Optical Image Stabilization Module and Camera

Abstract

The present invention discloses an optical image stabilization module and a camera, belonging to the field of electronics. In the present invention, the X-axis actuation component is used to drive the X-axis flip plate to rotate relative to the substrate, and the Y-axis actuation component is used to drive the Y-axis flip plate to rotate relative to the X-axis flip plate; the flexible circuit board is disposed on the surface of the moving component, connecting the external circuit and the actuation component, and includes a first functional part disposed on the substrate, a second functional part disposed on the X-axis flip plate, and a first connection part connecting the first functional part and the second functional part. The first functional part is provided with a first connection port connecting the external circuit and a second connection port connecting the X-axis actuation component, and the second functional part is provided with a third connection port connecting the Y-axis actuation component. The optical image stabilization module according to the embodiment of the present invention has a simple circuit structure, can reduce the limitation of the circuit structure on the movement during the image stabilization process, and thus can improve the stability and reliability of the circuit connection.

Description

Technical Field

[0001] The present invention relates to the field of electronics, and particularly to an optical image stabilization module and a camera. Background Art

[0002] At present, most electronic devices are provided with an optical image stabilization module. The camera module is disposed on the optical image stabilization module, and the optical image stabilization module drives the camera module to perform multi-axis movement to ensure the imaging quality when the electronic device moves. Since the optical image stabilization module needs external power supply, and the internal space of the electronic device is small and the volume of the optical image stabilization module is small, the conventional circuit structure often restricts the movement of the driven module during use, and is also prone to loosening of the electrical connection structure during long-term use, resulting in circuit failures. Summary of the Invention

[0003] The present invention aims to solve at least one of the technical problems existing in the prior art. To this end, the present invention provides an optical image stabilization module with a simple internal circuit connection structure, which can meet the needs of multi-axis rotational movement and improve the stability and reliability of circuit connection. The present invention also provides a camera.

[0004] The optical image stabilization module according to the first aspect embodiment of the present invention includes:

[0005] A motion component, including a substrate, an X-axis flipping plate, and a Y-axis flipping plate. The substrate and the X-axis flipping plate are both configured in a frame shape. The X-axis flipping plate is disposed inside the substrate and is rotatably connected to the substrate in the X-axis direction. The Y-axis flipping plate is disposed inside the X-axis flipping plate and is rotatably connected to the X-axis flipping plate in the Y-axis direction.

[0006] An X-axis actuation component, connecting the substrate and the X-axis flipping plate, for driving the X-axis flipping plate to rotate relative to the substrate.

[0007] A Y-axis actuation component, connecting the X-axis flipping plate and the Y-axis flipping plate, for driving the Y-axis flipping plate to rotate relative to the X-axis flipping plate.

[0008] The flexible circuit board includes a first functional part, a second functional part, and a first connection part. The flexible circuit board is disposed on the surface of the moving component; the first functional part is disposed on the substrate, the second functional part is disposed on the X flip plate, the first connection part connects the first functional part and the second functional part, and the first connection part is disposed on the adjacent side of the rotation axis of the X-axis flip plate; the first functional part is provided with a plurality of first connection ports and a plurality of second connection ports. The first connection ports are used to connect external circuits, and the second connection ports are connected to the X-axis actuating component. Each of the second connection ports corresponds to and communicates with one of the first connection ports; a third connection port is disposed on the second functional part, and the third connection port is connected to the Y-axis actuating component. Each of the third connection ports corresponds to and communicates with one of the first connection ports.

[0009] The optical image stabilization module according to the embodiment of the present invention has at least the following beneficial effects:

[0010] In the present invention, the flexible circuit board is configured as a first functional part, a second functional part, and a first connection part. The first functional part is disposed on the substrate, the second functional part is disposed on the X-axis flip plate, and the second connection ports of the first functional part and the third connection ports of the second functional part are respectively connected to the X-axis actuating component and the Y-axis actuating component. Then, the first connection part connects the first functional part and the second functional part, so that power can be supplied to the X-axis actuating component and the Y-axis actuating component to perform X-axis rotational image stabilization and Y-axis rotational image stabilization. At the same time, since the first connection part is disposed on the adjacent side of the rotation axis of the X-axis flip plate, the deformation required for the first connection part during the rotation around the X-axis is small. With the flexibility of the first connection part, the problem of disconnection between the first functional part and the second functional part can be avoided during rotation. Therefore, for the optical image stabilization module according to the embodiment of the present invention, its circuit structure is simple, the limitation of the movement of the circuit structure during image stabilization can be reduced, and thus the stability and reliability of the circuit connection can be improved.

[0011] According to some embodiments of the present invention, there are two flexible circuit boards, namely a first flexible circuit board and a second flexible circuit board. The first flexible circuit board is disposed on the upper surface of the moving component, and the second flexible circuit board is disposed on the lower surface of the moving component; there are two sets of X-axis actuating components, namely a first X-axis actuating component and a second X-axis actuating component; there are two sets of Y-axis actuating components, namely a first Y-axis actuating component and a second Y-axis actuating component; the first X-axis actuating component and the first Y-axis actuating component are disposed on the upper surface of the moving component and are connected to the first flexible circuit board; the second X-axis actuating component and the other set of second Y-axis actuating components are disposed on the lower surface of the moving component and are connected to the second flexible circuit board.

