Raw material feeding equipment for alloy contact machining

Abstract

The invention discloses raw material feeding equipment for alloy contact machining, and relates to the field of feeding equipment, the raw material feeding equipment comprises a built-in reserved supporting frame, a guide meshing butt joint roller and a reserved conveying assembly, the outer side of the built-in reserved supporting frame is rotationally connected with the guide meshing butt joint roller, and the outer side of the guide meshing butt joint roller is in meshing butt joint with the reserved conveying assembly; the reserved conveying assembly is in butt joint with the end of the external driving roller. The inner side of the reserved conveying assembly is in butt joint with a built-in magnetic supporting frame, and a secondary supporting structure is arranged on the outer side of the built-in reserved supporting frame. According to the raw material feeding equipment for alloy contact machining, an abutting movable supporting piece drives a guiding movable piece to move upwards in a reciprocating mode along the inner side of a built-in reserved supporting frame through a reserved steel wire rope, a butt joint magnetic attraction piece at the upper end of the guiding movable piece attracts a built-in magnetic attraction piece, and therefore a reserved conveying assembly is pulled to sink inwards; and objects accumulated on the surface are regularly gathered, and the state that the two sides of the objects roll and fall off is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of feeding equipment, in particular to a raw material feeding equipment for alloy contact processing. Background Art

[0002] The contact is one of the key components of the switch. The main performance and life of the switch depend to a large extent on the quality of the contact material. The alloy contact needs to go through multiple steps during the processing, including the raw material feeding equipment during the alloy contact processing; For example, the patent with announcement number CN115009831B discloses a feeding device for silver contact processing equipment, which includes a seat body, on which a plurality of feeding slots for placing feeding rods are provided, the feeding slots are connected to corresponding feeding holes, the seat body is provided with a transmission component for transmitting the feeding rods in the feeding slots, the seat body is also provided with a feeding mechanism for feeding the feeding rods into the feeding slots, the feeding mechanism includes a feeding rack provided on the seat body and used for storing the feeding rods, and the feeding rack is provided with a control component for allowing the feeding rods to enter the corresponding feeding slots in sequence. It has the effect of facilitating the feeding rods to enter the feeding holes; Another example is a patent with publication number CN113716320A, which discloses a moving contact material distribution mechanism and a moving contact material loading device. The moving contact material distribution mechanism includes a support, a fixed cover plate, a feeding platform and a driving mechanism. The fixed cover plate is fixed to the upper part of the support, and a material transfer channel is formed between the fixed cover plate and the support. A notch is provided on the fixed cover plate at the end of the material transfer channel. A feeding platform is provided in the support at the notch. A receiving groove for receiving a moving contact is provided at the upper end of the feeding platform directly opposite to the material transfer channel. The feeding platform can be lifted and installed on the support, and is lifted and moved by the driving mechanism. The moving contact material distribution mechanism and the moving contact material loading device have a reasonable structure, can realize orderly feeding one by one, and have good practicality. For example, the patent with publication number CN105905537A discloses a pin distribution unit for a travel switch contact assembly machine, which includes a pin tray rack, a pin vibrating tray, a pin linear feeder, a mounting rack, a vibrator bracket, a vibrator and a distribution device. A pin vibrating tray is installed on the pin tray rack, and a pin linear feeder is provided at the discharge port of the pin vibrating tray. A mounting rack is provided on the right side of the pin tray rack, and a vibrator bracket is installed on the mounting rack, and a vibrator is installed on the vibrator bracket. The pin linear feeder is fixed on the vibrator, and the discharge port of the pin linear feeder faces the distribution device. It can replace manual automatic, efficient and neat displacement of the pins, saving labor. Most of the above-mentioned existing technologies have improved their overall structure. However, during the operation of the existing raw material feeding equipment for alloy contact processing, due to the irregular shape of the raw materials during the transmission process, they are easy to fall to the sides of the device during rapid movement, which requires the user's supervision and tedious observation and maintenance, resulting in certain usage limitations. Summary of the invention

