A valve core feeding machine

Abstract

The application belongs to the technical field of valve core production, and particularly relates to a valve core feeding machine, which comprises an equipment frame, a continuous conveying assembly and a transfer assembly. The top view of the equipment frame is in the shape of C. The continuous conveying assembly is arranged in the inside of the equipment frame. The transfer assembly is arranged on one side outside the equipment frame. The application has the following advantages and effects: the continuous conveying assembly can convey multiple groups of valve cores in a quantitative manner. Because the first conveying plate is in the shape of inclination, it can ensure that the multiple groups of valve cores falling in the shape of inclination can be stably moved above the push plate for conveying. The quantitative valve cores are conveyed to the transfer assembly through the displacement of the push plate, and the batch of conveyed valve cores can be stably transferred to the next working area, so that the stable quantitative conveying of valve cores is realized, and the stop of equipment operation for cleaning caused by accumulation is avoided.

Description

Technical Field

[0001] This application belongs to the field of valve core production technology, specifically a valve core feeding machine. Background Technology

[0002] Valve core feeders are important pieces of equipment in automated production, as they can efficiently and accurately deliver valve cores to the assembly station.

[0003] According to Chinese Publication No. CN220449023U, a valve core processing and feeding mechanism includes: a base; multiple support rods, all of which are fixedly installed on the top of the base; multiple first electric telescopic rods, all of which are fixedly installed on the top of the base; multiple placement plates, each of which is fixedly installed on the output rod of the multiple first electric telescopic rods; a storage box, which is fixedly installed on the top of the multiple support rods; and multiple discharge structures, all of which are disposed on the storage box.

[0004] Traditional methods of continuously feeding valve cores can lead to an inability to control the number of valve cores, resulting in the feeding of too many at once. In such cases, accumulation and blockage can occur, preventing the continuous progress of the next step. Utility Model Content

[0005] The purpose of this application is to address the shortcomings of existing technologies by designing a valve core feeder with a continuous conveying component and a transfer component. The continuous conveying component can transport multiple sets of valve cores in a quantitative manner, thus solving the problem of how to feed valve cores.

[0006] The above-mentioned technical objective of this application is achieved through the following technical solution: A valve core feeding machine includes: a device frame, a continuous conveying component, and a transfer component. The device frame has a C-shaped top view. The continuous conveying component is disposed inside the device frame, and the transfer component is disposed on the outer side of the device frame.

[0007] Preferably, the continuous conveying assembly includes a first conveying plate welded to the inner wall of the equipment frame and a second conveying plate welded to one side of the outer wall of the equipment frame. The first and second conveying plates are welded to the equipment frame with the left side higher than the right side. A chute is formed on the equipment frame between the first and second conveying plates. A push plate is vertically slidably disposed in the chute. The top inclination angle of the push plate is the same as that of the first conveying plate. Rollers are rotatably disposed around the outer wall of the push plate via an shaft. The rollers are attached to the outer wall of the equipment frame.

[0008] Preferably, the continuous conveying assembly further includes a first motor disposed on the inner wall of the equipment frame, the first motor being disposed below the first conveying plate, a first shaft being disposed on the output end of the first motor, a first connecting rod being disposed on the first shaft, a second connecting rod being rotatably disposed on the other end of the first connecting rod via the shaft, and a second shaft being rotatably disposed on the other end of the second connecting rod, the second shaft being welded to the outer wall of the push plate.

[0009] Preferably, the transfer assembly includes a U-shaped frame welded to the other side of the outer wall of the second conveyor plate. Five sets of bearings are equidistantly arranged on the inner wall of the U-shaped frame. Each bearing in the U-shaped frame is equipped with a belt roller. There are five sets of belt rollers. A conveyor belt is sleeved on the outside of the five sets of belt rollers. The conveyor belt is located inside the U-shaped frame. A second motor is installed on the outer wall of the U-shaped frame. The output end of the second motor is connected to one of the sets of belt rollers.

[0010] The beneficial effects of this application are: This application incorporates a continuous conveying component and a transfer component. The continuous conveying component can convey multiple sets of valve cores in a quantitative manner. Because the first conveying plate is inclined, it ensures that the multiple sets of valve cores falling at an incline can be stably moved above the push plate used for conveying. The displacement of the push plate conveys the quantitative valve cores to the transfer component, which can stably transfer the batch of valve cores to the next working area. This achieves stable quantitative conveying of valve cores and avoids accumulation that would cause the equipment to stop for cleaning. Attached Figure Description

[0011] Figure 1 This is a frontal three-dimensional structural diagram of this application; Figure 2 This is a cross-sectional three-dimensional structural diagram of this application; Figure 3 This is a schematic diagram of the three-dimensional structure of the back side of this application.

