Wearable device with camera module

Abstract

The application relates to the technical field of wearable devices, and relates to a wearable device with a camera module, which comprises a wearing structure, an audio module and a camera module; the audio module is connected to the wearing structure; the camera module comprises a connecting seat and a camera shell; the connecting seat is connected to the audio module, and the connecting seat is provided with an accommodating cavity; the camera shell is slidingly connected to the camera module, and the camera shell is at least partially accommodated in the accommodating cavity; and a camera unit is arranged in the camera shell. In the wearable device, the camera shell can be flexibly switched between a storage state and a use state in the accommodating cavity; when shooting is needed, the camera shell is at least partially moved out of the accommodating cavity for use; and when shooting is not needed, the camera shell is retracted into the accommodating cavity for protection. The structural design effectively improves the reliability and service life of the camera module, and avoids the problems that the camera module is impacted and polluted for a long time due to exposure to the external environment.

Description

Technical Field

[0001] This application relates to the field of wearable device technology, and more particularly to a wearable device with a camera module. Background Technology

[0002] With the continuous development of smart wearable device technology, wearable devices with camera functions have gradually become a hot topic in the market. Traditional wearable devices, such as ear-hook headphones, have relatively simple functions, mainly used for audio playback and calls, which makes it difficult to meet users' growing demand for multifunctionality.

[0003] Existing wearable devices with camera functions have significant shortcomings in their structural design. The camera module typically uses a fixed mounting structure, leaving it constantly exposed to the external environment. This makes it susceptible to impacts, dust contamination, and other factors, leading to reduced device reliability and lifespan. Furthermore, the fixed camera structure occupies considerable external space even when not in use, affecting the overall aesthetics and portability of the wearable device. Additionally, traditional wearable devices cannot effectively store their camera modules when not in use, increasing the overall size of the device and making it prone to accidental damage during daily use. Utility Model Content

[0004] In view of this, this application provides a wearable device with a camera module to solve the problem of poor portability of traditional wearable devices due to the camera module being exposed externally.

[0005] The first aspect of this application provides a wearable device with a camera module, comprising: Wearing structure; An audio module is connected to the wearing structure; and A camera module includes a connector and a camera housing. The connector is connected to the audio module and has a receiving cavity. The camera housing is slidably connected to the camera module and is at least partially housed within the receiving cavity. A camera unit is provided inside the camera housing.

[0006] In one possible implementation, the connecting seat and the camera housing are connected by a first sliding structure, the first sliding structure including a first sliding part and a first sliding groove, the first sliding part being disposed in either the connecting seat or the camera housing, the first sliding groove being disposed in the other of the connecting seat and the camera housing, and the first sliding part slidingly engaging with the first sliding groove.

[0007] In one possible implementation, the camera housing is provided with a clearance, and the edge of the clearance is located inside the receiving cavity.

[0008] In one possible implementation, the outer wall of the camera housing is provided with a protrusion, the edge of which is connected to the clearance position, and the protrusion is located outside the receiving cavity.

[0009] In one possible implementation, the audio module includes an audio housing and an audio unit, the audio unit being disposed within the audio housing, the audio housing being connected to the wearing structure, and the connector being rotatably connected to the audio housing.

[0010] In one possible implementation, the audio housing has a guide groove, which is arc-shaped along the rotation center of the connecting seat. The connecting seat has a guide pin that slides in conjunction with the guide groove. The audio housing includes a housing body and a fixing part. The guide groove is provided on the housing body. The fixing part has a rotating hole. The connecting seat includes a connecting part and a rotating shaft. The receiving cavity and the guide pin are both provided on the connecting part. The rotating shaft passes through the rotating hole and is rotatably connected to the fixing part.

[0011] In one possible implementation, the audio module further includes a flexible ribbon cable connected to both the audio unit and the camera module.

[0012] In one possible implementation, the wearable device further includes a power supply module detachably connected to the wearing structure; the wearing structure has a first contact, and the power supply module has a second contact, wherein the first contact is used for electrical connection to the second contact.

[0013] In one possible implementation, the wearing structure has a battery compartment, the power supply module is slidably connected to the wearing structure, and the battery compartment is used to house the power supply module.

[0014] In one possible implementation, the power supply module is slidably connected to the wearing structure via a second sliding structure. The second sliding structure includes a second sliding part and a second sliding groove. The second sliding part is disposed on either the power supply module or the wearing structure, and the second sliding groove is disposed on the other of the power supply module and the wearing structure. The second sliding part and the second sliding groove are slidably engaged.

[0015] Implementing the embodiments of this application has the following beneficial effects: In the wearable device of this embodiment, the camera housing can flexibly switch between a stored state and a used state within the receiving cavity. When filming is needed, the camera housing can be at least partially removed from the receiving cavity for use; when filming is not needed, the camera housing can be retracted into the receiving cavity for protection. This structural design effectively improves the reliability and lifespan of the camera module, avoiding the problem of the camera module being exposed to the external environment for a long time and suffering from impact and contamination.

[0016] The camera module in this embodiment adopts a retractable structural design, which effectively reduces the overall size of the wearable device when not in use, improving the device's portability and overall aesthetics. The protective cavity for the camera housing effectively reduces the risk of accidental damage to the camera module during daily use, enhancing the device's durability.

[0017] The wearable device in this embodiment has a compact structure. Through the sliding connection between the camera housing and the connector, it achieves an organic combination of camera and audio functions. It is convenient to use and easy to assemble and disassemble, meeting users' needs for multifunctional wearable devices. Attached Figure Description

[0018] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0019] Figure 1 A perspective view of the wearable device in an embodiment of the present invention is shown; Figure 2 A partial schematic diagram of the wearable device in use according to an embodiment of the present invention is shown; Figure 3 A schematic diagram showing the usage state of the wearable device in an embodiment of this utility model is shown; Figure 4 A partial schematic diagram of the wearable device in use according to an embodiment of the present invention is shown; Figure 5 An exploded view of a portion of the wearable device in an embodiment of this utility model is shown.

[0020] Figure label: 10. Wearable devices; 100. Wearing structure; 110. Connecting frame; 120. Wearing frame; 130. Main unit housing; 131. Battery compartment; 132. Second slide rail; 133. First contact point; 200. Camera module; 210. Connecting seat; 211. Connecting part; 2111. Receiving cavity; 2113. Guide pin; 212. Rotating shaft; 220. Camera housing; 221. First slide groove; 222. Clearance position; 223. Protrusion; 300. Audio housing; 310. Housing body; 311. Guide groove; 320. Fixing part; 321. Rotation hole; 400, Power supply module; 410, Second contact; 420, Second sliding part. Detailed Implementation

[0021] To make the objectives, technical solutions, and advantages of the embodiments of this application clearer, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0022] With the continuous development of smart wearable device technology, wearable devices with camera functions have gradually become a hot topic in the market. Traditional wearable devices, such as ear-hook headphones, have relatively simple functions, mainly used for audio playback and calls, which makes it difficult to meet users' growing demand for multifunctionality.

