A fixing structure for a translator camera module

Abstract

This utility model provides a fixing structure for a translator camera module, including a translator body and a camera module that can be detachably installed inside the translator body via a fixing mechanism. The fixing mechanism includes a connecting block fixedly disposed at the bottom of the camera module and passable through a connecting groove inside the translator body; an energy storage block movably passed through the bottom wall of an energy storage groove via a first elastic component; a locking block movably passed through a sliding groove and connected to the opposite end of the energy storage block via a second elastic component; and a disassembly component disposed within the translator body and controlling the locking block to slide into the sliding groove. An energy storage groove and a sliding groove are respectively provided on the symmetrical sides of the connecting block, and a transmission hole penetrating both is provided at the bottom of the energy storage groove and the bottom of the sliding groove. This utility model allows for convenient disassembly and installation of the translator camera module and improves the reliability and stability of the camera module installation and fixing.

Description

Technical Field

[0001] This utility model relates to the field of translation machine technology, specifically a fixing structure for a translation machine camera module. Background Technology

[0002] With the acceleration of globalization and the increasing frequency of cross-border exchanges, translation devices, as a convenient language communication tool, have been widely used in tourism, business, education, and other fields. The built-in camera module, as one of the core components of a translation device, is crucial for enabling functions such as image recognition and text scanning.

[0003] The built-in camera in a translator is a common assembly module. Traditional fixing methods use adhesive backing or positioning ribs. However, with prolonged use and disassembly / repair, the adhesive backing may fail, and the fixation may become loose, leading to a series of problems such as unstable lens. For translators that require disassembly / repair or upgrade of the camera module, a more reliable and stable fixing mechanism is needed to improve the module's lifespan and facilitate quick disassembly.

[0004] Given the problems with traditional fixing methods, the market demand for a more robust and easily disassembled fixing structure for translator camera modules is increasingly urgent. A more reliable, stable, and easily disassembled and maintained fixing mechanism can not only extend the module's lifespan but also significantly improve the overall performance and user experience of the translator. Therefore, developing a new fixing structure for translator camera modules has become a pressing technical challenge. Utility Model Content

[0005] To address the aforementioned technical problems, this utility model provides a fixing structure for a translator camera module, which allows for convenient disassembly and installation of the translator camera module and improves the reliability and stability of the camera module installation and fixing.

[0006] To achieve the above objectives, this utility model provides the following technical solution: a translator camera module fixing structure, including a translator body and a camera module detachably installed inside the translator body via a fixing mechanism. The fixing mechanism includes a connecting block fixedly disposed at the bottom of the camera module and passable through a connecting groove inside the translator body; an energy storage block movably passed through the bottom wall of an energy storage groove via a first elastic component; a locking block movably passed through a sliding groove and connected to the opposite end of the energy storage block via a second elastic component; and a disassembly component disposed within the translator body and controlling the locking block to slide into the sliding groove. The symmetrical sides are respectively provided with an energy storage groove and a sliding groove, and the bottom of the energy storage groove and the bottom of the sliding groove are provided with transmission holes that pass through both; Initial state: When the first and second elastic components are in the normal elastic elongation state, the end of the energy storage block extends out of the connecting block, and the end of the locking block is located at the opening of the sliding groove; Working state: When the connecting block enters the connecting groove, the groove wall forces the energy storage block to retract completely into the energy storage groove, at which time the first and second elastic components are compressed; After the second elastic component is compressed, it generates elastic force, pushing the locking block to slide out of the sliding groove; When the connecting block is completely inserted into the connecting groove, the second elastic component pushes the locking block into the locking hole of the groove wall of the connecting groove.

[0007] Preferably, the energy storage block has two locking rods symmetrically and vertically arranged about its center position on one end face adjacent to the locking block; the locking block has a connecting post vertically fixedly arranged on one end face adjacent to the energy storage block; locking heads are symmetrically arranged on the opposite sides of the two locking rods, away from the energy storage block; a protrusion is fixedly arranged on the end of the connecting post away from the locking block; when the energy storage block and the locking block are respectively moved through the energy storage groove and the sliding groove, the protrusion will pass through the position between the two locking heads; during this process, the protrusion will force the two locking heads to move away from each other so that the protrusion can pass smoothly; when the protrusion has completely passed through the position between the two locking heads, the two locking heads will slide on the column of the connecting post and move closer to each other.