[0003] The purpose of the present invention is to provide a raw material feeding device for alloy contact processing, so as to solve the problem raised in the above background technology that during the working process, due to the irregular shape of the raw materials during the transmission process, they are easy to move and fall to both sides of the device during rapid movement, which requires the user's supervision and handling, and tedious observation and maintenance.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a raw material feeding device for alloy contact processing, comprising a built-in reserved support frame, a guide meshing butt joint roller and a reserved transmission component, the outer side of the built-in reserved support frame is rotatably connected with the guide meshing butt joint roller, and the outer side of the guide meshing butt joint roller is meshingly butt jointed with the reserved transmission component, and the reserved transmission component is butt jointed with the end of the external drive roller; The inner side of the reserved transmission component is docked with a built-in magnetic condition, the inner middle end of the built-in reserved support frame is nested with a guide movable part, and the upper end of the guide movable part is fixedly connected with a docking magnetic suction part, and the docking magnetic suction part and the built-in magnetic condition correspond to each other in position, the lower end of the guide movable part is fixedly connected with a return spring, and the return spring and the inner side of the built-in reserved support frame are docked with each other, the inner end of the built-in reserved support frame is provided with an auxiliary movable structure, and the inner support state of the reserved transmission component is adaptively adjusted by the auxiliary movable structure; the outer side of the built-in reserved support frame is provided with a secondary support structure, and the outer support range of the reserved transmission component is controlled by the secondary support structure.

[0005] Furthermore, the auxiliary movable structure is provided with a reserved eccentric wheel assembly, and the reserved eccentric wheel assembly is docked at the axial end of the guide meshing docking roller, and a resisting movable support piece is nested and installed on the inner side of the built-in reserved support frame, and the lower end of the resisting movable support piece corresponds to the outer position of the reserved eccentric wheel assembly.

[0006] Furthermore, a reserved steel wire rope is butt-jointed with the upper end of the resisting movable support member, and the reserved steel wire rope passes through the inner side of the built-in reserved support frame, and the end of the reserved steel wire rope is butt-jointed with the outer side of the guiding movable member.

[0007] Furthermore, the reserved eccentric wheel assembly is driven by the guide meshing docking roller to form a rotating structure along the outer side of the built-in reserved support frame, and when the outer end of the reserved eccentric wheel assembly contacts the resisting movable support, it pushes it to move downward.

[0008] Furthermore, the resisting movable support member drives the guiding movable member through the reserved steel wire rope to form a traction structure, and the guiding movable member forms an elastic structure along the inner side of the built-in reserved support frame through a reset spring, and the docking magnetic suction member at the upper end of the guiding movable member is arranged to attract the built-in magnetic condition.

[0009] Furthermore, the secondary support structure is provided with a built-in first liquid bag, and the built-in first liquid bag is docked on the inner side of the built-in reserved support frame, and the built-in first liquid bag is docked with the outer side of the resisting movable support member, and the outer side of the built-in first liquid bag is docked with a supply hose, and the supply hose passes through the inner side of the built-in reserved support frame.

[0010] Furthermore, a vertical guide groove is provided on the inner side of the built-in reserved support frame, and a built-in second liquid bag is bonded and connected to the inner side of the vertical guide groove, and the built-in second liquid bag is connected to the end of the supply hose; The upper end of the built-in second liquid capsule is butted with a vertical abutment piece, and the vertical abutment piece is nested and butted with the inner side of the vertical guide groove, and the outer side of the vertical abutment piece is rotatably connected with a guide butt roller.

[0011] Furthermore, when the resisting movable support is forced to move downward along the inner side of the built-in reserved support frame, it will apply pressure to the built-in first liquid bag in contact, and the built-in first liquid bag supplies the inside of the built-in second liquid bag through the supply hose.

[0012] Furthermore, during the process of the built-in second liquid bag being pressurized and expanded, the vertical abutment and docking piece is pushed to move upward along the inner side of the built-in reserved support frame, and the vertical abutment and docking piece cooperates with the outer guide docking roller to abut and support on both sides of the contacting reserved transmission component.

