecting layer (3), and a heat dissipation assembly (4), the backplane (1) has a first surface and a second surface, which are opposite each other; the lamp board (2) is arranged on the first surface of the backplane (1); the thermally conductive connecting layer (3) is arranged between the lamp board (2) and the backplane (1), and the thermally conductive connecting layer (3) is connected to the lamp board (2); the heat dissipation assembly (4) is arranged on the second surface of the backplane (1), and the heat dissipation assembly (4) passes through the backplane (1) and is then connected to the thermally conductive connecting layer (3).

Abstract: A distillation device and method of manufacturing a distillation device is disclosed. The distillation device includes at least one spiral wound membrane distillation (MD) unit. The spiral wound MD unit includes a perforated center tube concentric to a cylindrical housing and a plurality of effects spirally wound around the center tube. Each of the effects include a vapor permeable membrane, a feed spacer disposed on the vapor permeable membrane, a permeate spacer, and a heat exchange film. The permeate spacer is disposed between the vapor permeable membrane and the heat exchange film. Distillation of a feed fluid by the plurality of effects deposits a condensate fluid into the center tube.

Abstract: A method of forming an electrode for capacitive deionization includes depositing an slurry onto a substrate, wherein the slurry comprises a porous material, a first crosslinkable hydrophilic polymer, and a crosslinker for the first crosslinkable hydrophilic polymer; annealing the slurry deposited on the substrate to create a crosslinked porous layer on the substrate; depositing an solution comprising an ion-exchange material, a second crosslinkable hydrophilic polymer, and a crosslinker for the second crosslinkable hydrophilic polymer onto the crosslinked porous layer; and optionally annealing and/or drying the solution on the crosslinked porous layer.

Abstract: Methods of making hexagonal boron nitride coatings upon stainless steel and other ferrous metal/alloy materials, compositions thereof, and methods of using same, such as in electrothermal membrane distillation systems using hexagonal boron nitride coated metal mesh.

Abstract: A backlight source packaging device is provided in the present disclosure, which belongs to the technical field of displays. The backlight source packaging device includes a bracket, a feeding mechanism, a cleaning mechanism, a cutting mechanism and a rotating mechanism, where the feeding mechanism is fixed to the bracket, which is configured to arrange a winding film; the cleaning mechanism is fixed to the bracket, which is configured to clean the winding film; the cutting mechanism is fixed to the bracket, which is configured to cut the winding film; the rotating mechanism is fixed to the bracket, which is configured to drive the backlight source to rotate so that the winding film winds around the backlight source, where the winding film can reach the rotating mechanism from the feeding mechanism successively through the cleaning mechanism and the cutting mechanism.

Abstract: A frame-backplate assembly, a backlight module and a display device are provided. The frame-backplate assembly includes a frame, including four side edges connected end to end in turn and enclosing a hollow frame structure, wherein each of the four side edges is adjustable in length; and a backplate located inside the hollow frame structure enclosed by the frame, wherein four side edges of the backplate are detachably connected with four sides in the frame.

Abstract: In some embodiments, the present disclosure pertains to systems and methods for distilling a fluid by exposing the fluid to a porous membrane that includes a surface capable of generating heat. In some embodiments, the heat generated at the surface propagates the distilling of the fluid by converting the fluid to a vapor that flows through the porous membrane and condenses to a distillate. In some embodiments, the surface capable of generating heat is associated with a photo-thermal composition that generates the heat at the surface by converting light energy from a light source to thermal energy. In some embodiments, the photo-thermal composition includes, without limitation, noble metals, semiconducting materials, dielectric materials, carbon-based materials, composite materials, nanocomposite materials, nanoparticles, hydrophilic materials, polymers, fibers, meshes, fiber meshes, hydrogels, hydrogel meshes, nanomaterials, and combinations thereof.