[0008] Preferably, the first elastic component includes a return spring that passes through the energy storage tank along the sliding direction of the energy storage block in the length direction and is connected at both ends to the energy storage block and the second fixing groove opened in the bottom wall of the energy storage tank, respectively. When the return spring is in the normal extended state, the end of the energy storage block passes through the outside of the energy storage tank.

[0009] Preferably, the second elastic component includes an energy storage spring that passes through the transmission hole along the length direction parallel to the return spring; the two ends of the energy storage spring abut against the opposing surfaces of the energy storage block and the protrusion, respectively; when both the energy storage spring and the return spring are in the normal extended state, the end of the energy storage block will protrude out of the energy storage groove, while the end of the locking block will be located at the opening position of the sliding groove.

[0010] Preferably, the translator body includes a detachably connected front shell and a rear shell, and a positioning block fixedly mounted on the front shell, with a connecting groove on the top of the positioning block.

[0011] Preferably, the positioning block has a limiting groove on its side that communicates with the card hole, and the disassembly assembly includes a transmission block that passes through the card hole via a third elastic component, and a disassembly component that controls the transmission block to move into the card hole and pushes the card block that passes through the card hole into the sliding groove.

[0012] Preferably, the disassembly component includes a limiting strip that is detachably installed at the opening of the limiting groove and has a sliding opening on its end face that communicates with the limiting groove; a control block that slides through the sliding opening; a limiting block that passes through the limiting groove and has its end face fixedly connected to the control block; and a button spring that passes through the limiting groove and has its two ends respectively connected to the bottom wall of the limiting groove and has a first fixing groove and a limiting block.

[0013] Preferably, a positioning hole is also provided at the same position as the sliding groove on the connecting block; a positioning post is inserted into the positioning hole, and the end of the positioning post is deformable; when the positioning post is inserted into the positioning hole, its two ends can respectively protrude outside the opening positions of the two positioning holes.

[0014] Preferably, the positioning post is made of nitrile rubber.

[0015] The beneficial effects of this utility model are:

[0016] 1. Through the coordinated action of the connecting block, energy storage block, locking block, and disassembly component, the camera module is quickly disassembled and installed. When the connecting block is inserted into the connecting groove, the groove wall forces the energy storage block to slide into the energy storage groove, compressing and storing energy in the second elastic component. The second elastic component then applies force to the locking block, forcing it to slide out of the sliding groove. When the connecting block is fully inserted into the connecting groove, the locking block is inserted into the locking hole under the action of the second elastic component, thus achieving stable installation of the camera module inside the translator body.

[0017] 2. The camera module is installed inside the translator body using a fixing mechanism, avoiding the adhesive failure problem caused by repeated disassembly and reassembly of traditional adhesive-backed fixing methods, and reducing lens instability due to loose fixing. At the same time, the simple disassembly and assembly process reduces the risk of damage to the camera module due to improper operation, extending the lifespan of the camera module.

[0018] 3. The overall design of the fixing mechanism is compact and occupies little space, which meets the compactness requirements of the internal structure of the translator body. At the same time, the elastic force of the first and second elastic components ensures the stable movement of the energy storage block and the locking block, thereby improving the reliability and stability of the fixing mechanism. Attached Figure Description

[0019] The accompanying drawings are provided to further illustrate the present invention and form part of the specification. They are used together with the embodiments of the present invention to explain the present invention, but do not constitute a limitation thereof. In the drawings:

[0020] Figure 1 This is a schematic diagram of the unfolded structure of the fixed structure of the translator camera module proposed in this utility model.

[0021] Figure 2 This is a schematic diagram of one side of the fixed mechanism of this utility model.

[0022] Figure 3 This is a schematic diagram of the other side of the fixing mechanism of this utility model.

[0023] Figure 4 This is a schematic diagram of the energy storage block and connecting block structure of this utility model.

[0024] Figure 5 This is a schematic diagram of the structure of the first elastic component and the second elastic component of this utility model.

