Base of periscopic camera module, manufacturing method and periscopic camera module

Abstract

The invention discloses a base of a periscopic camera module, a manufacturing method and the periscopic camera module thereof, and the base of the periscopic camera module comprises a shell which comprises a bottom wall and a plurality of side walls located on the peripheral side of the bottom wall; the conductive parts are embedded in the bottom wall and the side walls, and each conductive part comprises a plurality of connecting branches embedded in the bottom wall; the reinforcing parts are embedded in the bottom wall, and the reinforcing parts and the conductive parts are arranged at intervals; each reinforcing piece comprises a first reinforcing part and a second reinforcing part which are connected with each other, the first reinforcing parts and the second reinforcing parts are arranged on different planes, and the first reinforcing parts are suitable for supporting the second reinforcing parts, so that projection parts of the second reinforcing parts and the connecting branches in the first optical axis direction of the periscopic camera module are overlapped.

Description

Technical Field

[0001] This invention relates to the field of optical imaging, and more specifically to the base of a periscope camera module, its manufacturing method, and the periscope camera module thereof. Background Technology

[0002] Camera modules are an essential component of mobile electronic devices. With the further development of camera module technology, user demands for them are becoming increasingly sophisticated. The development of camera products not only needs to meet high-performance requirements such as background blur, night shooting, and dual-camera zoom, but also needs to meet the requirements of miniaturization, portability, and compactness. In particular, periscope camera modules, through their optical path bends and lens sections, achieve a longer focal length by folding the optical path, thus simultaneously meeting the demands for high zoom and a slim design, and have broad market prospects.

[0003] Periscope camera modules typically come with a base to house the optical path deflector, lens, and circuit board. Electronic components mounted on the circuit board control and drive the optical path deflector and lens within the base to achieve functions such as focusing. However, the placement and installation method of the circuit board on the base require consideration of various factors, including the positions of the optical path deflector and lens, making the design complex. Furthermore, the circuit board occupies internal space, resulting in a larger base size, which complicates the miniaturization of the periscope camera module. Exposed circuit boards are also vulnerable to damage from impacts and drops, affecting the reliability and lifespan of the periscope camera module. Summary of the Invention

[0004] One objective of this invention is to provide a base for a periscope camera module that reduces the impact of circuit board placement on the internal space of the base, thereby simplifying the internal structure of the periscope camera module base and providing protection for the circuit, thus improving the structural reliability of the base.

[0005] Another object of the present invention is to provide a manufacturing method for manufacturing the base of the periscope camera module described above.

[0006] Another object of the present invention is to provide a periscope camera module having the base of the periscope camera module described above.

[0007] To achieve at least one of the above objectives, the technical solution adopted by the present invention is as follows: a base for a periscope camera module, comprising: a housing, including a bottom wall and a plurality of side walls located around the bottom wall; a plurality of conductive members, the conductive members being embedded in the bottom wall and the side walls, wherein the conductive members include a plurality of connecting branches embedded in the bottom wall; a plurality of reinforcing members, the reinforcing members being embedded in the bottom wall, and the reinforcing members and the conductive members being spaced apart; each of the reinforcing members includes a first reinforcing portion and a second reinforcing portion connected to each other, the first reinforcing portion and the second reinforcing portion being disposed on opposite sides, the first reinforcing portion being adapted to support the second reinforcing portion, so that the projection portions of the second reinforcing portion and the connecting branches overlap along the first optical axis direction of the periscope camera module.

[0008] As a preferred embodiment, the first reinforcing part and the connecting branch are located in the same plane, and the first reinforcing part and the connecting branch are spaced apart.

[0009] As a preferred embodiment, the reinforcing member includes a first reinforcing member and / or a second reinforcing member. The first reinforcing member and the optical path turning portion of the periscope camera module are disposed opposite to each other in the first optical axis direction, and at least a portion of the first reinforcing member forms a first magnetic absorbing piece to interact with an optical path magnet mounted on the optical path turning portion. The second reinforcing member and the lens portion of the periscope camera module are disposed opposite to each other in the first optical axis direction, and at least a portion of the second reinforcing member forms a second magnetic absorbing piece to interact with a lens magnet mounted on the lens portion.

[0010] As a preferred embodiment, the reinforcing member includes a third reinforcing member, at least a portion of which is disposed opposite to the second guide rail portion of the lens portion of the periscope camera module in the first optical axis direction.

[0011] As a preferred embodiment, the housing includes a fixing portion that covers at least a portion of the conductive element and at least a portion of the reinforcing element, such that the conductive element and the reinforcing element are spaced apart.

[0012] As a preferred embodiment, the fixing part includes a plurality of first fixing parts, each of the first fixing parts covering at least a portion of the connecting branch and at least a portion of the first reinforcing part, such that the connecting branch and the first reinforcing part are spaced apart on the bottom wall, and / or covering at least a portion of the connecting branch and at least a portion of the second reinforcing part, such that the connecting branch and the second reinforcing part are spaced apart in the first optical axis direction.

[0013] As a preferred embodiment, the fixing part includes a plurality of second fixing parts, each of the second fixing parts covering at least a portion of the corner of the conductive element located on the same plane.

[0014] As a preferred embodiment, the conductive element includes a plurality of mounting branches embedded in the side wall, and the two ends of the connecting branches are respectively connected to the mounting branches of the side wall located on different circumferences of the bottom wall.

[0015] As a preferred embodiment, the mounting branch includes a first part, a second part, and a third part, which are respectively embedded in the sidewalls located on different sides of the bottom wall. The first part, the second part, and the third part are respectively distributed on the three sides of the connecting branch so as to be bent relative to the connecting branch without interfering with each other.

[0016] As a preferred embodiment, the mounting branch includes a first portion adapted to be interconnected with the image stabilization coil of the optical path bend of the periscope camera module, and the sidewall includes a first sidewall, the first portion being embedded in the first sidewall, the first sidewall being parallel to the first optical axis of the periscope camera module and perpendicular to the second optical axis of the periscope camera module.

[0017] As a preferred embodiment, the conductive element further includes a fixed end located on the side wall, the fixed end and the mounting branch being electrically connected to each other, and the fixed end and the mounting branch being arranged on opposite sides, so that the mounting branch is embedded in the side wall and the fixed end is exposed on the side wall.

[0018] As a preferred embodiment, the fixed end includes a connection end and a control end. The connection end is adapted to be interconnected with the electronic components of the periscope camera module, and the control end is adapted to be interconnected with the control unit of the periscope camera module, so that the conductive element can connect the electronic components and the control unit.

[0019] As a preferred embodiment, the housing further includes a mounting portion located on the side wall, the mounting portion covering a portion of the mounting branch of the conductive element; the mounting portion has a groove for accommodating the electronic components of the periscope camera module; the fixed end of the conductive element is exposed on the bottom surface of the groove for conductive connection with the electronic components or the control unit of the periscope camera module.

[0020] As a preferred embodiment, the housing further includes a molding portion that covers at least a portion of the connecting branch, the mounting branch, the fixing portion, and the mounting portion to form the bottom wall and the side wall.

[0021] To achieve at least one of the above objectives, the technical solution adopted by the present invention is: a manufacturing method for manufacturing the base of the periscope camera module as described above, characterized by comprising the following steps:

[0022] a. Provide a first material strip and a second material strip, the first material strip is used to form a conductive component, and the second material strip is used to form a reinforcing component. Position the first material strip and the second material strip so that the conductive component and the reinforcing component are spaced apart to obtain a first semi-finished product.

[0023] b. Perform a first injection molding on the first semi-finished product to form a fixing part and an mounting part, thereby obtaining a second semi-finished product;

[0024] c. Provide electronic components, install the electronic components on the mounting part of the second semi-finished product, and weld them to the control end or connection end of the conductive component to obtain a third semi-finished product;

[0025] d. The conductive component of the third semi-finished product is bent to form a connecting branch on the bottom wall and an installation branch on the side wall to obtain the fourth semi-finished product;

[0026] e. Perform a second injection molding on the fourth semi-finished product to form a molding part and obtain the base of the periscope camera module.

[0027] As a preferred embodiment, the mounting branch includes a first part and a second part, wherein the first part is fixed to the image stabilization coil of the electronic component, and the second part is fixed to the focusing coil of the electronic component, wherein the first part is embedded in the first sidewall of the sidewall, and the second part is embedded in the second sidewall and / or the third sidewall of the sidewall.

[0028] To achieve at least one of the above objectives, the technical solution adopted by the present invention is as follows: a periscope camera module, comprising: a base of the periscope camera module as described above; an optical path turning part, housed in the base of the periscope camera module, and adapted to pitch about a third axis of the periscope camera module and swing about a first optical axis of the periscope camera module; and a lens part, housed in the base of the periscope camera module, and adapted to move along a second optical axis of the periscope camera module, wherein the third axis is orthogonal to the first optical axis and the second optical axis.

[0029] As a preferred embodiment, the periscope camera module also includes a photosensitive component, which is mounted on the base of the periscope camera module and is electrically connected to the control unit through the connection end of the exposed mounting branch on the base of the periscope camera module.

[0030] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0031] (1) The conductive components and reinforcing components are embedded together in the base, which can enhance the structural reliability of the base while simplifying the circuit design; and the connection branches of the conductive components are all located on the bottom wall, and the installation branches are all located on the side wall, which makes the wiring of the conductive components more uniform and helps to avoid the wiring concentration in a certain part from affecting the structural strength of the base.

