Abstract: Embodiments of the present disclosure provide a solution for image encoding learning and application. A method for image encoding learning comprises: extracting an image feature representation of a sample image using an image encoder to be trained; extracting a text feature representation of a sample text sequence using a text encoder, the sample text sequency being associated with the sample image; generating, using the text encoder, a predicted text sequence based on the text feature representation and the image feature representation; and training the image encoder at least based on a text error between the predicted text sequence and the sample text sequence.

Abstract: A flexible interface (130) may operably couple a head portion (110, 210) and a shaft (120, 220) of a hand tool (100, 200). The flexible interface may include a retention assembly (160) and a locking assembly (150) including an actuator (152, 250, 250?) defining a locked state and an unlocked state for the hand tool. In the unlocked state, an angle of the head portion may be pivotable relative to a pivot axis (225) substantially perpendicular to a direction of extension of the shaft and, in the locked state, the angle of the head portion is fixed. The actuator may be configured to move in a direction substantially perpendicular to the pivot axis to operate the locking assembly to transition between the locked state and the unlocked state, and configured to move in a direction substantially parallel to the pivot axis to operate the retention assembly to retain hand tool in the unlocked state. A hand tool comprising said flexible interface is also related.

Abstract: Disclosed is an arbitrarily tailorable electrochromic device and use thereof, wherein the electrochromic device includes in order of a first transparent flexible substrate, a first transparent electron-conductive layer, an electrochromic layer, an electrolyte solution with automatically curable in presence of air and/or moisture to achieve a self-encapsulation function, an ion storage layer, a second transparent electron-conductive layer and a second transparent flexible substrate. The electrochromic device of the present disclosure is arbitrarily tailorable and can be used in various applications.

Abstract: A method for characterizing an effective dielectric constant of a substrate including glass fibers, including: constructing a real model, where the real model includes: the substrate, a glass fiber-woven layer on the substrate, and a transmission line trace on the substrate; performing a phase shift simulation on the real model according to phase shift value; and obtaining first information; constructing a simplified model, where the simplified model includes: the substrate, and the transmission line trace on the substrate; setting a dielectric constant of the substrate as a variable; performing parameter scanning simulation; and obtaining a second information; and according to the first and second information, determining a dielectric constant value when the phase shift value of the simplified model equals the phase shift value of the real model, and using the dielectric constant value as the effective dielectric constant of the substrate including the glass fibers.

Abstract: A robotic arm, includes a support arm, a connecting arm, a working arm and two first robotic joints, where a first end of the connecting arm is connected to the support arm by one of the first robotic joints, so that the connecting arm is foldable or unfoldable relative to the support arm; a second end of the connecting arm is connected to the working arm by the other first robotic joint, so that the working arm is foldable or unfoldable relative to the connecting arm; bent structures are arranged at two ends of the connecting arm respectively, and the two bent structures are engaged in a convex-concave shape fit with the support arm and the working arm respectively when the connecting arm is in a folded state relative to both the support arm and the working arm.

Abstract: A mechanical joint configured to connect first and second arms in a mechanical arm (001). The mechanical joint includes: a motor, wherein the motor includes a first output shaft, a motor base plate, a stator and a rotor, the rotor is located outside the stator, the first output shaft passes through the motor base plate, and the stator is connected to the motor base plate and located on the peripheral side of the first output shaft; and a planetary speed-reducing mechanism including a primary gear set and an output end, wherein the primary gear set is connected to the first output shaft and arranged adjacent to the motor base plate, and the output end is configured to drive the second arms to rotate relative to the first arm.

Abstract: A self-moving cleaning device includes a device main body and a mechanical arm. The device main body includes a holding chamber, two driving wheels and a driven wheel are distributed at a bottom of the device main body in the form of a triangle, and the mechanical arm is foldably held in the holding chamber. The mechanical arm comprises a rotatable base, and a projection of the rotatable base in a horizontal plane is located inside a projection of the triangle in the horizontal plane.

Abstract: A torque wrench is provided that includes a wrench body, wrench head, slide rod and toggle link. The wrench head includes a workpiece engaging end and an arm that extends from the workpiece engaging end, and the wrench head is pivotably connected to the wrench body such that the arm extends inwardly into the wrench body. The slide rod is disposed within the wrench body, arranged in parallel with the arm, and configured to move axially within the wrench body. The slide rod includes a roller located proximate a first end of the slide rod, and the roller is in sliding contact with an interior surface of the wrench body. The toggle link is pivotably connected to the arm and the slide rod, with the toggle link pivotably connected to the slide rod at a greater distance from the first end of the slide rod than the roller.

Abstract: A stacked package structure and a method for forming the same, are provided. The stacked package structure includes: a first substrate; a chip stacked structure on an upper surface of the first substrate, the chip stacked structure includes first semiconductor chips stacked in sequence along a direction perpendicular to the upper surface; a first functional surface of a first portion of a first flexible circuit board is mounted on a top surface of the chip stacked structure, and a second portion of the first flexible circuit board is bent to a side surface of the chip stacked structure; a part of a third functional surface of a second flexible circuit board is mounted on a second functional surface of the second portion of the first flexible circuit board; and second semiconductor chips are mounted on a fourth functional surface of the second flexible circuit board.