[0025] Figure 6 This is a schematic diagram of the energy storage block locking mechanism of this utility model.

[0026] Figure 7 This is a schematic diagram of the cross-sectional structure of the energy storage block and the locking block of this utility model, in which the connecting block is inserted into the connecting groove.

[0027] In the diagram: 1. Front shell; 2. Rear shell; 3. Positioning block; 4. Connecting groove; 5. Connecting block; 6. Camera module; 7. Limiting strip; 8. Limiting block; 9. Control block; 10. Transmission block; 11. Button spring; 12. Limiting groove; 13. First fixing groove; 14. Locking hole; 15. Positioning hole; 16. Positioning post; 17. Energy storage groove; 18. Energy storage block; 19. Transmission hole; 20. Second fixing groove; 21. Reset spring; 22. Energy storage spring; 23. Locking rod; 24. Locking block; 25. Connecting post; 26. Protrusion; 27. Sliding groove. Detailed Implementation

[0028] To make the technical means, creative features, and achieved objectives and effects of this utility model easier to understand, the present utility model is further described below with reference to specific embodiments and accompanying drawings. However, the following embodiments are only preferred embodiments of this utility model and not all of them. Other embodiments obtained by those skilled in the art based on the embodiments described in the embodiments without creative effort are all within the protection scope of this utility model.

[0029] In the development of translation devices, the camera module, as one of the core components, plays a crucial role in the overall performance of the device due to its stability and reliability. However, current technologies often have several shortcomings in the way camera modules are fixed, which severely restrict the user experience and performance of translation devices. Specifically, current methods for fixing camera modules in translation devices mainly face the following technical problems:

[0030] (1) The fixation is not stable and it is easy to loosen:

[0031] Traditional mounting methods, such as adhesive backing, are prone to adhesive failure after prolonged use or repeated disassembly, leading to unstable camera module mounting and loosening. This not only affects the image quality of the camera module but may also damage the overall structure of the translator.

[0032] (2) Inconvenient to disassemble and assemble, difficult to repair and upgrade:

[0033] Existing mounting methods are often complex to install and remove, requiring tools and easily damaging the module or the translator itself during disassembly. This not only increases the difficulty of maintenance and upgrades but also prolongs repair time and reduces user experience.

[0034] (3) It occupies a large space and affects the internal structural layout:

[0035] Some fixed mechanisms have complex designs and occupy a large amount of space, which is disadvantageous for translation devices with compact internal structures. This not only limits the layout space of other components but may also affect the overall aesthetics and portability of the translation device.

[0036] To address the aforementioned technical issues, this technical solution proposes a novel fixing structure for translator camera modules. This structure, through carefully designed connecting blocks, energy storage blocks, and locking blocks, achieves stable fixing and rapid assembly / disassembly of the camera module, effectively solving the drawbacks of traditional fixing methods and providing a more efficient, convenient, and reliable solution for fixing translator camera modules.

[0037] Example 1

[0038] A fixing structure for a translator camera module, such as Figure 1-7As shown, the device includes a translator body and a camera module 6 detachably installed inside the translator body via a fixing mechanism. The fixing mechanism includes a connecting block 5 fixedly disposed at the bottom of the camera module 6 and passable through a connecting groove 4 inside the translator body; an energy storage block 18 movably passed through the bottom wall of an energy storage tank 17 via a first elastic component; a locking block 24 movably passed through a sliding groove 27 and connected to the opposite end of the energy storage block 18 via a second elastic component; and a disassembly component disposed within the translator body and controlling the locking block 24 to slide into the sliding groove 27. Energy storage tanks 17 and sliding grooves 27 are respectively provided on the symmetrical sides of the connecting block 5. The bottom of the energy storage groove 17 and the bottom of the sliding groove 27 are provided with a transmission hole 19 that passes through both. Initial state: When the first and second elastic components are in the normal elastic elongation state, the end of the energy storage block 18 extends out of the connecting block 5, and the end of the locking block 24 is located at the opening of the sliding groove 27. Working state: When the connecting block 5 enters the connecting groove 4, the groove wall of the connecting groove 4 forces the energy storage block 18 to retract completely into the energy storage groove 17. At this time, the first and second elastic components are compressed. After the second elastic component is compressed, it generates elastic force, which pushes the locking block 24 to slide out of the sliding groove 27. When the connecting block 5 is completely inserted into the connecting groove 4, the second elastic component pushes the locking block 24 into the locking hole 14 of the groove wall of the connecting groove 4.