[0023] Existing wearable devices with camera functions have significant shortcomings in their structural design. The camera module typically uses a fixed mounting structure, leaving it constantly exposed to the external environment. This makes it susceptible to impacts, dust contamination, and other factors, leading to reduced device reliability and lifespan. Furthermore, the fixed camera structure occupies considerable external space even when not in use, affecting the overall aesthetics and portability of the wearable device. Additionally, traditional wearable devices cannot effectively store their camera modules when not in use, increasing the overall size of the device and making it prone to accidental damage during daily use.

[0024] Based on this, see Figures 1 to 5 As shown, this utility model embodiment provides a wearable device 10 with a camera module, which includes a wearing structure 100, an audio module, and a camera module 200; the audio module is connected to the wearing structure 100; the camera module 200 includes a connecting seat 210 and a camera housing 220, the connecting seat 210 is connected to the audio module, and the connecting seat 210 is provided with a receiving cavity 2111, the camera housing 220 is slidably connected to the camera module 200, and the camera housing 220 is at least partially housed in the receiving cavity 2111, and a camera unit is provided in the camera housing 220.

[0025] In the wearable device 10 of this embodiment, the camera housing 220 can flexibly switch between a storage state and a usage state within the receiving cavity 2111. When shooting is required, the camera housing 220 is at least partially removed from the receiving cavity 2111 for use; when shooting is not required, the camera housing 220 is retracted into the receiving cavity 2111 for protection. This structural design effectively improves the reliability and service life of the camera module, avoiding the problem of the camera module being exposed to the external environment for a long time and suffering from impact and contamination.

[0026] The camera module 200 in this embodiment adopts a retractable structure design, which effectively reduces the overall size of the wearable device 10 when not in use, improving the portability and overall aesthetics of the device. The protective function of the receiving cavity 2111 on the camera housing 220 effectively reduces the risk of accidental damage to the camera module during daily use, enhancing the durability of the device.

[0027] The wearable device 10 in this embodiment has a compact structure. Through the sliding connection between the camera housing 220 and the connecting base 210, it achieves an organic combination of camera and audio functions. It is convenient to use and easy to assemble and disassemble, meeting the user's needs for multifunctional wearable devices.

[0028] The wearing structure 100 is worn on the user's head, providing stable support and positioning for the entire wearable device 10. The wearing structure 100 may include a ring-shaped structure, the inner diameter of which is adapted to the circumference of the user's head, to wrap around the user's head, ensuring the stability and comfort of the wearable device 10 during use. The ring-shaped structure may also be made of an elastic material, allowing it to adapt to different user head sizes and improving wearability.

[0029] Wearable device 10 can be an ear-hook headset, integrating camera functionality to achieve multiple functions including audio playback, calls, and image capture. This design fully utilizes the existing wearing structure and audio module of the ear-hook headset, and by adding a retractable camera module 200, it provides users with a richer user experience without increasing the overall size.

[0030] In one embodiment, the connecting seat 210 and the camera housing 220 are connected by a first sliding structure. The first sliding structure includes a first sliding part and a first sliding groove 221. The first sliding part is disposed in either the connecting seat 210 or the camera housing 220, and the first sliding groove 221 is disposed in the other of the connecting seat 210 and the camera housing 220. The first sliding part and the first sliding groove 221 are slidably engaged.

[0031] A controllable sliding pair is formed between the first sliding part and the first sliding groove 221. The first sliding part slides in a predetermined direction within the first sliding groove 221, realizing the linear movement of the camera housing 220 relative to the connecting seat 210. The cross-sectional shape of the first sliding part matches the internal contour of the first sliding groove 221, ensuring the fitting accuracy and smooth sliding between the two. The first sliding part can be cylindrical, square, or other suitable geometric shapes. Correspondingly, the internal contour of the first sliding groove 221 is also designed to match the shape of the first sliding part. This fitting method can effectively constrain the movement trajectory of the camera housing 220, preventing the camera housing 220 from deflecting or swaying during sliding, and ensuring the working accuracy and reliability of the camera module 200.

[0032] In a preferred embodiment, the first sliding structure can be disposed inside the receiving cavity 2111. This arrangement hides the sliding mechanism inside the receiving cavity 2111, avoiding direct impact from the external environment on the sliding mechanism. The inner space of the receiving cavity 2111 provides a protective environment for the first sliding structure, reducing the erosion of the sliding mechanism by external factors such as dust and moisture, and extending the service life of the sliding mechanism. At the same time, placing the first sliding structure inside the receiving cavity 2111 can also effectively utilize the internal space of the receiving cavity 2111, avoiding the addition of extra external structural volume and maintaining the compactness and overall aesthetics of the wearable device 10.

[0033] Specifically, the first sliding part can be disposed on the inner wall of the receiving cavity 2111, extending inward from the inner wall of the receiving cavity 2111 to form a guide protrusion or guide post structure. The first sliding part can be installed by means of integral molding, welding fixation, or threaded connection to achieve a fixed connection with the inner wall of the receiving cavity 2111. The material of the first sliding part can be a metal material or engineering plastic with good wear resistance, such as stainless steel, copper alloy, or polyamide material, to ensure that the first sliding part maintains good surface quality and dimensional accuracy during long-term use. The surface of the first sliding part can be polished or coated with a lubricating coating to further reduce sliding friction and improve sliding smoothness.

[0034] A first groove 221 is provided on the camera housing 220. The first groove 221 is formed on the outer wall surface of the camera housing 220, with the groove opening facing the interior of the receiving cavity 2111. The forming direction of the first groove 221 is consistent with the sliding direction of the camera housing 220, ensuring that the first sliding part can slide along a predetermined path within the first groove 221. The groove depth and groove width of the first groove 221 are determined according to the external dimensions of the first sliding part, ensuring that there is an appropriate fitting clearance between the two, which can achieve smooth sliding while avoiding swaying caused by excessive clearance.

[0035] To prevent the camera housing 220 from detaching from the connecting seat 210, the first slide groove 221 can be configured as a closed groove, meaning the end of the first slide groove 221 is a closed structure. With this configuration, when the camera housing 220 moves to the end of its path, the end face of the first slide groove 221 can abut against the first sliding part, thus limiting the relative movement between the camera housing 220 and the connecting seat 210. The end of the first slide groove 221 forms a limiting baffle, the thickness and strength of which are sufficient to withstand the impact force generated during the sliding of the camera housing 220. When the first sliding part slides to the end position of the first slide groove 221, the end face of the first sliding part contacts the limiting baffle, and the resulting reaction force prevents the camera housing 220 from continuing to slide outward, thereby achieving the limiting function. This limiting method can prevent the camera housing 220 from completely detaching from the connecting seat 210, avoiding accidental separation and loss of the camera module 200.