[0013] Compared with the prior art, the present invention has the following beneficial effects: The raw material feeding device for alloy contact processing is provided with a built-in magnetic condition. The built-in magnetic condition inside the reserved transmission component can adsorb the raw materials stored and transmitted on the surface of the reserved transmission component as the reserved transmission component moves, thereby preventing the raw materials from being easily moved. Even if the raw materials are irregular in shape during the transmission process, they will not fall to the two sides of the device during the rapid movement process, and the user does not need to supervise and handle them, thereby improving the practicality of the device. Furthermore, an auxiliary movable structure is provided, through which the inner side support state of the reserved conveying component is adaptively adjusted. As the guide meshing docking roller rotates by contacting the transmission force of the reserved conveying component or the driving force of its preset motor, the reserved eccentric wheel assembly docked therewith will rotate along the built-in reserved support frame. When the outer end of the reserved eccentric wheel assembly contacts the resisting movable support piece, it is pushed to move downward, so that the resisting movable support piece drives the guide movable piece to reciprocate upward along the inner side of the built-in reserved support frame through the reserved steel wire rope, so that the docking magnetic suction piece at the upper end of the guide movable piece is attracted to the built-in magnetic condition, thereby pulling the reserved conveying component inwardly concave, and regularly gathering the objects accumulated on the surface to prevent them from rolling and falling on both sides. Furthermore, a secondary support structure is provided, through which the outer support range of the reserved transmission component is controlled, and in the process that the force of the resisting movable support member contacts the reserved eccentric wheel assembly and moves downward along the inner side of the built-in reserved support frame, it will subsequently exert pressure on the built-in first liquid bag in contact, allowing it to supply to the interior of the built-in second liquid bag through the supply hose, thereby the pressurized expansion pushes the vertical resisting docking member to move upward along both sides of the built-in reserved support frame, allowing the vertical resisting docking member to cooperate with the outer guide docking roller to resist and support the two sides of the contacting reserved transmission component upward, and cooperate with the concave state of its inner end to stably gather and transmit the contacted objects inward, and carry out the feeding processing work evenly and efficiently. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention; Figure 2 It is a schematic diagram of a partial three-dimensional structure of the present invention; Figure 3 A schematic diagram of the three-dimensional structure of a transmission component is reserved for the present invention; Figure 4 For the present invention Figure 3 A schematic diagram of the partially enlarged structure; Figure 5 This is a schematic diagram of a half-cut three-dimensional structure of a built-in reserved support frame of the present invention; Figure 6 It is a schematic diagram of the three-dimensional structure of the vertical abutment docking piece of the present invention; Figure 7 This is a schematic diagram of the three-dimensional structure of the docking magnetic attraction component of the present invention; Figure 8 It is a half-cut three-dimensional structural schematic diagram of the guide movable part of the present invention; Fig. 9 It is a schematic diagram of the three-dimensional structure of the interfering movable support member of the present invention.

[0015] In the figure: 1. Built-in reserved support frame; 2. Guide meshing docking roller; 3. Reserved transmission component; 4. Built-in magnetic condition; 5. Guide movable part; 6. Reset spring; 7. Docking magnetic suction part; 8. Reserved eccentric wheel assembly; 9. Resistance movable support part; 10. Reserved wire rope; 11. Built-in first liquid bag; 12. Supply hose; 13. Built-in second liquid bag; 14. Vertical guide groove; 15. Vertical resistance docking part; 16. Guide docking roller. DETAILED DESCRIPTION

[0016] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0017] Example 1: Please refer to Figure 1-9 The present invention provides the following technical solutions: a raw material feeding device for alloy contact processing, comprising a built-in reserved support frame 1, a guide meshing docking roller 2, a reserved transmission component 3, a built-in magnetic condition 4, a guide movable part 5, a reset spring 6, a docking magnetic suction part 7, a reserved eccentric wheel component 8, a resisting movable support part 9, a reserved steel wire rope 10, a built-in first liquid capsule 11, a supply hose 12, a built-in second liquid capsule 13, a vertical guide groove 14, a vertical resisting docking part 15, and a guide docking roller 16; The outer side of the built-in reserved support frame 1 is rotatably connected with a guide meshing docking roller 2, and the outer side of the guide meshing docking roller 2 is meshingly docked with a reserved transmission component 3, and the reserved transmission component 3 is docked with the end of the external driving roller; The inner side of the reserved transmission component 3 is docked with a built-in magnetic condition 4, the inner middle end of the built-in reserved support frame 1 is nested with a guide movable part 5, and the upper end of the guide movable part 5 is fixedly connected with a docking magnetic suction part 7, and the docking magnetic suction part 7 and the built-in magnetic condition 4 correspond to each other in position, the lower end of the guide movable part 5 is fixedly connected with a return spring 6, and the return spring 6 and the inner side of the built-in reserved support frame 1 are docked with each other, and the inner end of the built-in reserved support frame 1 is provided with an auxiliary movable structure, and the inner support state of the reserved transmission component 3 is adaptively adjusted through the auxiliary movable structure; The auxiliary movable structure is provided with a reserved eccentric wheel assembly 8, and the reserved eccentric wheel assembly 8 is docked at the axial end of the guide meshing docking roller 2, and a resisting movable support 9 is nested and installed inside the built-in reserved support frame 1, and the lower end of the resisting movable support 9 corresponds to the outer position of the reserved eccentric wheel assembly 8. The upper end of the resisting movable support 9 is docked with a reserved steel wire rope 10, and the reserved steel wire rope 10 passes through the inner side of the built-in reserved support frame 1, and the end of the reserved steel wire rope 10 is docked with the outer side of the guide movable member 5. The reserved eccentric wheel assembly 8 is driven by the guide meshing docking roller 2 to form a rotating structure along the outer side of the built-in reserved support frame 1, and the outer end of the reserved eccentric wheel assembly 8 contacts the resisting movable support member 9 and pushes it to move downward; the resisting movable support member 9 drives the guide movable member 5 to form a traction structure through the reserved steel wire rope 10, and the guide movable member 5 forms an elastic structure along the inner side of the built-in reserved support frame 1 through the reset spring 6, and the docking magnetic suction member 7 at the upper end of the guide movable member 5 is attracted to the built-in magnetic condition 4, and the built-in magnetic condition 4 is provided. The built-in magnetic condition 4 on the inner side of the reserved conveying component 3 will absorb the raw materials stored and transmitted on its surface as the reserved conveying component 3 moves, thereby preventing it from easily moving. Even if the raw materials are irregular in shape during the transmission process, they will not move during the rapid movement. It will move and fall to both sides of the device without the need for user supervision and processing. The inner support state of the reserved transmission component 3 is adaptively adjusted through the auxiliary movable structure. As the guide meshing docking roller 2 rotates by contacting the transmission force of the reserved transmission component 3 or the driving force of its preset motor, the reserved eccentric wheel assembly 8 docked therewith will rotate along the built-in reserved support frame 1. When the outer end of the reserved eccentric wheel assembly 8 contacts the resisting movable support member 9, it is pushed to move downward, so that the resisting movable support member 9 drives the guide movable member 5 to move back and forth upward along the inner side of the built-in reserved support frame 1 through the reserved steel wire rope 10, and the docking magnetic suction member 7 at the upper end of the guide movable member 5 is attracted to the built-in magnetic condition 4, thereby pulling the reserved transmission component 3 inwardly concave, and regularly gathering the objects accumulated on the surface to prevent them from rolling and falling on both sides.