[0032] (2) Some of the reinforcing parts can form magnetic absorbing sheets, which is beneficial to improve the positioning of the optical path turning part and lens part of the periscope camera module, thereby improving the imaging performance of the periscope camera module; some of the reinforcing parts can play a structural strengthening role, thereby improving the impact resistance and wear resistance of the base.

[0033] (3) Some fixing parts can fix the relative positional relationship between the connecting branch and the reinforcing member in the horizontal and / or vertical directions, thereby keeping the conductive member and the reinforcing member spaced apart; some fixing parts can fix the conductive member at the corner of the same plane, which helps to avoid deformation or damage to the conductive member.

[0034] (4) The fixed end and the mounting branch are arranged on opposite sides, so that the connecting branch and the mounting branch can be completely covered in the housing, while the fixed end is exposed in the housing for connection with electronic components, and it is beneficial to make the surface of the housing flat.

[0035] (5) Each conductive component has a connection end and a control end, which enables each electronic component in the electronic assembly to be connected and connected to the control unit, which helps to improve the reliability of circuit control.

[0036] (6) By setting up the mounting section, the electronic components can be positioned and installed, and a protective structure for the electronic components is formed. Attached Figure Description

[0037] Figure 1 This is a three-dimensional structural diagram of a periscope camera module according to some embodiments of this application.

[0038] Figure 2 This is a three-dimensional structure of the base of a periscope camera module according to some embodiments of this application. Figure 1 .

[0039] Figure 3 This is a three-dimensional structure of the base of a periscope camera module according to some embodiments of this application. Figure 2 .

[0040] Figure 4 This is a structural schematic diagram of the mounting part and fixing part of the base according to some embodiments of this application.

[0041] Figure 5 This is a structural schematic diagram of the connecting branches and reinforcing members of the bottom wall of the base according to some embodiments of this application.

[0042] Figure 6 This is a structural schematic diagram of the mounting portion and fixing portion of the bottom wall of the base according to some embodiments of this application.

[0043] Figure 7This is a cross-sectional view of a periscope camera module according to some embodiments of this application along the first magnetic magnet.

[0044] Figure 8 This is a cross-sectional view along the second magnetic magnet of a periscope camera module according to some embodiments of this application.

[0045] Figure 9 This is a cross-sectional view along the guide rail of a periscope camera module according to some embodiments of this application.

[0046] Figure 10 This is a schematic diagram of the structure of the first sidewall of the base according to some embodiments of this application.

[0047] Figure 11 This is a schematic diagram of the structure of the first mounting portion of the first sidewall of the base according to some embodiments of this application.

[0048] Figure 12 A rear perspective view of the optical path turning portion according to some embodiments of this application.

[0049] Figure 13 A three-dimensional structural diagram of the bottom surface of the optical path turning point according to some embodiments of this application.

[0050] Figure 14 This is a schematic diagram of the structure of the second sidewall of the base according to some embodiments of this application.

[0051] Figure 15 Side perspective structural view of the lens portion according to some embodiments of this application.

[0052] Figure 16 A perspective view of the bottom surface of the lens portion according to some embodiments of this application.

[0053] Figure 17 This is a perspective structural diagram of the third sidewall of the base according to some embodiments of this application.

[0054] Figure 18 This is a structural schematic diagram of the third sidewall of the base according to some embodiments of this application.

[0055] Figure 19 This is a structural schematic diagram of the mounting portion and the heightening portion of the bottom wall of the base according to some embodiments of this application.

[0056] In the figure: 1: Shell; 10: Bottom wall; 20: Side wall; 21: First side wall; 22: Second side wall; 23: Third side wall; 24: Accommodating space; 30: Fixing part; 31: First fixing part; 311: First extension structure; 312: Second extension structure; 32: Second fixing part; 40: Mounting part; 41: Groove; 42: Peripheral wall; 43: Bottom plate; 44: Protruding column; 45: First mounting part; 46: Second mounting part; 47: Third mounting part; 471: Boss part; 4711: Upper platform; 4712: Side platform; 51: Heightened part; 52: Molded Part; 61: Separation structure; 62: Positioning structure; 70: Conductive component; 71: Connecting branch; 72: Mounting branch; 721: First part; 722: Second part; 723: Third part; 73: Fixed end; 731: Connecting end; 731A: First connecting end; 731B: Second connecting end; 731C: Third connecting end; 732: Control end; 80: Reinforcing component; 81: First reinforcing part; 81A: First reinforcing unit; 81B: Second reinforcing unit; 81C: Third reinforcing unit; 82: Second reinforcing part; 82A: Fourth reinforcing unit; 82 B: Fifth reinforcing unit; 82C: Sixth reinforcing unit; 83: First reinforcing member; 831: First magnetic clasp; 84: Second reinforcing member; 841: Second magnetic clasp; 85: Third reinforcing member; 90: Electronic component; 91: Sensing element; 91A: First sensing element; 91B: Second sensing element; 92: Control unit; 921: Substrate; 922: Integrated circuit; 93: Image stabilization coil; 931: Pitch coil; 932: Tilt coil; 94: Focusing coil; 951: Coil body; 951A: First coil body; 951B: Second coil body; 951C: Third coil body; 952: Mounting hole; 952A: First mounting hole; 952B: Second mounting hole; 952C: Third mounting hole; 953: Positive lead end; 954: Negative lead end; 2: Optical path turning point; 101: Anti-shake magnet; 102: Pitch magnet; 103: Oscillating magnet; 104: First magnetic attraction magnet; 105: First guide rail; 3: Lens; 301: Focusing magnet; 302: Second guide rail; 303: Second magnetic attraction magnet; 401: Support member; 401A: First support member; 401B: Second support member. Detailed Implementation

[0057] The present invention will now be further described in conjunction with specific embodiments. It should be noted that, without conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0058] In the description of this invention, it should be noted that directional terms such as "center," "lateral," "longitudinal," "length," "width," "thickness," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," "clockwise," and "counterclockwise" indicate the orientation and positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. They should not be construed as limiting the specific protection scope of this invention.

[0059] It should be noted that the terms "first," "second," etc., in the specification and claims of this application are used to distinguish similar objects and are not necessarily used to describe a specific order or sequence.

[0060] The terms “comprising” and “having”, and any variations thereof, in the specification and claims of this application are intended to cover non-exclusive inclusion, for example, a process, method, system, product, or device that includes a series of steps or units is not necessarily limited to those steps or units that are explicitly listed, but may include other steps or units that are not explicitly listed or that are inherent to such process, method, product, or device.

[0061] In the description of this invention, it should also be noted that, unless otherwise explicitly specified and limited, the terms "set," "install," "connect," and "link" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection, a contact connection, or an indirect connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this invention according to the specific circumstances.

[0062] A base for a periscope camera module, such as Figures 1-4 As shown, the device includes a housing 1, which includes a bottom wall 10 and several side walls 20 located around the bottom wall 10. A receiving space 24 is formed between the bottom wall 10 and the side walls 20 for accommodating the optical path turning part 2 and the lens part 3 of the periscope camera module. The base also includes several conductive members 70, which include connecting branches 71 embedded in the bottom wall 10 and mounting branches 72 embedded in the side walls 20. The connecting branches 71 and the mounting branches 72 are interconnected and conductive.

[0063] The mounting branch 72 includes at least three portions distributed on at least three peripheries of the connecting branch 71, namely a first portion 721, a second portion 722, and a third portion 723. That is, the first portion 721, the second portion 722, and the third portion 723 are distributed separately on the sidewall 20. It is understood that the first portion 721, the second portion 722, and the third portion 723 are spaced apart to facilitate bending relative to the connecting branch 71 without interference. After bending, the first portion 721, the second portion 722, and the third portion 723 form vertically arranged and independent portions. This arrangement concentrates the wiring of the conductive component 70 and facilitates bending. Since the connecting branch 71 can serve as a base for positioning support during bending, it reduces the risk of deformation and misalignment of the conductive component 70 during bending, lowers the process difficulty, and improves production yield.

[0064] Furthermore, such as Figures 4-18 As shown, each conductive component 70 also includes at least two fixed ends 73 located on the side wall 20. The fixed ends 73 and the mounting branches 72 are electrically connected to each other, and the fixed ends 73 and the mounting branches 72 are arranged opposite to each other, so that the mounting branches 72 are embedded in the side wall 20 and the fixed ends 73 are exposed in the side wall 20. That is, the conductive component 70 includes a connecting branch 71 located on the bottom wall 10, a mounting branch 72 located on the side wall 20, and a fixed end 73 located on the side wall 20 and connected to the mounting branch 72. Among them, the connecting branch 71 is embedded in the bottom wall 10, the mounting branch 72 is embedded in the side wall 20, and the fixed end 73 is arranged opposite to the mounting branch 72 so as to be exposed in the side wall 20 to be electrically connected to the electronic component 90.

[0065] Understandably, the connecting branch 71 and mounting branch 72 of the conductive component 70 are entirely enclosed within the bottom wall 10 and side wall 20 of the housing 1. This allows the housing 1 to position and protect the connecting branch 71 and mounting branch 72, reducing the risk of damage to the conductive component 70 from external impacts and thus improving the reliability of the periscope camera module's circuitry. Simultaneously, the fixed end 73, being positioned opposite to the mounting branch 72, protrudes from the side wall 20 of the housing 1 and is suitable for connection to the electronic component 90. This avoids the need for a recessed clearance area in the side wall 20 to expose the fixed end 73, simplifying the structure of the side wall 20, resulting in a smooth surface, further reducing structural abrupt changes in the housing 1, reducing stress concentration, and improving the structural strength of the housing 1.