[0012] The components include: 1. Equipment frame; 2. Continuous conveying assembly; 201. Conveyor plate No. 1; 202. Conveyor plate No. 2; 203. Slide chute; 204. Push plate; 205. Roller; 206. Motor No. 1; 207. Shaft No. 1; 208. First connecting rod; 209. Second connecting rod; 210. Shaft No. 2; 3. Transfer assembly; 301. U-shaped frame; 302. Belt roller; 303. Conveyor belt; 304. Motor No. 2. Detailed Implementation

[0013] Example 1 Reference Figure 1-3 A valve core feeding machine includes: an equipment frame 1, a continuous conveying assembly 2, and a transfer assembly 3; The top view of the equipment frame 1 is C-shaped. The continuous conveying component 2 is located inside the equipment frame 1, and the transfer component 3 is located on the outside side of the equipment frame 1.

[0014] When multiple sets of valve cores are conveyed to the continuous conveying component 2 within the equipment frame 1, the continuous conveying component 2 can convey the multiple sets of valve cores in a quantitative manner. When the continuous conveying component 2 conveys the quantitative valve cores to the transfer component 3, the transfer component 3 can move the quantitative valve cores to the next working area for processing.

[0015] Example 2 Reference Figure 1-3 A valve core feeder includes: a continuous conveying assembly 2; The continuous conveying assembly 2 includes a first conveyor plate 201 welded to the inner wall of the equipment frame 1 and a second conveyor plate 202 welded to one side of the outer wall of the equipment frame 1. The first conveyor plate 201 and the second conveyor plate 202 are welded to the equipment frame 1 with the left side higher than the right side. A slide groove 203 is formed on the equipment frame 1 and is located between the first conveyor plate 201 and the second conveyor plate 202. A push plate 204 is vertically slidably disposed in the slide groove 203. The top inclination angle of the push plate 204 is the same as that of the first conveyor plate 201. Rollers 205 are rotatably mounted around the perimeter of the wall via shafts. The rollers 205 are attached to the outer wall of the equipment frame 1. A first motor 206 is mounted on the inner wall of the equipment frame 1. The first motor 206 is located below the first conveyor plate 201. A first shaft 207 is mounted on the output end of the first motor 206. A first connecting rod 208 is mounted on the first shaft 207. A second connecting rod 209 is rotatably mounted on the other end of the first connecting rod 208 via shafts. A second shaft 210 is rotatably mounted on the other end of the second connecting rod 209. The second shaft 210 is welded to the outer wall of the push plate 204.

[0016] When the valve core is conveyed onto the first conveyor plate 201, because the first conveyor plate 201 is inclined, the valve core will fall directly above the push plate 204 in the chute 203. By starting the first motor 206, the first motor 206 will drive the first connecting rod 208 on the first shaft 207 to change its angle. Because the second connecting rod 209 is connected to the push plate 204 through the second shaft 210, the first connecting rod 208 will provide the second connecting rod 209 with a change in position through the shaft connection. This enables the push plate 204, which is connected to the other end of the second connecting rod 209 through the second shaft 210, to move vertically back and forth inside the chute 203 stably. When the push plate 204 moves vertically upward, because the top of the push plate 204 is inclined, when the top of the push plate 204 is on the same straight line as the top of the second conveyor plate 202, the valve core is conveyed through the second conveyor plate 202 due to the influence of the inclined surface.

[0017] Example 3 Reference Figure 1-3 A valve core feeding machine includes: a transfer assembly 3; The transfer assembly 3 includes a U-shaped frame 301 welded to the other side of the outer wall of the second conveyor plate 202. Five sets of bearings are equidistantly arranged on the inner wall of the U-shaped frame 301. Each bearing in the U-shaped frame 301 is equipped with a belt roller 302. There are five sets of belt rollers 302. A conveyor belt 303 is sleeved on the outside of the five sets of belt rollers 302. The conveyor belt 303 is located inside the U-shaped frame 301. A second motor 304 is installed on the outer wall of the U-shaped frame 301. The output end of the second motor 304 is connected to one of the sets of belt rollers 302.

[0018] When the valve core on the second conveyor plate 202 falls onto the conveyor belt 303, the second motor 304 outside the U-shaped frame 301 is started. The second motor 304 will drive the belt roller 302 to rotate. Since the conveyor belt 303 is sleeved on the outside of the belt roller 302, the valve core can be moved to the next working area by the conveyor belt 303.