[0012] According to some embodiments of the present invention: Each of the flexible circuit boards includes a third functional part and a second connection part; the third functional part is disposed on the Y-axis flip plate, and the second connection part connects the second functional part and the third functional part and is disposed on the adjacent side of the rotation axis of the Y-axis flip plate; both the X-axis actuating component and the Y-axis actuating component include a common block, two control blocks, and SMA wires; in the X-axis actuating component, the common block is disposed on the X-axis flip plate, and the two control blocks are disposed on the substrate and on both sides of the common block; in the Y-axis actuating component, the common block is disposed on the Y-axis flip plate, and the two control blocks are disposed on the X-axis flip plate and on both sides of the common block; each control block is connected to the common block in the same actuating component through an SMA wire; two second connection ports are provided at each second connection port of each first functional part and are respectively connected to the two control blocks in the same X-axis actuating component; two third connection ports are provided at each third connection port of each second functional part and are respectively connected to the two control blocks in the same Y-axis actuating component; a fifth connection port is provided on each second functional part, and the fifth connection port is connected to the common block in the same X-axis actuating component; a sixth connection port is provided on each third functional part, and the sixth connection port is connected to the common block in the same Y-axis actuating component.

[0013] According to some embodiments of the present invention, the first X-axis actuating component includes a first adapter board, a second adapter board, and two first control blocks, and the second X-axis actuating component includes a third adapter board, a fourth adapter board, and two second control blocks; in the first X-axis actuating component, the first adapter board and the second adapter board are disposed on the upper surface of the X-axis flip plate, the two first control blocks are disposed on the upper surface of the substrate, and the two first control blocks are located on both sides of the first adapter board and the second adapter board, and the two first control blocks are respectively connected to the first adapter board and the second adapter board through SMA wires; in the second X-axis actuating component, the third adapter board and the fourth adapter board are disposed on the lower surface of the X-axis flip plate, the two first control blocks are disposed on the lower surface of the substrate, the two first control blocks are located on both sides of the third adapter board and the fourth adapter board, and the two second control blocks are respectively connected to the third adapter board and the fourth adapter board through SMA wires; the third adapter board faces the first adapter board, the fourth adapter board faces the second adapter board, the third adapter board is electrically connected to the second adapter board, and the fourth adapter board is electrically connected to the first adapter board; two second connection ports are provided on the first flexible circuit board and are respectively connected to the two first control blocks; two second connection ports are provided on the second flexible circuit board and are respectively connected to the two second control blocks.

[0014] According to some embodiments of the present invention, each of the first Y-axis actuation assemblies includes a fifth adapter plate, a sixth adapter plate, and two third control blocks, and each of the second Y-axis actuation assemblies includes a seventh adapter plate, an eighth adapter plate, and two fourth control blocks; in the first Y-axis actuation assembly, the fifth adapter plate and the sixth adapter plate are disposed on the upper surface of the Y-axis flip plate, and the two third control blocks are disposed on the upper surface of the X-axis flip plate and are located on both sides of the fifth adapter plate and the sixth adapter plate, and the two third control blocks are respectively connected to the fifth adapter plate and the sixth adapter plate through SMA wires; in the second Y-axis actuation assembly, the seventh adapter plate and the eighth adapter plate are disposed on the lower surface of the Y-axis flip plate, and the two fourth control blocks are disposed on the lower surface of the X-axis flip plate and are located on both sides of the seventh adapter plate and the eighth adapter plate, and the two fourth control plates are respectively connected to the seventh adapter plate and the eighth adapter plate through SMA wires; the seventh adapter plate faces the fifth adapter plate, the eighth adapter plate faces the sixth adapter plate, the seventh adapter plate is electrically connected to the sixth adapter plate, and the eighth adapter plate is electrically connected to the fifth adapter plate; two third connection ports are disposed on the first flexible circuit board and are respectively connected to the two third control blocks; two third connection ports are disposed on the second flexible circuit board and are respectively connected to the two fourth control blocks.

[0015] According to some embodiments of the present invention, the third adapter plate, the fourth adapter plate, the seventh adapter plate, and the eighth adapter plate are all provided with connecting arms. The third adapter plate is communicated with the second adapter plate through the connecting arm, the fourth adapter plate is communicated with the first adapter plate through the connecting arm, the seventh adapter plate is communicated with the sixth adapter plate through the connecting arm, and the eighth adapter plate is communicated with the fifth adapter plate through the connecting arm.

[0016] According to some embodiments of the present invention, the optical image stabilization module includes a Z-axis actuation assembly, and the moving assembly includes a lens connection seat. The lens connection seat is rotatably disposed on the Y-axis flip plate around the Z axis; the Z-axis actuation assembly is disposed on the Y-axis flip plate and is used to drive the lens connection seat to rotate; the second flexible circuit board includes a third functional portion and a second connecting portion. A plurality of fourth connection ports are disposed on the third functional portion of the second flexible circuit board, and the fourth connection ports are connected to the Z-axis actuation assembly; the second connecting portion connects the second functional portion and the third functional portion and is disposed on the adjacent side of the rotation axis of the Y-axis flip plate; each of the fourth connection ports is correspondingly communicated with a first connection port.

[0017] According to some embodiments of the present invention, the rotating member includes a carrier seat and a rotating member. A rotating table is provided at the bottom of the carrier seat. A circular hole adapted to the rotating table is formed at the center of the Y-axis turning plate. The rotating member is connected to the bottom of the rotating table, and the upper and lower surfaces of the Y-axis turning plate are respectively abutted against the carrier seat and the rotating member.

[0018] According to some embodiments of the present invention, a connecting piece is provided at the center of the bottom of the rotating member. The Z-axis actuating assembly includes a connecting plate and an SMA wire. The connecting plate is disposed at the bottom of the Y-axis turning plate, and the connecting plate is connected to the connecting piece through the SMA wire; the fourth connecting port includes a common port and a control port. The common port communicates with the rotating member, and the control port is connected to the connecting plate.

[0019] In an embodiment of another aspect of the present invention, a camera is disposed in the circuit structure of the above-mentioned optical image stabilization module.

