Sensor assembly loading device

Abstract

This invention relates to the field of sensor manufacturing equipment, and more particularly to a sensor assembly and feeding device, comprising a first vibrating feeding plate, a second vibrating feeding plate, a first feeding rail, and a second feeding rail. The first feeding rail is located in front of the discharge end of the first vibrating feeding plate, and the second feeding rail is located in front of the discharge end of the second vibrating feeding plate. The height of the first feeding rail is higher than that of the second feeding rail. The top of the front end of the first feeding rail is provided with a connecting piece flush with its top surface. The first vibrating feeding plate feeds a diaphragm, and the second vibrating feeding plate feeds a housing. Then, a first translational pusher pushes the diaphragm into the housing to form an assembled sensor semi-finished product. The second translational pusher pushes the sensor semi-finished product onto a linear feeding plate, thereby realizing the assembly and feeding of the sensor semi-finished product, improving the degree of automation, achieving high assembly accuracy and high yield, and fast assembly speed, thus improving production efficiency.

Description

Technical Field

[0001] This invention relates to the field of sensor manufacturing equipment, and more particularly to a sensor assembly and feeding device. Background Technology

[0002] Electronic cigarettes typically contain airflow sensors. The production process of airflow sensors requires feeding the outer shell and diaphragm separately, and then placing the diaphragm into the outer shell for assembly. However, due to the small size of the diaphragm and outer shell, the current assembly equipment has a low degree of automation and poor control precision, making it difficult to place the diaphragm into the outer shell. This easily results in a large number of defective products. Moreover, the assembly steps are complex, leading to slow assembly speed and reduced production efficiency. Summary of the Invention

[0003] In order to overcome the shortcomings of the prior art, the purpose of this invention is to provide a sensor assembly and feeding device with high assembly accuracy, high yield, fast assembly speed and improved production efficiency.

[0004] The technical solution adopted in this invention is as follows:

[0005] A sensor assembly feeding device includes a first vibrating feeding plate, a second vibrating feeding plate, a first feeding rail, and a second feeding rail. The first feeding rail is located in front of the discharge end of the first vibrating feeding plate, and the second feeding rail is located in front of the discharge end of the second vibrating feeding plate. The height of the first feeding rail is higher than that of the second feeding rail. The top of the front end of the first feeding rail is provided with a connecting piece flush with its top surface. The connecting piece is located on one side above the second feeding rail, and a first translational push rod is provided on its upper side. A second translational push rod is located in front of the first translational push rod. The second translational push rod is located on the upper side of the second feeding rail, and a stop block is provided in front of its upper side. A linear feeding plate is located on the side of the second feeding rail away from the first feeding rail. The linear feeding plate has an opening located on one side of the second translational push rod.

[0006] Preferably, the first translation push rod is connected to a first driving member that drives it to move, and the second translation push rod is connected to a second driving member that drives it to move.

[0007] Preferably, the first driving component includes a first cylinder, a first slider, and a first slide rail. A first translational push rod is mounted on the top of the first slider. The output end of the first cylinder is connected to one side of the first slider. The bottom of the first slider is slidably connected to the first slide rail. The second driving component includes a second cylinder, a second slider, and a second slide rail. A second translational push rod is mounted on the top of the second slider. The output end of the second cylinder is connected to one side of the second slider. The bottom of the second slider is slidably connected to the second slide rail.

[0008] Preferably, the system also includes a base plate and a side plate, with the side plate vertically connected to the top of the base plate. The first cylinder and the second cylinder are both fixed to the side plate, and the first slide rail and the second slide rail are both fixed to the upper side of the base plate.

[0009] Preferably, a first linear vibrating feeder is connected to the bottom of the first feeding rail.

[0010] Preferably, a second linear vibrating feeder is connected to the bottom of the second feeding rail.

[0011] Preferably, the top two sides of the first feeding rail are provided with first limiting protrusions.

[0012] Preferably, the second feeding rail is arranged in a "Y" shape, and the top two sides are symmetrically provided with second limiting protrusions. A limiting protrusion is provided between the two second limiting protrusions. The limiting protrusion is arranged in a "V" shape. The first vibrating feeding plate, the first feeding rail, the connecting plate, the first translational push rod, the second translational push rod, the baffle block and the opening are all symmetrically provided in twos.

[0013] Preferably, a third feeding rail is provided between the second feeding rail and the discharge end of the second vibrating feeding plate. The top two sides of the third feeding rail are provided with third limiting protrusions, and the bottom of the third feeding rail is connected to a third linear vibrating feeder.

[0014] Preferably, a fourth linear vibrating feeder is connected to the bottom of the linear feed tray.

