A CuAg-Ni-Ti-Zr high-temperature solder processing and production device

Abstract

The invention discloses a CuAg-N i-T i-Zr high-temperature solder processing and production device, belonging to the technical field of material processing. The CuAg-N i-T i-Zr high-temperature solder processing and production device comprises a box body, a furnace is installed inside the box body, a feeding mechanism is arranged on the outer wall of the furnace, a refining and filtering mechanism is arranged inside the box body, a casting mechanism is arranged at the bottom of the refining and filtering mechanism, the top of the casting mechanism is rotatably connected to a rotating plate, and a water circulation mechanism is arranged inside the box body. The invention designs the refining and filtering mechanism, extracts the air inside the vacuum connecting pipe and the purification tank through a vacuum pump, hydrogen and oxygen will escape from the smelting alloy liquid under the vacuum environment, and a preliminary refining effect is achieved. The casting mechanism is designed, and the movement of the mold is controlled by a combination of two servo motors and a screw rod, so that each casting process can be carried out under the same conditions, thereby improving the overall quality and reliability of the product.

Description

Technical Field

[0001] The invention belongs to the technical field of material processing, and in particular relates to a CuAg-Ni-Ti-Zr high-temperature solder processing and production device. Background Art

[0002] In modern industry, especially in high-temperature environment applications in aerospace, electronics, energy and other fields, reliable connection technology is crucial. As an effective connection method, high-temperature brazing relies on the use of high-performance high-temperature brazing filler metals. CuAg-Ni-Ti-Zr high-temperature brazing filler metals are favored in many high-temperature connection scenarios due to their excellent high-temperature performance, good wettability and high strength.

[0003] When traditional processing and production equipment produces CuAg-Ni-Ti-Zr high-temperature solder, its internal processing mechanism needs to use special equipment to preheat the mold and subsequently cool it down when casting the CuAg-Ni-Ti-Zr high-temperature solder. During long-term production, the heating device will consume a large amount of energy, causing greater supply pressure on energy supply and increasing production costs. Summary of the invention

[0004] The technical problem to be solved by the present invention is to overcome the disadvantages of the prior art and provide a CuAg-Ni-Ti-Zr high-temperature solder processing and production device.

[0005] The technical solution adopted to solve the above technical problems is: a CuAg-Ni-Ti-Zr high-temperature solder processing and production device, comprising a box, the front end of which is fixedly connected to an operating table, and the rear end of which is rotatably connected to a rotating door;

[0006] A furnace is installed inside the box, a plurality of electromagnetic induction coils are installed on the outer wall of the furnace, a feeding mechanism is provided on the outer wall of the furnace, and a plurality of corresponding feeding pipes are fixedly connected to the top of the feeding mechanism;

[0007] A refining and filtering mechanism is arranged inside the box body, a casting mechanism is arranged at the bottom of the refining and filtering mechanism, the top of the casting mechanism is rotatably connected to a rotating plate, and a water circulation mechanism is arranged inside the box body.

[0008] Furthermore, the feeding mechanism includes a plurality of storage bins installed inside the box body, and a feed port is opened on the top of each of the plurality of storage bins, wherein a gas storage tank is fixedly connected between two of the storage bins, and two delivery pipes are fixedly connected to the outer wall of the gas storage tank, and air pipe valves are installed on the outer walls of the two delivery pipes, and input pipes are fixedly connected to the bottoms of the plurality of storage bins, and mounting pipes are installed on the bottoms of the plurality of input pipes, and driving motors are installed inside the plurality of mounting pipes, and the output ends of the plurality of driving motors are fixedly connected to auger shafts.

[0009] Through the above technical solution, multiple storage bins store different raw materials required for smelting. The raw materials enter the storage bin through the feed port on the top. At this time, the drive motor starts to drive the auger shaft to rotate. The auger shaft is like a screw propeller, which continuously pushes the materials transported from the storage bin along the direction of the input pipe, thereby realizing stable transportation of materials. When storing and inputting chemically active metal raw materials such as Ti and Zr, the gas storage tank will begin to release inert gas into the corresponding storage bin to prevent these metals from undergoing oxidation reactions and affecting subsequent smelting.

