TWM594506U - Melt feeding mechanism of casting system - Google Patents

Abstract

A soup feeding mechanism for a casting system includes a soup feeding mechanism bracket, a soup feeding mechanism body, a driving device, a multi-link device and a main arm. The soup feeder body is connected to the top of the soup feeder bracket, and the driving device is connected to the soup feeder body. The multi-link device includes a first rotation shaft, a second rotation shaft, and a four-link assembly. The first rotation shaft and the second rotation shaft are driven by the drive device to rotate, and then the four-link assembly is driven to move. One end of the main arm is rotatably connected to the multi-link device. When the casting system is applied to the casting system, it can transfer the metal solution in the dissolving furnace to the die casting machine without manual work. This system runs stably and has good safety performance, which ensures production efficiency while ensuring Security.

Description

Casting system to soup mechanism

This creation is about a technical field related to machining and manufacturing, and more specifically to a casting system for soup.

Elevated floors are widely used in places with anti-static requirements such as machine rooms, data centers, industrial plants, etc. Elevated floors can be divided into steel base, aluminum base, composite base, wood base, calcium sulfate base, etc., among which aluminum base The price of calcium sulfate base is higher, but the aluminum base floor will not rust, the steel base and the composite base are moderate, but the steel base floor section is easy to rust, so the cross section needs to be painted for anti-rust treatment, the composite base The cross-section of the floor should also be dust-proofed; the price of the wood base is low, but the water absorption rate is too high, and the fire performance is poor, the load is low, and it is not suitable for places with high requirements. In summary, the performance of aluminum-based raised floors is optimal.

At present, raised floors made of metal materials such as steel and aluminum bases are usually made through processes such as mold opening, melting, die casting, forming, and trimming. Among them, the die casting process requires pouring the molten metal material into the inlet of the die casting machine. The conventional technology usually adopts the manual pouring method, the pouring operation is more dangerous, and the labor intensity is greater, and the production efficiency is lower.

In response to the above problems, some manufacturers have developed some mechanical equipment for pouring metal materials after melting, but the existing casting equipment generally has problems such as unstable operation and high failure rate, and the existing casting equipment generally requires immediate monitoring by staff. The inability to effectively realize automation is not conducive to improving production efficiency. In addition, the existing casting equipment cannot be well matched with the die casting machine. Due to the casting equipment, it will affect the subsequent steps of forming and trimming, resulting in lower overall work efficiency.

This creation provides a casting system feeding mechanism. The casting system includes a dissolving furnace, a feeding mechanism and a die-casting machine arranged in sequence. The metal solution in the melting furnace is transferred to the die-casting machine by the casting system feeding mechanism. For example, it is made by die-casting machine. Raised floor, but not limited to articles made by die casting machine to make raised floor.

An embodiment of the present invention provides a soup feeding mechanism for a casting system, including a soup feeding mechanism bracket, a soup feeding mechanism body, a driving device, a multi-link device, and a main arm. The soup feeder body is connected to the top of the soup feeder bracket, and the driving device is connected to the soup feeder body. The multi-link device includes a first rotation shaft, a second rotation shaft, and a four-link assembly. The first rotation shaft and the second rotation shaft are driven to rotate by the driving device, and then the four-link assembly is driven to move. One end of the main arm is rotatably connected to the multi-link device.

In an embodiment of the present creation, the casting system of the above-mentioned casting system further includes a soup spoon, which is rotatably connected to the other end of the main arm.

In an embodiment of the present invention, one end of the first rotating shaft is rotatably connected to the body of the soup feeding mechanism, and one end of the second rotating shaft is rotatably connected to the body of the soup feeding mechanism.

In an embodiment of the present invention, the driving device includes a first motor, a second motor, a first transmission member, a second transmission member, a first gear member, and a second gear member. The first rotating shaft passes through the first gear member. And the first gear member and the first transmission member mesh with each other. The second rotating shaft passes through the second gear member, and the second gear member and the second transmission member mesh with each other. The first motor drives the first transmission member to rotate, and the first transmission member drives the first gear member to rotate, causing the first rotation When the shaft rotates, the second motor drives the second transmission member to rotate, and the second transmission member drives the second gear member to rotate, causing the second rotation shaft to rotate.

In an embodiment of the present invention, the four-link assembly includes a first link member, a second link member, a third link member, and a fourth link member. One end of the first link member is rotatably connected to the first rotating shaft, and the other end of the first link member is rotatably connected to the main arm. One end of the second link member is rotatably connected to the second rotating shaft, one end of the third link member is rotatably connected to the first rotating shaft, and the other end of the third link member is rotatably connected to the fourth link In the rod member, the other end of the second link member is rotatably connected to the fourth link member, and the fourth link member is rotatably connected to the main arm.