[0066] Specifically, such as Figure 11 , Figure 14 , Figure 17 and Figure 18As shown, the electronic assembly 90 includes an image stabilization coil 93, a focusing coil 94, a sensing element 91, external circuitry, and a control unit 92. The image stabilization coil 93 interacts with the image stabilization magnet 101 mounted on the optical path reversal section 2 to drive the optical path reversal section 2 to oscillate around the first optical axis OA1 or tilt around the third axis A3. The focusing coil 94 interacts with the focusing magnet 301 mounted on the lens section 3 to drive the lens section 3 to move along the second optical axis OA2. The sensing element 91 includes a first sensing element 91A and a second sensing element 91B, wherein the first sensing element 91A senses the position of the optical path reversal section 2, and the second sensing element 91B senses the position of the lens section 3. The external circuitry includes electronic components such as a photosensitive assembly located outside the accommodating space 24 of the housing 1. The control unit 92 controls the image stabilization coil 93, the focusing coil 94, and the sensing element 91. Among them, the first optical axis OA1 refers to the center line of the beam incident on the periscope camera module, the second optical axis OA2 refers to the center line of the beam emitted from the periscope camera module, and the third axis A3 is orthogonal to the first optical axis OA1 and the second optical axis OA2.

[0067] Furthermore, such as Figure 11 , Figure 14 , Figure 17 and Figure 18 As shown, the fixed end 73 includes a connection end 731 and a control end 732. The connection end 731 is adapted to be interconnected with the image stabilization coil 93, the focus coil 94, the sensing element 91 and the external circuit in the electronic component 90. The control end 732 is adapted to be interconnected with the control unit 92 in the electronic component 90.

[0068] Specifically, each conductive element 70 has a control terminal 732 and at least one connection terminal 731, both of which are embedded in the side wall 20 of the housing 1. The portion of the conductive element 70's branch body located on the side wall 20 forms an installation branch 72, one end of which is connected to either the connection terminal 731 or the control terminal 732. The portion of the conductive element 70's branch body located on the bottom wall 10 forms a connection branch 71, with both ends of the connection branch 71 correspondingly connected to the installation branch 72. It is understood that when the connection terminal 731 and the control terminal 732 are arranged in opposite directions, i.e., the connection terminal 731 and the control terminal 732 are located on side walls 20 in different directions, the branch body of the conductive element 70 extends from the control terminal 732 along one side wall 20 to the bottom wall 10, and then extends along the bottom wall 10 to the connection terminal 731 of the other side wall 20. Furthermore, each of the image stabilization coils 93, each of the focus coils 94, or each of the sensing elements 91 in the electronic component 90 can be connected to the control unit 92 through the conductive element 70 and controlled separately by the control unit 92, which helps to improve the reliability of the circuit control of the periscope camera module.

[0069] like Figures 2-4As shown, the housing 1 has a generally rectangular bottom wall 10 and side walls 20 located around the bottom wall 10. The side walls 20 include a first side wall 21, a second side wall 22 and a third side wall 23. The second side wall 22 and the third side wall 23 are disposed opposite each other on both sides of the bottom wall 10 along the third axis A3. The first side wall 21 is perpendicular to the second optical axis OA2 and is located between the second side wall 22 and the third side wall 23.

[0070] Furthermore, an accommodating space 24 is formed between the first sidewall 21, the second sidewall 22, the third sidewall 23, and the bottom wall 10 for accommodating the optical path turning part 2 and the lens part 3. Furthermore, the lens part 3 is disposed between the second sidewall 22 and the third sidewall 23 and is adapted to move along the second optical axis OA2; the optical path turning part 2 is located between the lens part 3 and the first sidewall 21 and is adapted to pitch around the third axis A3 and swing around the first optical axis OA1.

[0071] Furthermore, the first part 721 of the mounting branch 72 is embedded in the first sidewall 21, the second part 722 is embedded in the second sidewall 22, and the third part 723 is embedded in the third sidewall 23. The connecting end 731 includes a first connecting end 731A and a second connecting end 731B. The first connecting end 731A is connected to the first part 721 and is used to fix it to the image stabilization coil 93. The second connecting end 731B is connected to at least one of the second part 722 and the third part 723 and is used to fix it to the focusing coil 94.

[0072] Furthermore, the connection end 731 also includes a third connection end 731C, which is connected to the second part 722 and the third part 723, and the third connection end 731C is exposed at the end of the side wall 20 away from the side where the first part 721 is located, for fixing to the photosensitive component of the periscope camera module.

[0073] It is worth mentioning that, compared to the third connection end 731C extending entirely from one end of the second sidewall 22 and one end of the third sidewall 23, in this embodiment, the third connection end 731C is entirely embedded in the sidewall 20 and only connected to the external circuit through the exposed surface. This allows the second sidewall 22 and the third sidewall 23 of the housing 1 to fix and protect the third connection end 731C, which helps to reduce the risk of deformation or even breakage of the third connection end 731C.

[0074] Preferably, the third connection terminal 731C is exposed on two opposing sides of the second sidewall 22 and the third sidewall 23, that is, the third connection terminal 731C is exposed on the outer side of the second sidewall 22 and the outer side of the third sidewall 23, so as to facilitate interconnection with external circuits.

[0075] In one specific embodiment, the image stabilization coils 93 that drive the optical path deflection section 2 are all located on the first side wall 21 of the housing 1, and are parallel to the first optical axis OA1 and perpendicular to the second optical axis OA2. The first connection ends 731A of the conductive members 70 for conductive connection with the image stabilization coils 93 are all located on the first side wall 21 of the housing 1. The focusing coils 94 that drive the lens section 3 are located on the second side wall 22 of the housing 1. The second connection ends 731B of the conductive members 70 for conductive connection with the focusing coils 94 are all located on the second side wall 22 of the housing 1. The control section 92 for controlling the image stabilization coils 93 and the focusing coils 94 is located on the third side wall 23 of the housing 1. The control ends 732 of the conductive members 70 for connection with the control section 92 are all located on the third side wall 23.

[0076] In summary, a first portion 721, a second portion 722, and a third portion 723 for mounting the branch 72 are formed on the three periphery of the connecting branch 71, respectively, to accommodate the mounting of the image stabilization coil 93, the focusing coil 94, and the control unit 92. This arrangement allows for centralized wiring of the periscope camera module of this application, simplifying the circuit design.

[0077] Furthermore, when bending the conductive component 70, the mounting branch 72 is bent into a vertical arrangement using the connecting branch 71 as the base. Since the connecting branch 71 has a certain number, it provides support and positioning during bending, reducing the risk of deformation or misalignment between the mounting branch 72 and the connecting branch 71 due to bending. Moreover, there are no connecting parts other than the connecting branch 71 at the base between the mounting branches 72 of each part that needs to be bent, making each part of the mounting branch 72 relatively independent during bending, without interference. Only each part of the mounting branch 72 needs to be bent individually to change from a horizontal to a vertical state. The bending process is relatively simple and less prone to deformation or misalignment, which helps improve yield. After bending, the mounting branches 72 of each part are independent in the vertical direction.

[0078] In some embodiments, the base further includes a reinforcing member 80, which is embedded in the bottom wall 10, and the reinforcing member 80 and the conductive member 70 are spaced apart. Each reinforcing member 80 includes a first reinforcing portion 81 and a second reinforcing portion 82 that are interconnected. The first reinforcing portion 81 and the second reinforcing portion 82 are arranged on opposite sides. The first reinforcing portion 81 is adapted to support the second reinforcing portion 82 so that the projection portions of the second reinforcing portion 82 and the connecting branch 71 overlap in the direction along the first optical axis OA1.

[0079] In other words, both the conductive element 70 and the reinforcing element 80 are embedded in the housing 1. The connecting branches 71 of each conductive element 70 and each reinforcing element 80 are located on the bottom wall 10, while the mounting branches 72 of each conductive element 70 are located on the side wall 20. The mounting branches 72 on the side wall 20 are interconnected with the connecting branches 71 on the bottom surface. It can be understood that embedding the conductive element 70 and the reinforcing element 80 together in the base enhances the structural reliability of the base while simplifying the circuit design. Furthermore, the fact that the connecting branches 71 of the conductive element 70 are all located on the bottom wall 10, and the mounting branches 72 are all located on the side wall 20, allows for a more uniform distribution of the conductive element 70's wiring, which helps prevent wiring concentration in a certain part of the housing 1 from affecting the structural strength of the base.

[0080] Preferably, the first reinforcing part 81 and the connecting branch 71 are located in the same plane, which facilitates the placement of the reinforcing member 80 and the conductive member 70 during injection molding. The first reinforcing part 81 and the connecting branch 71 are spaced apart, that is, the first reinforcing part 81 is located in the gap between the two connecting branches 71, so as to avoid the reinforcing member 80 and the connecting branch 71 from contacting each other and conducting electricity, thereby improving the reliability of the circuit of the base.

[0081] In some embodiments, such as Figures 5-9 As shown, the reinforcing member 80 includes a first reinforcing member 83. The first reinforcing member 83 and the optical path turning part 2 of the periscope camera module are disposed opposite to each other in the direction of the first optical axis OA1. At least a portion of the first reinforcing member 83 forms a first magnetic absorbing piece 831, which interacts with the first magnetic magnet 104 installed on the optical path turning part 2. This helps to improve the positioning of the optical path turning part 2, thereby improving the imaging performance of the periscope camera module.

