WO2022088332A1 - 智能眼镜 - Google Patents

智能眼镜 Download PDF

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Publication number
WO2022088332A1
WO2022088332A1 PCT/CN2020/131297 CN2020131297W WO2022088332A1 WO 2022088332 A1 WO2022088332 A1 WO 2022088332A1 CN 2020131297 W CN2020131297 W CN 2020131297W WO 2022088332 A1 WO2022088332 A1 WO 2022088332A1
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WO
WIPO (PCT)
Prior art keywords
hinge
temple
smart glasses
mirror frame
mirror
Prior art date
Application number
PCT/CN2020/131297
Other languages
English (en)
French (fr)
Inventor
李传龙
张锋
董彦磊
姜滨
迟小羽
Original Assignee
歌尔股份有限公司
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 歌尔股份有限公司 filed Critical 歌尔股份有限公司
Publication of WO2022088332A1 publication Critical patent/WO2022088332A1/zh

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    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B27/00—Optical systems or apparatus not provided for by any of the groups G02B1/00 - G02B26/00, G02B30/00
    • G02B27/01—Head-up displays
    • G02B27/017—Head mounted
    • G02B27/0176—Head mounted characterised by mechanical features
    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B27/00—Optical systems or apparatus not provided for by any of the groups G02B1/00 - G02B26/00, G02B30/00
    • G02B27/01—Head-up displays
    • G02B27/017—Head mounted
    • G02B2027/0178—Eyeglass type

Definitions

  • the present application relates to the technical field of wearable smart devices, and in particular, to smart glasses.
  • the main control board is generally arranged on the side of the mirror frame because of its relatively large volume, which leads to a large amount of heat on the side of the mirror frame, which affects the user's experience, while the audio, battery or charging interfaces are arranged on the side of the mirror leg, which generates heat. smaller.
  • the temple part has a foldable function, and the temple and the mirror frame are connected by a rotating shaft, and the electrical connectors such as the signal wire that needs to be connected to the main control board of the mirror frame in the temple are often exposed outside. Some electrical connections are at risk of being damaged.
  • the purpose of the present application is to provide smart glasses, which can reduce the risk of damage to the electrical connection between the frame and the temple.
  • a kind of smart glasses comprising a frame and temples, a control assembly in the temple is electrically connected to a main control board in the frame through an electrical connector, and the temple is rotatably connected to the frame through a hinge assembly, so the
  • the hinge assembly includes a hinge shell, two ends of the hinge shell are hinged to the mirror frame and the mirror legs, respectively, and the electrical connector is inserted into the mirror frame by the mirror legs passing through the interior of the hinge shell and then extending into the mirror frame.
  • the hinge shell includes at least two hinge sleeves, the mirror frame, each hinge sleeve and the temple are connected by rotation from front to rear to form a shell assembly, and the hinge sleeves are arranged through the front and rear directions.
  • an annular sleeve; the electrical connecting piece is extended into the lens frame after passing through the hinge sleeves in sequence by the temple legs.
  • a housing rotation limiting structure is respectively provided between every two adjacent components, so as to respectively limit the relative rotation angle of the two adjacent components.
  • one of them is provided with a connecting protrusion
  • the other is provided with a connecting groove
  • the connecting groove is rotatably sleeved on the connecting protrusion outside.
  • the end close to the head in the wearing state constitutes an inward fold limit surface
  • the end away from the head constitutes an eversion limit surface, so that the connecting protrusions It can be folded inwards to abut against the inward-folding limiting surface, and can be folded inwards to abut against the eversion-limiting surface.
  • At least one of the inner surface of the connection groove and the outer surface of the connection protrusion includes a circular arc surface, and the center line of the circle and the connection between the connection groove and the connection protrusion Rotation centerlines are collinear or parallel.
  • the hinge assembly further includes an elastic assembly disposed in the hinge shell.
  • the elastic assembly is elastically deformed to make the mirror
  • the legs have a tendency to fold inward and rotate, and when the temples are turned outward relative to the mirror frame and the turning angle is not greater than the preset angle, the elastic components are in the original state.
  • the hinge assembly further comprises at least two connecting plates arranged in sequence from front to back, the connecting plate at the front end is connected to the mirror frame, and the connecting plate at the rear end is connected to the temple arm; the elastic
  • the assembly includes an elastic piece arranged between every two adjacent connecting plates.
