4results about How to "Reduce push" patented technology

This invention discloses a multi-stage concrete aggregate screening device, including a housing and a screening cylinder. A drive assembly is circumferentially arranged on the outer walls of the front and rear ends of the screening cylinder, allowing the screening cylinder to rotate within the housing cavity via the drive assembly. Multiple gear chambers are respectively positioned on the left and right sides of the front and rear ends of the housing, and are electrically connected to the housing cavity. Each gear chamber contains a transmission gear that is connected to the drive assembly. A cleaning chamber is also included, electrically connected and of equal length, on both sides of the housing. Each cleaning chamber contains a cleaning mechanism, which includes multiple fan plates circumferentially arranged around a drive shaft. Brush heads are located at the outer ends of the fan plates and are close to the screening cylinder. A feeding chamber has an opening at its upper end, with one side of the feeding chamber electrically connected to one end of the housing. An outlet is located at the other end of the housing. A conveying auger is horizontally positioned along the central axis of the screening cylinder, extending from one end of the feeding chamber to the outlet end.

The utility model provides a magnetic powder core curing heat treatment device, which relates to the technical field of magnetic powder cores and comprises a bearing platform, a curing box is arranged on one side of the top of the bearing platform, a moving assembly is arranged on the top of the bearing platform, a fixed platform is arranged on the top of the moving assembly, and fixing seats are arranged on two sides of the top of the fixed platform. A material tray is arranged on the top of the fixing platform, a fixing assembly is arranged on the other side of the fixing platform and used for fixing the material tray, and through the design of the moving assembly, automatic moving of the material tray is achieved through cooperative work of a driving motor, a lead screw and a sliding block; the tedious steps of manually pushing the material tray into or pulling the material tray out of the high-temperature curing box are reduced, the operation efficiency is further improved, and the problem that scalding is easily caused by manual operation in a high-temperature environment is solved.

The application relates to a glass upper and lower piece robot, and belongs to the technical field of glass conveying equipment. The glass upper and lower piece robot comprises a base and a rotating disc installed on the base. A plurality of moving assemblies are oppositely arranged along the circumference of the rotating disc. An upper feeding hopper with an opening upward is arranged on the lower side of one side of the rotating disc. A receiving table for receiving glass is arranged on the lower side of the side of the rotating disc far from the upper feeding hopper. A rotating assembly for driving the rotating disc to rotate and a lifting assembly for driving the rotating disc to move in the height direction are arranged on the base. The application has the effect of reducing the adverse effect on work efficiency.

The application is suitable for the technical field of batteries, and particularly relates to an aluminum foil for sodium ion batteries and a production method thereof. The production method comprises the following steps: according to the percentage of the raw material formula, a blank is prepared by using a casting rolling mill through a casting rolling rolling method to obtain a casting rolling blank; wherein the components and mass percentage of the raw material formula are as follows: Si < 0.05%, Fe < 0.35%, Ti = 0.02-0.025%, Al = 99.80-99.85%; the element Ti is configured through an AlTi10 intermediate alloy and an aluminum titanium boron wire; S2, the casting rolling blank is subjected to cold rolling treatment to obtain a cold rolling strip with a thickness of 0.18-0.30 mm; S3, the cold rolling strip is subjected to foil rolling through a foil rolling mill to obtain an aluminum foil with a thickness of 8-10 microns. Compared with the prior art, the aluminum foil produced through the above steps has a thickness of 8-10 microns and a tensile strength of 290-300 MPa, and mass production of the aluminum foil is realized.