[0082] In one specific embodiment, such as Figures 5-7 As shown, the first reinforcing member 83 includes a first reinforcing unit 81A and a fourth reinforcing unit 82A. The first reinforcing unit 81A and the connecting branch 71 of the conductive member 70 are located on the same plane and are spaced apart. The first reinforcing unit 81A and the fourth reinforcing unit 82A are arranged on opposite sides, thereby supporting the fourth reinforcing unit 82A. The fourth reinforcing unit 82A is positioned above the connecting branch 71 to form a first magnetic absorbing piece 831. Furthermore, the first magnetic absorbing piece 831 and the first magnetic magnet 104 on the bottom surface of the optical path turning part 2 are arranged opposite each other along the first optical axis OA1, so that the optical path turning part 2 and the housing 1 are attracted to each other, thereby clamping the support member 401 between the optical path turning part 2 and the housing 1 to prevent the support member 401 from detaching. The interaction between the first magnetic absorbing piece 831 and the first magnetic magnet 104 drives the optical path turning part 2 to reset.

[0083] The support member 401 includes a first support member 401A, which is disposed between the first guide rail portion 105 and the bottom wall 10 of the optical path turning part 2. When the anti-shake coil 93 and the anti-shake magnet 101 interact, the first support member 401A supports the movement of the optical path turning part 2 relative to the housing 1. A pre-pressure is generated by the magnetic attraction of the first magnetic magnet 104 and the first magnetic plate 831, keeping the optical path turning part 2 on the housing 1 and preventing the first support member 401A from detaching. Furthermore, when the movement of the optical path turning part 2 ends, it can be reset by the magnetic attraction of the first magnetic magnet 104 and the first magnetic plate 831. The first support member 401A can be implemented as a ball bearing.

[0084] It is worth mentioning that the bottom of the optical path turning part 2 may have two first magnetic magnets 104 arranged at intervals along the third axis A3, so that the attractive force distribution between the optical path turning part 2 and the housing 1 is more uniform, thereby improving the structural reliability of the periscope camera module.

[0085] In one specific embodiment, a first reinforcing member 83 has two spaced-apart fourth reinforcing units 82A, and the two fourth reinforcing units 82A are connected and supported by a plurality of first reinforcing units 81A. It is understood that the two fourth reinforcing units 82A can each form a first magnetic absorbing piece 831, and each first magnetic absorbing piece 831 corresponds to a first magnetic magnet 104 along the first optical axis OA1, thereby improving the reliability of the interaction between the first magnetic absorbing piece 831 and the first magnetic magnet 104. Furthermore, the two first magnetic absorbing pieces 831 are symmetrically arranged about the first optical axis OA1. The corresponding two first magnetic magnets 104 are symmetrically arranged about the first optical axis OS1, so that the two sides of the optical path turning part 2 are balanced by magnetic attraction along the first optical axis OA1, generating a balanced preload.

[0086] In another specific embodiment, the two first magnetic attracting pieces 831 are each formed by a first reinforcing member 83. That is, a first reinforcing member 83 has a fourth reinforcing unit 82A to form a first magnetic attracting piece 831. By arranging two first reinforcing members 83 at intervals, two first magnetic attracting pieces 831 are formed at intervals.

[0087] It is understandable that the fourth reinforcing unit 82A of the first reinforcing member 83 extends along the third axis A3 so that the first magnetic absorbing piece 831 has a certain length along the third axis A3, which can be adapted to the movement stroke of the optical path turning part 2. This allows the first magnetic absorbing piece 831 and the first magnetic magnet 104 to continuously generate magnetic attraction during the movement of the optical path turning part 2, maintaining a pre-pressure state between the optical path turning part 2 and the bottom wall 10 of the housing 1, so as to prevent the first support member 401A from detaching.

[0088] Furthermore, such as Figure 5 , Figure 6 and Figure 8 As shown, the reinforcing member 80 also includes a second reinforcing member 84. The second reinforcing member 84 and the lens part 3 of the periscope camera module are disposed opposite to each other in the direction of the first optical axis OA1. At least a portion of the second reinforcing member 84 forms a second magnetic absorbing piece 841, which interacts with the second magnetic magnet 303 installed at the bottom of the lens part 3. This helps to improve the positioning of the lens part 3 and thus improve the imaging performance of the periscope camera module.

[0089] Furthermore, such as Figure 5 , Figure 6 and Figure 9 As shown, the reinforcing member 80 includes a third reinforcing member 85, at least a portion of which is disposed opposite to the second guide rail portion 302 of the lens portion 3 in the first optical axis OA1 direction. It is understood that the support member 401 includes a second support member 401B, which is disposed between the second guide rail portion 302 of the lens portion 3 and the bottom wall 10 of the base, thereby supporting the movement of the lens portion 3 relative to the bottom wall 10 of the housing 1. It is understood that the embedding of the third reinforcing member 85, with the second guide rail portion 302 disposed opposite to the base in the first optical axis OA1 direction, enhances the structural strength of the bottom wall 10, improves the structural reliability of the base, and thus extends the service life of the base.

[0090] In some embodiments, the third reinforcing member 85 is fully embedded within the bottom wall 10, thereby improving the structural reliability and impact resistance of the bottom wall 10 of the base and reducing the risk of cracking due to impact. In other embodiments, at least a portion of the third reinforcing member 85 is exposed on the surface of the bottom wall 10, allowing it to contact the second support member 401B, thereby improving the wear resistance of the bottom wall 10. Furthermore, when the third reinforcing member 85 is exposed on the bottom wall 10, it improves the levelness of the bottom wall 10, which helps to keep the second support member 401B moving horizontally.

[0091] It is worth mentioning that, in one specific embodiment, such as Figure 5 As shown, the second reinforcing member 84 and the third reinforcing member 85 are the same part, making the structure of the base more compact. Specifically, the second reinforcing unit 81B of the second reinforcing member 84 is positioned opposite to the second magnetic magnet 303 on the lens section 3 along the first optical axis OA1 to form a second magnetic absorbing piece 841. Furthermore, at least one side of the second reinforcing unit 81B is connected to a fifth reinforcing unit 82B, allowing the second reinforcing unit 81B to support the fifth reinforcing unit 82B, so that the fifth reinforcing unit 82B is exposed above the bottom wall 10 and positioned opposite to the second guide rail section 302 of the lens section 3 along the first optical axis OA1.

[0092] Specifically, the bottom of the lens section 3 has two second magnetic magnets 303 spaced apart along the third axis A3, which makes the attractive force distribution between the lens section 3 and the housing 1 more uniform, thereby improving the structural reliability of the periscope camera module. The second reinforcing unit 81B forms two second magnetic pieces 841 spaced apart along the third axis A3, and the second magnetic pieces 841 extend along the second optical axis OA2. When the lens section 3 moves along the second optical axis OA2, the second magnetic pieces 841 cover the movement range of the second magnetic magnets 303 on the lens section 3.

[0093] Understandably, the second support member 401B can be implemented as a ball bearing, adapted to be clamped between the second guide rail portion 302 and the fifth reinforcing unit 82B to support the movement of the lens portion 3. The second support member 401B can also be implemented as a guide rod, adapted to be clamped between the second guide rail portion 302 and the fifth reinforcing unit 82B to support the movement of the lens portion 3.

[0094] In some embodiments, the second support member 401B can be disposed between two second guide rail portions 302 disposed on opposite sides of the bottom of the lens portion 3 and on both sides of the housing 1. Further, the second support members 401B on both sides can be implemented as ball bearings, or both as guide rails; alternatively, one side of the second support member 401B can be implemented as a ball bearing, and the other side as a guide rod. In other embodiments, the second support member 401B can be disposed between one side of the bottom of the lens portion 3 and one side of the second guide rail portion 302 on the housing 1.

[0095] More specifically, such as Figure 5 and Figure 6 As shown, when the second support member 401B on one side of the lens part 3 is implemented as a ball bearing and the second support member 401B on the other side is implemented as a guide rod, the bottom surface of the lens part 3 has a second guide rail part 302. Then, one side of the second reinforcing unit 81B is connected to a fifth reinforcing unit 82B that is disposed opposite to the second guide rail part 302 along the first optical axis OA1. The fifth reinforcing unit 82B extends along the second optical axis OA2 to cover the movement range of the ball bearing of the lens part 3, and the fifth reinforcing unit 82B is exposed on the surface of the bottom wall 10 to improve the wear resistance of the base. On the other side of the base, there is a third reinforcing member 85 disposed opposite to the guide rod along the first optical axis OA1. The third reinforcing unit 81C of the third reinforcing member 85 extends along the second optical axis OA2 to cover the movement range of the guide rod, and the third reinforcing unit 81C is embedded in the bottom wall 10 to increase the structural strength. The sixth reinforcing unit 82C of the third reinforcing member 85 is located at both ends of the third reinforcing unit 81C.

[0096] When the lens section 3 is in the form of double-sided support, the bottom surface of the lens section 3 has two second guide rail sections 302 that are spaced apart along the third axis A3. Then, the second reinforcing unit 81B and a fifth reinforcing unit 82B are connected to each side, and the fifth reinforcing unit 82B extends along the second optical axis OA2 to cover the movement range of the second support member 401B of the lens section 3.

[0097] It is understandable that the second reinforcing member 84 and the third reinforcing member 85 can also be provided separately, which is beneficial to simplifying the structure of the second reinforcing member 84 and the third reinforcing member 85.