[0039] In this embodiment, the process of disassembling and installing the camera module 6 within the translator body is as follows: First, the connecting block 5 on the camera module 6 is inserted into the connecting groove 4. At this time, the end of the energy storage block 18 inserted outside the energy storage groove 17 is pushed into the energy storage groove 17 by the pressure of the groove wall of the connecting groove 4. Since the groove wall of the connecting groove 4 on the other side is in contact with the locking block 24, the position of the locking block 24 at the opening of the sliding groove 27 is limited, thereby reducing the distance between the energy storage block 18 and the locking block 24, and thus compressing and storing energy for the first elastic component and the second elastic component. When the connecting block 5 is completely inserted into the connecting groove 4, the opening of the sliding groove 27 is aligned with the opening of the locking hole 14. Under the elastic force of the second elastic component, the locking block 24 is pushed to slide from the sliding groove 27 into the locking hole 14, thereby facilitating the fixing of the connecting block 5 in the connecting groove 4 and realizing the stable and reliable installation of the camera module 6 within the translator body.

[0040] When maintenance, repair, or replacement of the camera module 6 is required, the disassembly component control block 24 can be moved from the slot 14 to the sliding groove 27, and then the connecting block 5 can be moved upward from the connecting groove 4. This allows for convenient disassembly and installation of the translator camera module, improves the reliability and stability of the camera module installation, and solves the problem of adhesive failure caused by repeated disassembly and reassembly of traditional modules. At the same time, the quick-release structure makes it easy to repair and replace the camera module 6.

[0041] The energy storage block 18 and the card block 24 are mounted on the connecting block 5 through the first elastic component and the second elastic component, which ensures the integrity of the camera module 6 and the fixing mechanism and avoids the cumbersome operation of assembling and installing multiple components into the connecting slot 4.

[0042] In this embodiment, as Figure 7 As shown, on one end face of the energy storage block 18 adjacent to the locking block 24, two locking rods 23 are symmetrically and vertically arranged about its center position; on one end face of the locking block 24 adjacent to the energy storage block 18, a connecting post 25 is vertically and fixedly arranged; on the opposite sides of the two locking rods 23, at a position away from the energy storage block 18, locking heads are symmetrically arranged; on the end of the connecting post 25 away from the locking block 24, a protrusion 26 is fixedly arranged; when the energy storage block 18 and the locking block 24 are respectively moved through the energy storage groove 17 and the sliding groove 27, the protrusion 26 will pass through the position between the two locking heads; during this process, the protrusion 26 will force the two locking heads to move away from each other so that the protrusion 26 can pass smoothly; when the protrusion 26 has completely passed through the position between the two locking heads, the two locking heads will slide on the column of the connecting post 25 and move closer to each other.

[0043] In this embodiment, during the installation of the energy storage block 18 and the locking block 24 in the energy storage groove 17 and the sliding groove 27 respectively, the protrusion 26 gradually approaches the position between the two locking heads. As the insertion proceeds, the protrusion 26 enters the position between the two locking heads. Due to the squeezing action of the protrusion 26, the two locking heads are forced to move away from each other so that the protrusion 26 can pass smoothly. When the protrusion 26 has completely passed the position between the two locking heads, the two locking heads lose the squeezing action of the protrusion 26 and, under their own elastic restoring force (the locking rod 23 and the locking heads are made of elastic material), engage with the column body of the connecting post 25. The locking heads and the opposite surfaces of the protrusion 26 are in contact, and they can slide and move closer to each other on the column body of the connecting post 25. At this time, the first and second elastic components are in their normal elongation state. The end of the energy storage block 18 protrudes outside the opening of the energy storage groove 17, and the end of the locking block 24 is positioned at the opening of the sliding groove 27. During the process of the connecting block 5 passing through the connecting groove 4, the energy storage block 18 moves into the energy storage groove 17 under the forced action of the groove wall of the connecting groove 4 (e.g., ...). Figure 7 As shown in Figure B, the energy storage block 18 is pushed through the energy storage groove 17 by the action of the groove wall of the connecting groove 4. At this time, the distance between the energy storage block 18 and the locking block 24 is reduced, causing the second elastic component to be compressed. The locking head slides relative to the column of the connecting post 25. At this time, the connecting block 5 can be controlled to move completely into the connecting groove 4. After the connecting block 5 is installed in the connecting groove 4, the locking block 24 moves into the locking hole 14 in the sliding groove 27 under the elastic force of the second elastic component (as shown in Figure B). Figure 7 As shown in Figure C, the card block 24 extends out of the sliding groove 27 and is inserted into the card hole 14, thereby fixing the camera module 6 and ensuring the reliability and stability of the installation and fixing of the camera module 6.