[0010] Furthermore, high-pressure argon gas is installed inside the gas storage tank.

[0011] Through the above technical solution, argon is an inert gas with very stable chemical properties. The use of high-pressure argon can avoid oxidation reactions of chemically active metal raw materials such as Ti and Zr, ensuring that the chemical properties of the materials are not affected and can enter the next production link with their original composition and state.

[0012] Furthermore, the refining and filtering mechanism includes a vacuum connecting pipe installed inside the box body, the other end of the vacuum connecting pipe is rotatably connected to a purification tank, a plurality of ceramic filter plates are installed inside the purification tank, a vacuum pump is installed inside the box body near the purification tank, one side of the vacuum pump is fixedly connected to a three-way pipe, the outer wall of the three-way pipe is fixedly connected to a gas connecting pipe, and one side of the three-way pipe is fixedly connected to a connecting hose.

[0013] Through the above technical scheme, when the molten alloy liquid that has completed smelting flows to the vacuum connecting pipe, the vacuum pump is started at this time, and it will extract the air in the system through the three-way pipe, the gas connecting pipe and other components to form a vacuum environment in the vacuum connecting pipe and the purification tank. The hydrogen and oxygen in the molten alloy will automatically escape due to the low-pressure environment, achieving a preliminary refining effect. After the molten alloy liquid flows into the purification tank, the molten alloy first flows through the upper ceramic filter plate with a larger pore size to intercept larger particles of unmelted matter, inclusions and slag blocks, etc., and then passes through the lower ceramic filter plate with a smaller pore size in turn to further remove finer impurities, ensuring that the molten alloy that finally flows out reaches a higher purity. After the purification tank has been used for a period of time, a lot of impurities will be accumulated in the multiple ceramic filter plates inside it, and they need to be replaced. The staff only needs to enter the box body, rotate the purification tank and the connecting hose, and then they can easily remove the purification tank and replace it with a new purification tank for continued use.

[0014] Furthermore, the gaps between the plurality of ceramic filter plates decrease from top to bottom.

[0015] Through the above technical solution, when the smelted alloy enters the purification tank, graded filtration can be achieved because the gaps in the ceramic filter plates decrease from top to bottom. The gaps decrease from top to bottom, which can effectively prevent the filter plates from being blocked. By adopting this graded method, larger impurities are intercepted by the upper filter plates, reducing the chance of the lower filter plates contacting large particles of impurities.

[0016] Furthermore, the casting mechanism includes a fixed block installed at the bottom of the purification tank, a water injection bin is provided inside the fixed block, a sliding groove is provided on the inner wall of the purification tank, and two servo motors are fixedly connected to the rear end of the fixed block, the output ends of the two servo motors are fixedly connected to screw rods, the outer walls of the two screw rods are slidably connected to limit sliding blocks, and a mold is fixedly connected between the two limit sliding blocks.

[0017] Through the above technical solution, when the molten alloy that has completed the refining and impurity removal steps needs to be cast, high-temperature hot water will be injected into the water filling bin to preheat the mold. After the molten alloy passes through the purification tank and enters the mold below, the hot water in the water filling bin will be pumped out and cold water will be injected. After the casting and cooling are completed, the alloy block needs to be transported out. Therefore, the servo motor needs to be started, and the screw connected to its output end starts to rotate. The screw and the limit sliding block are in a sliding connection relationship. As the screw rotates, the limit sliding block will move along the axial direction of the screw, pushing the mold to the specified position for the staff to take the alloy block.

[0018] Furthermore, the outer wall of the mold is slidably fitted on the inner wall of the sliding groove.

[0019] Through the above technical solution, the sliding groove provides precise guidance for the mold. When the mold moves through the action of the screw rod and the limit sliding block, the sliding groove can ensure that the mold moves along a predetermined straight line direction, and the sliding fit between the sliding groove and the outer wall of the mold can accurately position the mold and ensure its stable movement in the vertical direction, so that the mold can accurately reach the casting position every time.

