4results about How to "Shorten the processing flow" patented technology

This invention proposes a tooling for assembling holes in a drone arm, relating to the field of drone manufacturing tooling technology. It includes a base plate, a limiting seat, a positioning seat, and a drilling assembly. The limiting seat is fixed to the base plate and has an arc-shaped groove that adapts to the outside of the arm to restrict arm movement. The positioning seat is disposed on the base plate and includes a pin for inserting into the hinge seat of the arm to prevent arm rotation. The drilling assembly includes a pressure cap movably disposed on the base plate and has a machining hole. This invention, by setting a base plate and installing the limiting seat, positioning seat, and drilling assembly on it, uses the limiting seat to support the arm and the positioning seat to position the arm during drilling and assembly. This allows for the completion of arm drilling and motor mount assembly on a single tooling set, reducing the processing steps and the number of tooling components required for machining operations.

This invention relates to the field of titanium plate processing technology, specifically a titanium plate rolling equipment with an edge trimming function. It includes a rear support, a middle support, and a front support arranged sequentially. A front rolling roll and a rear rolling roll are rotatably mounted on the front and rear support, respectively. A processing seat is fixedly mounted on the top of the middle support, and a sliding groove is formed on the top of the middle support. A gantry frame is slidably mounted on the sliding groove, and a trimming mechanism for trimming the edges of the titanium plate is mounted on the gantry frame. A dust blower is fixedly mounted on the processing seat, and a dust collection box is provided on the middle support corresponding to the dust blower's outlet. Cooling atomizing mechanisms for pre-cooling the titanium plate are fixedly mounted on the front, middle, and rear support. This invention has a compact overall structure, is easy to operate, and is suitable for the high-quality, high-efficiency processing requirements of titanium plates in aerospace, chemical equipment, and other fields, possessing significant practical value and promising prospects for promotion.

This invention discloses a water-guided laser automatic online measurement and compensation system and its accuracy compensation method. The method includes: determining the planned detection route for the workpiece based on the required machining shape and basic machine tool parameters, and detecting the physical changes of the water jet near the workpiece to obtain initial position information; controlling the relative movement data between the machining unit and the workpiece through a control unit, and obtaining contact point position information based on the difference in the relative movement data; measuring target points with a preset density to obtain target point position information, and performing data fitting on the target point position information to obtain the actual machining shape; determining whether the error data between the actual machining shape and the required machining shape meets a preset accuracy requirement, and performing accuracy compensation based on the judgment result that the preset accuracy requirement is not met to obtain the optimal compensation amount. This invention can solve the problem of reduced machining efficiency and accuracy caused by removing the measurement unit and re-clamping the machine.

This utility model addresses the issue that irregularly shaped door frames typically require batch processing at multiple angles, and the upper and lower clamps consume additional time. It proposes a processing fixture for irregularly shaped door frames, comprising: a base platform, on which a limiting block, a first telescopic cylinder, and a rotating platform are mounted; the rotating platform has a first hinge seat along its bottom edge, hinged to the base platform; a second hinge seat is located at the center of the rotating platform, engaging with the telescopic end of the first telescopic cylinder; a rectangular hole is provided on the rotating platform, fitting onto the limiting block, engaging with the rotating platform; a side support block is provided on the upper surface of the rotating platform corresponding to the first hinge seat; and an automatic locking support block is also provided on the rotating platform; the automatic locking support block is positioned on the symmetrical side and one side of the side support block.