Wagner & Geyer

An electronic paper display (EPD) device and a driving method thereof are provided. An EPD panel (110) and a gate driver on array (GOA) (130) of the EPD device are disposed on an EPD substrate. The EPD panel (110) includes N scan lines. The N scan lines are divided into M groups of scan lines, each group of scan lines includes at least one scan line. A display controller (120) controls the gate driver on array (130) so that interlaced scanning is performed on the M groups of scan lines, the interlacing spanning K groups of scan lines.

An automatic support stick insertion system (100) includes an image capture module (110), a processing unit (120), a turntable (130), a support stick supply module (140), a robot arm (150), and a control unit (160). The image capture module (110) captures an image of a potted plant (50A~50G). The processing unit (120) obtains potted plant information according to the image and determines support stick insertion information according to the potted plant information. The turntable (130) changes orientation of the potted plant (50A~50G). The support stick supply module (140) supplies support sticks (60). The robot arm (150) grabs the support stick (60) from the support stick supply module (140) and inserts the support stick (60) to the potted plant (50A~50G) according to the support stick insertion information. The control unit t (160) controls the support stick supply module (140), the robot arm (150), and the turntable (130) to act in coordination.

Es wird ein kompaktes Bildgebungsmodul für digitale Mikroskopie-Anwendungen beschrieben. Das kompakte Bildgebungsmodul vereint in einem Gehäuse komplett integrierte und aufeinander abgestimmte Komponenten zur Bildgebung für digitale Mikroskopie-Anwendungen. Das kompakte Bildgebungsmodul weist wenigstens eine Beleuchtungsvorrichtung, wenigstens ein Objektiv, wenigstens eine Kamera und ein gemeinsames Gehäuse auf, in dem die wenigstens eine Beleuchtungsvorrichtung, das wenigstens eine Objektiv und die wenigstens eine Kamera angeordnet sind. Ferner weist das kompakte Bildgebungsmodul wenigstens eine optische Leitervorrichtung auf, die eingerichtet ist, einen einfallenden Lichtstrahl von dem Objektiv zu der wenigstens einen Kamera zu leiten, wobei die optische Leitervorrichtung eine Flüssiglinse zur Fokussierung aufweist; und wobei die Komponenten des kompakten Bildgebungsmoduls fest zueinander kalibriert sind und das Bildgebungsmodul ohne weitere Kalibrierung reversibel in ein System für digitale Mikroskopie integrierbar ist.

A clip device (100) includes a feeding mechanism comprising a pusher (112) and a guide structure (114) adjacent thereto, a clip (120) at the guide structure and including a receiving portion (122) and arm portions (124) connected thereto, and a switch (130) coupled to the pusher and driving the pusher to push the clip forward along the guide structure. An opening portion (124a) is formed between the arm portions. When the clip moves forward along the guide structure, the arm portions are stretched open via the guide structure and a flower stem (50) is positioned in the opening portion. When the clip moves further forward and is released by the guide structure, the arm portions pass over the flower stem and clamp a support stick (60) in the opening portion, so the support stick and the receiving portion form a closed receiving area (R) receiving the flower stem. A diameter of the closed receiving area (R) is greater than that of the support stick.

A wearable electronic device, a charging device, and an operation method thereof are provided. The charging device includes a power generation circuit and a pseudo load circuit. The power generation circuit receives supply power from an external device, generates system power and charging power according to the supply power. The pseudo load circuit is coupled to an endpoint where the power generation circuit generates the system power or the charging power, and provides a pseudo load according to magnitude of a charging current provided by the charging power.

Provided is a flat knitting machine (1, 8) that can accurately carry out stitch density deciding and in which a sinker loop (91) is unlikely to be clamped between a fixed sinker (3) and a movable sinker (4). A flat knitting machine (1, 8) includes a movable sinker (4) and a loop stopper (22). The movable sinker (4) includes a knitting yarn catching portion (4B) and a first protrusion (4A). The flat knitting machine (1, 8) includes a swing mechanism (5) configured to swing the movable sinker (4) between a retracted position and a pressing position. A leading end portion (4a) of the first protrusion (4A) at the retracted position overlaps the knitting yarn (90) extending from the hook (21F) to the fixed sinker (3) as viewed from the longitudinal direction of the needle bed (2). When swinging the movable sinker (4) from the retracted position to the pressing position, the swing mechanism (5) swings the movable sinker (4) so that the leading end portion (4a) moves along the outer shape of the loop stopper (22), and thereafter swings the movable sinker (4) toward the pressing position. While the leading end portion (4a) moves along the outer shape, the first protrusion (4A) overlaps the knitting yarn (90) extending from the fixed sinker (3) to the hook (21F) as viewed from the longitudinal direction of the needle bed (2).

An exhaust system for exhausting hydrogen discharged from an EUV exposure apparatus is provided that includes a light-source-unit hydrogen pump module having a vacuum pump unit for sucking hydrogen discharged from a light source unit of the EUV exposure apparatus, a first oxygen sensor module that measures an oxygen concentration of gas discharged from the light-source-unit hydrogen pump module, an exposure-unit hydrogen pump module having a vacuum pump unit for sucking hydrogen discharged from an exposure unit of the EUV exposure apparatus, a second oxygen sensor module that measures an oxygen concentration of gas discharged from the exposure-unit hydrogen pump module, a hydrogen treatment module for treating hydrogen gas discharged from the first and second oxygen sensor modules, a utility module for supplying cooling water and/or nitrogen gas to each module, and a control module for supplying power to each module, and controlling each module.

Various solutions for logical channel prioritization (LCP) enhancements in mobile communications are described. An apparatus may select a plurality of logical channels for an uplink (UL) grant. The apparatus may allocate resources of the UL grant to one or more of the logical channels in a decreasing priority order. Each of the one or more logical channels carries delay-critical data or is associated with a positive number of tokens. Then, the apparatus may decrement the positive number of tokens for each of the one or more logical channels by a total size of medium access control (MAC) service data units (SDUs) served to the corresponding logical channel. After that, the apparatus may multiplex the MAC SDUs in a MAC protocol data unit (PDU) for transmission on the UL grant to a network node.

An on-wall speaker system includes a body, a first pair of transducers, and a high frequency actuator element. The body includes a plurality of side walls and a front wall. The first pair of transducers are supported by first opposing side walls of the plurality of side walls. The high frequency actuator element is mounted to the front wall of the body and is configured to induce mechanical vibrations in the front wall to generate high frequency sound waves to a listening environment.

A polishing method capable of improving flatness of a bonding surface for forming a laminated substrate is disclosed. The polishing method includes: measuring a shape of a periphery of a substrate having the bonding surface for forming the laminated substrate, the bonding surface including a surface of a device region and a surface of a dielectric film formed on the periphery and raised from the device region; determining a polishing recipe including a change in a movement speed of a polishing head from a polishing start position to a polishing end position based on the measured shape of the periphery; and polishing the dielectric film to planarize the bonding surface by pressing, by the polishing head, a polishing tool against the periphery of the substrate being rotated while the polishing head is moved in a radial direction of the substrate according to the determined polishing recipe.