Double-flip-cover linkage type vertical downward pressing carrier
By designing a double flip-link vertical downloading vehicle, the problem that existing automation machines cannot effectively position the B2B double-sided facing the camera module is solved, effective positioning and signal guidance of the camera module are realized, the testing process is optimized, and the testing efficiency is improved.
Patent Information
- Application Number
- CN202422139833.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-02
- Publication Date
- 2025-08-08
- Estimated Expiration
- 2034-09-02
AI Technical Summary
The existing automation machines cannot effectively locate and test the B2B double-sided camera module, and the rotational motion during the flip process leads to the test failure.
A double flip-link vertical lower pressure carrier is designed. Through the linkage of the carrier plate assembly, flip-reel shaft assembly and needle block assembly, the positioning and signal guidance of the camera product is realized, and the rotational motion is converted into vertical motion, and the structure is optimized to improve the testing efficiency.
Effective positioning and testing of the B2B double-sided camera module is realized, reducing operation steps, avoiding test failure caused by rotational motion during flipping, and improving testing efficiency.
Smart Images

Figure CN223207174U_ABST
Abstract
Description
Technical Field
[0001] The utility model is applied to the field of product carriers, and particularly relates to a double-flip linkage vertical downward pressing carrier. Background Art
[0002] A mobile phone's digital camera function refers to the ability to capture still images or short videos using either a built-in or external digital camera. As a new addition to mobile phones, digital cameras have rapidly developed. Mobile phone cameras are categorized as either built-in or external. Built-in cameras are located within the phone, offering greater convenience. External cameras connect to the phone via a data cable or a port on the bottom of the phone, performing all the camera's shooting functions.
[0003] To make the module space inside the mobile phone more compact, the wiring of each module is mostly bent, including the camera module. The existing non-standard testing industry tests camera modules in finished form, that is, the camera module is tested after the bending process. The existing solution cannot solve the positioning of the B2B double-sided camera module. At the same time, the existing automated machine can only support single-sided needle insertion and needs to transfer the signal to the position in the same direction as the camera. Based on the above problems, if a double-flip linkage vertical downward pressure carrier can be designed, this carrier can locate the B2B of the camera product during the B2B fixation process of the camera product, and guide its signal to the same direction as the camera, so that the existing automated machine can complete the test. This carrier optimizes the structure, reduces the operation steps, improves test efficiency, and converts the rotational motion during the flipping process into vertical motion, which can effectively solve the above problems. Summary of the Invention
[0004] The technical problem to be solved by the present invention is to overcome the shortcomings of the existing technology and provide a double-flip linkage vertical downward pressure carrier. During the process of fixing the B2B of the camera product, the carrier can position the B2B of the camera product and insert the needle, and guide its signal to the same direction of the camera, so that the existing automated machine can complete the test. The carrier optimizes the structure, reduces the operating steps, improves the test efficiency, and converts the rotational motion during the flipping process into vertical motion, avoiding the situation where the needle insertion failure leads to the test failure.
[0005] The technical solution adopted by the present invention is: the present invention includes a carrier plate assembly, a large flip cover assembly and a small flip cover assembly, and a snap assembly and a flip cover shaft assembly are respectively fixed on both ends of the carrier plate assembly, the small flip cover assembly is rotatably engaged with the large flip cover assembly through the flip cover shaft assembly, a needle block assembly is provided in the small flip cover assembly, the needle block assembly is floatingly engaged in the small flip cover assembly, one end of the large flip cover assembly is rotatably engaged with the carrier plate assembly through the flip cover shaft assembly, the snap assembly is limitedly engaged with one end of the large flip cover assembly, a camera product is limitedly engaged in the carrier plate assembly, and the camera product is in contact with the needle block assembly. It can be seen that the carrier plate assembly supports and fixes the buckle assembly and the flip-cover shaft assembly, and the flip-cover shaft assembly rotates to fit the large flip-cover assembly and the small flip-cover assembly, so that the large flip-cover assembly and the small flip-cover assembly rotate around the flip-cover shaft assembly. When the large flip-cover assembly rotates, the buckle assembly limits the large flip-cover assembly and the camera product, and the small flip-cover assembly supports and limits the needle block assembly. The camera product can be positioned and needled only by rotating the large flip-cover assembly to limit the camera product.