[0018] Embodiment 2: Based on Embodiment 1, a secondary support structure is also disclosed, and its specific structure is as follows: A secondary support structure is arranged on the outer side of the built-in reserved support frame 1, and the outer support range of the reserved transmission component 3 is controlled by the secondary support structure.

[0019] The secondary support structure is provided with a built-in first liquid capsule 11, and the built-in first liquid capsule 11 is docked on the inner side of the built-in reserved support frame 1, and the built-in first liquid capsule 11 is docked with the outer side of the resisting movable support member 9, and the outer side of the built-in first liquid capsule 11 is docked with a supply hose 12, and the supply hose 12 runs along the inner side of the built-in reserved support frame 1. A vertical guide groove 14 is provided on the inner side of the built-in reserved support frame 1, and a built-in second liquid capsule 13 is bonded and connected to the inner side of the vertical guide groove 14, and the built-in second liquid capsule 13 and the end of the supply hose 12 are connected to each other; the upper end of the built-in second liquid capsule 13 is docked with a vertical resisting docking member 15, and the vertical resisting docking member 15 is nested and docked with the inner side of the vertical guide groove 14, and the outer side of the vertical resisting docking member 15 is rotatably connected with a guide docking roller 16. When the resisting movable support member 9 is forced to move downward along the inner side of the built-in reserved support frame 1 , it will apply pressure to the built-in first liquid capsule 11 in contact therewith, and the built-in first liquid capsule 11 supplies liquid to the inside of the built-in second liquid capsule 13 through the supply hose 12 .

[0020] During the process of the built-in second liquid capsule 13 being pressurized and expanded, the vertical contact docking piece 15 is pushed to move upward along the inner side of the built-in reserved support frame 1, and the vertical contact docking piece 15 cooperates with the outer guide docking roller 16 to support the two sides of the contacted reserved transmission component 3; in the process of the contact movable support member 9 contacting the force of the reserved eccentric wheel assembly 8 and moving downward along the inner side of the built-in reserved support frame 1, it will also apply pressure to the contacted built-in first liquid capsule 11, allowing it to supply to the interior of the built-in second liquid capsule 13 through the supply hose 12, thereby the pressurized expansion pushes the vertical contact docking piece 15 to move upward along the two sides of the built-in reserved support frame 1, allowing the vertical contact docking piece 15 to cooperate with the outer guide docking roller 16 to support the two sides of the contacted reserved transmission component 3 upward, and cooperate with the concave state of its inner end to stably gather and transmit the contacted objects inward.