  • the middle portion of one of them in the axial direction is turned over to the side away from the head in the wearing state to form the first connecting ring
  • the middle part in the axial direction is bent toward the side away from the head in the wearing state to form the elastic piece, and the two ends are turned toward the side close to the head in the wearing state to form a second connecting ring.
  • a connecting ring and the second connecting ring are both sleeved on the connecting shaft, and the first connecting ring is located between the two second connecting rings to realize rotational connection.
  • a flexible heat-conducting member is further provided between the temple and the frame.
  • the smart glasses provided by the present application include a mirror frame and temples.
  • the control assembly in the temple is electrically connected to the main control board in the mirror frame through an electrical connector, and the temple is rotatably connected to the mirror frame through a hinge assembly.
  • the hinge assembly includes a hinge shell and a hinge. The two ends of the shell are respectively hinged to the mirror frame and the mirror legs, and the electrical connecting piece is inserted into the mirror frame after passing through the inside of the hinge shell by the mirror legs.
  • the electrical connector is built into the hinge shell, which can reduce the exposure of the electrical connector, effectively protect the electrical connector, and reduce the risk of damage to the electrical connector.
  • FIG. 1 is an external view of a specific embodiment 1 of the smart glasses provided by the application;
  • FIG. 2 is an exploded view of a specific embodiment 1 of the smart glasses provided by the application;
  • FIG. 3 is a structural diagram of the left hinge plate group in the specific embodiment 1 of the smart glasses provided by the application;
  • FIG. 4 is a longitudinal cross-sectional view of the left hinge plate group in the specific embodiment 1 of the smart glasses provided by the application;
  • FIG. 5 is a transverse cross-sectional view of the left hinge plate group in the specific embodiment 1 of the smart glasses provided by the application when the temple is at a preset eversion limit position;
  • FIG. 6 is a transverse cross-sectional view of the left hinge plate group in the specific embodiment 1 of the smart glasses provided by the application when the temple is in a preset critical position;
  • FIG. 7 is a transverse cross-sectional view of the right hinge plate group in the specific embodiment 1 of the smart glasses provided by the application when the temple is at a preset inward folding limit position;
  • FIG. 8 is an exploded view of the left housing assembly in the specific embodiment 1 of the smart glasses provided by the application;
  • FIG. 9 is a transverse cross-sectional view of the inner parts of the left hinge shell in the specific embodiment 1 of the smart glasses provided by the application when the temple is at a preset critical position;
  • FIG. 10 is a transverse cross-sectional view of the inner parts of the left hinge shell in the specific embodiment 1 of the smart glasses provided by the application when the temple is at a preset inward folding limit position;
  • FIG. 11 is a structural diagram of the connection between the left mirror frame, the hinge plate group and the temple in the first embodiment of the smart glasses provided by the application;
  • FIG. 12 is a transverse cross-sectional view of the left hinge plate group and the hinge sleeve in the specific embodiment 1 of the smart glasses provided by the application when the temple is in a preset critical position;
  • FIG. 13 is a transverse cross-sectional view of the left hinge plate group and the hinge sleeve in the specific embodiment 1 of the smart glasses provided by the present application when the temple is at a preset inward folding limit position;
  • FIG. 15 is a structural diagram of the right hinge plate group in the specific embodiment 2 of the smart glasses provided by the application;
  • 17 is a transverse cross-sectional view of the right hinge plate group in the second embodiment of the smart glasses provided by the application when the temple is at a preset eversion limit position;
  • FIG. 18 is a transverse cross-sectional view of the right hinge plate group in the second embodiment of the smart glasses provided by the application when the temple is at a preset critical position;
  • 19 is a transverse cross-sectional view of the right hinge plate group in the second embodiment of the smart glasses provided by the application when the temple is at a preset inward folding limit position;
  • 20 is a structural diagram of the connection between the right hinge plate group and the hinge shell in the second embodiment of the smart glasses provided by the application;
  • 21 is a first longitudinal cross-sectional structural view of the right hinge plate group and the hinge shell in the specific embodiment 2 of the smart glasses provided by the application;
  • FIG. 22 is a second longitudinal cross-sectional structural view of the right hinge plate group and the hinge shell in the specific embodiment 2 of the smart glasses provided by the application;
  • FIG. 23 is a first transverse cross-sectional view of the right hinge plate set and the hinge shell in the second embodiment of the smart glasses provided by the application;
  • 24 is a second transverse cross-sectional view of the right hinge plate group and the hinge shell in the specific embodiment 2 of the smart glasses provided by the application;
  • Fig. 25 is a longitudinal cross-sectional view of the right hinge sleeve and the connecting plate in the specific embodiment 2 of the smart glasses provided by the application;
  • 26 is an external view of the right hinge sleeve and the connecting plate in the second embodiment of the smart glasses provided by the application when the temple is at the preset inward folding limit position;
  • FIG. 27 is a transverse cross-sectional view of the right hinge sleeve and the connecting plate in the second embodiment of the smart glasses provided by the application when the temples are at the preset inward folding limit position;
  • 29 is a transverse cross-sectional view of the right hinge sleeve and the connecting plate in the second embodiment of the smart glasses provided by the application when the temples are in the preset eversion limit position;
  • FIG. 30 is a structural diagram of the inner parts of the right hinge shell in the second embodiment of the smart glasses provided by the application when the temples are at the preset inward folding limit position;
  • 31 is a structural diagram of the inner parts of the right hinge shell in the specific embodiment 2 of the smart glasses provided by the application when the temple is in a preset critical position;
  • FIG. 32 is a structural diagram of the connection between the right mirror frame, the hinge plate group and the temple in the second embodiment of the smart glasses provided by the application.