[0020] The camera according to the embodiment of the second aspect of the invention has at least the following beneficial effects: by adopting the optical image stabilization module described in the embodiment of the first aspect, the limitation of the movement of the circuit structure during the image stabilization process can be reduced, the stability and reliability of the circuit connection can be improved, and further the occurrence of circuit failures during the long-term use of the camera can be reduced.

[0021] The additional aspects and advantages of the present invention will be partly given in the following description, partly will become obvious from the following description, or will be understood through the practice of the present invention. Description of the Drawings

[0022] The above and / or additional aspects and advantages of the present invention will become obvious and easy to understand from the description of the embodiments in conjunction with the following drawings, wherein:

[0023] Figure 1 is a perspective view of an optical image stabilization device according to an embodiment of the present invention.

[0024] Figure 2 is Figure 1 a perspective view of another angle of the optical image stabilization module shown.

[0025] Figure 3 is Figure 1 an exploded view of the optical image stabilization module shown.

[0026] Figure 4 is Figure 1 a top view of the first flexible circuit board shown.

[0027] Figure 5 is an exploded view of an optical image stabilization module according to another embodiment of the present invention.

[0028] Figure 6 is Figure 5 a top view of the first flexible circuit board in

[0029] Figure 7 a perspective view of an actuation assembly according to an embodiment of the present invention.

[0030] Figure 8 is Figure 5 a top view of the second flexible circuit board in

[0031] Figure 9 a perspective view of a camera according to another embodiment of the present invention.

[0032] Reference numerals:

[0033] substrate 1; X-axis flip plate 2; Y-axis flip plate 3;

[0034] first flexible circuit board 4a; second flexible circuit board 4b;

[0035] first functional part 41; second functional part 42; first connection part 44; third functional part 43; second connection part 45;

[0036] first connection port 411; second connection port 412; third connection port 421;

[0037] fourth connection port 432; fifth connection port 422; sixth connection port 431;

[0038] common port 4321; control port 4322;

[0039] first X-axis actuation assembly 51; second X-axis actuation assembly 52;

[0040] first control block 511; second control block 521;

[0041] first adapter board 512; second adapter board 513;

[0042] third adapter board 522; fourth adapter board 523;

[0043] first Y-axis actuation assembly 61; second Y-axis actuation assembly 62;

[0044] third control block 611; fourth control block 621;

[0045] fifth adapter board 612; sixth adapter board 613;

[0046] seventh adapter board 622; eighth adapter board 623;

[0047] control block 561; common block 562; connecting arm 563

[0048] Carrier base 7; connecting plate 71; rotating member 72;

[0049] Lens module 8. Specific embodiments

[0050] Embodiments of the present invention will be described in detail below. Examples of the embodiments are shown in the drawings, where the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the drawings are exemplary only for explaining the present invention and should not be construed as limiting the present invention.

[0051] In the description of the present invention, it should be understood that the orientation or positional relationship indicated by terms such as up, down, left, right, front, back, etc. is based on the orientation or positional relationship shown in the drawings. It is only for convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and thus should not be construed as limiting the present invention.

[0052] In the description of the present invention, if the first and second are described only for the purpose of distinguishing technical features, they should not be understood as indicating or implying relative importance or implicitly indicating the quantity of the indicated technical features or the sequence of the indicated technical features.

[0053] In the description of the present invention, unless otherwise clearly defined, terms such as setting, installation, and connection should be understood in a broad sense. Those skilled in the art can reasonably determine the specific meanings of the above terms in the present invention in combination with the specific content of the technical solution.

[0054] Next, refer to Figures 1 to 7 to describe the circuit structure of the optical image stabilization module according to the first aspect embodiment of the present invention.

[0055] An optical image stabilization module according to an aspect of the present invention includes:

[0056] A motion component, including a substrate 1, an X-axis flipping plate 2, and a Y-axis flipping plate 3. The substrate 1 and the X-axis flipping plate 2 are both configured as a frame shape. The X-axis flipping plate 2 is disposed inside the substrate 1 and is rotatably connected to the substrate 1 in the X-axis direction. The Y-axis flipping plate 3 is disposed inside the X-axis flipping plate 2 and is rotatably connected to the Y-axis flipping plate 3 in the Y-axis direction;

[0057] An X-axis actuation component, connecting the substrate 1 and the X-axis flipping plate 2, for driving the X-axis flipping plate 2 to rotate relative to the substrate 1;

[0058] A Y-axis actuation component, connecting the X-axis flipping plate 2 and the Y-axis flipping plate 3, for driving the Y-axis flipping plate 3 to rotate relative to the X flipping plate;

[0059] Flexible circuit board, including a first functional part 41, a second functional part 42 and a first connection part 44, the flexible circuit board is arranged on the surface of the moving component; the first functional part 41 is arranged on the substrate 1, the second functional part 42 is arranged on the X flip plate, the first connection part 44 connects the first functional part 41 and the second functional part 42, and the first connection part 44 is arranged on the adjacent side of the rotation axis of the X-axis flip plate 2; the first functional part 41 is provided with a plurality of first connection ports 411 and a plurality of second connection ports 412, the first connection ports 411 are used to connect external circuits, the second connection ports 412 are connected to the X-axis actuating component, and each second connection port 412 corresponds to and communicates with a first connection port 411; the second functional part 42 is provided with a third connection port 421, the third connection port 421 is connected to the Y-axis actuating component, and the third connection ports 421 all correspond to and communicate with a first connection port 411.

[0060] A plurality of wires are arranged inside the flexible circuit board, and part of the wire harnesses connect the first connection ports 411 and the second connection ports 412, and one second connection port 412 is connected to a second connection port through a wire; another part of the wire harness starts from the first connection port 411, passes through the first connection part 44 and then connects to the third connection port 421, and one third connection port 421 is connected to a first connection port 411 through a wire.