[0098] It is worth mentioning that each reinforcing member 80 is made of a magnetically conductive material, suitable for forming the first magnetic absorbing piece 831 and the second magnetic absorbing piece 841, thereby generating a magnetic attraction with the first magnetic magnet 104 on the optical path turning part 2 and the second magnetic magnet 303 on the lens part 3. This facilitates the repositioning of the optical path turning part 2 and the lens part 3, and provides a clamping effect on the support member 401. Furthermore, each reinforcing member 80 is made of a material with a certain rigidity and strength, thereby improving the structural strength of the bottom wall 10. Preferably, the reinforcing member 80 is made of magnetically conductive stainless steel.

[0099] Furthermore, the material of the conductive component 70 is a material with good conductivity, weak magnetic permeability, or even no magnetic permeability, which helps to reduce the mutual interference between the magnetic field of the conductive component 70 and the magnetic field of the reinforcing component 80.

[0100] In some embodiments, such as Figure 4 , Figure 6 , Figure 14 , Figure 17 and Figure 18 As shown, the housing 1 includes a fixing portion 30, which covers at least a portion of the conductive element 70 and at least a portion of the reinforcing element 80, so that the conductive element 70 and the reinforcing element 80 are kept spaced apart. It is understood that the fixing portion 30 initially fixes the relative positions of the conductive element 70 and the reinforcing element 80, which helps to avoid relative movement between the conductive element 70 and the reinforcing element 80 in subsequent processes, reduces the risk of contact between the conductive element 70 and the reinforcing element 80, and thus helps to improve the reliability of the periscope camera module's circuitry.

[0101] Specifically, such as Figure 4As shown, the fixing part 30 includes a plurality of first fixing parts 31. Each first fixing part 31 covers at least a portion of the connecting branch 71 and at least a portion of the first reinforcing part 81, so that the connecting branch 71 and the first reinforcing part 81 are spaced apart on the bottom wall 10, and / or covers at least a portion of the connecting branch 71 and at least a portion of the second reinforcing part 82, so that the connecting branch 71 and the second reinforcing part 82 are spaced apart in the direction of the first optical axis OA1. That is, the first fixing part 31 can fix the relative position of the connecting branch 71 and the reinforcing member 80 in the horizontal direction perpendicular to the first optical axis OA1 and / or in the vertical direction along the first optical axis OA1, thereby keeping the conductive member 70 and the reinforcing member 80 spaced apart.

[0102] Furthermore, such as Figure 6 As shown, when the first reinforcing portion 81 or the second reinforcing portion 82 of the reinforcing member 80 extends for a considerable length in the horizontal direction perpendicular to the first optical axis OA1, the first fixing portion 31 includes a first extension structure 311 covering the reinforcing member 80 and a plurality of second extension structures 312 covering the connecting branches 71. The first extension structure 311 is adapted to extend along the length direction of the first reinforcing portion 81 or the second reinforcing portion 82 to cover at least a portion of the surface of the first reinforcing portion 81 or the second reinforcing portion 82, thereby protecting the first reinforcing portion 81 or the second reinforcing portion 82 and reducing the risk of deformation of the reinforcing member 80 in subsequent processes. The plurality of second extension structures 312 are spaced apart along the extension direction of the first extension structure 311 and cover the connecting branches 71, so that the connecting branches 71 of the conductive member 70 and the reinforcing member 80 are kept spaced apart in the horizontal direction.

[0103] Preferably, the second extension structure 312 extends from one side of the first extension structure 311 along the direction of the vertical connecting branch 71 and covers the connecting branch 71 of at least two conductive elements 70. When the reinforcing member 80 and / or the connecting branch 71 are subjected to external force, the external force can be distributed to the connecting branch 71 of multiple conductive elements 70, which is beneficial to improving the ability to bear external force and thus improving the structural strength of the base and the reliability of the circuit.

[0104] In addition, such as Figure 14As shown, the fixing part 30 also includes several second fixing parts 32. Each second fixing part 32 covers the corner of the connecting branch 71 or the corner of the mounting branch 72, which helps to prevent the conductive component 70 from deforming or being damaged. It is understood that the corners of the connecting branch 71 and the mounting branch 72 have low rigidity and are prone to deformation in subsequent processes. Providing second fixing parts 32 at the corners can fix the relative positions of the connecting branches 71 or the mounting branches 72 at the corners, so as to prevent the connecting branches 71 or the mounting branches 72 between the conductive components 70 from deforming at the corners and making contact with each other, which helps to improve the reliability of the circuit of the base.

[0105] It is worth mentioning that the connecting branch 71 is located on the bottom wall 10, and the mounting branch 72 is located on the side wall 20. Therefore, the second fixing part 32 located at the corner of the connecting branch 71 and the second fixing part 32 located at the corner of the mounting branch 72 are separated from each other, and the second fixing parts 32 located at the corners of the mounting branches 72 on different side walls 20 are also separated from each other, so as to avoid affecting the bending of the conductive component 70 in subsequent processes.

[0106] It is understood that the first fixing part 31 and the second fixing part 32 may be provided separately at intervals, or the first fixing part 31 and the second fixing part 32 may be connected to each other to be integrally formed. This application does not impose specific restrictions on this.

[0107] In some embodiments, such as Figure 4 As shown, the housing 1 also includes several mounting portions 40 located on the sidewall 20. Each mounting portion 40 covers a portion of the mounting branch 72 of the conductive element 70. The central region of each mounting portion 40 has a recess 41 for accommodating the electronic component 90. Specifically, each mounting portion 40 includes a peripheral wall 42 and a base plate 43, with the recess 41 defined between the peripheral wall 42 and the base plate 43. The base plate 43 covers a portion of the mounting branch 72 of the conductive element 70, thereby fixing and protecting the mounting branch 72 of the conductive element 70, while simultaneously isolating the electronic component 90 from the mounting branch 72. Furthermore, the fixed end 73 of the conductive element 70 is exposed on the surface of the base plate 43 for conductive connection with the electronic component 90 mounted on the base plate 43.

[0108] Understandably, as mentioned above, by setting the fixed end 73 and the mounting branch 72 on opposite sides, the fixed end 73 can be exposed from the base plate 43 and is suitable for connection with the electronic component 90. This avoids the need to open a recessed avoidance area on the base plate 43 to expose the fixed end 73, which helps to simplify the structure of the mounting part 40, makes the surface of the base plate 43 flat, further reduces structural abrupt changes on the mounting part 40, helps to reduce stress concentration, and improves the structural strength of the mounting part 40.

[0109] Furthermore, such as Figure 11 and Figure 14 As shown, the mounting part 40 has a pair of protrusions 44 in the groove 41 for positioning and mounting the image stabilization coil 93 or the focusing coil 94. Specifically, each image stabilization coil 93 and each focusing coil 94 has a coil body 951 and a positive lead end 953 and a negative lead end 954 extending from the coil body 951. The inner wall of the coil body 951 defines a mounting hole 952, so that the coil body 951 can be sleeved on the protrusion 44. The positive lead end 953 and the negative lead end 954 are adapted to be connected to the connection end 731 of the conductive member 70 to conduct electricity, and then cooperate with the image stabilization magnet 101 or the focusing magnet 301 to drive the optical path deflection part 2 and the lens part 3 to move within the base.

[0110] It is worth mentioning that when installing the image stabilization coil 93 and the focus coil 94, the coil body 951 can be formed by winding around the two opposing protrusions 44, starting from either the positive lead end 953 or the negative lead end 954, and stopping at either the negative lead end 954. Alternatively, the coil can be pre-wound and then fitted onto the protrusions 44.

[0111] Furthermore, the height of the protrusion 44 and / or the height of the peripheral wall 42 are greater than the heights of the image stabilization coil 93 and the focusing coil 94, in order to protect the image stabilization coil 93 and the focusing coil 94. That is, when the coil body 951 of the image stabilization coil 93 and the focusing coil 94 is mounted on the protrusion 44, the coil body 951 abuts against the base plate 43, and along the direction perpendicular to the base plate 43, the extension height of the protrusion 44 and / or the extension height of the peripheral wall 42 are greater than the height of the coil body 951. This helps to avoid interference between the optical path bend 2 and the lens part 3 and the coil body 951 when they move in the base, thereby reducing the risk of damage to the image stabilization coil 93 and the focusing coil 94.

[0112] In some embodiments, such as Figure 10 and Figure 11 As shown, along the direction perpendicular to the base plate 43, the positive lead 953 and negative lead 954 of each coil do not coincide with the coil body 951 of each coil. That is, the connection end 731 of the conductive component 70 does not coincide with the coil body 951 of each coil. Therefore, when the positive lead 953 and negative lead 954 are soldered to the fixed end 73 of the conductive component 70, interference from the coil body 951 with the soldering operation is avoided, reducing the difficulty of the soldering operation and thus improving its efficiency. Simultaneously, it helps prevent accidental conduction between the coil body 951 and the connection end 731 of the conductive component 70, reducing the risk of short circuits and improving the reliability of the base's circuitry.

[0113] Specifically, in some embodiments, the housing 1 further includes a separation structure 61 between the optical path turning part 2 and the lens part 3 to separate them, which helps to avoid interference between the optical path turning part 2 and the lens part 3 during movement. Furthermore, the housing 1 also includes a positioning structure 62, suitable for positioning the fixed lens portion on which the lens part 3 is mounted.