[0020] Furthermore, the water circulation mechanism includes a water injection tank installed on the outer wall of the furnace, the outer wall of the water injection tank is fixedly connected to a water outlet pipe, the outer wall of the water outlet pipe is installed with a first electronic valve, a water storage tank is installed at the other end of the water outlet pipe, the outer wall of the water storage tank is fixedly connected to a water injection pipe near the bottom, a flow regulating valve is installed on the outer wall of the water injection pipe, the bottom of the water injection tank is fixedly connected to a connecting pipe, the outer wall of the connecting pipe is installed with a second electronic valve, a booster pump is installed inside the box near the bottom, and a water inlet pipe is installed at the front end of the booster pump.

[0021] Through the above technical scheme, a large amount of cold water will be injected into the water injection tank. When the furnace is working, the cold water in the water injection tank will absorb the heat generated by the furnace for heating. When this part of hot water reaches a certain temperature and can no longer absorb heat, the water injection tank will inject this part of hot water into the water storage tank through the water outlet pipe, and the cold water at the bottom of the water storage tank will be injected into the fixed block through the water injection pipe, and the booster pump will pressurize it, and the cold water will be injected into the water injection tank through the water inlet pipe to reabsorb the heat generated by the furnace for heating. When the mold needs to be preheated, the water injection tank will flow the high-temperature hot water inside directly into the fixed block through the connecting pipe to preheat the mold. After cooling down, the water in the fixed block will be injected into the water injection tank again through the booster pump and the water inlet pipe, so as to make full use of the heat generated by the furnace for heating.

[0022] The beneficial effects of the present invention are as follows: (1) The present invention designs a refining and filtering mechanism, and uses a vacuum pump to extract the air inside the vacuum connecting pipe and the purification tank. When extracting air, the molten alloy liquid can quickly and stably enter the vacuum connecting pipe and the purification tank. The molten alloy liquid will release hydrogen and oxygen in a vacuum environment, achieving a preliminary refining effect. The impurities in the molten alloy liquid are further reduced by using a multi-layer ceramic filter plate to remove impurities, which can effectively improve the quality of the molten alloy liquid; (2) The present invention designs a casting mechanism, and controls the movement of the mold through a combination of two servo motors and a screw rod. Since the mold position can be accurately controlled and the mold movement is stable, each casting process can be carried out under the same conditions, which can ensure that each casting meets the quality standards and improve the overall quality and reliability of the product; (3) The present invention designs a water circulation mechanism, and heats by absorbing the heat generated by the furnace to prepare for the preheating of the mold. The cold water stored in the water storage tank can also cool the mold after the casting is completed, making full use of waste heat to help the mold perform a series of tasks, effectively improving energy utilization and reducing energy consumption. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 is a stereogram of the present invention;

[0024] Figure 2 is a rear view of the present invention;

[0025] Figure 3 for Figure 1 A transverse cross-sectional view of

[0026] Figure 4 It is a schematic diagram of the feeding mechanism of the present invention;

[0027] Figure 5 It is a schematic diagram of the structure of the auger shaft of the present invention;

[0028] Figure 6 is a schematic diagram of the refining and filtering mechanism of the present invention;

[0029] Figure 7 It is a schematic diagram of the casting mechanism of the present invention;

[0030] Figure 8 It is a schematic diagram of the structure of the position-limiting sliding block of the present invention;

[0031] Fig. 9 It is a schematic diagram of the water circulation mechanism of the present invention.

[0032] Reference numerals: 1, box; 2, operating table; 3, rotating door; 4, furnace; 5, electromagnetic induction coil; 6, feeding mechanism; 601, storage bin; 602, feeding port; 603, gas storage tank; 604, delivery pipe; 605, air pipe valve; 606, input pipe; 607, installation pipe; 608, driving motor; 609, auger shaft; 7, feeding pipe; 8, refining and filtering mechanism; 801, vacuum connecting pipe; 802, purification tank; 803, ceramic filter plate; 804, vacuum pump; 805, three-way pipe; 806, gas connecting pipe; 807, connecting hose; 9, casting mechanism; 901, fixing block; 902, water filling bin; 903, sliding groove; 904, servo motor; 905, screw rod; 906, limit sliding block; 907, mold; 10, rotating plate; 11, water circulation mechanism; 1101, water filling tank; 1102, water outlet pipe; 1103, first electronic valve; 1104, water storage tank; 1105, water filling pipe; 1106, flow regulating valve; 1107, connecting pipeline; 1108, second electronic valve; 1109, booster pump; 1110, water inlet pipe. DETAILED DESCRIPTION