[0015] The beneficial effects of this invention are as follows:

[0016] The sensor assembly and feeding device feeds the diaphragm through a first vibrating feeding plate and the outer shell through a second vibrating feeding plate. Then, the diaphragm is pushed into the outer shell by a first translational pusher to form an assembled sensor semi-finished product. The sensor semi-finished product is then pushed onto a linear feeding plate by a second translational pusher, realizing the assembly and feeding of the sensor semi-finished product, improving the degree of automation, high assembly accuracy and high yield, fast assembly speed, and thus improving production efficiency. Attached Figure Description

[0017] Figure 1 This is a first three-dimensional schematic diagram of the present invention.

[0018] Figure 2 This is a second perspective view of the present invention.

[0019] Figure 3 This is a third perspective view of the present invention.

[0020] Figure 4 This is an exploded view of the present invention.

[0021] Figure 5 for Figure 4Enlarged diagram of point A in the middle.

[0022] Figure 6 for Figure 4 Enlarged diagram of point B in the middle.

[0023] Figure 7 This is a partial structural schematic diagram of the present invention.

[0024] In the diagram: 1. First vibrating feeder; 2. Second vibrating feeder; 3. First feeding rail; 4. Second feeding rail; 5. Connecting plate; 6. First translating push rod; 7. Second translating push rod; 8. Stop block; 9. Linear feeder; 10. Opening; 11. First driving component; 1101. First cylinder; 1102. First slider; 1103. First slide rail; 12. Second driving component; 1201. Second cylinder; 1202. 1203. Second slide rail; 13. Base plate; 14. Side plate; 15. First linear vibrating feeder; 16. Second linear vibrating feeder; 17. First limiting protrusion; 18. Second limiting protrusion; 19. Limiting protrusion; 20. Third feeding rail; 21. Third limiting protrusion; 22. Third linear vibrating feeder; 23. Fourth linear vibrating feeder; 24. Diaphragm; 25. Housing; 26. Sensor semi-finished product. Detailed Implementation

[0025] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0026] Please see Figures 1-7 The present invention provides a technical solution: a sensor assembly feeding device, including a first vibrating feeding plate 1, a second vibrating feeding plate 2, a first feeding rail 3 and a second feeding rail 4. The first feeding rail 3 is disposed in front of the discharge end of the first vibrating feeding plate 1, and the second feeding rail 4 is disposed in front of the discharge end of the second vibrating feeding plate 2. The height of the first feeding rail 3 is higher than that of the second feeding rail 4. The top of the front end of the first feeding rail 3 is provided with a connecting piece 5 that is flush with its top surface. The connecting piece 5 is disposed on one side above the second feeding rail 4, and a first translational push rod 6 is disposed on its upper side. A second translational push rod 7 is disposed in front of the first translational push rod 6. The second translational push rod 7 is disposed on the upper side of the second feeding rail 4, and a stop block 8 is disposed in front of its upper side. A straight feeding plate 9 is disposed on the side of the second feeding rail 4 away from the first feeding rail 3. An opening 10 is disposed on the straight feeding plate 9, and the opening 10 is disposed on one side of the second translational push rod 7.

[0027] The diaphragm 24 is fed through the first vibrating feeding plate 1, and the outer shell 25 is fed through the second vibrating feeding plate 2. The diaphragm 24 enters the first feeding rail 3 from the first vibrating feeding plate 1 for conveying, and the outer shell 25 enters the second feeding rail 4 from the second vibrating feeding plate 2 for conveying.

[0028] When the diaphragm 24 reaches the front end of the first feeding rail 3, the second translational push rod 7 blocks the diaphragm 24, so that the diaphragm 24 is placed on the connecting plate 5. Then, the first translational push rod 6 pushes the diaphragm 24 from the connecting plate 5 into the housing 25 on the second feeding rail 4 to form the assembled sensor semi-finished product 26.

[0029] Then, by moving and retracting the second translational push rod 7, the sensor semi-finished product 26 is moved forward a certain distance. Then, the stop block 8 blocks the sensor semi-finished product 26, placing it on the second feeding rail 4 between the second translational push rod 7 and the linear feeding plate 9. Finally, the second translational push rod 7 pushes the sensor semi-finished product 26 through the opening 10 onto the linear feeding plate 9, realizing the assembly and feeding of the sensor semi-finished product 26, improving the degree of automation, high assembly accuracy and high yield, fast assembly speed, and thus improving production efficiency.