[0044] In this embodiment, as Figure 2-5 and Figure 7 As shown, the first elastic component includes a return spring 21 that passes through the energy storage tank 17 along the sliding direction of the energy storage block 18 and whose two ends are respectively connected to the energy storage block 18 and the second fixing groove 20 opened in the bottom wall of the energy storage tank 17. When the return spring 21 is in the normal extended state, the end of the energy storage block 18 protrudes outside the energy storage tank 17 (e.g., Figure 7 As shown in Figure A, the return spring 21 is in a normal extended state, and the energy storage block 18 and the locking block 24 are located on the upper cross section of the connecting block 5. This facilitates limiting the position of the energy storage block 18 in the energy storage groove 17. The energy storage block 18 is connected to the locking block 24 through the second elastic component, which facilitates ensuring that the end of the locking block 24 is synchronously located at the opening position of the sliding groove 27.

[0045] The second elastic component includes an energy storage spring 22, which is inserted into the transmission hole 19 along the length direction parallel to the return spring 21. The two ends of the energy storage spring 22 abut against the opposing surfaces of the energy storage block 18 and the protrusion 26, respectively. When both the energy storage spring 22 and the return spring 21 are in the normal extended state, the end of the energy storage block 18 will protrude out of the energy storage groove, while the end of the locking block 24 will be located at the opening of the sliding groove 27.

[0046] The translator body includes a detachable front shell 1 and a rear shell 2, and a positioning block 3 fixedly mounted on the front shell 1. The top of the positioning block 3 has a connecting groove 4.

[0047] Both the front shell 1 and the rear shell 2 are made of PC+10%GF material. The translator body composed of the front shell 1 and the rear shell 2 is UV coated. The rear shell 2 is equipped with a lens, which is made of transparent PC and is fixed to the rear shell 2 with adhesive. The positioning block 3 and connecting block 5 on the front shell 1 are made of SUS304 metal to ensure long service life. The built-in button spring 11 is made of SUS304 material, and the rubber pad plays a role in positioning and buffering. The locking block 24, connecting post 25 and protrusion 26 can be integrally molded and are all made of 316L material. The camera module 6 is made of POM material to ensure good self-lubrication of assembly friction and excellent strength. The reset spring 21 and the energy storage spring 22 are both made of SUS304. The energy storage block 18 is made of POM material with a rounded edge structure to ensure smooth assembly into the shell.

[0048] The positioning block 3 has a limiting groove 12 that communicates with the card hole 14 on its side. The disassembly assembly includes a transmission block 10 that passes through the card hole 14 through a third elastic component, and a disassembly component that controls the transmission block 10 to move into the card hole 14 and pushes the card block 24 that passes through the card hole 14 into the sliding groove 27.

[0049] The camera module has a locking block 24 and an energy storage block 18 at the front and rear of the middle part. The reset spring 21 and the energy storage spring in the middle part are both made of precision spring assembly.

[0050] like Figure 2 When the camera module 6 is half-inserted into the connecting slot 4, the end of the energy storage block 18 protruding from the opening of the energy storage slot 17 will be squeezed inward, reducing the distance between the energy storage block 18 and the locking block 24. The energy storage spring 22 will shorten and compress, and the locking block 24 of the camera module 6 will be forced to move towards the opening of the sliding slot 27 due to the action of the energy storage spring 22. When the connecting block 5 is fully inserted into the connecting slot 4, the opening of the sliding slot 27 is opposite to the opening of the locking hole 14. At this time, the energy storage spring 22 will recover its compression deformation and push the locking block 24 into the locking hole 14, thus stably and quickly installing the camera module 6 into the translator body.

