3results about How to "Realize automatic push" patented technology

A skein conveying device includes a skein conveying member (27) guided along a predetermined movement path via one end (27d) and a drive unit (50) having a drive section (56). The drive section is kinetically connected to the one end (27d) of the skein conveying member (27) in such a way that the drive section (56) engages with a first transmission member (51), which is kinetically connected to another transmission member (52) via a speed-changing transmission mechanism (53-55). The other transmission member engages either with the one end (27d) of the skein conveying member (27) or with a follower member (57) connected thereto. The drive unit (50) is designed to move the drive section (56) such that the skein conveying member (27) moves along the movement path via the one end (27d). The transmission mechanism (53-55) is designed such that the extension of the drive element (50) along the movement path by means of the transmission mechanism (53-55) is less than or equal to twice the maximum possible diameter of the sliver can for the sliver can pushing device. The sliver can changer is configured to stack the incoming fiber sliver in the spinning sliver can (6) in a predetermined shape at the filling position (20), and includes a sliver can pushing device configured to move the empty sliver can (6) from the insertion position to the filling position (20) in a predetermined direction as the sliver can pushing member (27) moves. The spinning machine (1) has such a sliver can changer.

This utility model relates to the field of cyanobacterial bloom control technology, specifically to an air-floating internal cyanobacterial collection and drainage structure for a cyanobacterial bloom control device. It includes an air-floating boat, with an air-floating machine fixedly connected to the top of the boat. A shovel mechanism is fixedly connected to the front of the air-floating machine, and a power mechanism is fixedly connected to the top front of the shovel mechanism. A cyanobacterial collection mechanism is fixedly connected to the rear of the air-floating machine, and a compaction mechanism is fixedly connected to the rear of the cyanobacterial collection mechanism. The air-floating machine includes a main body, with a water storage tank fixedly connected to the bottom front of the main body. A partition is fixedly connected to the left side of the inner wall of the main body. This utility model, by incorporating an air-floating machine, a shovel mechanism, a power mechanism, a cyanobacterial collection mechanism, and a compaction mechanism, achieves efficient and automated treatment of cyanobacterial blooms. The combined use of the air-floating machine main body and the skimmer effectively separates the cyanobacteria from the water, facilitating subsequent treatment.

This utility model relates to a cooling cabinet for food processing, belonging to the field of jelly production technology. It includes a cooling cabinet, two cabinet doors, a bracket, a jelly mold rack, and a temporary storage rack. The cooling cabinet has an internal pushing structure, which includes a slide rail and a mounting frame. This cooling cabinet, through its pushing structure, achieves mechanized operation via electric push rods and electrically controlled push rods, thereby controlling the L-shaped pushing plate to flip and move. The upright L-shaped pushing plate pushes the jelly mold rack onto the temporary storage rack, completing the transfer of the jelly mold rack in one step. After the transfer, one side of the cabinet door can be closed, reducing the rate of cold air loss from the cooling cabinet. Furthermore, the temporary storage rack is independent of the main cooling cabinet body, facilitating disassembly and cleaning. This automated pushing of the mold rack, combined with the convenient storage and retrieval function of the temporary storage rack, significantly improves the efficiency of the cooling process in food processing.