  • Mirror frame 2 the main control board 21, the mirror frame connecting protrusion 22, the mirror frame connecting groove 23, the mirror frame inward folding limit surface 24, the mirror frame eversion limit surface 25, the mirror frame rotating shaft column 26;
  • Hinge plate set 3 connecting plate 31, elastic piece 32, pressing surface 33, first connecting ring 341, second connecting ring 342, connecting shaft 343, rotation limiting groove 351, elastic piece limiting protrusion 352, front plate socket 361 , the rear plate socket 362, the positioning pin 363, the elastic sheet groove 37, the plate member inward folding limit surface 381, the plate member eversion limit surface 382;
  • Hinge shell 4 hinge sleeve 41, hinge shaft slot 42, hinge shaft column 43, first limit block 441, second limit block 442, third limit block 443, fourth limit block 444, C-shaped groove 45 , the sleeve body connection protrusion 461, the sleeve body connection groove 462, the sleeve body folding limit surface 471, the sleeve inversion limit surface 472;
  • the temple 6 The temple 6, the temple connecting protrusion 61, and the temple shaft groove 62.
  • the core of the present application is to provide smart glasses, which can reduce the risk of damage to the electrical connection between the frame and the temple.
  • FIG. 1 to FIG. 13 including a frame 2 and a temple 6 .
  • a control assembly is arranged in the temple 6
  • a main control board 21 is arranged in the mirror frame 2
  • the control assembly is electrically connected to the main control board 21 through the electrical connector 5 .
  • the electrical connector 5 includes an FPC 51 and a cable harness 52 .
  • the temple 6 is rotatably connected to the mirror frame 2 through a hinge assembly, so that the temple 6 can be folded inward or everted relative to the mirror frame 2 .
  • the two temples 6 are respectively connected to the frame 2 through corresponding hinge assemblies.
  • the hinge assembly includes a hinge shell 4, two ends of the hinge shell 4 are hinged to the mirror frame 2 and the temple 6 respectively.
  • the electrical connector 5 is built in the hinge shell 4 , which can reduce the exposure of the electrical connector 5 , effectively protect the electrical connector 5 , and reduce the risk of damage to the electrical connector 5 .
  • the hinge shell 4 includes at least two hinge sleeves 41 .
  • the hinge shell 4 includes two hinge sleeves 41 .
  • the hinge shell 4 may also include three or other numbers of hinge sleeves 41 .
  • the mirror frame 2, each hinge sleeve 41 and the temple 6 are connected by rotation from front to rear to form a shell assembly.
  • Figure 8 shows the left shell composed of the mirror frame 2, the hinge sleeves 41 on the left, and the temple 6 on the left.
  • the mirror frame 2, each hinge sleeve 41 on the right side, and the temple 6 on the right side constitute the housing component on the right side.
  • the hinge sleeves 41 are annular sleeves arranged through the front-rear direction, and the electrical connector 5 is inserted into the mirror frame 2 by the temples 6 passing through the hinge sleeves 41 in sequence.
  • the front and rear are defined based on the positions of the mirror frame 2 and the temple 6.
  • the mirror frame 2 is in the front and the temple 6 is in the front.
  • the end close to the mirror frame 2 is the front end, and the end close to the temple 6 is the rear end.
  • the present embodiment can share the eversion angle between the temple 6 and the mirror frame 2 through the rotation of different hinge sleeves 41 respectively, which can improve the rotation speed of the hinge assembly. flexibility.