[0033] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0034] like Figure 1 - Figure 3 As shown, a CuAg-Ni-Ti-Zr high-temperature solder processing and production device of the present embodiment includes a box body 1, a front end of the box body 1 is fixedly connected to an operating table 2, a rear end of the box body 1 is rotatably connected to a rotating door 3, a furnace 4 is installed inside the box body 1, and a plurality of electromagnetic induction coils 5 are installed on the outer wall of the furnace 4.

[0035] like Figure 4 and Figure 5As shown, the outer wall of the melting furnace 4 is provided with a feeding mechanism 6, and the feeding mechanism 6 includes a plurality of storage bins 601 installed inside the box body 1, and the tops of the plurality of storage bins 601 are provided with feeding ports 602, wherein a gas storage tank 603 is fixedly connected between two storage bins 601, and the interior of the gas storage tank 603 is provided with high-pressure argon gas, and argon gas is an inert gas with very stable chemical properties. The use of high-pressure argon gas can avoid oxidation reactions of metal raw materials with high chemical activity such as Ti and Zr, thereby ensuring that the chemical properties of the materials are not affected and can enter the next production link with the original composition and state, and the outer wall of the gas storage tank 603 is fixedly connected to two delivery pipes 604, and the outer walls of the two delivery pipes 604 are installed with gas pipe valves 605, and the bottoms of the plurality of storage bins 601 are fixedly connected to input pipes 606, and the bottoms of the plurality of input pipes 606 are installed There is a mounting tube 607, and drive motors 608 are installed inside the multiple mounting tubes 607. The output ends of the multiple drive motors 608 are fixedly connected to auger shafts 609. The top of the feeding mechanism 6 is fixedly connected to multiple corresponding feeding tubes 7. Multiple storage bins 601 store different raw materials required for smelting. The raw materials enter the storage bin 601 through the feeding port 602 on the top. At this time, the drive motor 608 is started to drive the auger shaft 609 to rotate. The auger shaft 609 is like a screw propeller, which continuously pushes the material transported from the storage bin 601 along the direction of the input pipe 606, thereby realizing stable material transportation. When storing and inputting chemically active metal raw materials such as Ti and Zr, the gas storage tank 603 will begin to release inert gas into the corresponding storage bin 601 to prevent these metals from undergoing oxidation reactions and affecting subsequent smelting.

[0036] like Figure 6As shown, a refining and filtering mechanism 8 is arranged inside the box body 1, and the refining and filtering mechanism 8 includes a vacuum connecting pipe 801 installed inside the box body 1, and the other end of the vacuum connecting pipe 801 is rotatably connected to a purification tank 802, and a plurality of ceramic filter plates 803 are installed inside the purification tank 802, and the gaps of the plurality of ceramic filter plates 803 decrease from top to bottom. When the smelting alloy enters the purification tank 802, since the gaps of the ceramic filter plates 803 decrease from top to bottom, graded filtration can be achieved, and the gaps decrease from top to bottom, which can effectively prevent the clogging of the filter plates. By adopting this graded method, larger impurities are intercepted by the upper filter plate, reducing the chance of the lower filter plate contacting large particles of impurities. A vacuum pump 804 is installed inside the box body 1 near the purification tank 802, and a three-way pipe 805 is fixedly connected to one side of the vacuum pump 804, and a gas connecting pipe 806 is fixedly connected to the outer wall of the three-way pipe 805, and a connecting hose 807 is fixedly connected to one side of the three-way pipe 805. When the smelting alloy liquid flows to the vacuum When connecting pipe 801, vacuum pump 804 is started, and it will extract air in the system through components such as three-way pipe 805 and gas connecting pipe 806, forming a vacuum environment in vacuum connecting pipe 801 and purification tank 802, and hydrogen and oxygen in the molten alloy will automatically overflow due to the low-pressure environment, achieving a preliminary refining effect. When the molten alloy liquid flows into the purification tank 802, the molten alloy first flows through the upper ceramic filter plate 803 with a larger aperture to intercept larger particles of unmelted matter, inclusions and slag, and then passes through the lower ceramic filter plate 803 with a smaller aperture in turn to further remove finer impurities, ensuring that the molten alloy that finally flows out reaches a higher purity. After the purification tank 802 has been used for a period of time, a lot of impurities will be accumulated in the multiple ceramic filter plates 803 inside it, and it needs to be replaced. The staff only needs to enter the box body 1, rotate the purification tank 802 and the connecting hose 807, and then the purification tank 802 can be easily removed, and then replaced with a new purification tank 802 for continued use.