In an embodiment of the present creation, the casting system of the casting system further includes a first housing and a second housing. The first housing is provided with a first transmission member, a first gear member and a partial first rotating shaft. A second transmission member, a second gear member and a partial second rotating shaft are arranged inside the second housing.

In one embodiment of the present creation, the casting system of the above-mentioned casting system further includes a dissolving furnace and a die casting machine. The dissolution furnace is used to contain a metal solution. The die-casting machine includes a feed port, and the main arm can be moved between the dissolving furnace and the die-casting machine by moving the multi-link device to transport the metal solution in the dissolving furnace through the feed port to the die-casting machine.

In an embodiment of the present invention, the first transmission member and the second transmission member are a worm or a lead screw.

In an embodiment of the present invention, the first gear member and the second gear member are a worm gear or a gear.

Based on the above, in the soup feeding mechanism of the foundry system, the design of the multi-link device drives the main arm to have a moving stroke between the dissolution furnace and the die casting machine, so that the soup feeding mechanism of the casting system can dissolve the metal in the furnace The solution is transferred into the die-casting machine, for example, the die-casting machine is die-cast to make the raised floor, but the article is not limited to the die-casting machine to make the raised floor. It can be seen that the casting system of this creation can cast the metal solution (that is, the melted metal material) to the inlet of the die casting machine without manual work. This system runs stably and has good safety performance. While ensuring production efficiency, it also ensures safety.

In order to make this creation more obvious and understandable, specific examples are given below, together with the attached drawings for detailed description as follows.

The specific implementation of this creation will be further described below in conjunction with the drawings and embodiments. The following embodiments are only used to more clearly illustrate the technical solution of the creation, but cannot limit the protection scope of the creation.

Figure 1 is a schematic diagram of a casting system created. Please refer to Figure 1. The casting system 1 of this embodiment includes a dissolving furnace 10, a die casting machine 30, and a casting system feeding mechanism 20, wherein the dissolving furnace 10, casting system feeding mechanism 20, and die casting machine 30 are arranged in this order, and the casting system feeding mechanism 20 is located in the dissolving furnace 10 and die casting machine 30. In addition, the die-casting machine 30 includes a feed inlet 31, and the dissolution furnace 30 is used to contain the molten metal solution of the metal material. The casting system feeds the soup mechanism 20 with the metal solution in the dissolving furnace 10 to the inlet 31 of the die casting machine 30. For example, the die casting machine 30 molds the received metal solution into a raised floor, but the die casting machine 30 is not limited Items made of die-casting raised floor.

In the present embodiment, the soup feeding mechanism 20 of the casting system includes a soup feeding mechanism bracket 21, a soup feeding mechanism body 22, a driving device 23, a multi-link device 24, a main arm 25 and a soup spoon 27. The soup feeding mechanism support 21 extends upward in a direction perpendicular to the horizontal plane (such as the ground), and the soup feeding mechanism body 22 is connected to the top of the soup feeding mechanism support 21, that is, the soup feeding mechanism body 22 is disposed above the soup feeding mechanism support 21. The driving device 23 is connected to the soup mechanism body 22. One end of the main arm 25 is rotatably connected to the multi-link device 24, and the other end of the main arm 25 is rotatably connected to the spoon 27. The driving device 23 drives the multi-link device 24 to move. By moving the multi-link device 24 to drive the main arm 25 to move between the dissolving furnace 10 and the die casting machine 30, the spoon 27 can dissolve the metal solution in the dissolving furnace 10 It is transferred into the die casting machine 30, in other words, the working state driven by the driving device 23 or controlled by the driving device 23 realizes the feeding operation. As shown in Fig. 1, the movement stroke L of the soup spoon 27 is first moved downward by the main arm 25 and the multi-link device 24. The soup spoon 27 extends into the dissolution furnace 10, and the soup spoon 27 is loaded After full metal solution. Next, the spoon 27 moves upward, and then moves from the dissolution furnace 10 to the inlet 31 in a direction substantially parallel to the horizontal plane. The spoon 27 transports the metal solution therein through the inlet 31 to the die casting machine 30 for die casting. The machine 30 die-casts the received metal solution into a raised floor. It should be noted that in FIG. 1, the soup spoon 27 is located at the inlet 31 of the die casting machine 30, and the state where the soup spoon 27 is located in the dissolution furnace 10 is indicated by an imaginary line. It can be seen that the casting system 1 of this embodiment can pour the metal solution (that is, the melted metal material) into the inlet 31 of the die casting machine 30 without manual work. The casting system 1 not only runs stably and is safe Well, while improving production efficiency and ensuring safety.