[0114] In one specific embodiment, such as Figures 10-13 As shown, the anti-shake magnet 101 is mounted on the side of the optical path turning part 2 opposite to the first sidewall 21. The anti-shake magnet 101 includes a pitch magnet 102 and two oscillating magnets 103. The oscillating magnets 103 are located opposite each other on both sides of the pitch magnet 102 along the third axis A3. Furthermore, the first sidewall 21 has a first mounting part 45. The anti-shake coil 93 is housed in the groove 41 of the first mounting part 45, and the first part 721 of the mounting branch 72 for connecting with the anti-shake coil 93 is embedded in the base plate 43 of the first mounting part 45. That is, the first part 721 for connecting with the anti-shake coil 93 is located on the first sidewall 21, which helps to make the distribution of the conductive parts 70 in the housing 1 more uniform and the wiring simpler.

[0115] It is understood that the image stabilization coil 93 includes a pitch coil 931 and two oscillation coils 932. The pitch coil 931 has a first coil body 951A and a first mounting hole 952A defined by the first coil body 951A; the oscillation coil 932 has a second coil body 951B and a second mounting hole 952B defined by the second coil body 951B. The pitch coil 931 is located in the middle region of the groove 41 of the first mounting part 45, so that it is arranged opposite to the pitch magnet 102 along the second optical axis OA2. The pitch coil 931 is energized by being interconnected with the first part 721 of the connecting branch 71 through the first connecting end 731A, so that the optical path turning part 2 can be driven to pitch around the third axis A3 by the relative action of the pitch coil 931 and the pitch magnet 102. Furthermore, the two swing coils 932 are located on opposite sides of the pitch coil 931 along the third axis A3, and are positioned opposite to the swing magnet 103 along the second optical axis OA2. The swing coils 932 are energized by being connected to the first part 721 of the connecting branch 71 through the first connecting end 731A, and thus the optical path turning part 2 is driven to swing around the first optical axis OA1 by the relative action of the swing coils 932 and the swing magnet 103.

[0116] It is worth mentioning that, such as Figure 10 and Figure 11As shown, when a conductive element 70 has two connection terminals 731, the positive lead terminal 953 of one swing coil 932 and the negative lead terminal 954 of the other swing coil 932 can be connected through the two first connection terminals 731A of the conductive element 70, respectively. Similarly, the negative lead terminal 954 of one swing coil 932 and the positive lead terminal 953 of the other swing coil 932 can be connected through the two first connection terminals 731A of the other conductive element 70. Furthermore, the positive lead terminals 953 and negative lead terminals 954 of the two swing coils 932 can be connected through the two conductive elements 70, each with its own first connection terminal 731A. It is understood that the conductive element 70 also has a control terminal 732 for connection with the control unit 92. The two control terminals 732 of the two conductive elements 70 can be used to control the energization of the two swing coils 932 simultaneously, which simplifies the wiring of the conductive elements 70 and makes the base structure more compact.

[0117] Furthermore, the first connection terminals 731A of the two conductive branches are respectively connected to the positive lead terminal 953 and the negative lead terminal 954 of the pitch coil 931, thereby controlling the energization of the pitch coil 931. In other words, the pitch coil 931 and the two oscillation coils 932 can be connected to the control unit 92 through four conductive components 70, which helps to reduce the number of conductive components 70, thereby reducing the wiring difficulty and making the structure of the base more compact.

[0118] It is understandable that the positive lead 953 and negative lead 954 of one swing coil 932 and the positive lead 953 and negative lead 954 of another swing coil 932 can be connected to each other through the first connection terminals 731A of the four conductive components 70. In other words, each swing coil 932 is connected to the control unit 92 through two conductive components 70, which simplifies the wiring of the conductive components 70.

[0119] In another specific embodiment, the pitch magnet 102 is mounted on the side of the optical path turning section 2 opposite to the first sidewall 21, wherein one oscillating magnet 103 is mounted on the side of the optical path turning section 2 opposite to the second sidewall 22, and another oscillating magnet 103 is mounted on the side of the optical path turning section 2 opposite to the third sidewall 23. Further, the first sidewall 21 has a first mounting portion 45, and the pitch coil 931 is housed in the groove 41 of the first mounting portion 45, so that it is positioned opposite to the pitch magnet 102 along the second optical axis OA2. The pitch coil 931 is energized through a first connecting end 731A and a first part 721 of the connecting branch 71, thereby driving the optical path turning section 2 to pitch around the third axis A3 through the relative action of the pitch coil 931 and the pitch magnet 102. Furthermore, each of the second sidewall 22 and the third sidewall 23 has a fourth mounting portion for accommodating the swing coil 932, so that the swing coil 932 and the swing magnet 103 are arranged opposite to each other along the third axis A3. The swing coil 932 is energized by communicating with the second part 722 and the third part 723 of the connecting branch 71 through the first connecting end 731A, so that the optical path turning part 2 can be driven to swing around the first optical axis OA1 by the relative action of the swing coil 932 and the swing magnet 103.

[0120] In some embodiments, such as Figures 14-16 As shown, the lens section 3 is driven from one side, and the focusing coil 94 has a third coil body 951C and a third mounting hole 952C defined by the third coil body 951C. Specifically, the focusing magnet 301 is mounted on the side of the lens section 3 opposite to the second side wall 22. The second side wall 22 of the housing 1 has a second mounting part 46. The second mounting part 46 and the lens section 3 are arranged opposite each other along the third axis A3. The focusing coil 94 is housed in the groove 41 of the second mounting part 46, so that it is arranged opposite to the focusing magnet 301 along the third axis A3. The focusing coil 94 is energized by communicating with the second part 722 of the connecting branch 71 through the second connecting end 731B, thereby driving the lens section 3 to move along the second optical axis OA2 through the relative action of the focusing coil 94 and the focusing magnet 301.

[0121] In other embodiments, the lens portion 3 is driven from both sides. Specifically, the lens portion 3 includes two focusing magnets 301, one pair of focusing magnets 301 being mounted on the side of the lens portion 3 opposite to the second sidewall 22, and the other pair of focusing magnets 301 being mounted on the side of the lens portion 3 opposite to the third sidewall 23. In other embodiments, the second sidewall 22 and the third sidewall 23 of the housing 1 each have a second mounting portion 46 for accommodating the focusing coil 94, so that the focusing coil 94 and the focusing magnet 301 are arranged opposite to each other along the third axis A3. The focusing coil 94 located on the second sidewall 22 is energized by communicating with the second part 722 of the connecting branch 71 through the second connecting end 731B, and the focusing coil 94 located on the third sidewall 23 is energized by communicating with the third part 723 of the connecting branch 71 through the second connecting end 731B. Thus, the lens part 3 can be driven to move along the second optical axis OA2 by the relative action of the focusing coil 94 and the focusing magnet 301.

[0122] It is understandable that the first part 721 and the first connecting end 731A located on the first side wall 21, the second part 722, the second connecting end 731B and the third connecting end 731C located on the second side wall 22, and the third part 723, the second connecting end 731B and the third connecting end 731C located on the third side wall 23 are all connected through the connecting branch 71 located on the bottom wall 10 and the third part 723 and the control end 732 located on the third side wall 23. This makes the wiring distribution of the conductive parts 70 on the base more uniform and helps to avoid the concentration of wiring in a certain part, which would affect the structural strength of the base.

[0123] Furthermore, in some embodiments, such as Figure 10 and Figure 11 As shown, the first sensing element 91A is located within the stabilization coil 93 and is positioned opposite to the stabilization magnet 101 along the second optical axis OA2. That is, the projections of the first sensing element 91A and the stabilization magnet 101 overlap along the second optical axis OA2, thereby allowing the position of the optical path turning point 2 to be sensed by sensing the positional change of the stabilization magnet 101. Specifically, the first sensing element 91A is located within the first mounting hole 952A of the pitch coil 931, thus being positioned opposite to the pitch magnet 102; and / or within the second mounting hole 952B of the oscillation coil 932, thus being positioned opposite to the oscillation magnet 103.

[0124] Similarly, the second sensing element 91B is located in the third mounting hole 952C of the focusing coil 94 and is disposed opposite to the focusing magnet 301 along the third axis A3. That is, in the direction along the third axis A3, the projections of the second sensing element 91B and the focusing magnet 301 overlap, thereby sensing the position of the lens section 3 by sensing the position change of the focusing magnet 301.

[0125] Understandably, placing the sensing element 91 within the mounting hole 952 allows for a more compact arrangement of the electronic components 90 on the base, thus saving space. Furthermore, the connection terminal 731, used for connecting and communicating with the sensing element 91, is also located within the mounting hole 952, which facilitates a more concentrated routing of the conductive components 70.

[0126] In other embodiments, such as Figure 14 As shown, the second sensing element 91B is located outside the focusing coil 94 and together with the focusing coil 94 is located on the second sidewall 22. When the projections of the second sensing element 91B and the focusing magnet 301 overlap along the direction of the third axis A3, the second sensing element 91B can sense the position of the lens section 3 by sensing the position change of the focusing magnet 301. Conversely, when the projections of the second sensing element 91B and the focusing magnet 301 do not overlap along the direction of the third axis A3, a sensing magnet needs to be installed on the lens section 3, and the sensing magnet and the second sensing element 91B are arranged opposite to each other in the direction of the third axis A3, so that the second sensing element 91B can sense the position of the lens section 3 by sensing the position change of the sensing magnet.

