11results about How to "Achieve welding" patented technology

The application discloses a kind of multi-station clamping tool for laser welding and its temperature control method, it is related to clamping tool technical field, including: rack, moving mechanism and drive mechanism, the controller is installed in rack side, the controller is used to control clamping tool, the rack bottom is connected with moving mechanism, the moving mechanism is provided with two, one of which is connected with drive mechanism, during welding process, when steel pipe rotates, weld and roller contact, if weld is too thick, it will make roller move upwards, trigger infrared sensor to detect displacement threshold change, to remind operator to handle in time, ensure welding quality;By the second plug, external high temperature and high pressure gas is injected into steel pipe, the heat conduction effect of gas is used to heat and keep warm welding area, prevent weld from low ambient temperature and rapidly cool down, avoid producing fissure, to effectively improve welding efficiency and quality.

This invention relates to an ultrasonic welding machine, comprising a frame, a three-unit lifting module, and an electric cylinder. The three-unit lifting module is movably connected to the frame and is used to move the welding head. The electric cylinder is located at the top of the frame, and its output end is fixedly connected to the three-unit lifting module to drive the lifting module to move up and down relative to the frame. By setting the electric cylinder at the top of the frame and fixing its output end to the three-unit lifting module, the electric cylinder drives the lifting module to move up and down relative to the frame, thereby moving the welding head up and down relative to the frame. In this application, the electric cylinder drive allows for precise adjustment of welding pressure and welding head pressing speed, effectively improving welding quality and stability.

This invention relates to a method for sealing beryllium foil and stainless steel components, comprising the following steps: S1, pretreatment: the beryllium foil is degreased and acid-washed to remove surface oil and oxides; the stainless steel components and solder are pretreated, including degreasing and cleaning, to remove surface oil; S2, assembly: the beryllium foil, solder, and stainless steel components are assembled sequentially from bottom to top to obtain an assembled component to be brazed; S3, brazing: the assembled component is placed in a vacuum furnace, the furnace temperature is increased and maintained, and the oxides on the beryllium foil are decomposed by high temperature, allowing the solder to effectively wet the beryllium foil and react fully and effectively. After the heat preservation is completed, the temperature is controlled to drop to room temperature, and the brazed sealed component is removed. The beryllium foil and stainless steel component sealing method of this invention can effectively remove oxides from the surface of the beryllium foil, and the solder has good wettability to the stainless steel component, reacting directly to achieve welding between the beryllium foil and the stainless steel component, resulting in a high-quality beryllium foil and stainless steel component sealing component.

This invention relates to the field of high-level storage tank welding technology, specifically to a welding process and tank for the inner cylinder of a high-level liquid storage tank. The process includes an insertion welding device comprising a main sleeve, a fork-shaped component one, a fork-shaped component two, and a welding torch. One end of the main sleeve is rotatably fitted with a ring sleeve. A sleeve is fixed to the outer wall of the main sleeve, and a rotating module is installed between the sleeve and the ring sleeve. The rotating module drives the ring sleeve to rotate. The fork-shaped component one includes a main cross rod one and a main cross rod two, which are rotatably connected to the ring sleeve. The main cross rods one and two are arranged in a cross configuration. A tensioning module is installed on the ring sleeve. In this invention, the insertion welding device allows welding to be performed inside the cylinder through a window on the side wall of the tank, thereby welding the inner side of the last circumferential seam. This ensures that the inner and outer sides of all circumferential seams on the main body of the tank are welded, thus improving the welding effect and increasing the pressure-bearing length of the tank.

The utility model belongs to the field of welding equipment and provides a gantry type friction stir welding equipment with a back-pulling function, which comprises a gantry mechanical body, a machine head assembly, a numerical control system, an electric control cabinet, a lubricating system, a protective piano cover and an appearance sheet metal, etc. The machine head assembly has a unique stirring needle back-pulling design and a process inclination angle adjustment design. The stirring needle back-pulling design can ensure that the stirring needle maintains a certain rotating speed and gradually retracts to fill the tail hole when the welding is completed, and finally realizes welding without a keyhole. The process inclination angle adjustment design can ensure that the machine head assembly is manually adjusted within a certain range (±5°) of angle, and meets the requirements of the friction stir welding process.

This utility model discloses a generator stator welding device, including a base, a rotating assembly at the bottom of the base, a first gear at the top of the base via the rotating assembly, a second gear meshing with the surface of the first gear, a worktable fixedly installed inside the second gear, the worktable rotatably connected to the base, a driving assembly at the bottom of the worktable, a first screw at the bottom of the worktable via the driving assembly, a moving rod threadedly connected to the surface of the first screw, the moving rod slidably connected to the worktable, a clamping block fixedly installed at the top of the moving rod, a moving assembly at the top of the base, and an electric push rod at the top of the base via the moving assembly. A welding gun is fixedly installed at the output end of the electric push rod. This allows the welding gun to weld the stator comprehensively without removing the stator from its fixation, completing all welding on the top of the stator, simplifying operation.