Figure 2 is a schematic view of the casting system in Figure 1 giving the soup mechanism a perspective. Figure 3 is a schematic view of the casting system in Figure 1 giving the soup mechanism another perspective. Figure 4 is a partial schematic view of the soup feeding mechanism of the casting system in Figure 1; Figure 5 is a partial schematic view of the soup feeding mechanism of the casting system in Figure 1. Please refer to Figure 1 to Figure 5. In detail, the multi-link device 24 includes a first rotation shaft 241, a second rotation shaft 242, and a four-link assembly (including a first link member 243, a second link member 244, and a third Link member 245, a fourth link member 246). In addition, the driving device 23 includes a first motor 231, a second motor 232, a first transmission member 233, a second transmission member 234, a first gear member 247 and a second gear member 248, wherein the first transmission The component 233 and the second transmission component 234 are, for example, a worm or a lead screw. In this embodiment, they are a worm. The first gear component 247 and a second gear component 248 are, for example, a worm gear or a gear. In this embodiment, A worm gear.

In this embodiment, one end of the first rotating shaft 241 is rotatably connected to the body 22 of the soup feeding mechanism. The first rotating shaft 241 is inserted through the first gear member 247 so that the first gear member 247 interlocks the first rotating shaft 241 , And the first gear member 247 and the first transmission member 233 mesh with each other, the first motor 231 is used to drive the first transmission member 233 to rotate, and the first transmission member 233 then drives the first gear member 247 to rotate, so that the first rotating shaft 241 Turn. One end of the first link member 243 is rotatably connected to one end of the first rotating shaft 241, and the other end of the first link member 243 is rotatably connected to the main arm 25. From this, it can be seen that the first link member 243 can be linked by rotating the first rotating shaft 241.

On the other hand, one end of the second rotating shaft 242 is rotatably connected to the body 22 of the soup feeding mechanism. The second rotating shaft 242 is provided with a second gear member 248 so that the second gear member 248 interlocks the second rotating shaft 242, and The second gear member 248 and the second transmission member 234 are meshed with each other. The second motor 232 is used to drive the second transmission member 234. The second transmission member 234 then drives the second gear member 248 to rotate, causing the second rotating shaft 242 to rotate. One end of the second link member 244 is rotatably connected to one end of the second rotating shaft 242, one end of the third link member 245 is rotatably connected to the first rotating shaft 241, and the other end of the third link member 245 may be The other end of the second link member 244 is rotatably connected to the fourth link member 246, and the other end of the fourth link member 246 is rotatably connected to the main arm 25. From this, it can be seen that the second link member 244 can be linked by rotating the second rotating shaft 242, and the second link member 244 can then drive the fourth link member 246.

In this configuration, the first motor 231 drives the first transmission member 233 to rotate, the first transmission member 233 drives the first gear member 247 to rotate, and the first rotating shaft 241 rotates; the second motor 232 drives the second transmission member 234 to rotate, The second transmission member 234 drives the second gear member 248 to rotate, and causes the second rotating shaft 242 to rotate. By rotating the first rotating shaft 241 and the second rotating shaft 242, the first link member 243 and the second link member 244 are linked respectively, and as the first link member 243 and the second link member 244 rotate, the link The third link member 245 and the fourth link member 246 form a four-link linkage mechanism. In other words, the first link member 243, the second link member 244, the third link member 245 and the The four-bar linkage 246 and other four-bar linkage mechanisms (ie, auxiliary arms) cooperate with the rotation of the first rotation shaft 241 and the second rotation shaft 242 to thereby control the movement of the main arm 25, thereby driving the spoon 27 to move, thereby The metal solution in the dissolving furnace 10 is transferred to the inside of the die casting machine 30, and the metal solution is die-cast by the die casting machine 30 to form a raised floor.

In one embodiment, the casting system feeding mechanism 20 further includes a housing 26. As shown in FIG. 2, the housing 26 includes a first housing 261 and a second housing 262. A first transmission member 233, a first gear member 247, and a partial first rotating shaft 241 are provided inside the first casing 261, and the bottom of the other end of the first transmission member 233 is fixed to the bottom of the first casing 261 (not shown) Shown), so that the first transmission member 233 and the first gear member 247 mesh with each other to rotate. A second transmission member 234, a second gear member 248 and a partial second rotating shaft 242 are disposed inside the second housing 262.

In summary, in the soup system of the foundry casting system, through the design of the multi-link device, the main arm can be driven to have a moving stroke between the dissolution furnace and the die casting machine, so that the spoon can dissolve the metal in the furnace The solution is transferred into the die-casting machine, for example, the die-casting machine is die-cast to make the raised floor, but the article is not limited to the die-casting machine to make the raised floor. It can be seen that the casting system of this creation can cast the metal solution (that is, the melted metal material) to the inlet of the die casting machine without manual work. This system runs stably and has good safety performance. While ensuring production efficiency, it also ensures safety.

