LangPatent Anwaltskanzlei IP Law Firm

An easy-to-assemble tri-proof lamp (100) includes a lamp cover (1), a light source board (2), a first end cap (3), a second end cap (4), a sliding plate (5), and a wiring terminal (6). The lamp cover (1) has a hollow chamber (10). The two ends of the lamp cover (1) respectively have a first opening (11) and a second opening (12) in communication with the chamber (10). The light source board (2) is disposed in the chamber (10). The first end cap (3) covers the first opening (11). The first end cap (3) has a receiving portion (32) extending into the chamber (10) and a guide slot (33) in the receiving portion (32). The second end cap (4) covers the second opening (12). The sliding plate (5) is disposed in the receiving portion (32), and one surface of the sliding plate (5) has a latch portion (53) engaged with the guide slot (33). The wiring terminal (6) is disposed in the receiving portion (32) and connected to the other surface of the sliding plate (5).

A window cleaning machine includes a base, a walking device, a cleaning device, an air extraction device, a first primary scraper, and a driving module. The walking device propels the window cleaning machine to move on a surface. The cleaning device includes a suction cup, and the suction cup and the surface are configured to form an enclosed space to enable the window cleaning machine to move on the surface without falling due to gravity. The air extraction device is configured to generate negative pressure in the enclosed space. A first primary scraper is located on a first side of the base. The driving module is connected to the first primary scraper to control the first primary scraper to switch between an operating state of contacting the surface and a separated state of being away from the surface to adapt to different operation conditions.

The present invention relates to a method of correcting placement errors on and/or optical transmission errors of a photolithographic mask (1) for a projection exposure apparatus for microlithography comprising a substrate (2) and photolithographic imaging structures (3,23) formed on the substrate, in which method a laser beam (5,25) is used to introduce into the substrate (2) a plurality of local density variations each defining a pixel (4,24), in order to correct placement errors of the structures and/or optical transmission errors, wherein the pixels are introduced in at least two separately arranged pixel arrangement regions which are arranged outside a centre plane (8) of the substrate (2,22) or the mask (1,20), the pixels (4, 24) being arranged in the pixel arrangement regions in such a way that, with a defined correction of placement errors on and/or of optical transmission errors of the mask (1, 20), an undesired change in shape of the mask (1, 20) is minimised by the introduction of the local density changes..

A prompting method of sitting posture adjustment for a mobile assistive device includes: receiving pressure values of pressure sensors of a pressure detection module; summing up the pressure values of all the pressure sensors to generate a total pressure value; calculating a ratio of each of the pressure values of the pressure sensors to the total pressure value as a pressure reference value; comparing, by the controller, the pressure reference value with a pressure threshold value; and, by the controller, controlling the prompting unit on the mobile assistive device to provide a different prompt according to a different comparison result between the pressure reference value and the pressure threshold value, so as to prompt whether the sitter's sitting posture should be adjusted.

A label antenna structure suitable for the curved surfaces of liquid containers, comprising a deformed loop (2) surrounding a first slit (5). The deformed loop (2) includes a loop gap (20), a first electrical connection terminal (21), and a second electrical connection terminal (22), with the first electrical connection terminal (21) and the second electrical connection terminal (22) being separated by the loop gap (20). The structure also includes a single-arm radiating plate (3), with one end of the arm of the single-arm radiating plate (3) being connected to the deformed loop (2); a second slit (4), which separates the unconnected portion between the deformed loop (2) and the single-arm radiating plate (3), with one end of the second slit (4) having an open circuit structure (40); and an RFID chip electrically connected between the first electrical connection terminal (21) and the second electrical connection terminal (22).

The present invention provides an active inductive impedance enhancement circuit applied to a power line path. It utilizes a closed-loop control technique to detect residual high-frequency signals on the power line and generates a compensation current injected into the secondary side of the main inductor accordingly. The invention actively suppresses high-frequency current flowing through the main inductor, thereby significantly enhancing its impedance against high-frequency noise.

A superabsorbent polymer and a method of forming the same are provided. The method includes performing a free radical polymerization reaction to a superabsorbent polymer component to obtain a colloid gel. The colloid gel is sheared by using a pulverizer to obtain superabsorbent polymer particles. A blade and a perforated plate are disposed at an outlet of the pulverizer, in which a section of the blade is a parallelogram, and the perforated plate has several holes. The method further includes performing a surface crosslinking reaction to the superabsorbent polymer particles to obtain the superabsorbent polymer. Therefore, a surface porosity, an absorption rate and a liquid conductivity of the obtained superabsorbent polymer can be increased.

A method for determining the articulation angle between the tractor unit and semi-trailer of an articulated vehicle using images is provided. At least one image capture device is mounted on a lateral side of the tractor unit. An image processing device receives an image taken by the image capture device, generates the corresponding 2D image, sets as a feature point a semi-trailer area that is on the same side as the image capture device, and generates data entries including different articulation angles referencing the feature point and the corresponding image coordinates of the feature point. When the vehicle turns in a direction corresponding to the lateral side, the image processing device recognizes, and obtains the horizontal coordinate of, the feature point in a current 2D image and derives the articulation angle from at least two of the data entries that include horizontal coordinates closest to the feature point's current one.

A floodlight (1) having bracket storage structure includes a housing (11), a light source board (12) and a bracket (13). The housing (11) has a support portion (111) and a heat dissipation portion (112). The support portion (111) and the heat dissipation portion (112) are disposed on one side of the housing (11), and the other side of the housing (11) has an opening. The heat dissipation portion (112) includes a plurality of heat dissipation fins (1121) having a plurality of recesses (RS), and the recesses (RS) are corresponding to the heat dissipation fins (1121) respectively to form a storage channel (SC). The light source board (12) is disposed in the accommodating space within the housing (11). The bracket (13) is rotatably connected to the support portion (111). Thus, the user can rotate the bracket (13) to make the bracket (13) enter the storage channel (SC).

A system for automatically adjusting the lighting parameters of a space is disclosed herein. The control module sets the target lighting parameters in the space and drive the smart lamp groups to illuminate by using the preset light recipe and to control the smart lamp groups to perform the illumination. The control module compares an ambient light detection value in the actual environment with the target value. When the ambient light detection value is not the same as the target value, the control module drives the ambient light sensor module performs a dimming procedure to the smart lamp groups. Wherein, the dimming procedure includes the step of adjusting an illuminance uniformity of the space according to the actual illuminance detected by the ambient light sensor module. After the calculation of the illuminance uniformity formula, the illuminance uniformity is adjusted to be the same as a target illuminance uniformity.