[0061] Reference Figure 1 And Figure 3 As described above, the first functional part 41 of the flexible circuit board is arranged on the substrate 1, the second functional part 42 is arranged on the X-axis flip plate 2, the first connection part 44 connects the first functional part 41 and the second functional part 42, and the first connection part 44 is arranged on the adjacent side of the rotation axis of the X-axis flip plate 2. By setting it in this way, when the X-axis flip plate 2 rotates relative to the substrate 1 around the rotation X axis, the first functional part 41 adheres to the substrate 1 and remains stationary, the second functional part 42 adheres to the X-axis flip plate 2 and follows the X-axis flip plate 2 to rotate around the X axis, and the first connection part 44 twists to ensure stable electrical signal connection of the flexible circuit board. The first connection part 44 is arranged on the adjacent side of the rotation axis of the X-axis flip plate 2, which can reduce the length of the rotation lever arm. When the rotation angle of the X-axis flip plate 2 is certain, the closer to the rotation axis of the X-axis flip plate 2, the smaller the deformation of the first connection part 44 itself during torsion and the smaller the pulling effect on the first functional part 41 and the second functional part 42, reducing the limitation of the movement of the circuit structure during the anti-shake movement and improving the stability and reliability of the circuit connection.

[0062] In some embodiments of the present invention, two flexible circuit boards are provided, namely a first flexible circuit board 4a and a second flexible circuit board 4b. The first flexible circuit board 4a is disposed on the upper surface of the moving component, and the second flexible circuit board 4b is disposed on the lower surface of the moving component. Two sets of X-axis actuating components are provided, namely a first X-axis actuating component 51 and a second X-axis actuating component 52. Two sets of Y-axis actuating components are provided, namely a first Y-axis actuating component 61 and a second Y-axis actuating component 62. The first X-axis actuating component 51 and the first Y-axis actuating component 61 are disposed on the upper surface of the moving component and are connected to the first flexible circuit board 4a. The second X-axis actuating component 52 and the other second Y-axis actuating component 62 are disposed on the lower surface of the moving component and are connected to the second flexible circuit board 4b.

[0063] Reference Figure 3 , to ensure that the driving force received by the moving component is large enough to meet the movement process of optical image stabilization, two sets of X-axis actuating components and two sets of Y-axis actuating components are respectively provided. Among them, the first X-axis actuating component 51 and the first Y-axis actuating component 61 are disposed on the upper surface of the moving component, and the second X-axis actuating component 52 and the other second Y-axis actuating component 62 are disposed on the lower surface of the moving component. To meet the power supply requirements of the X-axis actuating components and the Y-axis actuating components, two flexible circuit boards are provided. Among them, the first flexible circuit board 4a is disposed on the upper surface of the moving component and is used to connect the external circuit to the X-axis actuating components and the Y-axis actuating components on the upper surface of the moving component. The second flexible circuit board 4b is disposed on the lower surface of the moving component and is used to connect the external circuit to the X-axis actuating components and the Y-axis actuating components on the lower surface of the moving component. The first flexible circuit board 4a and the second flexible circuit board 4b are independent of each other and not connected.

[0064] In some embodiments of the present invention, the flexible circuit boards each include a third functional part 43 and a second connection part 45; the third functional part 43 is disposed on the Y-axis flipping board 3, and the second connection part 45 connects the second functional part 42 and the third functional part 43 and is disposed on the adjacent side of the rotation axis of the Y-axis flipping board 3; both the X-axis actuating assembly and the Y-axis actuating assembly include a common block 562, two control blocks 561 and SMA wires; in the X-axis actuating assembly, the common block 562 is disposed on the X-axis flipping board 2, and the two control blocks 561 are disposed on the substrate 1 and on both sides of the common block 562; in the Y-axis actuating assembly, the common block 562 is disposed on the Y-axis flipping board 3, and the two control blocks 561 are disposed on the X-axis flipping board 2 and on both sides of the common block 562; each control block 561 is connected to the common block 562 in the same actuating assembly through an SMA wire; each second connection port 412 of each first functional part 41 is provided with two and is respectively connected to the two control blocks 561 in the same X-axis actuating assembly; each third connection port 421 of each second functional part 42 is provided with two and is respectively connected to the two control blocks 561 in the same Y-axis actuating assembly; each second functional part 42 is provided with a fifth connection port 422, and the fifth connection port 422 is connected to the common block 562 in the same X-axis actuating assembly; each third functional part 43 is provided with a sixth connection port 431, and the sixth connection port 431 is connected to the common block 562 in the same Y-axis actuating assembly.

[0065] Reference Figure 3, both the X-axis actuating component and the Y-axis actuating component include a common block 562, two control blocks 561 and SMA wires. To flip the X-axis flip plate 2 relative to the substrate 1, the common block 562 and one of the control blocks 561 of the X-axis actuating component can be energized, so that the SMA wire is energized and shrinks to pull the X-axis flip plate 2 to flip; To flip the Y-axis flip plate 3 relative to the X-axis flip plate 2, the common block 562 and one of the control blocks 561 of the Y-axis actuating component can be energized, so that the SMA wire is energized and shrinks to pull the Y-axis flip plate 3 to flip. To supply power to the common block 562 and the control block 561 of the X-axis actuating component and the Y-axis actuating component, the flexible circuit board is provided with a first functional part 41, a second functional part 42, a third functional part 43, a first connection part 44 and a second connection part 45; The first functional part 41 is arranged on the substrate 1, the second functional part 42 is arranged on the X-axis flip plate 2, the first connection part 44 connects the first functional part 41 and the second functional part 42, and the first connection part 44 is arranged on the adjacent side of the rotation axis of the X-axis flip plate 2; The third functional part 43 is arranged on the Y-axis flip plate 3, and the second connection part 45 connects the second functional part 42 and the third functional part 43 and is arranged on the adjacent side of the rotation axis of the Y-axis flip plate 3. By setting like this, when the Y-axis flip plate 3 flips relative to the X-axis flip plate 2, the first functional part 41 fits on the substrate 1 and remains stationary, the second functional part 42 fits on the X-axis flip plate 2 and remains stationary, the third functional part 43 fits on the Y-axis flip plate 3 and follows the Y-axis flip plate 3 to flip around the Y-axis, and the second connection part 45 twists to ensure stable electrical signal connection of the flexible circuit board. The second connection part 45 is arranged on the adjacent side of the rotation axis of the Y-axis flip plate 3, which can reduce the length of the rotation lever arm, so that its own deformation is smaller during torsion, reduce the limitation of the movement of the circuit structure during the anti-shake movement, and improve the stability and reliability of the circuit connection.