[0036] Of course, the arrangement of the first sliding groove 221 and the first sliding part can also be interchanged, and this is not a unique limitation. In another embodiment, the first sliding groove 221 can be provided on the connecting seat 210, specifically on the inner wall of the receiving cavity 2111, and the first sliding part is provided on the camera housing 220. This configuration can also achieve a sliding connection between the camera housing 220 and the connecting seat 210, and the working principle and technical effect of the sliding mechanism are the same as those in the aforementioned embodiments.

[0037] The number of first sliding structures can be multiple sets to improve the smoothness of movement between the two. Specifically, the number of first sliding structures can be one, two, or more, without limitation. Setting multiple sets of first sliding structures increases the contact area between the camera housing 220 and the connecting seat 210, distributes the load generated during sliding, reduces the force on individual sliding pairs, and improves the durability of the sliding mechanism. The distribution of multiple sets of first sliding structures also enhances the guiding accuracy of the camera housing 220 during sliding, reduces possible skewing or jamming during sliding, and ensures that the camera housing 220 can slide smoothly along a predetermined trajectory. When multiple sets of first sliding structures are set, the size and shape of each set of first sliding structures should be consistent to ensure that the camera housing 220 is subjected to uniform force during sliding and avoids imbalance caused by differences between different sliding pairs.

[0038] In one embodiment, the first sliding structures can be symmetrically arranged on opposite sides of the camera housing 220. This symmetrical arrangement enables mechanical balance during the sliding process of the camera housing 220. The reaction forces generated by the symmetrically arranged first sliding structures during the sliding of the camera housing 220 are balanced, avoiding deflection or twisting of the camera housing 220 caused by unilateral force. The symmetrical arrangement also improves the guiding accuracy of the sliding mechanism, ensuring that the camera housing 220 maintains the correct posture and orientation during the sliding process. The first sliding structures on opposite sides can be respectively arranged on the left and right sides, top and bottom sides, or front and back sides of the camera housing 220. The specific direction of the axis of symmetry is determined according to the shape characteristics and sliding direction of the camera housing 220. The symmetrically arranged first sliding structures should maintain the same structural parameters and processing precision to ensure symmetry and consistency.

[0039] In one embodiment, the camera housing 220 is provided with a clearance 222, and the edge of the clearance 222 is located inside the receiving cavity 2111.

[0040] The clearance 222 forms a recessed area on the outer surface of the camera housing 220. The depth and width of this recessed area are determined according to the geometry of human fingers, ensuring that the user's fingers can be easily inserted into the clearance 222 and applied with pushing or pulling force. The inner surface of the clearance 222 should be kept smooth and flat to avoid sharp edges or rough surfaces causing discomfort or injury to the user's fingers. The position design of the clearance 222 should take into account both the storage and use states of the camera housing 220 within the receiving cavity 2111, ensuring that the user can easily access the clearance 222 in both states.

[0041] By providing the clearance position 222, when the camera housing 220 needs to be moved, the user can insert their finger into the clearance position 222 and apply a pushing or pulling force to the camera housing 220 using the friction between the finger and the inner surface of the clearance position 222, thus achieving the sliding operation of the camera housing 220. The clearance position 222 provides the user with a stable point of force application. The user can generate sufficient friction through the contact area between their fingertip or fingertip and the clearance position 222 to overcome the sliding resistance in the first sliding structure and push the camera housing 220 along the first sliding groove 221. The clearance position 222 prevents the user from directly grasping the outer surface of the camera housing 220, reduces the possibility of finger slippage, and improves the reliability and safety of operation. When the camera housing 220 is in the storage state, the user can pull the camera housing 220 out of the receiving cavity 2111 to the use position through the clearance position 222; when the camera housing 220 is in the use state, the user can push the camera housing 220 back into the receiving cavity 2111 to the storage position through the clearance position 222.

[0042] The clearance 222 can be a groove, and the cross-sectional shape of the groove can be arc-shaped, rectangular, trapezoidal, or other geometric shapes suitable for finger insertion. The arc-shaped groove design can better fit the curvature of the finger and provide a more comfortable operating experience; the rectangular groove design is easy to process and manufacture, and can provide a clear boundary and a stable support surface; the trapezoidal groove design has a guiding function, which facilitates finger insertion and positioning.

[0043] The clearance 222 can also be multiple strip-shaped grooves, arranged parallel to the sliding direction of the camera housing 220, forming a structure similar to a heat sink. The design of the strip-shaped grooves increases the contact area between the user's fingers and the camera housing 220, improving friction and operational stability. Specifically, the number of strip-shaped grooves can be one, two, three, or more; there is no single limitation. Setting multiple strip-shaped grooves provides adaptability to fingers of different sizes, allowing users to choose the appropriate groove based on their finger characteristics. The spacing between the multiple strip-shaped grooves should be appropriate, ensuring that each groove can perform its gripping function while avoiding structural weakness due to excessive spacing. The length direction of the strip-shaped grooves is consistent with the sliding direction of the camera housing 220, which helps guide the user to apply the correct directional operating force. The depth and width parameters of the strip-shaped grooves can be determined with reference to the design requirements of the grooves, ensuring user convenience and comfort.

[0044] By placing the edge of the clearance position 222 inside the receiving cavity 2111, the combined structure of the camera housing 220 and the connecting seat 210 can be made compact. The design principle of placing the edge of the clearance position 222 inside the receiving cavity 2111 is to make full use of the internal space of the receiving cavity 2111, hiding the recessed part of the clearance position 222 inside the receiving cavity 2111, and avoiding the formation of additional protrusions or recesses on the outer surface of the connecting seat 210. When the camera housing 220 is in the stored state, the clearance position 222 is completely inside the receiving cavity 2111, without affecting the outer contour of the connecting seat 210, maintaining the overall simplicity of the wearable device 10. This design effectively reduces the external dimensions of the camera module 200 in the stored state, avoiding the addition of extra structural volume due to the setting of the clearance position 222. The fit between the edge of the clearance position 222 and the inner wall of the receiving cavity 2111 should maintain an appropriate gap, ensuring that the camera housing 220 can slide smoothly, while avoiding excessive gaps that would affect the compactness of the overall structure. The shape and size of the edge of the clearance 222 should be coordinated with the internal contour of the receiving cavity 2111 to achieve good spatial matching and visual effect.

[0045] Furthermore, the outer wall of the camera housing 220 is provided with a protrusion 223, the edge of the protrusion 223 is connected to the clearance position 222, and the protrusion 223 is located outside the receiving cavity 2111.

[0046] The protrusion 223 extends outward from the outer wall of the camera housing 220 to form a protruding structure. The geometry of this protruding structure can be arc-shaped, elliptical, rectangular, or other suitable geometric contours. The outer surface of the protrusion 223 forms a relatively flat thrust-bearing surface. The area and angle of this thrust-bearing surface are determined according to the direction and magnitude of the user's finger's thrust, ensuring stable support and good force transmission when the user applies thrust. The connection area between the protrusion 223 and the clearance 222 forms a transition structure. This transition structure uses a rounded or chamfered design to avoid sharp edges causing discomfort to the user's fingers, while ensuring the structural continuity and strength requirements between the protrusion 223 and the clearance 222.