Abstract: In some embodiments, the present disclosure pertains to systems and methods for distilling a fluid by exposing the fluid to a porous membrane that includes a surface capable of generating heat. In some embodiments, the heat generated at the surface propagates the distilling of the fluid by converting the fluid to a vapor that flows through the porous membrane and condenses to a distillate. In some embodiments, the surface capable of generating heat is associated with a photo-thermal composition that generates the heat at the surface by converting light energy from a light source to thermal energy. In some embodiments, the photo-thermal composition includes, without limitation, noble metals, semiconducting materials, dielectric materials, carbon-based materials, composite materials, nanocomposite materials, nanoparticles, hydrophilic materials, polymers, fibers, meshes, fiber meshes, hydrogels, hydrogel meshes, nanomaterials, and combinations thereof.

Abstract: A frame-backplate assembly, a backlight module and a display device are provided. The frame-backplate assembly includes a frame, including four side edges connected end to end in turn and enclosing a hollow frame structure, wherein each of the four side edges is adjustable in length; and a backplate located inside the hollow frame structure enclosed by the frame, wherein four side edges of the backplate are detachably connected with four sides in the frame.

Abstract: In some embodiments, the present disclosure pertains to systems and methods for distilling a fluid by exposing the fluid to a porous membrane that includes a surface capable of generating heat. In some embodiments, the heat generated at the surface propagates the distilling of the fluid by converting the fluid to a vapor that flows through the porous membrane and condenses to a distillate. In some embodiments, the surface capable of generating heat is associated with a photo-thermal composition that generates the heat at the surface by converting light energy from a light source to thermal energy. In some embodiments, the photo-thermal composition includes, without limitation, noble metals, semiconducting materials, dielectric materials, carbon-based materials, composite materials, nanocomposite materials, nanoparticles, hydrophilic materials, polymers, fibers, meshes, fiber meshes, hydrogels, hydrogel meshes, nanomaterials, and combinations thereof.

Abstract: The present disclosure provides a backlight module and a display device. The backlight module comprises a housing frame and a back plate. The housing frame comprises a main body part, a panel bearing part, and a first clamping part extending toward the back plate. The back plate comprises a bottom wall, a side wall substantially perpendicular to the bottom wall, and a second clamping part extending from the side wall towards the housing frame. The first clamping part is clamped between the second clamping part and the bottom wall.

Abstract: Embodiments of the present disclosure provide a frame structure, a backlight assembly, and a display device. The frame structure includes: a frame including an annular bottom and a sidewall surrounding the annular bottom, the annular bottom has a protrusion disposed in parallel with the sidewall; and a matching plate having a first hollow portion, the first hollow portion is configured to be engaged with the protrusion.

Abstract: A backlight source packaging device is provided in the present disclosure, which belongs to the technical field of displays. The backlight source packaging device includes a bracket, a feeding mechanism, a cleaning mechanism, a cutting mechanism and a rotating mechanism, where the feeding mechanism is fixed to the bracket, which is configured to arrange a winding film; the cleaning mechanism is fixed to the bracket, which is configured to clean the winding film; the cutting mechanism is fixed to the bracket, which is configured to cut the winding film; the rotating mechanism is fixed to the bracket, which is configured to drive the backlight source to rotate so that the winding film winds around the backlight source, where the winding film can reach the rotating mechanism from the feeding mechanism successively through the cleaning mechanism and the cutting mechanism.

Abstract: Embodiments of the present disclosure disclose a lamp which comprises a driving plate, a hanging plate, and a main lamp. The driving plate comprises an elastic probe. Each of the hanging plate and the main lamp comprises a contact piece for electrically connecting with the elastic probe. The driving plate is in buckle connection with the hanging plate and the main lamp. The elastic probe on the driving plate is electrically connected to the contact piece on the hanging plate when the driving plate is engaged with the hanging plate. The elastic probe on the driving plate is electrically connected to the contact piece on the main lamp when the driving plate is engaged with the main lamp. A feasible dual-purpose panel lamp which enables more convenient installation can be provided by embodiments of the present disclosure.