Abstract: A method for calibrating the reception of a phased array antenna with a built-in local oscillator and an electronic device, are provided. The method includes: constructing and configuring a test system, where a transmitting antenna is located on the central axis of a phased array antenna, and the transmitting antenna is connected to a signal source; dividing the phased array antenna into a plurality of centrally symmetric ring areas according to the central axis of the phased array antenna, and each ring area has one or more centrally symmetric sub-units, and each sub-unit includes a plurality of antenna channels of the same number; and receiving signals using the phased array antenna and transmitting signals with the transmitting antenna, and performing amplitude and phase calibrations between antenna channels within sub-units of the ring areas, between sub-units of the ring areas, and between different ring areas.

Abstract: A method for calibrating the transmission of a phased array antenna with a built-in local oscillator and an electronic device are provided. The method includes: constructing and configuring a test system, where a receiving antenna is located on a central axis of the phased array antenna; dividing the phased array antenna according to a layout of the phased array antenna, where the layout of the phased array antenna is divided into centrally symmetric ring areas, and each of the ring areas includes one or more centrally symmetric sub-units, and each of the sub-units includes a same number of antenna channels; and transmitting signals using the phased array antenna and receiving signals by the receiving antenna, and performing amplitude and phase calibration between the antenna channels within the sub-units of the ring areas, between the sub-units of the ring areas, and between the ring areas.

Abstract: A stacked package structure and a method for forming the same are provided. The stacked package structure includes: a first substrate including an upper surface and a lower surface; a chip stacked structure located on the upper surface of the first substrate, where the chip stacked structure includes first semiconductor chips; and a flexible circuit board mounted on a side surface of the chip stacked structure, where the flexible circuit board includes a first functional surface and a second functional surface; the first functional surface is close to the corresponding side surface of the chip stacked structure; the second functional surface is away from the corresponding side surface of the chip stacked structure; and second semiconductor chips are mounted on the second functional surface of the flexible circuit board.

Abstract: A data processing system includes: a processor; a memory containing programming instructions for execution by the processor; and a network interface for communicating with an Artificial Intelligence (AI) engine. The programming instructions include an application for generating written content, the application having a function to generate and submit a structured query regarding the written content to the AI engine to generate feedback on an assessed quality of the written content, the structured query structured to prompt for feedback in a variety of specified categories for the written content. The application further includes a user interface to display the feedback on the written content and provide an option to a user to implement the feedback to revise the written content.

Abstract: The present invention relates to the technical field of chip package, in particular to a semiconductor package injection molding mold, a semiconductor package injection molding device and a semiconductor package injection molding method. The semiconductor package injection molding mold includes a bottom mold and a top mold. The upper surface of the bottom mold is fitted with the lower surface of a substrate to form a semiconductor package structure; the top mold is matched with the bottom mold; the top mold has a cavity; the cavity is oriented toward the upper surface of the substrate and is used to accommodate a plastic package layer formed on the upper surface of the substrate; through holes that penetrate through the bottom mold are formed at positions corresponding to the substrate in the bottom mold; and the through holes are connected with an external pressure source.

Abstract: Provided is a display device. The display device includes: a first functional layer, a display panel, and a second functional layer. The display panel is disposed on the first functional layer and is defined with a first display region and a second display region. The second display region includes a light transmitting region. The second functional layer is disposed on the display panel. The display device further includes a first film layer, provided with a plurality of opaque or translucent particles arranged irregularly at a position corresponding to the light transmitting region of the second display region. The display device can alleviate the diffraction problem of the camera under panel (CUP) technology of a full screen.

Abstract: A package structure and a forming method thereof are disclosed. In the package structure, two adjacent first chips arranged in a row direction are interconnected through a first wiring, two adjacent first chips arranged in a column direction are interconnected through a second wiring, and lengths of the first wiring and the second wiring are the same, so that two adjacent first chips can be interconnected in both the row direction and the column direction, thereby increasing connection channels and enhancing the bandwidth. In addition, since the lengths of the first wiring and the second wiring are the same, rates for various same or different communications or data transmissions between the two adjacent first chips arranged in rows and columns can remain consistent or vary slightly in the row direction and the column direction, thereby improving performance of the package structure.

Abstract: A stacked package structure and a forming method thereof are disclosed. The forming method includes mounting a first active surface of a first chip facing down on an upper surface of a substrate; forming a chip stacking structure on a first back surface of the first chip, including a plurality of second chips stacked sequentially in a vertical direction; performing a mass reflow process to solder the micro bumps of the upper second chip to the second connection terminals of the adjacent lower second chip; and performing a molded underfill process to form a molding layer filled between the upper and lower second chips and between the lower second chip and the first chip. This improves packaging efficiency, prevents the micro bumps from collapsing, and ensures evenness during stacking.