[0030] To facilitate increased automation, in this embodiment, preferably, the first translational push rod 6 is connected to a first driving member 11 that drives it to move, and the second translational push rod 7 is connected to a second driving member 12 that drives it to move. The purpose is to drive the first translational push rod 6 to move horizontally through the first driving member 11, thereby facilitating the pushing of the diaphragm 24 from the connecting piece 5 into the housing 25, and to drive the second translational push rod 7 to move horizontally through the second driving member 12, thereby facilitating the pushing of the sensor semi-finished product 26 through the opening 10 onto the linear feed tray 9, thus improving the level of automation.

[0031] To further improve the level of automation, in this embodiment, preferably, the first driving component 11 includes a first cylinder 1101, a first slider 1102, and a first slide rail 1103. The first translational push rod 6 is installed on the top of the first slider 1102, the output end of the first cylinder 1101 is connected to one side of the first slider 1102, and the bottom of the first slider 1102 is slidably connected to the first slide rail 1103. The second driving component 12 includes a second cylinder 1201, a second slider 1202, and a second slide rail 1203. The second translational push rod 7 is installed on the top of the second slider 1202, the output end of the second cylinder 1201 is connected to one side of the second slider 1202, and the bottom of the second slider 1202 is slidably connected to the second slide rail 1203.

[0032] The purpose is to drive the first slider 1102 to slide along the first slide rail 1103 via the first cylinder 1101, thereby driving the first translational push rod 6 to move horizontally, so as to push the diaphragm 24 from the connecting piece 5 into the housing 25. The second slider 1202 is driven to slide along the second slide rail 1203 via the second cylinder 1201, thereby driving the second translational push rod 7 to move horizontally, so as to push the sensor semi-finished product 26 through the opening 10 onto the linear feed tray 9, thereby further improving the degree of automation.

[0033] To improve structural stability, this embodiment preferably includes a base plate 13 and a side plate 14. The side plate 14 is vertically connected to the top of the base plate 13. The first cylinder 1101 and the second cylinder 1201 are both fixed to the side plate 14. The first slide rail 1103 and the second slide rail 1203 are both fixed to the upper side of the base plate 13. The purpose is to improve structural stability by fixing the first cylinder 1101 and the second cylinder 1201 to the side plate 14 and fixing the first slide rail 1103 and the second slide rail 1203 to the upper side of the base plate 13.

[0034] In order to facilitate the increase of the conveying speed of the diaphragm 24, in this embodiment, preferably, the bottom of the first feeding rail 3 is connected to a first linear vibrating feeder 15. The purpose is to drive the first feeding rail 3 to vibrate through the first linear vibrating feeder 15, so that the diaphragm 24 moves forward in a straight line on the first feeding rail 3, thereby increasing the conveying speed of the diaphragm 24 and thus improving production efficiency.

[0035] In order to facilitate increasing the conveying speed of the outer casing 25, in this embodiment, preferably, a second linear vibrating feeder 16 is connected to the bottom of the second feeding rail 4. The purpose is to drive the second feeding rail 4 to vibrate through the second linear vibrating feeder 16, so that the outer casing 25 moves forward in a straight line on the second feeding rail 4, thereby increasing the conveying speed of the outer casing 25 and thus improving production efficiency.

[0036] In order to prevent the diaphragm 24 from falling off the first feeding rail 3, in this embodiment, preferably, the top two sides of the first feeding rail 3 are provided with first limiting protrusions 17. The purpose is to limit the diaphragm 24 by the first limiting protrusions 17, prevent the diaphragm 24 from falling off the first feeding rail 3, ensure that the diaphragm 24 is conveyed in a straight line, and improve production reliability.

[0037] To facilitate improved production efficiency, in this embodiment, preferably, the second feeding rail 4 is arranged in a "Y" shape, and the top two sides are symmetrically provided with second limiting protrusions 18. A limiting protrusion 19 is provided between the two second limiting protrusions 18. The limiting protrusion 19 is arranged in a "V" shape. The first vibrating feeding plate 1, the first feeding rail 3, the connecting plate 5, the first translational pushing rod 6, the second translational pushing rod 7, the baffle block 8, and the opening 10 are all symmetrically provided in twos.

[0038] The purpose is to form two conveying paths for the diaphragm 24 by symmetrically arranging two of the first vibrating feeding plate 1, the first feeding rail 3, the connecting plate 5, the first translational push rod 6, the second translational push rod 7, the stop block 8, and the opening 10. The second feeding rail 4 is arranged in a "Y" shape, and the top of the second feeding rail 4 is provided with a limiting protrusion 19. The limiting protrusion 19, which is arranged in a "V" shape, divides the multiple shells 25 into two conveying paths for conveying. This, in conjunction with the two conveying paths of the diaphragm 24, achieves the effect of dual-station assembly, thereby improving production efficiency. The second limiting protrusion 18 limits the shells 25 to prevent them from falling off the second feeding rail 4, thereby improving production reliability.