[0066] Multiple bundles of wires are arranged in the flexible circuit board, and each bundle of wires is respectively connected to the first connection port 411 and the second connection port 412, the first connection port 411 and the third connection port 421, the first connection port 411 and the fifth connection port 422, the first connection port 411 and the sixth connection port 431. By setting like this, it can be ensured that the electrical signal connections of the connection ends are stable and do not interfere with each other.

[0067] In some embodiments of the present invention, the first X-axis actuator assembly 51 includes a first adapter plate 512, a second adapter plate 513, and two first control blocks 511. The second X-axis actuator assembly 52 includes a third adapter plate 522, a fourth adapter plate 523, and two second control blocks 521. In the first X-axis actuator assembly 51, the first adapter plate 512 and the second adapter plate 513 are disposed on the upper surface of the X-axis flip plate 2, and the two first control blocks 511 are disposed on the upper surface of the substrate 1. The two first control blocks 511 are located on both sides of the first adapter plate 512 and the second adapter plate 513. The two first control blocks 511 are respectively connected to the first adapter plate 512 and the second adapter plate 513 through SMA wires. In the second X-axis actuator assembly 52, the third adapter plate 522 and the fourth adapter plate 523 are disposed on the lower surface of the X-axis flip plate 2, and the two first control blocks 511 are disposed on the lower surface of the substrate 1. The two first control blocks 511 are located on both sides of the third adapter plate 522 and the fourth adapter plate 523. The two second control blocks 521 are respectively connected to the third adapter plate 522 and the fourth adapter plate 523 through SMA wires. The third adapter plate 522 faces the first adapter plate 512, the fourth adapter plate 523 faces the second adapter plate 513, the third adapter plate 522 is electrically connected to the second adapter plate 513, and the fourth adapter plate 523 is electrically connected to the first adapter plate 512. Two second connection ports 412 are provided on the first flexible circuit board 4a and are respectively connected to the two first control blocks 511. Two second connection ports 412 are provided on the second flexible circuit board 4b and are respectively connected to the two second control blocks 521.

[0068] Reference Figure 5 , by electrically connecting the third adapter plate 522 and the second adapter plate 513, and the fourth adapter plate 523 and the first adapter plate 512 in the first X-axis actuator assembly and the second X-axis actuator assembly, when the X-axis flip plate 2 flips relative to the substrate 1, only one of the first control blocks 511 in the first X-axis actuator assembly and the second control block 521 that is not disposed opposite to the non-energized first control block 511 needs to be energized. That is, the current flows in from one of the first control blocks 511, sequentially passes through the SMA wire, the first adapter plate 512, the fourth adapter plate 523, the SMA wire, and the second control block 521 connected to the fourth adapter plate 523 through the SMA wire, so that the SMA wire is energized and contracted, pulling the X-axis flip plate 2 to flip in one direction relative to the substrate 1. The current path can also be: one of the first control blocks 511, the SMA wire, the second adapter plate 513, the third adapter plate 522, the SMA wire, and the second control block 521 connected to the third adapter plate 522 through the SMA wire. Reference Figure 6, by setting it like this, the flexible circuit board only needs to set the second connection port 412. The second connection port 412 of the first flexible circuit board 4a is connected to the first control block 511, and the second connection port 412 of the second flexible circuit board 4b is connected to the second control block 521. By supplying power to the first control block 511 and the second control block 521, the rotation of the X-axis flip plate 2 can be realized. Therefore, the structural design of the flexible circuit board can be simplified, the number of wire bundles in the circuit board can be reduced, and it is beneficial to circuit heat dissipation.

[0069] In some embodiments of the present invention, each of the first Y-axis actuating components 61 includes a fifth adapter plate 612, a sixth adapter plate 613, and two third control blocks 611. Each of the second Y-axis actuating components 62 includes a seventh adapter plate 622622, an eighth adapter plate 623, and two fourth control blocks 621. In the first Y-axis actuating component 61, the fifth adapter plate 612 and the sixth adapter plate 613 are arranged on the upper surface of the Y-axis flip plate 3, and the two third control blocks 611 are arranged on the upper surface of the X-axis flip plate 2 and are located on both sides of the fifth adapter plate 612 and the sixth adapter plate. The two third control blocks 611 are respectively connected to the fifth adapter plate 612 and the sixth adapter plate 613 through SMA wires. In the second Y-axis actuating component 62, the seventh adapter plate 622622 and the eighth adapter plate 623 are arranged on the lower surface of the Y-axis flip plate 3, and the two fourth control blocks 621 are arranged on the lower surface of the X-axis flip plate 2 and are located on both sides of the seventh adapter plate 622622 and the eighth adapter plate. The two fourth control plates are respectively connected to the seventh adapter plate 622622 and the eighth adapter plate 623 through SMA wires. The seventh adapter plate 622622 faces the fifth adapter plate 612, the eighth adapter plate 623 faces the sixth adapter plate 613, the seventh adapter plate 622622 is electrically connected to the sixth adapter plate 613, and the eighth adapter plate 623 is electrically connected to the fifth adapter plate 612. Two third connection ports 421 are arranged on the first flexible circuit board 4a and are respectively connected to the two third control blocks 611. Two third connection ports 421 are arranged on the second flexible circuit board 4b and are respectively connected to the two fourth control blocks 621.