[0006] Furthermore, a rectangular notch is provided on the large flip cover assembly, and a pair of linkage fixing rods are provided on both sides of the large flip cover assembly close to the rectangular notch. The pair of linkage fixing rods are respectively matched with the two ends of the small flip cover assembly. The small flip cover assembly is movably matched in the rectangular notch, and the pair of linkage fixing rods are respectively matched with the two sides of the small flip cover assembly.
[0007] Furthermore, the snap assembly includes a snap base, a snap shaft and a snap protrusion, the snap base is fixed on the carrier assembly, the snap protrusion is limitedly engaged with one end of the large flip cover assembly, the snap protrusion is rotated and engaged on the snap base through the snap shaft, and a number of spring elements are arranged between the snap base and the snap protrusion, and the two ends of the spring elements are respectively limitedly engaged with the snap base and the snap protrusion.
[0008] Furthermore, the flip cover rotation shaft assembly includes a flip cover rotation shaft seat and a flip cover rotation shaft element. The flip cover rotation shaft seat is fixed on the carrier plate assembly, and the flip cover rotation shaft element is rotatably engaged with the flip cover rotation shaft seat.
[0009] Furthermore, the needle block assembly includes a fixed plate, a needle block element and a plurality of needle bodies, the needle bodies are respectively limited in cooperation with the fixed plate and the needle block element, the fixed plate is floatingly matched with the needle block element, a plurality of first positioning pins are provided on the fixed plate, the first positioning pins are limited in cooperation with the small flip cover assembly, and the needle bodies are in contact with the camera product.
[0010] Furthermore, the small flip cover assembly includes a small flip cover carrier plate, a first fixed block, a second fixed block and a limit block. The two sides of the first fixed block are movably matched in a pair of linked fixed rods, the lower surface of the second fixed block is limitedly matched with the needle block assembly, the limit block is fixed on the upper surface of the second fixed block, and the first fixed block is floatingly matched with the small flip cover carrier plate and the second fixed block respectively.
[0011] Furthermore, a plurality of second positioning pins are provided on the lower surface of the snap base, and the snap base is limitedly matched with the carrier assembly through the second positioning pins, and the snap base is fixedly matched with the carrier assembly through a plurality of screw elements.
[0012] Furthermore, a first contour screw and a first spring are provided between the fixing plate and the needle block element. The needle block element is limitedly engaged with the fixing plate through the first contour screw, and the two ends of the first spring are respectively limitedly engaged with the fixing plate and the needle block element.
[0013] Furthermore, a plurality of second equal-height screws and a plurality of second springs are provided between the first fixing block and the small flip cover carrier plate, and two ends of the second spring are respectively limited and matched with the first fixing block and the small flip cover carrier plate, and the first fixing block is limited and matched with the small flip cover carrier plate through the second equal-height screws, and a plurality of third equal-height screws and a plurality of third springs are provided between the second fixing block and the first fixing block, and the third spring ring is sleeved on the third equal-height screw, and two ends of the third spring are respectively limited and matched with the second fixing block and the first fixing block, and the second fixing block is limited and matched with the first fixing block through the third equal-height screw.