[0039] To facilitate extending the conveying distance of the outer casing 25, in this embodiment, preferably, a third feeding rail 20 is provided between the second feeding rail 4 and the discharge end of the second vibrating feeding plate 2. The top two sides of the third feeding rail 20 are provided with third limiting protrusions 21, and the bottom of the third feeding rail 20 is connected to a third linear vibrating feeder 22. The purpose is to extend the conveying distance of the outer casing 25 by setting the third feeding rail 20, and to drive the third feeding rail 20 to vibrate by the third linear vibrating feeder 22, so that the outer casing 25 moves forward in a straight line on the third feeding rail 20, thereby increasing the conveying speed of the outer casing 25 and thus improving production efficiency. The third limiting protrusions 21 limit the outer casing 25 to prevent it from falling off the third feeding rail 20, ensuring that the outer casing 25 is conveyed in a straight line and improving production reliability.

[0040] In order to facilitate the increase of the conveying speed of the sensor semi-finished product 26, in this embodiment, preferably, a fourth linear vibrating feeder 23 is connected to the bottom of the linear feeder 9. The purpose is to drive the linear feeder 9 to vibrate through the fourth linear vibrating feeder 23, so that the sensor semi-finished product 26 moves forward in a straight line on the linear feeder 9, thereby increasing the conveying speed of the sensor semi-finished product 26 and thus improving production efficiency.

[0041] The working principle and usage process of this invention are as follows: The diaphragm 24 is vibrated and discharged by the first vibrating feeding plate 1, so that the diaphragm 24 enters the first feeding rail 3 from the first vibrating feeding plate 1. The first linear vibrating feeder 15 drives the first feeding rail 3 to vibrate, so that the diaphragm 24 moves forward linearly on the first feeding rail 3. The outer shell 25 is vibrated and discharged by the second vibrating feeding plate 2, so that the outer shell 25 enters the third feeding rail 20 from the second vibrating feeding plate 2. The third linear vibrating feeder 22 drives the third feeding rail 20 to vibrate, so that the outer shell 25 moves forward linearly on the third feeding rail 20 and enters the second feeding rail 4. Then, the second linear vibrating feeder 16 drives the second feeding rail 4 to vibrate, so that the outer shell 25 moves forward linearly on the second feeding rail 4.

[0042] The multiple outer shells 25 are divided into two conveying paths by the limiting protrusions 19 arranged in a "V" shape, and the two diaphragm 24 conveying paths are used to achieve the effect of dual-station assembly, thereby improving production efficiency.

[0043] When the diaphragm 24 reaches the front end of the first feeding rail 3, the second translational push rod 7 blocks the diaphragm 24, so that the diaphragm 24 is placed on the connecting plate 5. Then, the first cylinder 1101 drives the first slider 1102 to slide along the first slide rail 1103, which drives the first translational push rod 6 to move horizontally. Then, the first translational push rod 6 pushes the diaphragm 24 from the connecting plate 5 into the housing 25 on the second feeding rail 4, forming the assembled sensor semi-finished product 26.

[0044] Then, the second cylinder 1201 drives the second translational push rod 7 to move and retract, causing the sensor semi-finished product 26 to move forward a certain distance. The stop block 8 then blocks the sensor semi-finished product 26, placing it on the second feeding rail 4 between the second translational push rod 7 and the linear feeding disc 9. Next, the second cylinder 1201 drives the second slider 1202 to slide along the second slide rail 1203, causing the second translational push rod 7 to move horizontally. The second translational push rod 7 then pushes the sensor semi-finished product 26 through the opening 10 onto the linear feeding disc 9, achieving the assembly and feeding of the sensor semi-finished product 26. Finally, the fourth linear vibrating feeder 23 drives the linear feeding disc 9 to vibrate, causing the sensor semi-finished product 26 to move linearly forward on the linear feeding disc 9, increasing the conveying speed of the sensor semi-finished product 26, thereby improving production efficiency, automation, assembly accuracy, and yield. The assembly speed is fast, further enhancing production efficiency.