  • the hinge sleeve 41 is annular and can cover the electrical connector 5 , thereby improving the protection effect on the electrical connector 5 .
  • a housing rotation limiting structure is respectively provided between each adjacent two components, so as to respectively limit the relative rotation angle of the two adjacent components.
  • each adjacent two parts of the housing assembly one of them is provided with a connecting protrusion, the other is provided with a connecting groove, and the connecting groove is The rotating sleeve is connected to the outside of the connecting protrusion. That is to say, the mirror frame 2 and the frontmost hinge sleeve 41, the adjacent hinge sleeve 41, and the rearmost hinge sleeve 41 and the temple 6 are all connected by socket connection, which can improve the butt joint of any adjacent two in the shell assembly. The sealing effect can further ensure the protection effect on the electrical connector 5 .
  • the temples 6 are at any rotatable angle relative to the mirror frame 2, there are parts between the two adjacent ones in the outer shell assembly on the side close to the head and the side away from the head in the wearing state The areas overlap, so that the hinge shell always has a good shielding effect on its internal components in each state, so that the appearance of the device is beautiful.
  • the rear end of the former is provided with a connecting groove, as shown in FIG. groove 462, and the front end of the latter is provided with connecting protrusions, as shown in FIG.
  • the rear end of the former is provided with a connection protrusion, while the front end of the latter is provided with a connection groove .
  • the end close to the head in the wearing state constitutes an inward fold limit surface
  • the end away from the head constitutes an eversion limit surface, so that the connecting protrusion can be folded inward and moved. until it touches the inward fold limit surface and the eversion moves until it touches the valgus limit surface.
  • the former hinge sleeve 41 is provided with a sleeve internal folding limit surface 471 and a sleeve external inversion limit surface 472, and the temples 6 During the inward folding and rotation process, after the rear hinge sleeve 41 (specifically, the outer surface of the connecting protrusion) and the sleeve inner folding limit surface 471 on the previous hinge sleeve 41 are in contact, the latter hinge sleeve 41 cannot continue to be inside.
  • the rear hinge sleeve 41 (specifically, the stepped surface that is connected to the rear end of the connecting protrusion) is in contact with the sleeve inversion limit surface 472 on the front hinge sleeve 41. , the latter hinge sleeve 41 cannot continue to turn outward.
  • At least one of the inner surface of the connecting groove and the outer surface of the connecting protrusion includes a circular arc surface, and the center line of the circle is the distance between the connecting groove and the connecting protrusion.
  • Rotation centerlines are collinear or parallel.
  • the inner surface of the connecting groove is on the side close to the head in the wearing state (that is, in FIG. 12 ).
  • the upper side) and the side away from the head are arc surfaces with the rotation center line S as the center line, wherein the radius and arc length of each arc surface are based on the The radial distance of the rotation center line S is determined.
  • the distance between the upper arc surface of the connecting groove and the rotation center line S is greater than the distance between the lower arc surface and the rotation center line S.
  • the radius and arc length of the arc surface are also set to be larger than the radius and arc length of the lower arc surface, respectively.
  • the side of the outer surface of the connecting protrusion away from the head in the wearing state is an arc surface with the rotation center line S as the center line.
  • the size relationship between the radius of the arc surface on the connecting protrusion and the radius of the corresponding arc surface on the connecting groove can be set as required.
  • the radius of the circular arc surface on the lower side of the connecting protrusion and the radius of the circular arc surface on the lower side of the connecting groove can be set to be the same or slightly smaller than the radius of the circular arc surface on the lower side of the connecting groove, so that the outer During the overturning process, the stepped surfaces of the rear ends of the connecting protrusions butted against each other can be smoothly rotated until they abut against the overturning limiting surfaces 472 of the sleeve on the front connecting grooves to limit the rotation.
  • the outer peripheral surface of the connecting protrusion is preferably set as a circular arc surface but its center line is another straight line parallel to the rotation center line S , and can also be set as a plane in other embodiments.
  • the degree of curvature of the upper arc surface of the connecting protrusion is smaller than the degree of curvature of the upper arc surface of the outer connecting groove, so that during the inward folding and rotation of the temple 6, the connecting protrusion is bent.
  • the circular arc surface on the upper side can be rotated until it contacts with the inner folding limiting surface 471 of the sleeve (specifically, the upper edge of the sleeve) on the connecting groove on the front side to limit the rotation.