[0047] The arrangement of the protrusion 223 on the outside of the receiving cavity 2111 achieves a complementary spatial configuration with the clearance position 222. When the camera housing 220 is in the retracted state, the protrusion 223 is exposed outside the receiving cavity 2111, making it easy for the user to identify and operate, while the clearance position 222 is hidden inside the receiving cavity 2111, maintaining the cleanliness of the outer surface of the connecting seat 210. The exposed size of the protrusion 223 should be controlled within a reasonable range, meeting the user's operational convenience requirements while avoiding excessive protrusion that would affect the overall appearance and wearing comfort of the wearable device 10. The material of the protrusion 223 can be the same as that of the camera housing 220, manufactured using a one-piece molding process to ensure the structural strength and reliability between the protrusion 223 and the camera housing 220.

[0048] By providing the protrusion 223, the user can easily apply force when manipulating the camera housing 220. The protrusion 223 provides a clear point of application for the user's thrust, allowing the user to directly press the outer surface of the protrusion 223 with their fingers, effectively transferring the thrust to the main structure of the camera housing 220. The thrust-bearing surface of the protrusion 223 is designed at a slightly inclined angle, which matches the sliding direction of the camera housing 220, guiding the user to apply the thrust in the correct direction and improving the accuracy and efficiency of operation. The surface of the protrusion 223 can be provided with an anti-slip texture or raised pattern to increase the coefficient of friction between the user's fingers and the protrusion 223, preventing the fingers from slipping during the pressing process.

[0049] Specifically, the user's finger can be accommodated within the clearance seat 222 and abut against the protrusion 223 to push the camera housing 220 to move. During operation, the user first inserts their finger into the clearance seat 222, with the fingertip or pad contacting the inner surface of the clearance seat 222, providing stable positioning and support. Subsequently, the back or side of the user's finger abuts against the inner surface of the protrusion 223, transmitting force to the protrusion 223 through the pushing action of the finger, thereby pushing the entire camera housing 220 along the first sliding structure. This operation method achieves dual positioning of the user's finger: the clearance seat 222 provides grasping positioning, and the protrusion 223 provides pushing support; the two work together to form a stable and reliable operating mechanism. The contact area distribution between the user's finger and the clearance seat 222 and the protrusion 223 is reasonable, avoiding discomfort caused by single-point force and improving the comfort and continuity of operation.

[0050] Meanwhile, by setting the clearance 222 and the protrusion 223, the protrusion 223 can form a space to accommodate the camera unit, while ensuring that the camera housing 220 has a smaller volume at the clearance 222. The internal space of the protrusion 223 forms a mounting chamber for the camera unit. The size and shape of this mounting chamber are determined according to the outer contour of the camera unit, providing accurate positioning and reliable protection for the camera unit. The wall thickness design of the protrusion 223 must meet the space requirements for accommodating the camera unit while ensuring the structural strength of the protrusion 223 itself to avoid deformation or damage during use. The cooperative design of the protrusion 223 and the clearance 222 achieves space optimization of the camera housing 220. The recess of the clearance 222 reduces the amount of material used in this area, reducing the overall weight of the camera housing 220, while the protrusion of the protrusion 223 makes full use of the external space to accommodate the camera unit, achieving the goal of compact design. The reduced volume of the camera housing 220 at the clearance position 222 also helps to lower the center of gravity of the camera module 200, improving the balance and stability of the wearable device 10 when worn. The combination structure of the protrusion 223 and the clearance position 222, through reasonable space allocation, minimizes the overall size of the camera housing 220 while ensuring functionality, thus improving the portability and aesthetics of the wearable device 10.

[0051] Specifically, the audio module includes an audio housing 300 and an audio unit. The audio unit is located inside the audio housing 300. The audio housing 300 is connected to the wearing structure 100, and the connecting seat 210 is rotatably connected to the audio housing 300.

[0052] The audio housing 300, as the main structural component of the audio module, provides installation space and protection for the audio unit. The interior of the audio housing 300 forms a receiving chamber, the size and shape of which are determined according to the outer contour of the audio unit, ensuring stable installation of the audio unit inside the audio housing 300. The wall thickness design of the audio housing 300 must meet the space requirements for accommodating the audio unit while ensuring the structural strength of the audio housing 300 itself, preventing deformation or damage during use. The audio housing 300 and the wearing structure 100 are fixedly connected, which can be achieved through threaded connections, snap-fit ​​connections, adhesive bonding, or welding, ensuring the reliability and stability of the connection between the audio housing 300 and the wearing structure 100.

[0053] The rotating connection structure between the connector 210 and the audio housing 300 enables the angle adjustment function of the camera module 200 relative to the audio module. The rotating connection facilitates the rotation of the camera module 200 relative to the audio housing 300, allowing adjustment of the camera module 200's shooting direction. Through this rotating connection structure, the camera module 200 can achieve multi-angle attitude adjustment, allowing users to adjust the shooting angle of the camera module 200 according to actual shooting needs, achieving tilt adjustment, horizontal adjustment, or combined angle adjustment.

[0054] The rotating connection structure can also be equipped with a locking mechanism. After the camera module 200 is adjusted to a suitable shooting angle, the user can fix the position of the camera module 200 through the locking mechanism to prevent the shooting angle from shifting due to accidental collisions or vibrations during use. The locking mechanism can be in the form of friction locking, spring locking, or threaded locking. Friction locking achieves position locking by increasing the friction between the rotating parts, and its structure is simple and easy to operate. Spring locking provides locking force through a spring element, enabling quick locking and unlocking. Threaded locking achieves reliable locking through the self-locking characteristics of the threaded parts, with high locking strength but relatively complex operation. The audio unit can be a bone conduction element or an air conduction element; no specific limitation is made here.

[0055] In one embodiment, the audio housing 300 has a guide groove 311, and the guide groove 311 is arc-shaped along the rotation center of the connecting seat 210. The connecting seat 210 has a guide pin 2113, which slides in cooperation with the guide groove 311.

[0056] The guide groove 311, as the fixed part of the guiding mechanism, forms a groove structure on the surface of the audio housing 300. The cross-sectional shape of the groove structure can be rectangular, trapezoidal, arc-shaped, or other suitable geometric contours. The groove wall surface of the guide groove 311 should be kept smooth to reduce the frictional resistance of the guide pin 2113 during sliding. The bottom of the guide groove 311 is designed as a flat surface to provide stable support for the guide pin 2113.

[0057] The guide pin 2113 is mounted on the connecting seat 210 and can be fixed to the connecting seat 210 by means of threaded connection, press fit, or riveting. The guide pin 2113 can be made of a high-strength and wear-resistant metal, such as stainless steel, carbon steel, or copper alloy, to ensure that the guide pin 2113 will not wear or deform during long-term sliding. The surface of the guide pin 2113 can be surface treated, such as chrome plating, nickel plating, or surface hardening treatment, to improve surface hardness and wear resistance. The length of the guide pin 2113 should ensure that it can be fully inserted into the guide groove 311, while leaving sufficient safety margin to prevent the guide pin 2113 from coming out of the guide groove 311 during the rotation of the camera module 200.