[0045] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A sensor assembly and feeding device, characterized in that: The device includes a first vibrating feeding plate (1), a second vibrating feeding plate (2), a first feeding rail (3), and a second feeding rail (4). The first feeding rail (3) is located on the front side of the discharge end of the first vibrating feeding plate (1), and the second feeding rail (4) is located on the front side of the discharge end of the second vibrating feeding plate (2). The height of the first feeding rail (3) is higher than that of the second feeding rail (4). The top of the front end of the first feeding rail (3) is provided with a connecting piece (5) that is flush with its top surface. The connecting piece (5) is located on one side above the second feeding rail (4), and a first translational push rod (6) is provided on its upper side. A second translational push rod (7) is provided on the front side of the first translational push rod (6). The second translational push rod (7) is located on the front side of the second feeding plate (2). On the upper side of the feed rail (4), and on its front side, there is a stop block (8). On the side of the second feed rail (4) away from the first feed rail (3), there is a linear feed plate (9). The linear feed plate (9) has an opening (10). The opening (10) is located on one side of the second translation push rod (7). The first translation push rod (6) is connected to a first driving member (11) that drives it to move. The second translation push rod (7) is connected to a second driving member (12) that drives it to move. The first driving member (11) includes a first cylinder (1101), a first slider (1102), and a first slide rail (1103). The first translation push rod (6) is installed on the top of the first slider (1102). The output end of (1101) is connected to one side of the first slider (1102), the bottom of the first slider (1102) is slidably connected to the first slide rail (1103), the second driving member (12) includes a second cylinder (1201), a second slider (1202) and a second slide rail (1203), the second translation push rod (7) is installed on the top of the second slider (1202), the output end of the second cylinder (1201) is connected to one side of the second slider (1202), the bottom of the second slider (1202) is slidably connected to the second slide rail (1203), and also includes a base plate (13) and a side plate (14), the side plate (14) is vertically connected to the top of the base plate (13), the first cylinder (1101) is connected to the first slider (1102) and the second sliding push rod (7) is installed on the top of the second slider (1202), the output end of the second cylinder (1201) is connected to one side of the second slider (1202), the bottom of the second slider (1202) is slidably connected to the second slide rail (1203), and also includes a base plate (13) and a side plate (14), the side plate (14) is vertically connected to the top of the base plate (13), and the first cylinder (1101) is connected to the first slider (1102) and the second sliding push rod (7) is installed on the top of the second slider (1202), ... 01) and the second cylinder (1201) are both fixed on the side plate (14). The first slide rail (1103) and the second slide rail (1203) are both fixed on the upper side of the bottom plate (13). The top two sides of the first feeding rail (3) are provided with first limiting protrusions (17). The second feeding rail (4) is arranged in a "Y" shape, and the top two sides of it are symmetrically provided with second limiting protrusions (18). There is a limiting protrusion (19) between the two second limiting protrusions (18). The limiting protrusion (19) is arranged in a "V" shape. The first vibrating feeding plate (1), the first feeding rail (3), the connecting plate (5), the first translational push rod (6), the second translational push rod (7), the stop block (8) and the opening (10) are all symmetrically provided in twos.A third feeding rail (20) is provided between the second feeding rail (4) and the discharge end of the second vibrating feeding plate (2). The third feeding rail (20) has a third limiting protrusion (21) on both sides of its top, and a third linear vibrating feeder (22) is connected to its bottom. When the diaphragm (24) reaches the front end of the first feeding rail (3), the second translational push rod (7) blocks the diaphragm (24) so ​​that the diaphragm (24) is placed on the connecting plate (5), and then passes through the first cylinder (1101). The first slider (1102) is driven to slide along the first slide rail (1103), which in turn drives the first translational push rod (6) to move horizontally. The first translational push rod (6) then pushes the diaphragm (24) from the connecting piece (5) into the housing (25) on the second feeding rail (4), forming the assembled sensor semi-finished product (26). Then, the second cylinder (1201) drives the second translational push rod (7) to move and retract, causing the sensor semi-finished product (26) to move forward a certain distance before being... The stop block (8) blocks the sensor semi-finished product (26), placing it on the second feeding rail (4) between the second translation push rod (7) and the linear feeding plate (9). Then, the second cylinder (1201) drives the second slider (1202) to slide along the second slide rail (1203), causing the second translation push rod (7) to move horizontally. The second translation push rod (7) then pushes the sensor semi-finished product (26) through the opening (10) onto the linear feeding plate (9). On the feeding tray (9), the sensor semi-finished product (26) is assembled and fed. The outer shell (25) is limited by the third limiting protrusion (21) to prevent the outer shell (25) from falling off the third feeding rail (20). The bottom of the first feeding rail (3) is connected to the first linear vibrating feeder (15), the bottom of the second feeding rail (4) is connected to the second linear vibrating feeder (16), and the bottom of the linear feeding tray (9) is connected to the fourth linear vibrating feeder (23).

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