Becker Kurig & Partner

A generation method of display data and a generation system of display data are provided. The generation method of display data includes the following steps: multiple captured images (901 to 903, 1210_1 to 1210_N, 1310_1 to 1310_M, 1410, 1420, 1430) are stored, in which the captured images (901 to 903, 1210_1 to 1210_N, 1310_1 to 1310_M, 1410, 1420, 1430) have different light intensity distributions; at least two captured images are selected from the captured images (901 to 903, 1210_1 to 1210_N, 1310_1 to 1310_M, 1410, 1420, 1430); and the display data is generated according to the at least two captured images. Therefore, the generation method of display data and the generation system of display data may effectively generate display data.

A lid assembly (10) and a lithium-ion battery is provided. The lid assembly (10) includes a lid base (1), a lower insulating member (4) stacked with the lid base (1), and a terminal (5) and an explosion protection valve (6) disposed on the lid base (1). The terminal (5) penetrates the lower insulating member (4) and the lid base (1). A first protruding portion (11) corresponding to a position of the explosion protection valve (6) and a second protruding portion (7) are provided on the lower insulating member (4). The second protruding portion (7) includes a planar region (7-1) and a curved region (7-2). A minimum dimension of an orthogonal projection of the curved region (7-2) on the lid base (1) in a length direction is L1. A minimum distance between the planar region (7-1) and the terminal base plate (5-1) on the terminal (5) is L0, which satisfies 0.5≤L1/L0≤0.9.

A transport system (100) and an operating method (S100) for the transport system are provided. The transport system includes an electric transport vehicle (110_1~110_3) and multiple wireless charging devices (120_1~120_n, 220). The operating method includes: defining a movable area (AA) in a field (FD) according to a layout of the field; setting multiple transport stations (ST1~ST5) of the electric transport vehicle in the movable area; establishing multiple transport paths (P1~P10) between the transport stations according to at least one shortest distance between the transport stations; defining multiple wireless charging positions (PO, PO1~PO8) at multiple positions adjacent to the transport stations on the transport paths and at intersections of the transport paths; and controlling the electric transport vehicle to move the wireless charging devices to the wireless charging positions.

A liquid crystal array antenna structure is provided in the disclosure. The liquid crystal array antenna structure includes a first substrate layer (1), a second substrate layer (2), a third substrate layer (3), four liquid crystal units (81 to 84), a first surface unit (4), a second surface unit (5), a third surface unit (6), and a fourth surface unit (7). The four liquid crystal units (81 to 84) are arranged between the first substrate layer (1) and the second substrate layer (2). When a bias voltage is applied to the liquid crystal units (81 to 84), a central operating frequency and a beam scanning range of the liquid crystal array antenna structure are a first frequency band and a first range, respectively.

Provided is a broadband liquid crystal array antenna structure including a first substrate layer (1), a second substrate layer (2), a third substrate layer (3), a first liquid crystal layer (8), a first surface unit (4), a second surface unit (5), a third surface unit (6), and a fourth surface unit (7). The first liquid crystal layer (8) is stacked and connected between the second substrate layer (2) and the third substrate layer (3). When the first liquid crystal layer (8) is applied with bias voltage, the broadband liquid crystal array antenna structure performs beam scanning based on a first angular range.

An electronic percussion instrument and a mounting method are provided. The electronic percussion instrument includes a striking surface frame having a bell portion, a bow portion, and a connecting portion connecting the bow portion to the bell portion; a sensor frame having a bell frame, a bow frame respectively connected along a circumferential direction to the bell portion and the bow portion; a sensor having a bell sensor and a bow sensor respectively mounted to the bell frame and the bow frame and detecting vibration of the sensor frame; a substrate to which the sensor is connected; a substrate frame supporting the substrate and disposed below the bow frame; and a connecting member connecting the substrate frame and the bell frame vertically. The substrate frame and the connecting member are not in contact with the bow frame.

Provided is an integrated antenna structure (100, 200, 300) with a linear polarization emission in an arbitrary polarization direction capacity. The integrated antenna structure (100, 200, 300) includes a radiator (10), a first filter (20), a second filter (40, 50, 60, 70) and a 90-degree hybrid coupler (30). The radiator (10), the first filter (20) and the 90-degree hybrid coupler (30) are stacked in sequence. The radiator (10) includes a first radiation patch unit (11) and a second radiation patch unit (12). The first filter (20) is coupling connected to the first radiation patch unit (11). The second filter (40, 50, 60, 70) is coupling connected to the second radiation patch unit (12). The 90-degree hybrid coupler (30) is electrically connected to the first filter (20), and includes a first input end (P1), a second input end (P2), a first output end (P3), and a second output end (P4).

Disclosed is a smearing apparatus for use in an analysis system including an imaging apparatus configured to capture an image of a smear specimen, the smearing apparatus comprising: a supply unit configured to store a plurality of slide glasses, each assigned with slide identification information, and to supply the slide glasses one by one; an aspirator configured to aspirate a specimen contained in a specimen container; a smearer configured to smear the aspirated specimen onto the slide glass supplied from the supply unit; a stainer configured to stain the specimen smeared on the slide glass with a staining solution; a first reader configured to read specimen identification information assigned to the specimen container; a second reader configured to read the slide identification information; and a controller configured to digitally associate (A) the slide identification information of the slide glass on which the specimen is smeared and (B) the specimen identification information of the smeared specimen, thereby enabling the analysis system to identify the specimen based on the slide identification information.

A circuit board (110), a functional component module (150), and an electronic device (100, 100') are provided. The circuit board (110) includes a substrate (112) and a support component (130). The support component (130), suitable for carrying functional components (120), includes a base plate (132) and multiple elastic elements (134), wherein the elastic elements (134) are disposed between the base plate (132) and the substrate (112) to provide supporting force to the base plate (132).

An image capturing module includes a main body, an image capturing device, a brush component, a transparent plate, and a driving assembly. The image capturing device is disposed on the main body. The brush component is disposed on the main body. The transparent plate is movably disposed on the main body along an axis and has a surface. The surface contacts the brush component, and a normal of the surface is substantially orthogonal to the axis. The driving assembly is disposed on the main body and is used to drive the transparent plate to move back and forth along the axis.