[0014] Furthermore, linkage rotating shafts are respectively provided on both sides of the first fixing block, and the linkage rotating shafts are movably fitted in the linkage fixing rod. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] Figure 1 It is a structural view of the utility model;
[0016] Figure 2 This is the second structural view of the present utility model;
[0017] Figure 3 This is an exploded structural view of the present utility model;
[0018] Figure 4 is a structural view of the buckle assembly;
[0019] Figure 5 is a structural view of the flip cover shaft assembly;
[0020] Figure 6 is an exploded structural view of the large flip cover assembly;
[0021] Figure 7 is an exploded structural view of the small flip cover assembly;
[0022] Figure 8 is an exploded structural view of the needle block assembly. DETAILED DESCRIPTION
[0023] like Figures 1 to 3 As shown, in this embodiment, the utility model includes a carrier assembly 1, a large flip assembly 2 and a small flip assembly 3, and a snap assembly 4 and a flip shaft assembly 5 are respectively fixed on both ends of the carrier assembly 1, and the small flip assembly 3 is rotatably engaged with the large flip assembly 2 through the flip shaft assembly 5. A needle block assembly 6 is provided in the small flip assembly 3, and the needle block assembly is floatingly engaged in the small flip assembly 3. One end of the large flip assembly 2 is rotatably engaged with the carrier assembly 1 through the flip shaft assembly 5, and the snap assembly 4 is limitedly engaged with one end of the large flip assembly 2. A camera product 7 is limitedly engaged in the carrier assembly 1, and the camera product 7 is in contact with the needle block assembly 6. It can be seen that the carrier plate assembly 1 supports and fixes the buckle assembly 4 and the flip-cover shaft assembly 5, and the flip-cover shaft assembly 5 rotates with the large flip-cover assembly 2 and the small flip-cover assembly 3, so that the large flip-cover assembly 2 and the small flip-cover assembly 3 rotate around the flip-cover shaft assembly 5. When the large flip-cover assembly 2 rotates, the buckle assembly 4 limits the large flip-cover assembly 2 and limits the small flip-cover assembly 3 and the camera product 7. The small flip-cover assembly 3 supports and limits the needle block assembly 6. It is only necessary to limit the rotation of the large flip-cover assembly 2 to complete the positioning and needle insertion of the camera product 7.
[0024] like Figure 4As shown, in this embodiment, the large flip cover assembly 2 is provided with a rectangular notch 20, and a pair of linkage fixing rods 21 are provided on both sides of the large flip cover assembly 2 near the rectangular notch 20. The pair of linkage fixing rods 21 are respectively engaged with the two ends of the small flip cover assembly 3, and the small flip cover assembly 3 is movably engaged with the rectangular notch 20. The pair of linkage fixing rods 21 are respectively engaged with the two sides of the small flip cover assembly 3. It can be seen that the large flip cover assembly 2 provides support and limiting for the pair of linkage fixing rods 21, and the rectangular notch 20 provides space for the small flip cover assembly 3 to movably engage with the pair of linkage fixing rods 21. The linkage fixing rods 21 convert the rotational motion of the small flip cover assembly 3 into vertical motion, preventing the rotational motion of the large flip cover assembly 2 and the small flip cover assembly 3 from causing unstable testing and damage to the product. At the same time, the linkage fixing rods 21 enable the large flip cover assembly 2 and the small flip cover assembly 3 to generate linkage, and during the buckling process of the large flip cover assembly 2, the small flip cover assembly 3 moves downward.
[0025] like Figure 5 As shown, in this embodiment, the snap assembly 4 includes a snap base 40, a snap shaft 41 and a snap protrusion 42. The snap base 40 is fixed on the carrier assembly 1, and the snap protrusion 42 is limitedly engaged with one end of the large flip cover assembly 2. The snap protrusion 42 is rotated and engaged on the snap base 40 through the snap shaft 41. A number of spring elements 43 are arranged between the snap base 40 and the snap protrusion 42, and the two ends of the spring element 43 are respectively limitedly engaged with the snap base 40 and the snap protrusion 42. It can be seen that the snap base 40 supports and limits the snap shaft 41 and the snap protrusion 42, the snap shaft 41 provides rotational cooperation for the snap protrusion 42, and the snap protrusion 42 rotates around the snap shaft 41 to lock and limit the large flip cover assembly 2 during the flipping process. The spring element 43 limits and resets the snap protrusion 42. When the large flip cover assembly 2 moves toward the snap protrusion 42, the snap protrusion 42 is squeezed and drives the spring element 43 to stretch. When the large flip cover assembly 2 passes over the snap protrusion 42, the spring element 43 drives the snap protrusion 42 to reset, thereby locking and limiting the large flip cover assembly 2.
[0026] like Figure 6As shown, in this embodiment, the flip cover shaft assembly 5 includes a flip cover shaft seat 50 and a flip cover shaft element 51. The flip cover shaft seat 50 is fixed to the carrier assembly 1, and the flip cover shaft element 51 is rotatably engaged with the flip cover shaft seat 50. It can be seen that the flip cover shaft seat 50 supports and limits the flip cover shaft element 51, and the flip cover shaft element 51 rotatably engages the large flip cover assembly 2 and the small flip cover assembly 3 with the flip cover shaft seat 50.