  • the inner surface of the connecting groove and the outer surface of the connecting protrusion can also be set as spherical surfaces that fit together, which can improve the sealing performance between the two.
  • one of the inner surface of the connecting groove and the outer surface of the connecting protrusion is provided with a rotating shaft groove, and the other is fixed on the other.
  • a rotating shaft column that is rotated and inserted into the rotating shaft groove to realize the rotating connection between the hinge sleeve 41, the temple 6 and the mirror frame 2, and the reliability of the connection is not affected by the internal structure of the hinge shell 4, as shown in Figure 8 , a hinge shaft groove 42 is respectively set on the two end faces of the sleeve body connecting protrusion 461 in the axial direction, and the two hinge shaft grooves 42 limit the rotation of the sleeve body connecting protrusion 461 and the sleeve body connecting groove 462.
  • the sleeve body connecting groove 462 is provided with a hinge rotating shaft column 43 which is matched and inserted with each hinge rotating shaft groove 42 .
  • the hinge assembly also includes an elastic assembly disposed in the hinge shell 4 .
  • the elastic component After the temple 6 is everted relative to the mirror frame 2 and the turning angle is greater than the preset turning angle, the elastic component is elastically deformed so that the temple 6 has a movement trend of turning inward, and when the temple 6 is turned outward relative to the mirror frame 2 and the turning angle is not greater than the predetermined turning angle. When the angle is set, the elastic component is in its original state.
  • the line K is the straight line where the mirror frame 2 is located
  • the line T is the straight line where the temples 6 are located
  • FIG. 6 is the state when the temples 6 are in the preset critical position
  • the downward direction is the eversion direction
  • the upward direction is In the inward folding direction
  • FIG. 5 shows the state when the temple 6 is at the preset valgus limit position
  • FIG. 7 shows the state when the temple 6 is in the preset inward folding limit position.
  • the corner between the temple 6 and the mirror frame 2 is B1; in FIG.
  • the corner between the temple 6 and the mirror frame 2 is B0, 0 ⁇ B0 ⁇ B1, B0 is the preset corner, and more Specifically, B0 ⁇ 90°; in FIG. 7 , the angle between the temple 6 and the mirror frame 2 is 0, and the two are parallel.
  • the user everts the temples 6.
  • the elastic components are in a deformed state at each position. Accordingly, the restoring force of the elastic components makes the temples 6 have a tendency to fold inwards.
  • the head is located in the The upper side of the temple 6 in the orientation shown in FIG. 5 , the temple 6 can provide a clamping force for the head.
  • the setting of the preset critical position can be analyzed and set in combination with the big data of the size of the human body, so that when most users wear it, the temple 6 can provide a clamping force.
  • the two temples 6 can clamp the head in the wearing state, preventing the smart glasses from falling in the wearing state, and improving the wearing reliability.
  • the elastic component starts to deform after the temple 6 is everted at the preset corner, and is not deformed within the preset corner, the elastic component can be in a relaxed state without deformation at the corner that is less suitable for wearing, It is beneficial to prolong the service life of elastic components.
  • the hinge assembly also includes at least two connecting plates 31 arranged in sequence from front to back, the frontmost connecting plate 31 is connected to the mirror frame 2, and the rearmost connecting plate 31 is connected to the temple 6, specifically, As shown in FIG. 11 , the frontmost connecting plate 31 is inserted and screwed to the mirror frame 2 , the rearmost connecting plate 31 is inserted and screwed to the temple 6 , the fixing is stable and reliable, and the number of screws can be set to at least two.
  • the elastic assembly includes an elastic member disposed between every two adjacent connecting plates 31, so that different elastic members cooperate to complete the overall deformation of the elastic assembly, and each connecting plate 31 bears a part of the elastic pressure, which is beneficial to prolong the use of the hinge assembly life.
  • four connection boards 31 are provided.
  • the number of connection boards 31 may also be two or other numbers.
  • the elastic member is an elastic piece 32 , which is convenient for processing. Specifically, the elastic piece 32 is located on the side of the connecting plate 31 away from the head in the wearing state. One end of the elastic piece 32 is fixed on one of the connecting plates 31 , and the other end is a free end and is deformed by abutting against the other connecting plate 31 .
  • the elastic member can also be a torsion spring sleeved on the connecting shaft 343 between the two connecting plates 31 .
  • the elastic piece 32 is integrally formed on the connecting plate 31 .
  • the connecting plate 31 has elasticity, and suitable stainless steel plates with different thicknesses can be selected according to the strength required in actual use, so as to ensure that the connecting plate 31 has good elastic performance and the strength also meets the requirements for use.