[0127] Similarly, the first sensing element 91A is located outside the image stabilization coil 93 and is located together with the image stabilization coil 93 on the first sidewall 21. When the projections of the first sensing element 91A and the image stabilization magnet 101 overlap along the direction of the second optical axis OA2, the first sensing element 91A can sense the position of the optical path turning part 2 by sensing the position change of the image stabilization magnet 101. Conversely, when the projections of the first sensing element 91A and the image stabilization magnet 101 do not overlap along the direction of the second optical axis OA2, a sensing magnet needs to be installed on the optical path turning part 2, and the sensing magnet and the first sensing element 91A are arranged opposite each other in the direction of the second optical axis OA2, so that the first sensing element 91A can sense the position of the optical path turning part 2 by sensing the position change of the sensing magnet.

[0128] It is understandable that placing the sensing element 91 on the outside of the coil body 951 helps to reduce the magnetic interference of the coil to the sensing element 91, making the monitoring results of the sensing element 91 more accurate, and improving the accuracy of position control of the optical path turning part 2 and the lens part 3.

[0129] In other embodiments, the image stabilization coil 93 is disposed on the first sidewall 21, and the first sensing element 91A is located on the second sidewall 22 and / or the third sidewall 23. Furthermore, a sensing magnet is mounted on the optical path reversal portion 2 on the side opposite to the second sidewall 22 and / or the third sidewall 23, and the sensing magnet and the first sensing element 91A are disposed opposite each other in the direction of the third axis A3. Thus, the first sensing element 91A can sense the position of the optical path reversal portion 2 by sensing the position change of the sensing magnet. It is understood that disposing the first sensing element 91A outside the image stabilization coil 93 and on the opposite sidewall 20 of the image stabilization coil 93 helps reduce the magnetic interference of the image stabilization coil 93 on the first sensing element 91A, making the monitoring results of the first sensing element 91A more accurate, and improving the accuracy of position control of the optical path reversal portion 2.

[0130] It is worth mentioning that, along the direction of the vertical base plate 43, the projections of each sensing element 91 and the connection end 731 used to connect the sensing element 91 coincide, so that the sensing element 91 can be mounted and soldered to the connection end 731, which helps to reduce the difficulty of the soldering operation and improve the efficiency of the soldering operation.

[0131] It is understood that the sensing element 91 may be a Hall sensor, a magnetoresistive effect sensor (MR sensor), a giant magnetoresistive effect sensor (GMR sensor), a tunneling magnetoresistive effect sensor (TMR sensor), or a fluxgate sensor, and this application does not impose any specific limitations on it.

[0132] like Figure 17 and Figure 18As shown, the control unit 92 includes a substrate 921 and an integrated circuit 922 mounted on the substrate 921. The substrate 921 has several pads on its periphery for conductive connection with the control terminals 732 of the conductive components 70. A third mounting portion 47 is provided on the third sidewall 23 of the housing 1 for accommodating the substrate 921 and the integrated circuit 922 of the control unit 92. Specifically, a boss portion 471 protrudes from the periphery of the surface of the base plate 43 of the third mounting portion 47. The boss portion 471 has an upper platform surface 4711 parallel to the surface of the base plate 43 and side platform surfaces 4712 perpendicular to the surface of the base plate 43. A clearance space is formed between the side platform surfaces 4712 for placing the substrate 921. The control terminals 732 of each conductive component 70 are distributed on the boss portion 471, and the control terminals 732 protrude from the upper platform surface 4711 of the boss portion 471, allowing them to conductively connect with the pads on the substrate 921.

[0133] Preferably, when the substrate 921 is placed in the clearance space, the upper surface of the substrate 921 is coplanar with the upper platform surface 4711 of the boss portion 471, so that the pads and the control terminal 732 are located in the same plane, which helps to reduce the difficulty of soldering, thereby facilitating the soldering of the conductive pads and the control terminal 732, and at the same time making the structure of the base more compact.

[0134] Furthermore, the end face of the control terminal 732 is exposed on the side platform 4712 of the boss portion 471, which increases the solderable area of ​​the control terminal 732, improves the soldering strength between the control terminal 732 and the pad, and helps to improve the reliability of the conductive connection between the conductive component 70 and the substrate 921.

[0135] In some embodiments, such as Figure 19 As shown, the housing 1 also includes a raised portion 51, which extends from the fixed portion 30 and / or the mounting portion 40 toward the middle region of the base, thereby providing positioning for subsequent processes.

[0136] Furthermore, such as Figure 2 and Figure 3 As shown, the housing 1 also includes a molding section 52, which covers at least a portion of the connecting branch 71, the mounting branch 72, the fixing part 30, the mounting part 40, and at least a portion of the heightening part 51, thereby forming the bottom wall 10 and the side wall 20. In other words, the molding section 52 can connect the separately arranged connecting branch 71, mounting branch 72, fixing part 30, mounting part 40, and heightening part 51 into a whole to form the bottom wall 10 and the side wall 20 of the housing 1, as well as the partition structure 61 between the optical path turning part 2 and the lens part 3, and the positioning structure 62 of the lens part 3.

[0137] Specifically, the molding part 52 can be formed by multiple injection molding processes, for example, by molding the bottom wall 10 and side wall 20 surrounding the optical path turning part 2 and the bottom wall 10 and side wall 20 surrounding the lens part 3 in two separate injection molding processes. The molding part 52 can also be formed by a single injection molding process. This application does not impose any specific limitations on this.

[0138] It is worth mentioning that for structures with relatively large wall thickness in the housing 1, such as the separation structure 61 between the optical path turning part 2 and the lens part 3 and the positioning structure 62 of the lens part 3, it is preferable to first form a part by the raised part 51 and then fully form it by the molding part 52 covering the raised part 51, rather than forming it by injection molding in one go through the molding part 52. This is beneficial to reduce the shrinkage rate of the housing 1 and reduce the risk of generating other defects.

[0139] A manufacturing method for manufacturing the base of the periscope camera module described above, characterized by comprising the steps of:

[0140] a. Provide a first strip of material for forming a conductive element 70, wherein the conductive element 70 includes a connecting branch 71 and mounting branches 72 formed on at least three peripheral sides of the connecting branch 71, and respectively form a first part 721, a second part 722 and a third part 723 of the mounting branches 72 to obtain a first semi-finished product;

[0141] b. Perform a first injection molding on the first semi-finished product to form the mounting part 40, thus obtaining the second semi-finished product;

[0142] c. Provide electronic component 90, install electronic component 90 on the mounting part 40 of the second semi-finished product, and weld it to the control terminal 732 or connection terminal 731 of conductive component 70 to obtain the third semi-finished product;

[0143] d. The conductive part 70 of the third semi-finished product is bent to form a connecting branch 71 located on the bottom wall 10 and an installation branch 72 located on the side wall 20 to obtain the fourth semi-finished product.

[0144] e. Perform a second injection molding on the fourth semi-finished product, connecting the separate first mounting part 45, second mounting part 46 and third mounting part 47, and covering the remaining part of the conductive component 70 to form the molding part 52, thereby obtaining the base of the periscope camera module.

[0145] Specifically, in step a, the mounting branch 72 includes a first part 721 and a second part 722. The first part 721 is fixed to the image stabilization coil 93 of the electronic component 90, and the second part 722 is fixed to the focusing coil 94 of the electronic component 90. The first part 721 is embedded in the first side wall 21 of the side wall 20, and the second part 722 is embedded in the second side wall 22 and / or the third side wall 23 of the side wall 20.

[0146] In step b, a first mounting portion 45, a second mounting portion 46, and a third mounting portion 47 are formed to partially cover the first portion 721, the second portion 722, and the third portion 723, respectively, to obtain a second semi-finished product;

[0147] It is worth mentioning that step a further includes providing a second strip for forming the reinforcing member 80, positioning the first and second strips so that the conductive member 70 and the reinforcing member 80 are spaced apart to obtain a first semi-finished product; step b further includes forming a fixing part 30, which fixes the reinforcing member 80 and the conductive member 70 to maintain the spacing between them to obtain a second semi-finished product. Furthermore, the fixing part 30 and the mounting part 40 can be injection molded in one step, or they can be injection molded separately in two steps.

[0148] The electronic component 90 in step c includes an image stabilization coil 93, a focus coil 94, and a control unit 92. The image stabilization coil 93 is mounted in the first part 721, the focus coil 94 is mounted in at least one of the second mounting part 46 and the third mounting part 47, and the control unit 92 is mounted in one of the second mounting part 46 and the third mounting part 47.

[0149] Step c specifically includes: c1, mounting the pitch coil 931 and the oscillation coil 932 onto the protrusion 44 in the groove 41 of the first mounting part 45, and connecting them to the first connecting end 731A; c2, mounting the focus coil 94 onto the protrusion 44 in the groove 41 of the second mounting part 46, and connecting it to the second connecting end 731B; c3, mounting the sensing element 91 into the grooves 41 of the first mounting part 45 and the second mounting part 46, and connecting it to the connecting end 731; c4, mounting the substrate 921 into the clearance space of the groove 41 of the third mounting part 47, and connecting it to the control end 732 on the boss part 471, and then mounting the integrated circuit 922 onto the substrate 921. It is understood that the order in which the steps in step c are performed is not specifically limited, and they can also be performed simultaneously.