[0070] Reference Figure 5, the sixth adapter plate 613 in the first Y-axis actuator assembly and the second Y-axis actuator assembly is electrically connected to the seventh adapter plate 622622, and the fifth adapter plate 612 is electrically connected to the eighth adapter plate 623. When the Y-axis flip plate 3 is flipped relative to the substrate 1, only one of the third control blocks 611 in the first Y-axis actuator assembly and the second Y-axis actuator assembly and the fourth control block 621 that is not disposed opposite to the energized third control block 611 need to be energized. That is: the current flows into from one of the third control blocks 611, and successively passes through the SMA wire, the fifth adapter plate 612, the eighth adapter plate 623, the SMA wire, and the fourth control block 621 connected to the eighth adapter plate 623 through the SMA wire, so that the SMA wire is energized and contracted, pulling the Y-axis flip plate 3 to flip in one direction relative to the X-axis flip plate 2. The current path can also be: one of the third control blocks 611, the SMA wire, the sixth adapter plate 613, the seventh adapter plate 622622, the SMA wire, and the fourth control block 621 connected to the seventh adapter plate 622622 through the SMA wire. Reference Figure 6 , by such a setting, the flexible circuit board only needs to add a third connection port 421 on the basis of being provided with the second connection port 412. By setting the third connection port 421, the third connection port 421 of the first flexible circuit board 4a is connected to the third control block 611, and the third connection port 421 of the second flexible circuit board 4b is connected to the fourth control block 621. By supplying power to the third control block 611 and the fourth control block 621, the rotation of the Y-axis flip plate 3 can be realized. Therefore, the structural design of the flexible circuit board can be simplified, and the number of wire bundles in the circuit board can also be reduced, which is beneficial to circuit heat dissipation.

[0071] In some embodiments of the present invention, the third adapter plate 522, the fourth adapter plate 523, the seventh adapter plate 622, and the eighth adapter plate 623 are all provided with connecting arms 563. The third adapter plate 522 is connected to the second adapter plate 513 through the connecting arm 563, the fourth adapter plate 523 is connected to the first adapter plate 512 through the connecting arm 563, the seventh adapter plate 622622 is connected to the sixth adapter plate 613 through the connecting arm 563, and the eighth adapter plate 623 is connected to the fifth adapter plate 612 through the connecting arm 563.

[0072] Reference Figure 7, the connecting arm 563 is provided with an "L"-shaped bending structure. The connecting arms 563 of the third adapter plate 522 and the connecting arms 563 of the fourth adapter plate 523 are arranged staggeredly. The connecting arms 563 of the seventh adapter plate 622622 and the connecting arms 563 of the eighth adapter plate 623 are arranged staggeredly. Among them, the connecting arm 563 of the third adapter plate 522 is fixedly welded to the second adapter plate 513, the connecting arm 563 of the fourth adapter plate 523 is fixedly welded to the first adapter plate 512, the connecting arm 563 of the seventh adapter plate 622622 is fixedly welded to the sixth adapter plate 613, and the connecting arm 563 of the eighth adapter plate 623 is fixedly welded to the fifth adapter plate 612. By setting like this, it can prevent the connecting arms 563 of two adjacent adapter plates from contacting each other or being too close to cause a short circuit in the circuit when powered on. At the same time, such a setting is also beneficial to simplifying the assembly process and improving the processing efficiency.

[0073] In some embodiments of the present invention, the optical image stabilization module includes a Z-axis actuation component. The motion component includes a lens connection seat, and the lens connection seat is rotatably arranged on the Y-axis flipping plate 3 around the Z-axis; the Z-axis actuation component is arranged on the Y-axis flipping plate 3 and is used to drive the lens connection seat to rotate; the second flexible circuit board 4b includes a third functional part 43 and a second connection part 45. A plurality of fourth connection ports 432 are arranged on the third functional part 43 of the second flexible circuit board 4b, and the fourth connection ports 432 are connected to the Z-axis actuation component; the second connection part 45 connects the second functional part 42 and the third functional part 43 and is arranged on the adjacent side of the rotation axis of the Y-axis flipping plate 3; each fourth connection port 432 corresponds to and communicates with a first connection port 411.

[0074] To supply power to the Z-axis actuation component to drive the lens connection seat to rotate around the Z-axis, the second flexible circuit board 4b includes a third functional part 43 and a second connection part 45. Refer to Figure 5 and Figure 7 , the third functional part 43 is arranged on the Y-axis flipping plate 3 and is connected to the second functional part 42 through the second connection part 45. The second connection part 45 is arranged on the adjacent side of the rotation axis of the Y-axis flipping plate 3, which can make the deformation of itself smaller during torsion, reduce the limitation of the circuit structure on the motion during the image stabilization motion, and improve the stability and reliability of the circuit connection. The fourth connection ports 432 are arranged on the third functional part 43. One of the wire bundles on the second flexible circuit board 4b extends from the first connection port 411, passes through the first functional part 41, the first connection part 44, the second functional part 42, and the second connection part 45 in sequence, and then enters the third functional part 43 to be connected to the fourth connection ports 432. By setting like this, when the motion component flips along the X or Y axis, the Z-axis actuation component can maintain a stable electrical signal connection with the external circuit, improving the optical image stabilization performance.