[0027] like Figure 8 As shown, in this embodiment, the needle block assembly 6 includes a fixed plate 60, a needle block element 61, and a plurality of needle bodies 62. The needle bodies 62 are respectively limited in position with the fixed plate 60 and the needle block element 61. The fixed plate 60 and the needle block element 61 are floatingly matched. The fixed plate 60 is provided with a plurality of first positioning pins 63. The first positioning pins 63 are limited in position with the small flip cover assembly 3, and the needle bodies 62 are in contact with the camera product 7. It can be seen that the fixed plate 60 supports and limits the needle block element 61, the fixed plate 60 and the needle block element 61 limit the plurality of needle bodies 62, the first positioning pins 63 guide and limit the needle block assembly 6 when it is matched with the small flip cover assembly 3, and the needle bodies 62 transmit signals to the camera product 7.
[0028] like Figure 7 As shown, in this embodiment, the small flip cover assembly 3 includes a small flip cover carrier plate 30, a first fixed block 31, a second fixed block 32 and a limit block 33. The two sides of the first fixed block 31 are movably matched in a pair of the linkage fixed rods 21, and the lower surface of the second fixed block 32 is limitedly matched with the needle block assembly 6. The limit block 33 is fixed on the upper surface of the second fixed block 32. The first fixed block 31 is floatingly matched with the small flip cover carrier plate 30 and the second fixed block 32 respectively. It can be seen that the small flip cover carrier plate 30 supports and limits the first fixed block 31, the first fixed block 31 supports and limits the second fixed block 32, the second fixed block 32 supports and limits the limit block 33, and the limit block 33 limits the needle block assembly 6. The first fixed block 31 is movably coordinated with a pair of linkage fixing rods 21, and the linkage fixing rods 21 convert the rotational motion of the small flip cover assembly 3 into vertical motion. At the same time, the linkage fixing rods 21 cause the large flip cover assembly 2 and the small flip cover assembly 3 to be linked. In the process of buckling the large flip cover assembly 2, the small flip cover assembly 3 moves downward.
[0029] like Figure 5As shown, in this embodiment, a plurality of second positioning pins 44 are provided on the lower surface of the snap base 40. The snap base 40 is limitedly engaged with the carrier assembly 1 via the second positioning pins 44, and the snap base 40 is fixedly engaged with the carrier assembly 1 via a plurality of screw elements 45. Thus, it can be seen that the second positioning pins 44 guide and limit the engagement of the snap base 40 with the carrier assembly 1, and the screw elements 45 ensure the stability of the engagement between the snap base 40 and the carrier assembly 1. Furthermore, the screw elements are low-cost and easy to replace and install.
[0030] like Figure 8 As shown, in this embodiment, a first contour screw 64 and a first spring 65 are provided between the fixing plate 60 and the needle block element 61. The needle block element 61 is limited and engaged with the fixing plate 60 via the first contour screw 64, and the two ends of the first spring 65 are respectively limited and engaged with the fixing plate 60 and the needle block element 61. Thus, it can be seen that the fixing plate 60 supports and limits the needle block element 61 via the first contour screw 64. The first contour screw 64 and the first spring 65 allow the fixing plate 60 and the needle block element 61 to float in engagement. During the downward pressing of the needle block assembly 6, the first spring 65 acts as a buffer for the needle block element 61, preventing damage to parts due to excessive pressure during engagement.