[0037] like Figure 1 and Figure 7As shown, a casting mechanism 9 is provided at the bottom of the refining and filtering mechanism 8, and the casting mechanism 9 includes a fixed block 901 installed at the bottom of the purification tank 802, a water injection bin 902 is provided inside the fixed block 901, and a sliding groove 903 is provided on the inner wall of the purification tank 802. The rear end of the fixed block 901 is fixedly connected to two servo motors 904, and the output ends of the two servo motors 904 are fixedly connected to screw rods 905, and the outer walls of the two screw rods 905 are slidably connected to limited sliding blocks 906, and a mold 907 is fixedly connected between the two limited sliding blocks 906. The outer wall of the mold 907 fits and slides on the inner wall of the sliding groove 903, and the sliding groove 903 provides a precise guide for the mold 907. When the mold 907 moves through the action of the screw rod 905 and the limited sliding block 906, the sliding groove 903 can ensure that the mold 907 moves along a predetermined straight line direction, and the fitting and sliding of the sliding groove 903 and the outer wall of the mold 907 can The mold 907 is accurately positioned to ensure that it moves stably in the vertical direction so that the mold 907 can accurately reach the casting position every time. The top of the casting mechanism 9 is rotatably connected to the rotating plate 10. When the molten alloy that has completed the refining and impurity removal steps needs to be cast, high-temperature hot water will be injected into the water injection bin 902 to preheat the mold 907. After the molten alloy passes through the purification tank 802 and enters the mold 907 below, the hot water in the water injection bin 902 will be pumped out and cold water will be injected. After the casting and cooling are completed, the alloy block needs to be transported out. Therefore, the servo motor 904 needs to be started, and the screw rod 905 connected to its output end starts to rotate. The screw rod 905 and the limit sliding block 906 are in a sliding connection relationship. As the screw rod 905 rotates, the limit sliding block 906 will move along the axial direction of the screw rod 905, pushing the mold 907 to the specified position for the staff to take the alloy block.

[0038] like Figure 8 and Fig. 9As shown, a water circulation mechanism 11 is arranged inside the casing 1, and the water circulation mechanism 11 comprises a water injection tank 1101 installed on the outer wall of the melting furnace 4, a water outlet pipe 1102 is fixedly connected to the outer wall of the water injection tank 1101, a first electronic valve 1103 is installed on the outer wall of the water outlet pipe 1102, a water storage tank 1104 is installed on the other end of the water outlet pipe 1102, a water injection pipe 1105 is fixedly connected to the outer wall of the water storage tank 1104 near the bottom, a flow regulating valve 1106 is installed on the outer wall of the water injection pipe 1105, a connecting pipe 1107 is fixedly connected to the bottom of the water injection tank 1101, a second electronic valve 1108 is installed on the outer wall of the connecting pipe 1107, a booster pump 1109 is installed near the bottom of the casing 1, a water inlet pipe 1110 is installed at the front end of the booster pump 1109, a large amount of cold water is injected into the water injection tank 1101, and when the melting furnace 4 is working, the water inside the water injection tank 1101 The cold water will absorb the heat generated by the furnace 4 for heating. When this part of hot water reaches a certain temperature and can no longer absorb heat, the water injection tank 1101 will inject this part of hot water into the water storage tank 1104 through the water outlet pipe 1102, and the cold water at the bottom of the water storage tank 1104 will be injected into the fixed block 901 through the water injection pipe 1105, and will be pressurized by the booster pump 1109. The cold water will be injected into the water injection tank 1101 through the water inlet pipe 1110, and will re-absorb the heat generated by the furnace 4 for heating. When the mold 907 needs to be preheated, the water injection tank 1101 will directly flow the high-temperature hot water inside into the fixed block 901 through the connecting pipe 1107 to preheat the mold 907. After cooling down, the water inside the fixed block 901 will be injected into the water injection tank 1101 again through the booster pump 1109 and the water inlet pipe 1110, so as to make full use of the heat generated by the furnace 4 for heating.