[0058] By setting the guide groove 311 to cooperate with the guide pin 2113, the rotation range of the camera module 200 can be limited, and the rotation of the camera module 200 can also be guided, improving smoothness. The arc length of the guide groove 311 determines the maximum rotation angle of the camera module 200. When the guide pin 2113 slides to one end of the guide groove 311, the camera module 200 reaches the maximum rotation angle in that direction, and the two ends of the guide groove 311 form a hard limit to prevent the camera module 200 from over-rotating. The sliding cooperation between the guide groove 311 and the guide pin 2113 forms a forced guide during the rotation of the camera module 200, ensuring that the camera module 200 moves strictly according to the predetermined arc trajectory, avoiding radial offset or axial movement during the rotation. The arc contour design of the guide groove 311 ensures that the guide pin 2113 is subjected to uniform force throughout the entire sliding stroke, reducing local stress concentration and improving the service life of the guiding mechanism.

[0059] The cooperation between the guide groove 311 and the guide pin 2113 also provides tactile feedback for the user's rotation operation. When rotating the camera module 200, the user can feel the sliding resistance of the guide pin 2113 in the guide groove 311. This resistance provides the user with positional awareness, making it easier for the user to precisely control the rotation angle of the camera module 200. The groove wall of the guide groove 311 can be set with a stop position, forming a slight indentation or protrusion at a specific angle. When the guide pin 2113 slides to these positions, it will produce a clear positioning feel, helping the user to quickly adjust the camera module 200 to the commonly used shooting angle.

[0060] Specifically, the guide groove 311 is an arc-shaped groove, arranged within a fan-shaped area centered on the rotation center of the camera module 200. The arc-shaped outline of the guide groove 311 is drawn with the rotation axis between the connecting seat 210 and the audio housing 300 as the center, forming a concentric arc with a fixed radius. The radius of this arc is determined based on the dimensions of the audio housing 300 and the installation position of the guide pin 2113, ensuring a reliable sliding fit between the guide groove 311 and the guide pin 2113. The fan-shaped angle of the guide groove 311 can be set between 30 degrees and 180 degrees. Specifically, the fan-shaped angle of the guide groove 311 can be 30 degrees, 60 degrees, 90 degrees, 120 degrees, 150 degrees, or 180 degrees, determined according to the actual usage requirements of the camera module 200 and the structural layout of the audio housing 300, and is not limited to a single value here. When the fan-shaped angle of the guide groove 311 is less than 30 degrees, the rotation range of the camera module 200 is too small, making it difficult to meet the needs of multi-angle shooting; when the fan-shaped angle of the guide groove 311 is greater than 180 degrees, it may interfere with other structural features on the audio housing 300, affecting the overall structural compactness.

[0061] Specifically, the audio housing 300 includes a housing body 310 and a fixing part 320. A guide groove 311 is provided on the housing body 310. The fixing part 320 has a rotating hole 321. The connecting seat 210 includes a connecting part 211 and a rotating shaft 212. A receiving cavity 2111 and a guide pin 2113 are both provided on the connecting part 211. The rotating shaft 212 passes through the rotating hole 321 and is rotatably connected to the fixing part 320.

[0062] The split-type structure design of the audio housing 300 separates different functional areas. The housing body 310 mainly serves to accommodate the audio unit and provide guidance, while the fixing part 320 mainly serves to support the connecting seat 210 and provide a rotation axis. The interior of the housing body 310 forms the installation space for the audio unit, and the outer surface of the housing body 310 is provided with guide grooves 311. The position and shape of the guide grooves 311 correspond to the movement trajectory of the guide pins 2113 on the connecting seat 210.

[0063] The fixing part 320 serves as a supporting structure for the audio housing 300. The shape and size of the fixing part 320 are determined based on the outer contour and rotation requirements of the connecting seat 210. The fixing part 320 can be designed as annular, semi-annular, bracket-shaped, or other suitable geometric shapes. The annular fixing part 320 provides circumferential support for the connecting seat 210, improving rotational stability; the semi-annular fixing part 320 reduces weight and saves material usage while ensuring support functionality; the bracket-shaped fixing part 320 achieves functional requirements through partial support, resulting in a compact structure and ease of manufacturing. The fixing part 320 and the housing body 310 can be connected by methods such as integral molding, welding, threaded connection, or snap-fit ​​connection.

[0064] The rotating hole 321 is provided on the fixed part 320. The diameter of the rotating hole 321 should form an appropriate fitting clearance with the outer diameter of the rotating shaft 212. If the fitting clearance is too small, the rotation resistance will be too large, affecting the adjustment operation of the camera module 200; if the fitting clearance is too large, rotation clearance will be generated, affecting the positioning accuracy of the camera module 200.

[0065] The connecting portion 211 of the connector 210 serves as the mounting base for the camera module 200. The structural design of the connecting portion 211 must balance the installation requirements and guiding function of the camera module 200. A receiving cavity 2111 is located on the connecting portion 211. The internal dimensions and shape of the receiving cavity 2111 are adapted to the external contour of the camera module 200, ensuring that the camera module 200 can be stably installed within the receiving cavity 2111. The depth of the receiving cavity 2111 should ensure that the camera module 200 is completely embedded within it, preventing the camera module 200 from protruding from the surface of the connecting portion 211, which would affect the overall appearance and ease of use. Positioning steps or positioning protrusions can be provided on the sidewalls of the receiving cavity 2111 to provide precise installation positioning for the camera module 200, ensuring that the optical axis direction of the camera module 200 is consistent with the design requirements.

[0066] The rotating shaft 212 serves as the rotational axis between the connecting seat 210 and the audio housing 300. The length of the rotating shaft 212 should ensure it can pass through the rotating hole 321 with appropriate allowance at both ends. The rotating shaft 212 can be integrally formed with the connecting part 211, or it can be manufactured separately and then connected to the connecting part 211. Integral forming ensures the coaxiality between the rotating shaft 212 and the connecting part 211, improving rotational accuracy; separate manufacturing allows for the use of different materials and processing techniques, optimizing the performance of the rotating shaft 212. The surface of the rotating shaft 212 can be heat-treated or surface-modified to improve surface hardness and wear resistance, extending its service life. Bearings, bushings, or grease can be installed between the rotating shaft 212 and the rotating hole 321 to reduce rotational friction and improve rotational smoothness. Rolling bearings have the advantages of low frictional resistance and long service life, but their structure is complex and their cost is high; sliding bushings have the advantages of simple structure and low cost, but their frictional resistance is relatively high; grease can effectively reduce friction and provide a sealing effect, but it needs to be replenished or replaced periodically.