[0019] In this application, when multiple sets of valve cores are conveyed to the continuous conveying component 2 within the equipment frame 1, the continuous conveying component 2 can convey the multiple sets of valve cores quantitatively. When the continuous conveying component 2 conveys the quantitative valve cores to the transfer component 3, the transfer component 3 can move the quantitative valve cores to the next working area for processing.

[0020] When the valve core is conveyed onto the first conveyor plate 201, because the first conveyor plate 201 is inclined, the valve core will fall directly above the push plate 204 in the chute 203. By starting the first motor 206, the first motor 206 will drive the first connecting rod 208 on the first shaft 207 to change its angle. Because the second connecting rod 209 is connected to the push plate 204 through the second shaft 210, the first connecting rod 208 will provide the second connecting rod 209 with a position change through the shaft connection. This allows the push plate 204, which is connected to the other end of the second connecting rod 209 through the second shaft 210, to stably move vertically back and forth inside the chute 203. The push plate 204 can... Stable displacement is achieved through the surrounding rollers 205. When the push plate 204 moves vertically upward, because the top of the push plate 204 is inclined, when the top of the push plate 204 is on the same straight line as the top of the second conveyor plate 202, the valve core is conveyed through the second conveyor plate 202 due to the influence of the inclined surface. When the valve core on the second conveyor plate 202 falls onto the conveyor belt 303, the second motor 304 outside the U-shaped frame 301 is started. The second motor 304 will drive the belt roller 302 to rotate. Since the conveyor belt 303 is sleeved on the outside of the belt roller 302, the valve core can be moved to the next working area by the conveyor belt 303.

Claims

1. A valve core loading machine characterized by, include: Equipment frame (1), the top view of the equipment frame (1) is C-shaped; A continuous conveying assembly (2) is disposed inside the equipment frame (1); The transfer component (3) is disposed on the outer side of the equipment frame (1).

2. A valve trim loading machine as claimed in claim 1, wherein: The continuous conveying assembly (2) includes a first conveying plate (201) welded to the inner wall of the equipment frame (1) and a second conveying plate (202) welded to one side of the outer wall of the equipment frame (1).

3. A valve core loading machine according to claim 2, characterised in that: The No. 1 conveyor plate (201) and the No. 2 conveyor plate (202) are welded to the equipment frame (1) with the left side higher than the right side.

4. A valve core loading machine according to claim 2, characterized in that: The continuous conveying assembly (2) also includes a chute (203) formed on the equipment frame (1), the chute (203) being disposed between the first conveying plate (201) and the second conveying plate (202).

5. A valve core loading machine according to claim 4, characterised in that: The continuous conveying assembly (2) also includes a push plate (204) that is vertically slidably disposed in the chute (203). The top tilt angle of the push plate (204) is consistent with that of the first conveying plate (201). Rollers (205) are rotatably disposed around the outer wall of the push plate (204) via a shaft. The rollers (205) are attached to the outer wall of the equipment frame (1).

6. A valve core loading machine according to claim 5, characterised in that: The continuous conveying assembly (2) also includes a first motor (206) disposed on the inner wall of the equipment frame (1). The first motor (206) is disposed below the first conveying plate (201). A first shaft (207) is disposed on the output end of the first motor (206), and a first connecting rod (208) is disposed on the first shaft (207).

7. A valve core loading machine according to claim 6, characterised in that: The continuous conveying assembly (2) further includes a second link (209) rotatably mounted on the other end of the first link (208) via a shaft, and the other end of the second link (209) is rotatably mounted with a second shaft (210).

8. A valve core loading machine according to claim 7, characterised in that: The second shaft (210) is welded to the outer wall of the push plate (204).

9. The valve core loading machine of claim 1, wherein: The transfer assembly (3) includes a U-shaped frame (301) welded to the other side of the outer wall of the second conveyor plate (202). Five sets of bearings are equidistantly arranged on the inner wall of the U-shaped frame (301). Each bearing in the U-shaped frame (301) is equipped with a belt roller (302). The number of belt rollers (302) is five.

10. A valve core loading machine according to claim 9, characterised in that: The transfer assembly (3) also includes a conveyor belt (303) sleeved on the outside of the five sets of belt rollers (302). The conveyor belt (303) is set inside the U-shaped frame (301). A second motor (304) is set on the outer wall of the U-shaped frame (301). The output end of the second motor (304) is connected to one of the sets of belt rollers (302).

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