[0031] like Figure 7As shown, in this embodiment, a plurality of second contour screws 34 and a plurality of second springs 35 are provided between the first fixing block 31 and the small flip cover carrier plate 30, and the two ends of the second spring 35 are respectively limited and matched with the first fixing block 31 and the small flip cover carrier plate 30, and the first fixing block 31 is limited and matched with the small flip cover carrier plate 30 through the second contour screws 34, and a plurality of third contour screws 36 and a plurality of third springs 37 are provided between the second fixing block 32 and the first fixing block 31, and the third spring 37 is looped on the third contour screws 36, and the two ends of the third spring 37 are respectively limited and matched with the second fixing block 32 and the first fixing block 31, and the second fixing block 32 is limited and matched with the first fixing block 31 through the third contour screws 36. It can be seen that the first fixing block 31 supports and limits the plurality of second-contact screws 34, the plurality of second springs 35, the plurality of third-contact screws 36 and the plurality of third springs 37. The first fixing block 31 is limited and matched with the small flip cover carrier plate 30 through the second-contact screws 34, and the first fixing block 31 is limited and matched with the second fixing block 32 through the third-contact screws 36. During the downward pressing process of the needle block assembly 6, the second spring 35 and the third spring 37 provide a buffer for the needle block assembly 6 to prevent damage to parts due to excessive pressure during cooperation.
[0032] like Figure 1 and Figure 3 As shown, in this embodiment, linkage shafts 38 are provided on both sides of the first fixing block 31, and the linkage shafts 38 are movably engaged within the linkage fixing rod 21. It can be seen that the first fixing block 31 supports and fixes the linkage shafts 38. Because the linkage shafts 38 are fixed to the first fixing block 31, the linkage shafts 38 are movably engaged within the linkage fixing rod 21, thereby causing the large flip cover assembly 2 and the small flip cover assembly 3 to be linked. During the process of engaging the large flip cover assembly 2, the small flip cover assembly 3 moves downward.
[0033] In this embodiment, the working principle of the utility model is as follows:
[0034] like Figures 1 to 8As shown, the operator toggles the buckle protrusion 42 to unlock the locking state of the large flip cover assembly 2, rotates the large flip cover assembly 2 and the small flip cover assembly 3 along the flip cover shaft assembly 5, and limits the camera product 7 to be tested to fit into the large flip cover assembly 2, resets the large flip cover assembly 2 and the small flip cover assembly 3 and locks the large flip cover assembly 2 by the buckle assembly 4, the small flip cover assembly 3 first cooperates with the camera product 7, and the large flip cover assembly 2 continues to flip. Due to the limiting effect of the movement of the linkage shaft 38 in the movable groove of the linkage fixing rod 21 and the floating effect of the second spring 35 and the third spring 37, the rotational motion is converted into vertical motion, so that the needle block assembly 6 is firmly engaged with the camera product 7 downward. After the test is completed, the operator toggles the buckle protrusion 42 to unlock the locking state of the large flip cover assembly 2, rotates the large flip cover assembly 2 and the small flip cover assembly 3 along the flip cover shaft assembly 5, takes out the camera product 7 that has been tested, and repeats the cycle in sequence.
[0035] Although the embodiments of the present invention are described with practical solutions, they do not limit the meaning of the present invention. For those skilled in the art, it is obvious to modify the implementation scheme and combine it with other solutions based on this description.
Claims
1. A double-flip linkage vertical downward pressure carrier, characterized by: It comprises a carrier assembly (1), a large flip assembly (2) and a small flip assembly (3); a buckle assembly (4) and a flip shaft assembly (5) are respectively fixed on both ends of the carrier assembly (1); the small flip assembly (3) is rotationally engaged with the large flip assembly (2) via the flip shaft assembly (5); a needle block assembly (6) is provided in the small flip assembly (3); the needle block assembly is floatingly engaged in the small flip assembly (3); one end of the large flip assembly (2) is rotationally engaged with the carrier assembly (1) via the flip shaft assembly (5); the buckle assembly (4) is limitedly engaged with one end of the large flip assembly (2); a camera product (7) is limitedly engaged in the carrier assembly (1); the camera product (7) is in contact with the needle block assembly (6).
2. The double-flip linkage vertical downward pressing carrier according to claim 1, characterized in that: A rectangular notch (20) is provided on the large flip cover assembly (2), and a pair of linkage fixing rods (21) are provided on both sides of the large flip cover assembly (2) close to the rectangular notch (20). The pair of linkage fixing rods (21) respectively cooperate with the two ends of the small flip cover assembly (3) in a limited manner. The small flip cover assembly (3) is movably engaged in the rectangular notch (20), and the pair of linkage fixing rods (21) respectively cooperate with the two sides of the small flip cover assembly (3) in a limited manner.