[0067] The fixing part 320 can be used to support the connecting seat 210. By setting the rotating shaft 212 to cooperate with the rotating hole 321, the connecting seat 210 can be positioned for installation. The fixing part 320 provides a stable support platform for the connecting seat 210, bearing the weight of the connecting seat 210 itself, the weight of the camera module 200, and various loads generated during use. The cooperation between the rotating shaft 212 and the rotating hole 321 forms a radial positioning constraint, limiting the displacement of the connecting seat 210 in the radial direction and ensuring that the connecting seat 210 always remains in the correct installation position. This cooperation also forms an axial positioning constraint. By setting retaining rings, washers, or stepped structures at both ends of the rotating shaft 212, the axial movement of the connecting seat 210 is limited, preventing axial movement of the connecting seat 210 during rotation. The cooperation accuracy between the rotating shaft 212 and the rotating hole 321 directly affects the positioning accuracy and rotation performance of the connecting seat 210. High cooperation accuracy provides accurate positioning, but requires higher processing technology; moderate cooperation accuracy can reduce manufacturing costs while ensuring functional requirements, making it the preferred solution in practical applications.

[0068] Specifically, the audio module also includes a flexible ribbon cable, which is connected to the audio unit and the camera module 200 respectively.

[0069] Flexible ribbon cables can be used to connect relatively movable camera modules 200. In one embodiment, the wearable device 10 further includes a power supply module 400, which is detachably connected to the wearing structure 100. The wearing structure 100 is provided with a first contact 133, and the power supply module 400 is provided with a second contact 410. The first contact 133 is used to electrically connect to the second contact 410.

[0070] By incorporating a detachable power supply module 400, the wearable device 10 can easily replace the power supply module 400. During use, if the power supply module 400 runs out of power or malfunctions, the user can quickly remove and replace it, preventing the entire wearable device 10 from stopping operation. The detachable power supply module 400 also improves the maintainability and portability of the wearable device 10. Users can carry a spare power supply module 400 as needed, extending the battery life of the wearable device 10.

[0071] The main unit within the wearable device 10 is electrically connected via a first contact 133 and a second contact 410, allowing the power supply module 400 to power the main unit. The first contact 133 and the second contact 410 should have good conductivity and contact reliability to ensure the stability of the power supply path. This detachable power supply interface design also simplifies the assembly process of the wearable device 10, eliminating the need to permanently integrate the power supply module 400 into the wearable structure 100, thus reducing manufacturing costs.

[0072] Through the above design, users can replace the power supply module 400 at any time according to actual usage needs, improving the applicability and ease of use of the wearable device 10. The detachable connection between the power supply module 400 and the wearing structure 100 can also protect the main unit from external impacts and vibrations, extending the service life of the main unit.

[0073] Specifically, the wearing structure 100 is provided with a battery compartment 131, the power supply module 400 is slidably connected to the wearing structure 100, and the battery compartment 131 is used to house the power supply module 400.

[0074] The battery compartment 131 is located inside the wearing structure 100. The internal dimensions of the battery compartment 131 are adapted to the outer contour of the power supply module 400, ensuring that the power supply module 400 can be completely accommodated within the battery compartment 131. The opening shape of the battery compartment 131 can be designed as rectangular, elliptical, or other geometric shapes that match the shape of the power supply module 400. Rectangular openings are easy to manufacture and have good structural strength, while elliptical openings provide a better grip and reduce stress concentration. Other geometric shapes can be customized according to the product's appearance design requirements and functional needs. The depth of the battery compartment 131 should ensure that the power supply module 400 does not protrude from the outer surface of the wearing structure 100 after being fully embedded, avoiding affecting the overall appearance and wearing comfort of the wearable device 10. The inner wall of the battery compartment 131 can be provided with positioning protrusions, positioning grooves, or positioning steps to provide precise installation positioning for the power supply module 400 and prevent unnecessary displacement or rotation of the power supply module 400 within the battery compartment 131.

[0075] The battery compartment 131 contains first contacts 133. The position and number of first contacts 133 are determined based on the layout of second contacts 410 on the power supply module 400. The first contacts 133 can be spring contacts, blade contacts, or ball contacts. Spring contacts offer advantages such as reliable contact and strong adaptability, compensating for manufacturing and assembly errors and ensuring stable electrical connections. Blade contacts offer advantages such as low contact resistance and good conductivity, making them suitable for high-current transmission applications. Ball contacts offer advantages such as strong self-alignment and low wear, making them suitable for environments with frequent plugging and unplugging. The material for the first contacts 133 can be gold-plated copper alloy, silver alloy, or other metal materials with good conductivity and corrosion resistance. Gold-plated copper alloy has excellent conductivity and strong oxidation resistance, while silver alloy has high conductivity and low contact resistance. Other metal materials can be selected based on cost requirements and the operating environment. The power supply module 400 includes a battery unit and a housing. The battery unit stores electrical energy, and the housing protects the battery unit and provides a mechanical connection interface.

[0076] The outer surface of the power supply module 400 is provided with a second contact 410, the position of which corresponds to the position of the first contact 133, ensuring reliable contact between the first contact 133 and the second contact 410 after the power supply module 400 slides into the battery compartment 131. The second contact 410 can be in the form of a flat contact, a raised contact, or a recessed contact. Flat contacts have the characteristics of large contact area and low contact resistance, raised contacts can provide good insertion guidance and contact pressure, and recessed contacts have the advantages of dust and contamination prevention. The surface of the second contact 410 can be gold-plated, silver-plated, or otherwise surface-treated to improve conductivity and corrosion resistance.

[0077] The battery compartment 131 houses the power supply module 400, ensuring a flat surface between the wearing structure 100 and the power supply module 400 after installation. The depth design of the battery compartment 131 ensures that, with the power supply module 400 fully embedded, its outer surface forms a continuous, flat surface with the wearing structure 100, avoiding any protrusions or depressions. This flat surface provides excellent wearing comfort, reducing friction between the wearable device 10 and the user's skin or clothing, and minimizing discomfort during wear. The flat surface also contributes to the aesthetic appeal of the wearable device 10, creating a unified visual effect and enhancing the overall design quality of the product. The opening edges of the battery compartment 131 can be chamfered or rounded to further optimize the flatness and feel of the surface.

[0078] The sliding connection positions and guides the movement of the power supply module 400. Through the interaction of the guiding and mating structures, the sliding connection restricts the power supply module 400 to move only in a predetermined sliding direction, preventing displacement or rotation in other directions. This positioning function ensures that the power supply module 400 always slides into the battery compartment 131 along the correct trajectory, avoiding poor contact or mechanical damage due to improper installation. The guiding function of the sliding connection also simplifies the user's operation process; the user only needs to align the power supply module 400 with the opening of the battery compartment 131 and push it in along the sliding direction, completing the installation without complex alignment operations.