[0021] In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "connected" and "connection" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0022] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A raw material feeding device for alloy contact processing, comprising a built-in reserved support frame (1), a guide meshing butt joint roller (2) and a reserved transmission component (3), wherein the outer side of the built-in reserved support frame (1) is rotatably connected to the guide meshing butt joint roller (2), and the outer side of the guide meshing butt joint roller (2) is meshingly butt jointed with the reserved transmission component (3), and the reserved transmission component (3) and the end of the external drive roller are butt jointed with each other; Features: The inner side of the reserved transmission component (3) is docked with a built-in magnetic condition (4); the inner middle end of the built-in reserved support frame (1) is nested with a guide movable part (5); the upper end of the guide movable part (5) is fixedly connected with a docking magnetic suction part (7); the docking magnetic suction part (7) and the built-in magnetic condition (4) are positioned correspondingly to each other; the lower end of the guide movable part (5) is fixedly connected with a return spring (6); the return spring (6) and the inner side of the built-in reserved support frame (1) are docked with each other; the inner end of the built-in reserved support frame (1) is provided with an auxiliary movable structure, and the inner side support state of the reserved transmission component (3) is adaptively adjusted through the auxiliary movable structure; A secondary support structure is provided on the outer side of the built-in reserved support frame (1), and the outer support range of the reserved transmission component (3) is controlled by the secondary support structure.

2. The raw material feeding equipment for alloy contact processing according to claim 1 is characterized in that: The auxiliary movable structure is provided with a reserved eccentric wheel assembly (8), and the reserved eccentric wheel assembly (8) is docked at the shaft end of the guide meshing docking roller (2), and a resisting movable support member (9) is nested and installed inside the built-in reserved support frame (1), and the lower end of the resisting movable support member (9) corresponds to the outer position of the reserved eccentric wheel assembly (8).

3. The raw material feeding equipment for alloy contact processing according to claim 2 is characterized in that: The upper end of the resisting movable support member (9) is butted against a reserved steel wire rope (10), and the reserved steel wire rope (10) passes through the inner side of the built-in reserved support frame (1), and the end of the reserved steel wire rope (10) is butted against the outer side of the guiding movable member (5).

4. The raw material feeding equipment for alloy contact processing according to claim 3 is characterized in that: The reserved eccentric wheel assembly (8) is driven by the guide meshing butt roller (2) to form a rotating structure along the outer side of the built-in reserved support frame (1), and when the outer end of the reserved eccentric wheel assembly (8) contacts the resisting movable support member (9), it pushes the movable support member (9) to move downward.

5. The raw material feeding equipment for alloy contact processing according to claim 4 is characterized in that: The resisting movable support member (9) drives the guiding movable member (5) via the reserved steel wire rope (10) to form a traction structure, and the guiding movable member (5) forms an elastic structure along the inner side of the built-in reserved support frame (1) via the return spring (6), and the docking magnetic attraction member (7) at the upper end of the guiding movable member (5) is arranged to attract the built-in magnetic condition (4).

6. The raw material feeding equipment for alloy contact processing according to claim 3 is characterized in that: The secondary support structure is provided with a built-in first liquid capsule (11), and the built-in first liquid capsule (11) is docked on the inner side of the built-in reserved support frame (1), and the built-in first liquid capsule (11) and the outer side of the resisting movable support member (9) are docked with each other, and the outer side of the built-in first liquid capsule (11) is docked with a supply hose (12), and the supply hose (12) passes through the inner side of the built-in reserved support frame (1).

7. The raw material feeding equipment for alloy contact processing according to claim 6, characterized in that: A vertical guide groove (14) is provided on the inner side of the built-in reserved support frame (1), and a built-in second liquid capsule (13) is bonded and connected to the inner side of the vertical guide groove (14), and the built-in second liquid capsule (13) is connected to the end of the supply hose (12); The upper end of the built-in second liquid capsule (13) is butt-jointed with a vertical abutment piece (15), and the vertical abutment piece (15) is nested and butt-jointed with the inner side of the vertical guide groove (14), and the outer side of the vertical abutment piece (15) is rotatably connected to a guide docking roller (16).

8. The raw material feeding equipment for alloy contact processing according to claim 7, characterized in that: When the resisting movable support member (9) is forced to move downward along the inner side of the built-in reserved support frame (1), it will apply pressure to the built-in first liquid capsule (11) in contact therewith, and the built-in first liquid capsule (11) supplies liquid to the inside of the built-in second liquid capsule (13) through the supply hose (12).

9. The raw material feeding equipment for alloy contact processing according to claim 8, characterized in that: During the process of the built-in second liquid capsule (13) expanding under pressure, the vertical abutment docking piece (15) is pushed to move upward along the inner side of the built-in reserved support frame (1), and the vertical abutment docking piece (15) cooperates with the outer guide docking rollers (16) to abut and support the two sides of the reserved transmission component (3) in contact.

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