[0075] In some embodiments of the present invention, the lens connection base includes a carrier base 7 and a rotating member 72. A rotating table is provided at the bottom of the carrier base 7. A circular hole matching the rotating table is formed in the center of the Y-axis flipping plate 3. The rotating member 72 is connected to the bottom of the rotating table, and the upper and lower surfaces of the Y-axis flipping plate 3 are respectively abutted against the carrier base 7 and the rotating member 72.

[0076] Reference Figure 2 , the rotating table is arranged in the circular hole, which can limit the movement range of the lens connection base, prevent the lens connection base from shifting when subjected to external force impact, and affect the optical image stabilization effect. A rotating member 72 is provided at the bottom of the rotating table. The rotating member 72 abuts against the lower surface of the Y-axis flipping plate 3, and the carrier base 7 abuts against the upper surface of the Y-axis flipping plate 3. The two jointly act to limit the position of the lens connection base in the Z-axis direction, which is beneficial to improving the optical image stabilization accuracy.

[0077] In some embodiments of the present invention, a connecting piece 73 is provided at the center of the bottom of the rotating member 72. The Z-axis actuating assembly includes a connecting plate 71 and an SMA wire. The connecting plate 71 is arranged at the bottom of the Y-axis flipping plate 3. The connecting plate 71 is connected to the connecting piece 73 through the SMA wire; the fourth connection port 432 includes a common port 4321 and a control port 4322. The common port 4321 communicates with the rotating member 72, and the control port 4322 is connected to the connecting plate 71.

[0078] Reference Figure 2 , there are 4 connecting plates 71 and 4 connecting pieces 73. The connecting pieces 73 are distributed at 90°. The SMA wires are respectively connected to the connecting pieces 73 and the connecting plates 71. And, the rotating member 72 is provided with elastic arms. The free ends of the elastic arms are connected to the common port 4321. There are 4 control ports 4322. During use, the common port 4321 is continuously powered, and the control ports 4322 connecting two mutually parallel SMA wires can be energized, so that current passes through the SMA wires, and the SMA wires contract when energized to pull the lens connection base to rotate. By setting like this, the driving force can be increased, which is beneficial to improving the optical image stabilization effect.

[0079] The camera according to the second aspect embodiment of the present invention includes the optical image stabilization module and the lens module 8 of the first aspect embodiment above. Reference Figure 9 , the lens module 8 is arranged on the carrier base 7. By setting like this, the limitation of the movement of the circuit structure during the image stabilization process can be reduced, the stability and reliability of the circuit connection can be improved, and further the occurrence of circuit failures during the long-term use of the camera can be reduced.

[0080] The embodiments of the present invention have been described in detail above in conjunction with the accompanying drawings. However, the present invention is not limited to the above embodiments, and various changes can be made without departing from the spirit of the present invention within the scope of knowledge possessed by those of ordinary skill in the art.

Claims

1. An optical image stabilization module, characterized in that, it includes: A motion component, including a substrate, an X-axis flip plate and a Y-axis flip plate. The substrate and the X-axis flip plate are both arranged in a frame shape; the X-axis flip plate is arranged inside the substrate and is rotatably connected to the substrate in the X-axis direction; the Y-axis flip plate is arranged inside the X-axis flip plate and is rotatably connected to the Y-axis flip plate in the Y-axis direction; An X-axis actuation component, connecting the substrate and the X-axis flip plate, for driving the X-axis flip plate to rotate relative to the substrate; A Y-axis actuation component, connecting the X-axis flip plate and the Y-axis flip plate, for driving the Y-axis flip plate to rotate relative to the X-axis flip plate; both the X-axis actuation component and the Y-axis actuation component include a common block, two control blocks and SMA wires; when the common block and one of the control blocks of the X-axis actuation component are energized, the SMA wire is energized and contracted to pull the X-axis flip plate to flip relative to the substrate; when the common block and one of the control blocks of the Y-axis actuation component are energized, the SMA wire is energized and contracted to pull the Y-axis flip plate to flip relative to the X-axis flip plate; A flexible circuit board, including a first functional part, a second functional part and a first connection part. The flexible circuit board is arranged on the surface of the motion component; the first functional part is arranged on the substrate, the second functional part is arranged on the X-axis flip plate, the first connection part connects the first functional part and the second functional part, and the first connection part is arranged on the adjacent side of the rotation axis of the X-axis flip plate; the first functional part is provided with a plurality of first connection ports and a plurality of second connection ports. The first connection ports are used to connect external circuits, and the second connection ports are connected to the X-axis actuation component. Each second connection port corresponds to and communicates with one of the first connection ports; a third connection port is arranged on the second functional part, and the third connection port is connected to the Y-axis actuation component. The third connection ports each correspond to and communicate with one of the first connection ports; A plurality of wires are arranged inside the flexible circuit board, and part of the wire harnesses connect the first connection ports and the second connection ports; another part of the wire harnesses start from the first connection ports, pass through the first connection part, and then connect to the third connection ports.

2. An optical image stabilization module according to claim 1, characterized in that: There are two flexible circuit boards, which are respectively a first flexible circuit board and a second flexible circuit board. The first flexible circuit board is arranged on the upper surface of the motion component, and the second flexible circuit board is arranged on the lower surface of the motion component; there are two sets of X-axis actuation components, which are respectively a first X-axis actuation component and a second X-axis actuation component; there are two sets of Y-axis actuation components, which are respectively a first Y-axis actuation component and a second Y-axis actuation component; the first X-axis actuation component and the first Y-axis actuation component are arranged on the upper surface of the motion component and are connected to the first flexible circuit board; The second X-axis actuating component and the other set of the second Y-axis actuating components are arranged on the lower surface of the moving component and are connected to the second flexible circuit board.