[0039] The working principle of this embodiment is as follows: different raw materials required for smelting are input into the storage bin 601 through the corresponding feed pipe 7, at which time the drive motor 608 is started, driving the auger shaft 609 to rotate, and the materials transported from the storage bin 601 are continuously pushed into the furnace 4 along the direction of the input pipe 606, and the gas storage tank 603 begins to release inert gas into the corresponding storage bin 601 to prevent these metals from undergoing oxidation reaction, and the raw materials entering the furnace 4 will be smelted inside the furnace 4, and the electromagnetic induction coil 5 on the outer wall of the furnace 4 generates an alternating magnetic field to make the smelting A strong eddy current is formed inside the fused alloy, which in turn drives the metal liquid to generate forced convection, achieving efficient, contactless stirring. When the molten alloy liquid is smelted, it will flow into the vacuum connecting pipe 801. At this time, the vacuum pump 804 is started, and it will extract the air in the system through the three-way pipe 805 and the gas connecting pipe 806 and other components, forming a vacuum environment in the vacuum connecting pipe 801 and the purification tank 802. The hydrogen and oxygen in the molten alloy will automatically escape due to the low-pressure environment, achieving a preliminary refining effect, and then pass through the multi-layer ceramic filter plate 803 for impurity removal, and finally flow into the mold 907 below;

[0040] At this time, high-temperature hot water will be injected into the water filling bin 902 to preheat the mold 907. After the smelted alloy enters the mold 907 below through the purification tank 802, the hot water in the water filling bin 902 will be pumped out and cold water will be injected. After the casting and cooling are completed, the alloy block needs to be transported out, so the servo motor 904 needs to be started, and the screw rod 905 connected to its output end starts to rotate. The screw rod 905 and the limit sliding block 906 are in a sliding connection relationship. As the screw rod 905 rotates, the limit sliding block 906 will move along the axial direction of the screw rod 905 to push the mold 907 to the specified position. The staff only needs to open the rotating plate 10 to take out the alloy block, and then close the rotating plate 10. The mold 907 will return to the specified position with the rotation of the screw rod 905 to carry out the next cycle of casting. When the furnace 4 and the supporting mechanism are working, the water circulation mechanism 11 inside the box body 1 also continues to work at the same time. When the hot water reaches a certain temperature and can no longer absorb heat, the water injection tank 1101 injects the hot water into the water storage tank 1104 through the water outlet pipe 1102, and the cold water at the bottom of the water storage tank 1104 is injected into the fixed block 901 through the water injection pipe 1105, and is pressurized by the booster pump 1109. The cold water is injected into the water injection tank 1101 through the water inlet pipe 1110, and the cold water is injected into the water injection tank 1101 through the water inlet pipe 1110, and the heat generated by the furnace 4 is re-absorbed for heating. When the mold 907 needs to be preheated, the high-temperature hot water inside the water injection tank 1101 directly flows into the fixed block 901 through the connecting pipe 1107 to preheat the mold 907. After cooling down, the water inside the fixed block 901 will be injected into the water injection tank 1101 again through the booster pump 1109 and the water inlet pipe 1110, so as to make full use of the heat generated by the furnace 4 for heating.

[0041] The above description is only a preferred embodiment of the present invention and is not intended to limit the protection scope of the present invention.