[0150] In step d, the conductive component 70 of the third semi-finished product is bent so that the mounting branch 72 is bent vertically relative to the connecting branch 71. The first mounting portion 45, the second mounting portion 46, and the third mounting portion 47 are bent relative to the connecting branch 71 without interference, resulting in the fourth semi-finished product. It can be understood that the first mounting portion 45 covers the first part 721 of the mounting branch 72, the second mounting portion 46 covers the second part 722, and the third mounting portion 47 covers the third part 723. Therefore, each part of the mounting branch 72 is relatively independent during bending and does not interfere with each other. Only each part of the mounting branch 72 needs to be bent individually to change from a horizontal to a vertical state. The bending process is relatively simple and less prone to deformation or misalignment, which helps improve yield. After bending, each part of the mounting branch 72 is independent in the vertical direction.

[0151] In step e, the molding part 52 can be formed by multiple injection molding processes, for example: by two injection molding processes to form a portion of the bottom wall 10, the first side wall 21, a portion of the second side wall 22, and a portion of the third side wall 23 surrounding the optical path turning part 2, and to form another portion of the bottom wall 10, another portion of the second side wall 22, and another portion of the third side wall 23 surrounding the lens part 3. The molding part 52 can also be formed by a single injection molding process.

[0152] A periscope camera module, such as Figure 1 As shown, it includes: the base of the periscope camera module described above, the optical path deflection section 2, and the lens section 3. The optical path deflection section 2 is housed in the base of the periscope camera module and is adapted to pitch about the third axis A3 and swing about the first optical axis OA1; the lens section 3 is housed in the base of the periscope camera module and is adapted to move along the second optical axis OA2 and / or move in a plane perpendicular to the second optical axis OA2.

[0153] In other words, the base defines the accommodating space 24, the optical path deflection part 2 is installed in the accommodating space 24, the optical path deflection part 2 and the image stabilization coil 93 are opposite each other along the second optical axis OA2, and the optical path deflection part 2 is driven to perform image stabilization movement; the lens part 3 is also installed in the accommodating space 24, the lens part 3 and the focusing coil 94 are perpendicular to the third axis A3, and the lens part 3 is driven to perform focusing movement.

[0154] Understandably, the conductive element 70 and the reinforcing element 80 are embedded in the housing 1 of the base, which enhances the structural reliability of the base while simplifying the circuit design. Furthermore, it avoids placing a separate circuit board inside the base, allowing for a more compact structure of the periscope camera module and thus reducing its size, which is beneficial for miniaturization. Understandably, the conductive element 70 is protected by the housing 1, reducing the risk of damage to the conductive element 70 when the periscope camera module is subjected to external forces, thereby improving the reliability of the periscope camera module's circuitry.

[0155] Furthermore, the periscope camera module also includes a photosensitive component, which is mounted on the base of the periscope camera module and is electrically connected to the control unit 92 via a connection terminal 731 of the exposed mounting branch 72 on the base. Specifically, the photosensitive component is electrically connected to the control unit 92 via a third connection terminal 731C of the mounting branch 72.

[0156] The basic principles, main features, and advantages of this invention have been described above. Those skilled in the art should understand that this invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely principles of the invention. Various changes and modifications can be made to this invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the invention as claimed. The scope of protection claimed by this invention is defined by the appended claims and their equivalents.

Claims

1. A base for a periscope camera module, characterized in that, include: The shell includes a bottom wall and several side walls located around the bottom wall; A plurality of conductive elements are embedded in the bottom wall and the side wall, wherein the conductive elements include a plurality of connecting branches embedded in the bottom wall; A plurality of reinforcing members are embedded in the bottom wall, and the reinforcing members and the conductive members are spaced apart; each of the reinforcing members includes a first reinforcing part and a second reinforcing part that are connected to each other, the first reinforcing part and the second reinforcing part being disposed on opposite sides, the first reinforcing part being adapted to support the second reinforcing part so that the projection portion of the second reinforcing part and the connecting branch overlaps in the direction of the first optical axis of the periscope camera module.

2. The base of the periscope camera module according to claim 1, characterized in that, The first reinforcing part and the connecting branch are located in the same plane, and the first reinforcing part and the connecting branch are spaced apart.

3. The base of the periscope camera module according to claim 1, characterized in that, The reinforcing member includes a first reinforcing member and / or a second reinforcing member. The first reinforcing member and the optical path turning portion of the periscope camera module are disposed opposite to each other in the first optical axis direction, and at least a portion of the first reinforcing member forms a first magnetic absorbing piece to interact with an optical path magnet mounted on the optical path turning portion. The second reinforcing member and the lens portion of the periscope camera module are disposed opposite to each other in the first optical axis direction, and at least a portion of the second reinforcing member forms a second magnetic absorbing piece to interact with a lens magnet mounted on the lens portion.

4. The base of the periscope camera module according to claim 1, characterized in that, The reinforcing member includes a third reinforcing member, at least a portion of which is disposed opposite to the second guide rail portion of the lens portion of the periscope camera module in the first optical axis direction.

5. The base of the periscope camera module according to claim 1, characterized in that, The housing includes a fixing portion that covers at least a portion of the conductive element and at least a portion of the reinforcing element, such that the conductive element and the reinforcing element are spaced apart.

6. The base of the periscope camera module according to claim 5, characterized in that, The fixing part includes a plurality of first fixing parts, each of the first fixing parts covering at least a portion of the connecting branch and at least a portion of the first reinforcing part, such that the connecting branch and the first reinforcing part are spaced apart on the bottom wall, and / or covering at least a portion of the connecting branch and at least a portion of the second reinforcing part, such that the connecting branch and the second reinforcing part are spaced apart in the first optical axis direction.

7. The base of the periscope camera module according to claim 6, characterized in that, The fixing part includes a plurality of second fixing parts, each of the second fixing parts covering at least a portion of the corner of the conductive element located on the same plane.

8. The base of the periscope camera module according to claim 5, characterized in that, The conductive element includes a plurality of mounting branches embedded in the side wall, and the two ends of the connecting branches are respectively connected to the mounting branches of the side wall located on different circumferences of the bottom wall.

9. The base of the periscope camera module according to claim 8, characterized in that, The installation branch includes a first part, a second part, and a third part, which are respectively embedded in the side wall located on different sides of the bottom wall. The first part, the second part, and the third part are respectively distributed on the three sides of the connecting branch so as to be bent relative to the connecting branch without interfering with each other.

10. The base of the periscope camera module according to claim 8, characterized in that, The mounting branch includes a first part adapted to be interconnected with the image stabilization coil of the optical path bend of the periscope camera module. The sidewall includes a first sidewall, the first part is embedded in the first sidewall, the first sidewall is parallel to the first optical axis of the periscope camera module and perpendicular to the second optical axis of the periscope camera module.

11. The base of the periscope camera module according to claim 8, characterized in that, The conductive component also includes a fixed end located on the side wall, the fixed end and the mounting branch are electrically connected to each other, and the fixed end and the mounting branch are arranged on opposite sides so that the mounting branch is embedded in the side wall and the fixed end is exposed on the side wall.

12. The base of the periscope camera module according to claim 10, characterized in that, The fixed end includes a connection end and a control end. The connection end is adapted to be interconnected with the electronic components of the periscope camera module, and the control end is adapted to be interconnected with the control unit of the periscope camera module, so that the conductive element can connect the electronic components and the control unit.

13. The base of the periscope camera module according to claim 10, characterized in that, The housing also includes a mounting portion located on the side wall, the mounting portion covering a portion of the mounting branch of the conductive element; the mounting portion has a groove for accommodating the electronic components of the periscope camera module; the fixed end of the conductive element is exposed on the bottom surface of the groove for conductive connection with the electronic components or the control unit of the periscope camera module.

14. The base of the periscope camera module according to claim 11, characterized in that, The housing further includes a molding portion that covers at least a portion of the connecting branch, the mounting branch, the fixing portion, and the mounting portion to form the bottom wall and the side wall.

15. A manufacturing method for manufacturing a base for a periscope camera module as described in any one of claims 1-14, characterized in that, Including the following steps: a. Provide a first material strip and a second material strip, the first material strip is used to form a conductive component, and the second material strip is used to form a reinforcing component. Position the first material strip and the second material strip so that the conductive component and the reinforcing component are spaced apart to obtain a first semi-finished product. b. Perform a first injection molding on the first semi-finished product to form a fixing part and an mounting part, thereby obtaining a second semi-finished product; c. Provide electronic components, install the electronic components on the mounting part of the second semi-finished product, and weld them to the control end or connection end of the conductive component to obtain a third semi-finished product; d. The conductive component of the third semi-finished product is bent to form a connecting branch on the bottom wall and an installation branch on the side wall to obtain the fourth semi-finished product; e. Perform a second injection molding on the fourth semi-finished product to form a molding part and obtain the base of the periscope camera module.

16. The manufacturing method according to claim 15, characterized in that, The mounting branch includes a first part and a second part. The first part is fixed to the image stabilization coil of the electronic component, and the second part is fixed to the focusing coil of the electronic component. The first part is embedded in the first sidewall of the sidewall, and the second part is embedded in the second sidewall and / or the third sidewall of the sidewall.

17. A periscope camera module, characterized in that, include: The base of the periscope camera module as described in any one of claims 1-14; The optical path turning point is housed in the base of the periscope camera module and is adapted to pitch about the third axis of the periscope camera module and swing about the first optical axis of the periscope camera module. The lens section is housed in the base of the periscope camera module and is adapted to move along the second optical axis of the periscope camera module, wherein the third axis is orthogonal to the first optical axis and the second optical axis.

18. The periscope camera module according to claim 17, characterized in that, It also includes a photosensitive component, which is mounted on the base of the periscope camera module and is electrically connected to the control unit through the connection end of the exposed mounting branch on the base of the periscope camera module.

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