Abstract: Embodiments are generally directed to an adaptive deformable kernel prediction network for image de-noising. An embodiment of a method for de-noising an image by a convolutional neural network implemented on a compute engine, the image including a plurality of pixels, the method comprising: for each of the plurality of pixels of the image, generating a convolutional kernel having a plurality of kernel values for the pixel; generating a plurality of offsets for the pixel respectively corresponding to the plurality of kernel values, each of the plurality of offsets to indicate a deviation from a pixel position of the pixel; determining a plurality of deviated pixel positions based on the pixel position of the pixel and the plurality of offsets; and filtering the pixel with the convolutional kernel and pixel values of the plurality of deviated pixel positions to obtain a de-noised pixel.

Abstract: Disclosed are a device of complex gas mixture detection based on optical-path-adjustable spectrum detection and a method therefor, and the device includes: a light source configured for generating an incident beam and emitting the incident beam into an optical gas cell; the optical gas cell, including a cavity configured for accommodating a gas sample, and a reflection module group configured for reflecting the incident beam and a track arranged in the cavity, where the track is consistent with a light path of the light beam in the cavity; a detector module that is connected with the track in a relatively movable manner and is configured for receiving light beams and obtaining spectral data, where an optical path is changed by moving the detector module relative to the track; and a data acquisition unit that is configured for acquiring the spectral data obtained by the detector module.

Abstract: This application relates to the field of battery manufacturing technologies, and in particular, to an electrolyte injection apparatus and an electrolyte injection method. The electrolyte injection apparatus includes an electrolyte injection assembly, a gas extraction assembly, and a gas injection assembly. The electrolyte injection assembly has an electrolyte injection end, the electrolyte injection end being configured to communicate with an inner cavity of the housing. The gas extraction assembly has a gas extraction end, the gas extraction end being configured to communicate with the inner cavity of the housing. The gas injection assembly has a gas inlet and a gas injection end, the gas inlet being configured to communicate with a gas storage container, and the gas injection end being configured to communicate with the inner cavity of the housing, where the gas storage container stores target gas, the target gas being soluble in the electrolyte.

Abstract: A battery cell includes: a shell, including a first wall; an electrode assembly, disposed inside the shell; and a terminal assembly, including an electrode terminal and an elastic member. The electrode terminal includes a fixed portion for electrical connection with the electrode assembly and a movable portion for electrical connection with a current collecting component. The fixed portion is fixedly disposed on the first wall. The movable portion is movably disposed on the first wall, and has a first position in contact with the fixed portion and a second position separated from the fixed portion. The elastic member is used for applying elastic force to the movable portion to maintain the movable portion in the first position. The movable portion is configured to move from the first position to the second position against the elastic force when internal pressure of the battery cell reaches a threshold.

Abstract: This application discloses a calibration method, a calibration system, and a calibration board. The calibration board includes checkerboard cells arranged on a surface of the calibration board, where at least one dot is arranged in each of the checkerboard cells, the dots of the calibration board include at least a first feature dot and a second feature dot, the first feature dot and the second feature dot are arranged in the checkerboard cells according to a random rule or a specific rule, and a diameter of the first feature dot is greater than a diameter of the second feature dot. The calibration board in this application improves the stability and accuracy of calibration board detection by utilizing characteristics such as a high detection accuracy and a strong anti-blur capability of a dot mark, combining with corner points of checkerboard cells.

Abstract: A method for correcting errors of a depth camera caused by the temperature includes: obtaining, by at least two depth cameras, a depth image of a current target, wherein two adjacent depth cameras of the at least two depth cameras have a common field of view; modeling a measurement error of the two adjacent depth cameras caused by a temperature change; and correcting the depth image using the modeled measurement error, wherein the corrected depth image has a minimum depth difference in the common field of view.

Abstract: A method of adding a backup power source to a luminaire that includes exposing driver circuitry through a back surface of a housing for a luminaire having a downlight geometry. The housing contains a light engine that is positioned to emit light through a light emission end of the housing. The driver electronics controls power received by the luminaire for powering the light engine. The method may continue with connecting a battery junction box having an electrical pathway opening in reversible engagement to the back surface of the housing by snap fit engagement. The method may further include connecting a backup battery unit to the luminaire by wiring extending from the battery backup unit through the electrical pathway opening in the junction box to the driver electronics for the luminaire.