3. The double-flip linkage vertical downward pressing vehicle according to claim 1, characterized in that: The buckle assembly (4) comprises a buckle base (40), a buckle shaft (41) and a buckle protrusion (42); the buckle base (40) is fixed on the carrier assembly (1); the buckle protrusion (42) is limitedly engaged with one end of the large flip cover assembly (2); the buckle protrusion (42) is rotatably engaged with the buckle base (40) via the buckle shaft (41); a plurality of spring elements (43) are provided between the buckle base (40) and the buckle protrusion (42); two ends of the spring element (43) are respectively limitedly engaged with the buckle base (40) and the buckle protrusion (42).
4. The double-flip linkage vertical downward pressing carrier according to claim 1, characterized in that: The flip cover rotation shaft assembly (5) comprises a flip cover rotation shaft seat (50) and a flip cover rotation shaft element (51); the flip cover rotation shaft seat (50) is fixed on the carrier plate assembly (1); and the flip cover rotation shaft element (51) is rotatably engaged with the flip cover rotation shaft seat (50).
5. The double-flip linkage vertical downward pressing vehicle according to claim 1, characterized in that: The needle block assembly (6) comprises a fixed plate (60), a needle block element (61) and a plurality of needle bodies (62), wherein the needle bodies (62) are respectively limitedly matched with the fixed plate (60) and the needle block element (61), the fixed plate (60) and the needle block element (61) are floatingly matched, and a plurality of first positioning pins (63) are provided on the fixed plate (60), wherein the first positioning pins (63) are limitedly matched with the small flip cover assembly (3), and the needle bodies (62) are in contact with the camera product (7).
6. The double-flip linkage vertical downward pressing vehicle according to claim 2, characterized in that: The small flip cover assembly (3) comprises a small flip cover carrier plate (30), a first fixing block (31), a second fixing block (32) and a limiting block (33); both sides of the first fixing block (31) are movably engaged in a pair of the linked fixing rods (21); the lower surface of the second fixing block (32) is limitedly engaged with the needle block assembly (6); the limiting block (33) is fixed to the upper surface of the second fixing block (32); and the first fixing block (31) is floatingly engaged with the small flip cover carrier plate (30) and the second fixing block (32).
7. The double-flip linkage vertical downward pressing vehicle according to claim 3, characterized in that: A plurality of second positioning pins (44) are provided on the lower surface of the snap base (40), and the snap base (40) is limitedly engaged with the carrier assembly (1) through the second positioning pins (44), and the snap base (40) is fixedly engaged with the carrier assembly (1) through a plurality of screw elements (45).
8. The double-flip linkage vertical downward pressing carrier according to claim 5, characterized in that: A first height screw (64) and a first spring (65) are provided between the fixing plate (60) and the needle block element (61); the needle block element (61) is limitedly engaged with the fixing plate (60) via the first height screw (64); and both ends of the first spring (65) are respectively limitedly engaged with the fixing plate (60) and the needle block element (61).
9. The double-flip linkage vertical downward pressing vehicle according to claim 6, characterized in that: A plurality of second equal-height screws (34) and a plurality of second springs (35) are provided between the first fixed block (31) and the small flip cover carrier (30), and the two ends of the second spring (35) are respectively limited and matched with the first fixed block (31) and the small flip cover carrier (30). The first fixed block (31) is limited and matched with the small flip cover carrier (30) through the second equal-height screws (34). A plurality of third equal-height screws (36) and a plurality of third springs (37) are provided between the second fixed block (32) and the first fixed block (31). The third spring (37) is sleeved on the third equal-height screw (36). The two ends of the third spring (37) are respectively limited and matched with the second fixed block (32) and the first fixed block (31). The second fixed block (32) is limited and matched with the first fixed block (31) through the third equal-height screw (36).
10. The double-flip linkage vertical downward pressing vehicle according to claim 6, characterized in that: Linkage shafts (38) are respectively provided on both sides of the first fixed block (31), and the linkage shafts (38) are movably engaged in the linkage fixing rod (21).