3. An optical image stabilization module according to claim 2, wherein: The flexible circuit boards each include a third functional portion and a second connection portion; the third functional portion is arranged on the Y-axis turning plate, and the second connection portion connects the second functional portion and the third functional portion and is arranged on the adjacent side of the rotation axis of the Y-axis turning plate; In the X-axis actuating component, the common block is arranged on the X-axis turning plate, and the two control blocks are arranged on the substrate and on both sides of the common block; In the Y-axis actuating component, the common block is arranged on the Y-axis turning plate, and the two control blocks are arranged on the X-axis turning plate and on both sides of the common block; Each of the control blocks is connected to the common block in the same X-axis actuating component or the same Y-axis actuating component through an SMA wire; Two second connection ports are provided on each of the first functional portions and are respectively connected to the two control blocks in the same X-axis actuating component; two third connection ports are provided on each of the second functional portions and are respectively connected to the two control blocks in the same Y-axis actuating component; A fifth connection port is provided on each of the second functional portions, and the fifth connection port is connected to the common block in the same X-axis actuating component; a sixth connection port is provided on each of the third functional portions, and the sixth connection port is connected to the common block in the same Y-axis actuating component.

4. An optical image stabilization module according to claim 2, wherein: The first X-axis actuating component includes a first adapter plate, a second adapter plate and two first control blocks, and the second X-axis actuating component includes a third adapter plate, a fourth adapter plate and two second control blocks; In the first X-axis actuating component, the first adapter plate and the second adapter plate are arranged on the upper surface of the X-axis turning plate, the two first control blocks are arranged on the upper surface of the substrate, and the two first control blocks are located on both sides of the first adapter plate and the second adapter plate, and the two first control blocks are respectively connected to the first adapter plate and the second adapter plate through SMA wires; In the second X-axis actuating component, the third adapter plate and the fourth adapter plate are arranged on the lower surface of the X-axis turning plate, the two first control blocks are arranged on the lower surface of the substrate, the two first control blocks are located on both sides of the third adapter plate and the fourth adapter plate, and the two second control blocks are respectively connected to the third adapter plate and the fourth adapter plate through SMA wires; The third adapter board faces the first adapter board, the fourth adapter board faces the second adapter board, the third adapter board is electrically connected to the second adapter board, and the fourth adapter board is electrically connected to the first adapter board; two second connection ports are provided on the first flexible circuit board and are respectively connected to the two first control blocks; two second connection ports are provided on the second flexible circuit board and are respectively connected to the two second control blocks.

5. An optical image stabilization module according to claim 4, wherein: Each of the first Y-axis actuating components includes a fifth adapter board, a sixth adapter board, and two third control blocks, and each of the second Y-axis actuating components includes a seventh adapter board, an eighth adapter board, and two fourth control blocks; In the first Y-axis actuating component, the fifth adapter board and the sixth adapter board are disposed on the upper surface of the Y-axis turning plate, the two third control blocks are disposed on the upper surface of the X-axis turning plate and are located on both sides of the fifth adapter board and the sixth adapter board, and the two third control blocks are respectively connected to the fifth adapter board and the sixth adapter board through SMA wires; In the second Y-axis actuating component, the seventh adapter board and the eighth adapter board are disposed on the lower surface of the Y-axis turning plate, the two fourth control blocks are disposed on the lower surface of the X-axis turning plate and are located on both sides of the seventh adapter board and the eighth adapter board, and the two fourth control blocks are respectively connected to the seventh adapter board and the eighth adapter board through SMA wires; The seventh adapter board faces the fifth adapter board, the eighth adapter board faces the sixth adapter board, the seventh adapter board is electrically connected to the sixth adapter board, and the eighth adapter board is electrically connected to the fifth adapter board; two third connection ports are provided on the first flexible circuit board and are respectively connected to the two third control blocks; two third connection ports are provided on the second flexible circuit board and are respectively connected to the two fourth control blocks.

6. An optical image stabilization module according to claim 5, wherein: The third adapter board, the fourth adapter board, the seventh adapter board, and the eighth adapter board are each provided with a connecting arm. The third adapter board is connected to the second adapter board through the connecting arm, the fourth adapter board is connected to the first adapter board through the connecting arm, the seventh adapter board is connected to the sixth adapter board through the connecting arm, and the eighth adapter board is connected to the fifth adapter board through the connecting arm.

7. An optical image stabilization module according to claim 2, wherein: The optical image stabilization module includes a Z-axis actuation component. The motion component includes a lens connection seat, and the lens connection seat is rotatably arranged on the Y-axis flip plate around the Z-axis. The Z-axis actuation component is arranged on the Y-axis flip plate and is used to drive the lens connection seat to rotate. The second flexible circuit board includes a third functional part and a second connection part. A plurality of fourth connection ports are arranged on the third functional part of the second flexible circuit board, and the fourth connection ports are connected to the Z-axis actuation component. The second connection part connects the second functional part and the third functional part and is arranged on the adjacent side of the rotation axis of the Y-axis flip plate. Each of the fourth connection ports is correspondingly communicated with a first connection port.

8. An optical image stabilization module according to claim 7, wherein: The lens connection seat includes a carrier seat and a rotating member. A rotating table is arranged at the bottom of the carrier seat. A circular hole matching the rotating table is opened at the center of the Y-axis flip plate. The rotating member is connected to the bottom of the rotating table, and the upper and lower surfaces of the Y-axis flip plate are respectively abutted against the carrier seat and the rotating member.

9. An optical image stabilization module according to claim 8, wherein: A connecting piece is arranged at the center of the bottom of the rotating member. The Z-axis actuation component includes a connecting plate and an SMA wire. The connecting plate is arranged at the bottom of the Y-axis flip plate, and the connecting plate is connected to the connecting piece through the SMA wire. The fourth connection port includes a common port and a control port. The common port is communicated with the rotating member, and the control port is connected to the connecting plate.

10. A camera, wherein: It includes the optical image stabilization module according to any one of claims 1 to 9.

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