Although this creation has been disclosed as above with examples, it is not intended to limit this creation. Anyone with ordinary knowledge in the technical field of the subject can make some changes and retouching without departing from the spirit and scope of this creation. The scope of protection of this creation shall be deemed as defined by the scope of the attached patent application.

1: Casting system 10: Dissolution furnace 20: Casting system to soup mechanism 21: Bracket for soup mechanism 22: Give soup body 23: Drive 231: First Motor 232: Second motor 233: First transmission part 234: Second transmission part 24: Multi-link device 241: first axis of rotation 242: Second axis of rotation 243: the first link 244: Second connecting rod 245: third link 246: Fourth connecting rod 247: First gear 248: second gear 25: main arm 26: Shell 261: The first shell 262: Second shell 27: Soup spoon 30: Die-casting machine 31: Inlet L: moving stroke

Figure 1 is a schematic diagram of a casting system created. Figure 2 is a schematic view of the casting system in Figure 1 giving the soup mechanism a perspective. Figure 3 is a schematic view of the casting system in Figure 1 giving the soup mechanism another perspective. Figure 4 is a partial schematic view of the soup feeding mechanism of the casting system in Figure 1; Figure 5 is a partial schematic view of the soup feeding mechanism of the casting system in Figure 1.

20: Casting system to soup mechanism

21: Bracket for soup mechanism

22: Give soup body

23: Drive

231: First Motor

232: Second motor

24: Multi-link device

241: first axis of rotation

242: Second axis of rotation

243: the first link

244: Second connecting rod

245: third link

246: Fourth connecting rod

25: main arm

26: Shell

261: The first shell

262: Second shell

27: Soup spoon

Claims (10)

A casting system feeding mechanism includes: One for the soup machine bracket; A body of the soup feeding mechanism, connected to the top of the bracket of the soup feeding mechanism; A driving device connected to the body of the soup feeding mechanism; A multi-link device includes a first rotation shaft, a second rotation shaft and a four-link assembly. The first rotation shaft and the second rotation shaft are driven to rotate by the driving device, and then drive the four-link Component actuation; and A main arm is rotatably connected to the multi-link device at one end. The casting system described in claim 1 is provided to the soup institution, and further includes: A spoon is rotatably connected to the other end of the main arm. The casting system feeding mechanism according to claim 1, wherein one end of the first rotation shaft is rotatably connected to the soup feeding mechanism body, and one end of the second rotation shaft is rotatably connected to the soup feeding mechanism body. The casting system feeding mechanism according to claim 3, wherein the driving device includes a first motor, a second motor, a first transmission member, a second transmission member, a first gear member and a second gear member , The first rotating shaft passes through the first gear member, and the first gear member and the first transmission member mesh with each other, the second rotating shaft passes through the second gear member, and the second gear member Intermeshing with the second transmission member, the first motor drives the first transmission member to rotate, the first transmission member drives the first gear member to rotate, causes the first rotation shaft to rotate, and the second motor drives the second The transmission member rotates, and the second transmission member drives the second gear member to rotate, so that the second rotation shaft rotates. The casting system of claim 1, wherein the four-link assembly includes a first link member, a second link member, a third link member and a fourth link member, the first One end of the link member is rotatably connected to the first rotating shaft, and the other end of the first link member is rotatably connected to the main arm, and one end of the second link member is rotatably connected to the first Two rotating shafts, one end of the third link member is rotatably connected to the first rotating shaft, the other end of the third link member is rotatably connected to the fourth link member, and the second link member The other end is rotatably connected to the fourth link member, and the fourth link member is rotatably connected to the main arm. The casting system described in claim 4 is provided to the soup institution, and further includes: A first housing in which the first transmission member, the first gear member and part of the first rotating shaft are provided; and A second housing is provided with the second transmission member, the second gear member, and a part of the second rotating shaft. The casting system described in claim 1 is provided to the soup institution, and further includes: A dissolution furnace for containing a metal solution; and A die casting machine, including a feed inlet. The casting system feeding mechanism of claim 7, wherein the main arm can be moved between the dissolving furnace and the die casting machine by moving the multi-link device to penetrate the metal solution in the dissolving furnace The feed inlet is transported into the die casting machine. The casting system feeding mechanism of claim 4, wherein the first transmission member and the second transmission member are a worm or a lead screw. The casting system of claim 4, wherein the first gear member and the second gear member are a worm gear or a gear.

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