[0051] The disassembly components include a limiting strip 7 that is detachably installed at the opening of the limiting groove 12 and has a sliding opening on its end face that communicates with the limiting groove 12; a control block 9 that slides through the sliding opening; a limiting block 8 that passes through the limiting groove 12 and has its end face fixedly connected to the control block 9; and a button spring 11 that passes through the limiting groove 12 and has its two ends connected to the bottom wall of the limiting groove 12, which has a first fixing groove 13 and the limiting block 8 respectively.

[0052] At the same location where the sliding groove 27 is opened on the connecting block 5, a positioning hole 15 is also opened; a positioning post 16 is inserted into the positioning hole 15, and the end of the positioning post 16 is deformable; when the positioning post 16 is inserted into the positioning hole 15, its two ends can respectively protrude out of the opening positions of the two positioning holes 15.

[0053] The positioning post 16 is made of nitrile rubber. The nitrile rubber set on the connecting block 5 plays a role in positioning and buffering, ensuring that the connecting block 5 is stably installed in the connecting groove 4.

[0054] like Figure 2-5 As shown, the limiting strip 7 is detachably installed at the opening of the limiting groove 12 (the limiting strip 7 can be directly installed at the opening of the limiting groove 12 using screws), ensuring that the sliding opening of the end face of the limiting strip 7 is in communication with the limiting groove 12. Then, by pressing the control block 9, since the control block 9 is fixedly connected to the limiting block 8, the limiting block 8 will slide within the limiting groove 12. At this time, the limiting block 8 drives the transmission block 10 to slide, pushing the locking block 24, which passes through the locking hole 14, from the locking hole 14 to the sliding groove 27.

[0055] When the limiting block 8 slides to the appropriate position, the elastic force of the button spring 11 (the two ends of the button spring 11 are respectively connected to the first fixing groove 13 on the bottom wall of the limiting groove 12 and the limiting block 8) is used to stabilize the limiting block 8 in the position, thereby realizing the position limitation of the limiting block 8.

[0056] On the connecting block 5, a positioning hole 15 is made on the same side as the sliding groove 27. A positioning post 16 made of nitrile rubber is inserted into the positioning hole 15. Since the end of the positioning post 16 is deformable, it will deform to a certain extent during insertion. Eventually, both ends of the positioning post 16 can protrude from the openings of the two positioning holes 15 respectively, allowing the connecting block 5 to be installed into the connecting groove 4. The positioning post 16 plays a positioning and buffering role in the connecting groove 4, ensuring that the connecting block 5 is stably installed in the connecting groove 4. The connecting block 5, front shell 1, and rear shell 2 at the bottom of the camera module 6 are all made of hard plastic. If disassembly and assembly are successful, a certain gap needs to be left in the middle. However, at the same time, wear will occur due to mutual friction, and unstable connection will make it difficult for the connecting block 5 to be aligned with the connecting groove 4. At this time, the two positioning posts 16 play a certain limiting role.

[0057] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely preferred examples and are not intended to limit the utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A camera module fixing structure of a translation machine, comprising a translation machine body and a camera module (6) which is detachably installed inside the translation machine body through a fixing mechanism, characterized in that, The fixing mechanism includes a connecting block (5) fixedly installed at the bottom of the camera module (6) and can be inserted into the connecting groove (4) inside the translator body; an energy storage block (18) movably inserted into the bottom wall of the energy storage groove (17) via a first elastic component; a locking block (24) movably inserted into the sliding groove (27) and connected to the opposite end of the energy storage block (18) via a second elastic component; and a disassembly component installed inside the translator body and controlling the locking block (24) to slide into the sliding groove (27). The connecting block (5) has an energy storage groove (17) and a sliding groove (27) respectively on its symmetrical side. The bottom of the energy storage groove (17) and the bottom of the sliding groove (27) have a transmission hole (19) that passes through them. Initial state: When the first and second elastic components are in normal elastic elongation state, the end of the energy storage block (18) extends out of the connecting block (5), and the end of the locking block (24) is located at the opening of the sliding groove (27); Working state: When the connecting block (5) is inserted into the connecting groove (4), the groove wall of the connecting groove (4) forces the energy storage block (18) to fully retract into the energy storage groove (17). At this time, both the first and second elastic components are compressed. After the second elastic component is compressed, it generates elastic force and pushes the locking block (24) to slide out of the sliding groove (27). When the connecting block (5) is fully inserted into the connecting groove (4), the second elastic component pushes the locking block (24) to insert into the locking hole (14) of the groove wall of the connecting groove (4).