Abstract: A method of adding a backup power source to a luminaire that includes exposing driver circuitry through a back surface of a housing for a luminaire having a downlight geometry. The housing contains a light engine that is positioned to emit light through a light emission end of the housing. The driver electronics controls power received by the luminaire for powering the light engine. The method may continue with connecting a battery junction box having an electrical pathway opening in reversible engagement to the back surface of the housing by snap fit engagement. The method may further include connecting a backup battery unit to the luminaire by wiring extending from the battery backup unit through the electrical pathway opening in the junction box to the driver electronics for the luminaire.

Abstract: A method of adding a backup power source to a luminaire that includes exposing driver circuitry through a back surface of a housing for a luminaire having a downlight geometry. The housing contains a light engine that is positioned to emit light through a light emission end of the housing. The driver electronics controls power received by the luminaire for powering the light engine. The method may continue with connecting a battery junction box having an electrical pathway opening in reversible engagement to the back surface of the housing by snap fit engagement. The method may further include connecting a backup battery unit to the luminaire by wiring extending from the battery backup unit through the electrical pathway opening in the junction box to the driver electronics for the luminaire.

Abstract: A double-layer conductive LED photoelectric glass with voltage compensation and manufacturing process thereof are provided in the present invention. The photoelectric glass includes two layers of electrically conductive glasses. Inner sides of the electrically conductive cladded layers of the two layers of electrically conductive glasses are oppositely provided. The electrically conductive cladded layer of one of the two layers of electrically conductive glasses is provided with a plurality of etched circuits. The etched circuits are divided into two sets, which are respectively located on two sides of the electrically conductive glass. LEDs are provided on each of the etched circuits. The positive electrode connecting terminal and the negative electrode connecting terminal of the LED are respectively provided on two sides of each etched circuit. A heat-resistant transparent adhesive layer is provided in the middle of the two layers of electrically conductive glasses.

Abstract: A double-layer conductive LED photoelectric glass with voltage compensation and manufacturing process thereof are provided in the present invention. The photoelectric glass includes two layers of electrically conductive glasses. Inner sides of the electrically conductive cladded layers of the two layers of electrically conductive glasses are oppositely provided. The electrically conductive cladded layer of one of the two layers of electrically conductive glasses is provided with a plurality of etched circuits. The etched circuits are divided into two sets, which are respectively located on two sides of the electrically conductive glass. LEDs are provided on each of the etched circuits. The positive electrode connecting terminal and the negative electrode connecting terminal of the LED are respectively provided on two sides of each etched circuit. A heat-resistant transparent adhesive layer is provided in the middle of the two layers of electrically conductive glasses.

Abstract: A method of adding a backup power source to a luminaire that includes exposing driver circuitry through a back surface of a housing for a luminaire having a downlight geometry. The housing contains a light engine that is positioned to emit light through a light emission end of the housing. The driver electronics controls power received by the luminaire for powering the light engine. The method may continue with connecting a battery junction box having an electrical pathway opening in reversible engagement to the back surface of the housing by snap fit engagement. The method may further include connecting a backup battery unit to the luminaire by wiring extending from the battery backup unit through the electrical pathway opening in the junction box to the driver electronics for the luminaire.

Abstract: A method for correcting errors of a depth camera caused by the temperature includes: obtaining, by at least two depth cameras, a depth image of a current target, wherein two adjacent depth cameras of the at least two depth cameras have a common field of view; modeling a measurement error of the two adjacent depth cameras caused by a temperature change; and correcting the depth image using the modeled measurement error, wherein the corrected depth image has a minimum depth difference in the common field of view.

Abstract: A pulse pressure conducting structure comprises a housing and a pulse pressure transmission member, the pulse pressure transmission member joining with the housing to form a cavity for inflation, and at least a part of the pulse pressure transmitting member can, during inflation, directly or indirectly act on a body part to be measured of a subject to be detected. The pulse pressure transmitting member of such structure does not need to be wrapped around a limb, and the parts of the body at which it can be used are not limited. A portable blood pressure detection module and a smart wearable device are also disclosed.

Abstract: The present invention discloses a flat cable, which comprises signal unit sets and the insulating layer which wraps and fixes the signal unit set. The signal unit set is formed by at least two signals units arranged substantially on the same plane at an interval or side by side. The left and right sides of the signal unit set are directly wrapped by insulating layers. The insulating layer is formed by splicing and bonding at least one insulating film, and the splicing points at two ends of the insulating film are located on the upper side or the lower side of the signal unit set. In the flat cable of the present invention, the length of the overlapping portion can be set as required, effectively preventing the phenomenon such as insulating film tear and short circuit caused by insulating film tear.