7 results about "Abrasive machining" patented technology

The utility model discloses an abrasive mixing machine which comprises a rack, a driving assembly and an opening and closing assembly, a mixing tank is rotationally connected to the upper end of the rack, a stirring core is rotationally connected to the middle of the mixing tank, a feeding and discharging hole is formed in the outer arc surface of the mixing tank, and a sealing cover is rotationally connected to the exterior of the mixing tank; the driving assembly is used for driving the mixing tank and the stirring core to rotate; the opening and closing assembly comprises a gear ring, a supporting sleeve and a gear, the gear ring is arranged on the front side face of the mixing tank, the supporting sleeve is rotationally connected to the front end of the sealing cover, the gear is arranged at the rear end of the outer arc face of the supporting sleeve, and the gear is connected with the gear ring in a meshed mode. One material opening can be used for feeding and discharging, opening and closing are controlled through a gear structure, force application is convenient, control is convenient, discharging is rapid, and the using effect is good.

The application belongs to the field of abrasive tool abrasive processing, and particularly relates to a ceramic grinding wheel wax infiltration process. The ceramic grinding wheel wax infiltration process is realized by using a wax infiltration device; the wax infiltration device comprises a wax infiltration pot A, a wax infiltration pot B, and a wax infiltration pipeline capable of connecting the wax infiltration pot A and the wax infiltration pot B. The process is used to infiltrate a wax liquid with good fluidity into the pores of the grinding wheel by vacuumizing, and in the high-speed grinding process of the prepared grinding wheel, a large amount of grinding heat is continuously generated, and after the pores of the grinding wheel are filled with the wax, the grinding heat caused by the grinding simultaneously acts on the workpiece and the wax, a large amount of grinding heat is taken away by the melting and gasification of the wax, and the workpiece is prevented from being burnt; meanwhile, the melted wax liquid acts on the grinding area, so that an adsorption film is formed between the grinding wheel and the workpiece, and the adsorption film plays a lubricating and rust-proof role and improves the grinding quality of the workpiece. The wax infiltration process is easy to popularize and apply in the abrasive tool industry and the processing industry.

The application discloses a kind of J1200 silicon carbide abrasive's grinding shaping method, belong to superhard abrasive processing field.The method includes: after carbonization silicon carbide powder is mixed with water and is made pulp;0.375% to 0.5% polyvinylpyrrolidone of silicon carbide powder mass is added;With silicon carbide grinding ball is stirred together, until silicon carbide particle D50 particle size reaches 8 μm-15 μm and average circularity is less than 0.9.The application is by adding specific proportion polyvinylpyrrolidone, promotes particle " breakage - agglomeration " dynamic balance in grinding, effectively reduces particle circularity, reduces superfine powder generation, improves qualified abrasive yield.The method process is simple, processing capacity is big, safe and controllable, and the obtained abrasive satisfies the requirement of low scratch of precision grinding such as photovoltaic substrate.

A profiled abrasive grain flow clamp for inner hole finishing processing of a tee valve is characterized by comprising a large upper cover, a support ring, a bottom large cover plate, a bottom small cover plate, a large end core mold, a small end core mold, a bottom core mold, an L-shaped column and a side plate. By placing the core mold in the valve flow channel, an abrasive flow channel following the inner wall surface of the valve body is formed, so that the abrasive flowing through the inner wall surface of the valve body has a faster flow rate and a larger pressure, thereby improving the material removal rate. By installing the core mold with a profiled structure, the uniformity of the abrasive processing of the inner wall surface of the valve body can be improved, thereby obtaining better inner wall surface quality. The abrasive is repeatedly circulated in the valve body, thereby removing casting defects, increasing the surface finish and also obtaining a relatively low valve body inner wall surface roughness. The present application effectively improves the processing efficiency and precision of the abrasive grain flow on the valve body inner cavity, and provides a new method for valve finishing.

The utility model discloses a shunt conveying device for abrasive machining, which comprises a box body, a feeding hopper is arranged on the upper end face of the box body in a penetrating manner, a material guide seat is arranged at the bottom end in the box body, discharging grooves are formed in the bottoms of the left end face and the right end face of the box body, and a rotating shaft is rotatably arranged in the box body corresponding to the material guide seat. A material guide plate is detachably arranged on the rotating shaft, the front end of the rotating shaft extends outwards to penetrate through the box body, a servo motor is connected to the front end of the rotating shaft, supporting legs are arranged at the four corners of the lower end face of the box body, collecting boxes are detachably arranged on the two supporting legs on the same side, and universal wheels are arranged at the four corners of the lower end face of the two collecting boxes. Limiting plates are arranged on the multiple supporting legs, limiting rods are arranged on the multiple limiting plates in a penetrating mode, limiting holes are formed in the positions, corresponding to the limiting rods, of the front end faces and the rear end faces of the two collecting boxes, and through the design of the collecting boxes, rapid disassembly and assembly are convenient.

The invention discloses steel wire shot cutting equipment for shot blasting abrasive machining, and relates to the technical field of steel wire shot cutting, the steel wire shot cutting equipment comprises a bottom table, a motor and a wire guiding assembly are arranged on the left side of the top surface of the bottom table, the wire guiding assembly is arranged on the top surface of the bottom table, and the two wide frames are fixed to the top surface of the bottom table; the two wide frames are arranged on the bottom table, the sides, close to each other, of the two wide frames are each provided with a sliding groove, the screw groove frame is fixed to the top face of the bottom table and located between the two wide frames, the hopper is fixed to the back face of the screw groove frame, the transverse frame is fixed to the top faces of the two wide frames, and the electric hydraulic rod is fixed to the bottom table. The spring is pulled up in a reciprocating mode, the vibration frequency of the shaft cutter is reduced, and therefore the problems that the shaft cutter is prone to being damaged due to the fact that the shaft cutter is prone to generating strong amplitude, and the lengths of steel shots punched by the shaft cutter are not uniform are avoided.

This utility model pertains to metalworking, specifically to devices for electrochemical abrasive machining of conductive components and electrochemical straightening of conductive tools. The device comprises a current source for electroabrasive machining of the component, a current source for electrochemical straightening of an abrasive conductive tool, a current switching unit equipped with two relays, a control unit connected to the current switching unit, two cathodes, and two end sensors for detecting the extreme positions of a tool capable of reciprocating horizontal movements and vertical feed. The sensors are connected to the control unit.Two cathodes are configured to alternately connect to the negative pole of a current source for electrochemical dressing of an abrasive conductive tool and engage the tool upon completion of contact with the workpiece, and perform vertical movement synchronously with the vertical feed of the tool. The technical result consists in increasing the efficiency of the electrochemical machining process of a metal product by removing a layer of material from the workpiece as the tool moves in both directions and periodically electrochemically dressing the tool after each pass along the workpiece. 1 fig.