2. The translator camera module fixing structure according to claim 1, characterized in that: Two locking rods (23) are symmetrically and vertically arranged about the center position on one end face of the energy storage block (18) adjacent to the locking block (24); a connecting post (25) is vertically fixed on one end face of the locking block (24) adjacent to the energy storage block (18); locking heads are symmetrically arranged on the opposite sides of the two locking rods (23) away from the energy storage block (18); a protrusion (26) is fixedly arranged on the end of the connecting post (25) away from the locking block (24); When the energy storage block (18) and the locking block (24) are respectively moved through the energy storage groove (17) and the sliding groove (27), the protrusion (26) will pass through the position between the two locking heads; during this process, the protrusion (26) will force the two locking heads to move away from each other so that the protrusion (26) can pass smoothly. When the protrusion (26) has completely passed through the position between the two locking heads, the two locking heads will slide on the column of the connecting column (25) and move closer to each other.

3. The translator camera module fixing structure according to claim 2, characterized in that: The first elastic component includes a return spring (21) that passes through the energy storage tank (17) along the sliding direction of the energy storage block (18) and is connected at both ends to the second fixing groove (20) opened in the bottom wall of the energy storage block (18) and the energy storage tank (17). When the return spring (21) is in the normal extended state, the end of the energy storage block (18) passes through the outside of the energy storage tank (17).

4. The fixing structure for a translator camera module according to claim 3, characterized in that: The second elastic component includes an energy storage spring (22), which is inserted into the transmission hole (19) along the length direction parallel to the return spring (21); the two ends of the energy storage spring (22) abut against the opposite surfaces of the energy storage block (18) and the protrusion (26), respectively. When both the energy storage spring (22) and the return spring (21) are in their normal extended state, the end of the energy storage block (18) will protrude out of the energy storage groove, while the end of the locking block (24) will be located at the opening of the sliding groove (27).

5. The fixing structure for a translator camera module according to claim 1, characterized in that: The translator body includes a detachable front shell (1) and a rear shell (2), and a positioning block (3) fixedly mounted on the front shell (1). The top of the positioning block (3) has a connecting groove (4).

6. The translator camera module fixing structure according to claim 5, characterized in that: The positioning block (3) has a limiting groove (12) that communicates with the card hole (14) on its side. The disassembly assembly includes a transmission block (10) that passes through the card hole (14) through a third elastic component, and a disassembly component that controls the transmission block (10) to move into the card hole (14) and pushes the card block (24) that passes through the card hole (14) to move into the sliding groove (27).

7. The translator camera module fixing structure according to claim 6, characterized in that: The disassembly components include a limiting strip (7) that is detachably installed at the opening of the limiting groove (12) and has a sliding opening on its end face that communicates with the limiting groove (12); a control block (9) that slides through the sliding opening; a limiting block (8) that passes through the limiting groove (12) and has its end face fixedly connected to the control block (9); and a button spring (11) that passes through the limiting groove (12) and has its two ends connected to the bottom wall of the limiting groove (12) which has a first fixing groove (13) and the limiting block (8).

8. The fixing structure for a translator camera module according to claim 1, characterized in that: At the same position where the sliding groove (27) is opened on the connecting block (5), a positioning hole (15) is also opened; a positioning post (16) is inserted into the positioning hole (15), and the end of the positioning post (16) is deformable; when the positioning post (16) is inserted into the positioning hole (15), its two ends can respectively pass out of the opening positions of the two positioning holes (15).

9. The translator camera module fixing structure according to claim 8, characterized in that: The positioning post (16) is made of nitrile rubber.

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