[0079] In one embodiment, the power supply module 400 is slidably connected to the wearing structure 100 via a second sliding structure. The second sliding structure includes a second sliding part 420 and a second sliding groove 132. The second sliding part 420 is disposed on either the power supply module 400 or the wearing structure 100, and the second sliding groove 132 is disposed on the other of the power supply module 400 and the wearing structure 100. The second sliding part 420 and the second sliding groove 132 are slidably engaged.

[0080] The second sliding structure provides a reliable mechanical connection between the power supply module 400 and the wearing structure 100, while ensuring that the power supply module 400 can slide smoothly along a predetermined trajectory. The second sliding part 420 can be in the form of a sliding protrusion, a sliding strip, or a sliding block. Sliding protrusions have the advantages of compact structure and low manufacturing cost, and are suitable for sliding connections under light loads; sliding strips have the advantages of strong load-bearing capacity and large contact area, and can withstand large lateral forces and provide stable sliding support; sliding blocks have the advantages of high guiding accuracy and uniform wear, and are suitable for applications with high requirements for sliding accuracy.

[0081] The cross-sectional shape of the second groove 132 is adapted to the outer contour of the second sliding part 420 to form a stable sliding guide fit. The cross-section of the second groove 132 can be rectangular, trapezoidal, dovetail, or T-shaped, etc. Rectangular cross-sections have the advantages of simple processing and convenient assembly; trapezoidal cross-sections can provide a self-locking function and prevent the second sliding part 420 from accidentally dislodging; dovetail cross-sections have the advantages of high tensile strength and reliable connection; and T-shaped cross-sections can withstand multi-directional loads and provide good positioning accuracy. The depth of the second groove 132 should ensure that the second sliding part 420 can be fully embedded and leave appropriate room for movement. If the depth is too shallow, the second sliding part 420 will not be able to be fully inserted, affecting the stability of the connection; if the depth is too deep, it will increase the amount of material used and may reduce the overall strength of the wearing structure 100.

[0082] The sliding length of the second sliding structure is determined based on the installation and removal stroke of the power supply module 400. The sliding length should cover the entire process from when the power supply module 400 first contacts the battery compartment 131 until it is fully embedded in place. In the initial stage of sliding, the second sliding part 420 enters the second slide groove 132 and begins to be guided and constrained, at which point the position and orientation of the power supply module 400 are initially controlled. As sliding progresses, the second sliding part 420 gradually delves deeper into the second slide groove 132, and the positioning accuracy of the power supply module 400 continuously improves. When the power supply module 400 slides to its final position, the second sliding part 420 is fully embedded in the second slide groove 132, at which point the first contact 133 and the second contact 410 achieve a reliable electrical connection.

[0083] The second sliding structure can also be equipped with a limiting mechanism to prevent the power supply module 400 from sliding excessively or accidentally dislodging. The limiting mechanism can take the form of a limiting step, a limiting protrusion, or an elastic latch. A limiting step prevents the second sliding part 420 from continuing to slide by setting a sudden height change at the end of the second sliding groove 132. A limiting protrusion limits the sliding stroke by setting a blocking structure on the sliding path. An elastic latch achieves positioning and locking of the power supply module 400 through elastic deformation and allows disassembly when necessary. The setting position of the limiting mechanism should ensure that the power supply module 400 can be reliably limited when it reaches the correct installation position, while not hindering normal sliding operation.

[0084] Lubrication of the second sliding structure helps reduce sliding friction and extend service life. Lubrication methods can include surface coating with lubricants, adding self-lubricating components to the material, or using materials with natural lubricating properties. Surface coating with lubricants has the advantages of immediate lubrication and wide applicability, but requires regular maintenance and replenishment. Adding self-lubricating components to the material can achieve long-lasting lubrication and reduce maintenance needs. Using materials with natural lubricating properties, such as polytetrafluoroethylene (PTFE), can provide good sliding performance while simplifying the structure.

[0085] With the second sliding structure, the power supply module 400 can slide stably into the battery compartment 131 along a predetermined direction. During the sliding process, the second sliding part 420 is always guided and constrained by the second sliding groove 132, preventing the power supply module 400 from displacement or rotation perpendicular to the sliding direction. This guiding function ensures that the first contact 133 and the second contact 410 can be accurately aligned and achieve a reliable electrical connection, improving the power supply stability of the wearable device 10. The second sliding structure also simplifies the user's operation process, allowing the user to complete the installation of the power supply module 400 without performing complex alignment operations, thus enhancing the user experience of the product.

[0086] Specifically, the wearing structure 100 includes a connecting frame 110, a wearing frame 120, and a main unit housing 130. The wearing frame 120 has a space formed on it to accommodate the ear. The inner surface shape of the wearing frame 120 is designed according to the physiological structure of the human ear, forming a space that conforms to the contour of the auricle. This space can stably support the wearable device 10 and ensure wearing comfort. The material of the wearing frame 120 can be flexible silicone, thermoplastic elastomer, or memory foam, etc. Flexible silicone has the characteristics of comfortable touch and strong hypoallergenic properties, and can be worn for a long time without causing skin discomfort. Thermoplastic elastomer has the characteristics of good elasticity and strong fatigue resistance, and can adapt to the differences in ear size of different users. Memory foam has slow rebound characteristics and can automatically adjust the fit according to the shape of the ear.

[0087] The number of wearing brackets 120 can be one or two, depending on the usage requirements of the wearable device 10. When there is only one wearing bracket 120, it is suitable for applications requiring mono audio output or single-sided sensor monitoring, offering advantages such as simple structure, light weight, and low cost. When there are two wearing brackets 120, they are symmetrically arranged to correspond to the two ears, enabling stereo audio output, dual-sided sensor data acquisition, and more stable wearing support. The symmetrical arrangement of the two wearing brackets 120 ensures even weight distribution of the wearable device 10, preventing instability or increased user fatigue due to a shifted center of gravity. The symmetrical arrangement also enhances the aesthetic appeal of the wearable device 10, creating a visually balanced effect.

[0088] Similarly, there can be one or two audio modules, with the number of audio modules corresponding to the number of wearable frames 120. When there is one audio module, it can be integrated into a single wearable frame 120 to achieve mono audio playback, suitable for applications such as voice calls, mono music playback, or voice prompts. The use of a single audio module reduces the overall power consumption of the wearable device 10, extends battery life, simplifies circuit design, and reduces manufacturing costs. When there are two audio modules, each integrated into a separate wearable frame 120, stereo audio playback is achieved, providing users with a richer auditory experience. Stereo audio playback, through independent control of the left and right channels, can create spatial sound effects and enhance the layering and presence of music. The two audio modules can also support independent volume adjustment for the left and right channels, meeting users' personalized listening needs.

