5results about How to "Realize simultaneous processing" patented technology

The present application relates to the field of machining equipment, especially to an automatic rotary stamping and riveting die. It comprises a rotary machine table, stamping tools, riveting tools and a feeding device. The rotary machine table comprises a rotating table and a fixed table, the rotating table is rotatably arranged on the fixed table. There are three stamping tools and one riveting tool. The stamping tools and the riveting tool are arranged along the rotating table in a circular manner. There are processing holes on the rotating table corresponding to the stamping tools and the riveting tool. There is a blanking hole on the fixed table corresponding to the riveting tool. The feeding device is arranged corresponding to the stamping tools and the riveting tool. Through the cooperation of multiple stamping tools and riveting tools on the same machine table, the synchronous processing of multiple pieces of workpieces can be realized. By keeping the punched workpiece in the processing hole, the stacked workpieces after multiple punching will not deviate under the limiting of the processing hole, which is convenient for subsequent riveting positioning.

The invention relates to an electromechanical machine for converting animal skins into leather, consisting of a machine intended to participate in one or more steps of a process for converting any animal skins into leather. The machine is characterized in that it comprises: a main tank (1) in which the animal skin (3) is immersed in a treatment fluid, called syrup (2), containing one or more additives; an impeller suction motor pump (4) circularly conveys the syrup (2) through a water outlet pipe (5) to a reversing valve (5.1), the reversing valve guides the syrup (2) to one or more filters (6), guides the treatment fluid to a heater (7) or a bypass pipe (5.3), and finally reaches a group of storage tanks (8), and the storage tanks (8) are connected with the water outlet pipe (5). The filter is preferably a slow sand type filter, a decanter type filter, a settling tank type filter, an ozone or UVC ultraviolet radiation disinfection type filter, a zeolite type filter, an activated carbon type filter, an anthracite type filter, a silicon dioxide type filter, an argenite type filter or a copper ion generator type filter, and an opening / closing valve (5.2) is arranged on a pipeline behind the reversing valve (5.1). The syrup (2) is then stored and then discharged into the main tank (1) via a return line (5.4). The machine is provided with a gear motor (9), and the gear motor transmits power through a rotating shaft (10) provided with a clamp (13) at the end. The clamp is arranged opposite to another same clamp (13) mounted on the sliding shaft (11); the machine is provided with a fixed stop block (15.1) fixedly connected with the main tank (1) and a movable stop block (15) fixedly connected with the sliding shaft (11); a spiral spring (14) is mounted between the two stop blocks; when the length of the spiral spring changes, the spiral spring can control the reversing device (16), and then the rotating direction of the gear motor (9) is adjusted. The machine is provided with a programmable central computer, and the computer is controlled according to the required characteristics of each animal skin in the aspects of color, tanning agent type, fatliquoring agent type, fixing agent type and the like.

The application provides a mold double-five-axis machining tool, which comprises a mold placing table, a base and a cross beam; the mold placing table is used for placing a mold to be machined; the base is located on both sides of the mold placing table; the cross beam is slidingly installed on the top of the base on both sides of the mold placing table; the cross beam is provided with machining units which can move oppositely and are used for machining the mold to be machined on the mold placing table. Two machining parts are adjacently arranged and are matched with sliding rails and screws, so that the machining area is increased, synchronous machining of the two machining parts is realized, the residual area is reduced, and the machining efficiency is effectively improved; the adjusting mechanism can adjust the synchronous machining precision of the two machining parts, and the machining quality of the mold is effectively improved.

The application relates to a composite drill whole hard alloy composite drill applied in the cutter field, which comprises a cutter body, an installation groove is formed in the cutter body, a drill head matched with the installation groove is arranged in the installation groove, the drill head is used for drilling a composite hole, a cutting part is arranged on the drill head, the cutting part extends out of the cutter body, and a blade for boring a composite hole is arranged on the cutter body. The application has the technical effect that when the composite hole needs to be processed, the drill head is used for drilling the composite hole, the blade on the cutter body processes the boring of the composite hole in the rotating process of the cutter body, the synchronous processing of the composite hole with multiple diameters is realized, the operator does not need to manually replace the cutter, the mechanical beat of the replacement of the cutter in the traditional processing mode is saved, the processing procedure of the composite hole is optimized, and the processing efficiency of the composite hole is improved.

This invention relates to the field of metal composite sheet production, specifically to a metal composite sheet production equipment, including a feeding rack, a feeding guide mechanism, a panel forming roller conveyor mechanism, a corrugated forming mechanism, an automatic gluing mechanism, a mobile composite mechanism, a PU curing and laminating mechanism, an automatic circulating heating mechanism, a flying saw automatic shearing mechanism, and a finished product support mechanism. It also relates to a metal composite sheet production process utilizing the above equipment, including steps S1 (feeding), S2 (feeding guide and forming), S3 (automatic gluing), S4 (composite and laminating curing), S5 (length shearing), and S6 (discharging). The metal composite sheet production equipment of this invention can achieve efficient curing of the adhesive within a relatively low temperature range of 30℃-55℃, significantly reducing production energy consumption compared to high-temperature curing methods in the prior art. Simultaneously, residual air bubbles between layers are squeezed out during the lamination process, ensuring full cross-linking and curing of the adhesive layers, achieving high-quality composite under low-temperature conditions.