A brazing method for synchronously realizing a porous structure of a welding seam when welding a porous material, and belongs to the field of welding of porous materials. The present application solves the problem that it is difficult to ensure that the welding seam is in a porous structure when welding a porous material. Method: the filler metal, pore forming agent and resin powder are determined by the base material to prepare the filler metal slurry; the base material and the filler metal slurry are assembled, then heated and sintered, and ultrasonic vibration is applied at the sintering temperature. The welding seam in the joint obtained by the present application is in a porous structure, and the pore diameter or porosity in the welding seam can be adjusted according to the relevant parameters of the base material by adjusting the ratio of the filler metal, which can ensure the continuity of the porosity of the base material; the heating of the filler metal realizes the welding and at the same time completes the preparation of the porous welding seam, which is efficient; the welding of porous metal and porous ceramic can be realized. The method of the present application is used for welding of porous materials.

This utility model discloses a welding device for building steel, including a mounting frame, a first processing platform, and a second processing platform. Both the first and second processing platforms are located on top of the mounting frame. The second processing platform is rotatably mounted on the side of the first processing platform. A robotic arm is located on one side of the first processing platform, and a welding gun is mounted on the robotic arm. A first clamping assembly is located on the first processing platform. A second clamping assembly is located on the second processing platform. A transmission assembly is located on the second clamping assembly. A pushing assembly is located on the mounting frame and is connected to the second processing platform to drive the second processing platform to rotate. Beneficial effects: The first and second clamping assemblies clamp two steel plates respectively; the pushing assembly drives the second processing platform to rotate relative to the first processing platform; the robotic arm drives the welding gun to weld the connection point of the two steel plates, thereby achieving welding at different connection angles of the steel plates without manual support and improving welding accuracy.

This application discloses an EPE film welding device, comprising: a rotary placement mechanism including a rotary drive assembly and a placement platform, wherein the rotary drive assembly is connected to the center of the placement platform and drives the placement platform to rotate around its centerline, and welding positions are respectively located on both sides of the centerline of the placement platform; and a welding mechanism including a welding component and a welding drive assembly, wherein the welding drive assembly is connected to the welding component and drives the welding component to move towards or away from the placement platform, the welding component including a welding plate, a heating rod mounted on the welding plate, and the welding plate being located above the placement platform. The EPE film welding device of this application can realize the welding of two EPE film pieces, speeding up the cycle of placing double-layer EPE film pieces and improving work efficiency.

This invention discloses a welding mechanism for precision seamless welded steel pipe processing, belonging to the field of seamless steel pipe welding technology. It includes a welding table with a servo motor embedded in its surface. The output shaft of the servo motor is connected to a clamping mechanism via two meshing first gears, and the clamping mechanism is used to clamp the steel pipe to be welded. It also includes a protective box fixed to the upper surface of the welding table. A welding head is installed inside the protective box, and a fumigation mechanism is provided on the outside of the protective box, intermittently removing fumes generated during welding. This precision seamless welded steel pipe processing welding mechanism can achieve precise docking of two pipes without deviation after docking, facilitating subsequent welding. Furthermore, it can achieve full welding by rotating the pipe, eliminating the need for repeated adjustments to the clamping position. While welding with a protective gas, it can also expel the welding fumes.

This utility model discloses an automatic welding device for double-ended steel pipes, relating to the field of welding equipment technology. It includes a processing table with a pair of welding components symmetrically and adjustablely arranged on the table. A limiting component is located in the center of the processing table, comprising a driving wheel and a driven wheel. The driven wheel and driving wheel mesh. A second motor is fixedly mounted on the side of the limiting table, and the output shaft of the second motor is fixedly connected to the driving wheel. A lower arc-shaped plate and an upper arc-shaped plate are arranged inside the driven wheel. Elastic blocks are fixedly arranged between the upper arc-shaped plate, the lower arc-shaped plate, and the driven wheel. A pair of positioning plates are symmetrically fixed inside the driven wheel. Limiting bolts are threaded between the upper arc-shaped plate, the positioning plate, and the lower arc-shaped plate. This invention solves the problem in the prior art where steel pipes are supported only by arc-shaped brackets and rollers, and during welding, the steel pipes may axially shift due to vibration or rotational inertia, leading to weld misalignment and affecting welding quality.