Claims

1. A CuAg-Ni-Ti-Zr high temperature solder processing and production device, comprising a housing (1), characterized in that: The front end of the box (1) is fixedly connected to an operating table (2), and the rear end of the box (1) is rotatably connected to a rotating door (3); A furnace (4) is installed inside the box (1), a plurality of electromagnetic induction coils (5) are installed on the outer wall of the furnace (4), a feeding mechanism (6) is provided on the outer wall of the furnace (4), and a plurality of corresponding feeding pipes (7) are fixedly connected to the top of the feeding mechanism (6); A refining and filtering mechanism (8) is arranged inside the box body (1), a casting mechanism (9) is arranged at the bottom of the refining and filtering mechanism (8), the top of the casting mechanism (9) is rotatably connected to a rotating plate (10), and a water circulation mechanism (11) is arranged inside the box body (1).

2. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 1, characterized in that: The feeding mechanism (6) comprises a plurality of storage bins (601) installed inside the box body (1), and a feeding port (602) is provided on the top of each of the plurality of storage bins (601), wherein a gas storage tank (603) is fixedly connected between two of the storage bins (601), and two delivery pipes (604) are fixedly connected to the outer wall of the gas storage tank (603), and gas pipe valves (605) are installed on the outer walls of the two delivery pipes (604), and input pipes (606) are fixedly connected to the bottom of each of the plurality of storage bins (601), and mounting pipes (607) are installed at the bottom of each of the plurality of input pipes (606), and driving motors (608) are installed inside each of the plurality of mounting pipes (607), and the output ends of the plurality of driving motors (608) are fixedly connected to auger shafts (609).

3. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 2, characterized in that: The gas storage tank (603) is filled with high-pressure argon gas.

4. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 1, characterized in that: The refining and filtering mechanism (8) comprises a vacuum connecting pipe (801) installed inside the housing (1); the other end of the vacuum connecting pipe (801) is rotatably connected to a purification tank (802); a plurality of ceramic filter plates (803) are installed inside the purification tank (802); a vacuum pump (804) is installed inside the housing (1) near the purification tank (802); a three-way pipe (805) is fixedly connected to one side of the vacuum pump (804); a gas connecting pipe (806) is fixedly connected to the outer wall of the three-way pipe (805); and a connecting hose (807) is fixedly connected to one side of the three-way pipe (805).

5. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 4, characterized in that: The gaps between the plurality of ceramic filter plates (803) decrease from top to bottom.

6. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 4, characterized in that: The casting mechanism (9) comprises a fixed block (901) installed at the bottom of the purification tank (802), a water injection bin (902) is provided inside the fixed block (901), a sliding groove (903) is provided on the inner wall of the purification tank (802), two servo motors (904) are fixedly connected to the rear end of the fixed block (901), the output ends of the two servo motors (904) are fixedly connected to screw rods (905), the outer walls of the two screw rods (905) are slidably connected to limit sliding blocks (906), and a mold (907) is fixedly connected between the two limit sliding blocks (906).

7. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 6, characterized in that: The outer wall of the mold (907) slides in contact with the inner wall of the sliding groove (903).

8. The CuAg-Ni-Ti-Zr high temperature solder processing and production device according to claim 1, characterized in that: The water circulation mechanism (11) comprises a water injection tank (1101) mounted on the outer wall of the melting furnace (4); the outer wall of the water injection tank (1101) is fixedly connected to a water outlet pipe (1102); the outer wall of the water outlet pipe (1102) is installed with a first electronic valve (1103); the other end of the water outlet pipe (1102) is installed with a water storage tank (1104); the outer wall of the water storage tank (1104) is fixedly connected to a water injection pipe (1105) at the bottom; the outer wall of the water injection pipe (1105) is installed with a flow regulating valve (1106); the bottom of the water injection tank (1101) is fixedly connected to a connecting pipe (1107); the outer wall of the connecting pipe (1107) is installed with a second electronic valve (1108); a booster pump (1109) is installed at the bottom of the casing (1); the front end of the booster pump (1109) is installed with a water inlet pipe (1110).

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