[0089] The connecting frame 110 is used to connect to the wearing frame 120, and the connecting frame 110 can be an arc-shaped structure for wearing on the user's head. The radius of curvature of the arc-shaped structure is designed according to the average size parameters of the human head, ensuring that the connecting frame 110 can fit the head shape of different users. The arc-shaped design of the connecting frame 110 can evenly distribute the weight of the wearing device 10 on multiple contact points on the user's head, avoiding discomfort caused by excessive local pressure. The arc-shaped structure also has good structural strength, capable of withstanding various loads during wearing without deformation or breakage. The material of the connecting frame 110 can be titanium alloy, carbon fiber composite material, or high-strength engineering plastics, etc. Titanium alloy has the characteristics of high strength, light weight, and good biocompatibility; carbon fiber composite material has the characteristics of high stiffness, light weight, and strong fatigue resistance; and high-strength engineering plastics have the characteristics of low cost, good processing performance, and good insulation performance.

[0090] The cross-sectional shape of the connecting frame 110 can be circular, elliptical, or rectangular, etc. A circular cross-section has the advantages of uniform bending strength and no stress concentration; an elliptical cross-section can reduce the size of the device while ensuring strength; and a rectangular cross-section has the advantages of large moment of inertia and strong bending resistance. The surface of the connecting frame 110 can be treated with anti-slip material, such as by setting anti-slip texture or coating it with anti-slip material, to prevent the wearable device 10 from sliding on the user's head. The connecting frame 110 can also be equipped with a length adjustment mechanism, which can achieve length adjustment through a telescopic structure or segmented connection to accommodate the differences in head size among different users. The battery compartment 131 is located on the main unit housing 130, and the main unit housing 130 provides structural support and protection for the battery compartment 131.

[0091] The number of main unit housings 130 can be one or two, depending on the functional layout and weight distribution requirements of the wearable device 10. When there is one main unit housing 130, all major electronic components are concentrated in a single main unit housing 130, which has the advantages of compact structure and simple wiring, and is suitable for wearable devices 10 with relatively simple functions or strict size requirements. When there are two main unit housings 130, the two main unit housings 130 can be used to install the main unit and the power supply module 400 respectively, realizing the separate arrangement of functional modules. This separate arrangement has several technical advantages: firstly, it can achieve a uniform weight distribution, avoid significant center of gravity shift of the wearable device 10, and improve wearing stability and comfort; secondly, it can reduce electromagnetic interference between functional modules and improve the working stability of the wearable device 10; and thirdly, it can facilitate modular design and maintenance, allowing users to replace specific functional modules as needed without replacing the entire device.

[0092] The weight distribution design of the main unit housing 130 ensures that the center of gravity of the wearable device 10 is located in the appropriate position on the user's head, avoiding instability caused by tilting forward or backward. The weight distribution also needs to consider the user's comfort in different postures, such as when looking down, looking up, or turning left or right, the wearable device 10 can maintain a stable wearing position. Through reasonable weight distribution, the burden on the user's neck muscles can be reduced, and the comfortable wearing time can be extended.

[0093] In the description of the embodiments of this application, it should be noted that the terms "center," "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing the embodiments of this application 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. Therefore, they should not be construed as limitations on the embodiments of this application. In addition, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0094] In the description of the embodiments of this application, it should be noted that, unless otherwise explicitly specified and limited, the terms "connected" and "linked" 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 or an indirect connection through an intermediate medium. Those skilled in the art can understand the specific meaning of the above terms in the embodiments of this application based on the specific circumstances.

[0095] In the embodiments of this application, unless otherwise expressly specified and limited, "above" or "below" the second feature can mean that the first feature is in direct contact with the second feature, or that the first feature is in indirect contact with the second feature through an intermediate medium. Furthermore, "above," "on top of," and "over" the second feature can mean that the first feature is directly above or diagonally above the second feature, or simply that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature can mean that the first feature is directly below or diagonally below the second feature, or simply that the first feature is at a lower horizontal level than the second feature.

[0096] In the description of this specification, the references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., refer to specific features, structures, materials, or characteristics described in connection with that embodiment or example, which are included in at least one embodiment or example of the embodiments of this application. In this specification, the illustrative expressions of the above terms do not necessarily refer to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples. Moreover, without contradiction, those skilled in the art can combine and integrate the different embodiments or examples described in this specification, as well as the features of different embodiments or examples.

[0097] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this application, and are not intended to limit them. Although this application has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this application.

Claims

1. A wearable device with a camera module, characterized in that, include: Wearing structure; An audio module is connected to the wearing structure; as well as A camera module includes a connector and a camera housing. The connector is connected to the audio module and has a receiving cavity. The camera housing is slidably connected to the camera module and is at least partially housed within the receiving cavity. A camera unit is provided inside the camera housing.

2. The wearable device with a camera module according to claim 1, characterized in that, The connecting seat and the camera housing are connected by a first sliding structure. The first sliding structure includes a first sliding part and a first sliding groove. The first sliding part is disposed in either the connecting seat or the camera housing, and the first sliding groove is disposed in the other of the connecting seat and the camera housing. The first sliding part and the first sliding groove are slidably engaged.

3. The wearable device with a camera module according to claim 2, characterized in that, The camera housing has a clearance area, and the edge of the clearance area is located inside the receiving cavity.

4. The wearable device with a camera module according to claim 3, characterized in that, The outer wall of the camera housing is provided with a protrusion, the edge of which is connected to the clearance position, and the protrusion is located outside the receiving cavity.

5. The wearable device with a camera module according to claim 1, characterized in that, The audio module includes an audio housing and an audio unit. The audio unit is disposed inside the audio housing. The audio housing is connected to the wearing structure. The connecting seat is rotatably connected to the audio housing.

6. The wearable device with a camera module according to claim 5, characterized in that, The audio housing has a guide groove, which is arc-shaped along the rotation center of the connecting seat. The connecting seat has a guide pin, which slides in conjunction with the guide groove. The audio housing includes a housing body and a fixing part. The guide groove is provided on the housing body. The fixing part has a rotating hole. The connecting seat includes a connecting part and a rotating shaft. The receiving cavity and the guide pin are both provided on the connecting part. The rotating shaft passes through the rotating hole and is rotatably connected to the fixing part.

7. The wearable device with a camera module according to claim 5, characterized in that, The audio module also includes a flexible ribbon cable, which is connected to the audio unit and the camera module respectively.

8. The wearable device with a camera module according to claim 1, characterized in that, The wearable device also includes a power supply module, which is detachably connected to the wearing structure; the wearing structure is provided with a first contact, and the power supply module is provided with a second contact, wherein the first contact is used to electrically connect to the second contact.

9. The wearable device with a camera module according to claim 8, characterized in that, The wearing structure is provided with a battery compartment, the power supply module is slidably connected to the wearing structure, and the battery compartment is used to house the power supply module.

10. The wearable device with a camera module according to claim 9, characterized in that, The power supply module is slidably connected to the wearing structure through a second sliding structure. The second sliding structure includes a second sliding part and a second sliding groove. The second sliding part is disposed on either the power supply module or the wearing structure, and the second sliding groove is disposed on the other of the power supply module and the wearing structure. The second sliding part and the second sliding groove are slidably engaged.

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