  • the connecting plate 31 is realized by a sheet metal bending process, the structure design is simple in shape, the manufacture is simple, the cost is low, the efficiency is high, the manufacture precision is high, and the mass production is good.
  • connection ring 341 In every two adjacent connection plates 31, the rear end of the former connection plate 31 and the front end of the latter connection plate 31, the middle part of one in the axial direction is bent toward the side away from the head in the wearing state. Folded to form the elastic piece 32, the two ends are turned toward the side close to the head in the wearing state to form the second connecting ring 342, and the middle part of the other is turned over to the side away from the head in the wearing state to form the first connecting ring 342.
  • Connection ring 341 The first connecting ring 341 and the second connecting ring 342 are both sleeved on the connecting shaft 343 and the first connecting ring 341 is located between the two second connecting rings 342 to realize rotational connection.
  • the part of the connecting plate 31 for connecting with the connecting shaft 343 is an integral structure with the connecting plate 31, and the connection with the connecting shaft 343 can be realized by crimping the connecting plate 31, which can further facilitate processing and reduce the zero required for the equipment. number of parts.
  • the rear end of the former connecting plate 31 is provided with a first connecting ring 341
  • the front end of the latter connecting plate 31 is provided with a second connecting ring 342
  • the front connecting plate 31 is provided with a second connecting ring 342 .
  • a pressing surface 33 cooperating with the elastic piece 32 is formed on the side facing away from the head in the wearing state. Based on the turning direction of the first connecting ring 341 , it faces the side facing away from the head in the wearing state relative to the pressing surface 33 .
  • the second connecting ring 342 is tightly fitted and fixed with the connecting shaft 343 , that is, the fixed connection between the two cannot rotate relative to each other.
  • the first connecting ring 341 is rotatably connected with the connecting shaft 343, that is, the first connecting ring 341 and the connecting shaft 343 are in an interference fit, but can rotate relative to each other with a certain frictional force.
  • damping oil can be added to the first connecting ring 341, because The existence of frictional force will reflect smooth damping during bending, and increase the feel of use, so that the chain structure formed by the connection of each connecting plate 31 can be rotated and has a smooth damping effect.
  • a plate rotation limiting structure is provided between adjacent connecting plates 31 to limit the relative rotation angle of two adjacent connecting plates 31 .
  • the plate rotation limiting structure includes a rotation limiting groove 351 provided on the second connecting ring 342 and an elastic piece limiting protrusion 352 provided on the elastic piece 32 .
  • the elastic piece limiting protrusion 352 is inserted into the rotation limiting groove 351 .
  • the latter connecting plate 31 can be folded and rotated inward relative to the connecting shaft 343 until one end surface of the rotation limiting groove 351 abuts against the elastic piece limiting protrusion 352 to define the space between the two adjacent connecting plates 31 .
  • the maximum angle that can be folded inwardly and rotated avoids that the bending angle and bending radius of each part of the electrical connector 5 between the mirror frame 2 and the temple 6 are too large due to the excessive rotation angle of the single-section connecting plate 31 .
  • the latter connecting plate 31 can be turned outward relative to the connecting shaft 343 until the other end face of the rotation limiting groove 351 abuts against the elastic piece limiting protrusion 352 to limit the space between the two adjacent connecting plates 31 .
  • the rotation of each connecting plate 31 has the characteristics of a large bending radius and a small maximum bending angle.
  • the connecting plate 31 and the hinge sleeve are not directly and fixedly connected, and the swing of each component in the housing assembly may not be completely synchronized with the swing of the hinge plate group 3 formed after the connecting plate 31 is connected.
  • the rotation limiting structure of the outer shell is not provided between them, and only the rotation limiting structure of the plate member arranged between the connecting plates 31 is used to realize the limitation of the rotation angle of the temples 6.
  • the rotation-limiting structure of the shell realizes the limitation of the rotation angle of the temple 6 .
  • a flexible heat-conducting member 1 is connected between the mirror frame 2 and the temple 6, and the flexible heat-conducting member 1 is specifically a material with high thermal conductivity, such as flexible graphite sheet and flexible graphene, which can be bent many times, which can reduce the heat generated by a large amount of heat.
  • the heat on the side of the frame 2 with higher temperature is transmitted to the side of the temple 6 with less heat and lower temperature through the flexible heat-conducting member 1 to reduce the temperature of the side of the frame 2, so that the overall temperature of the smart glasses is more balanced, which can improve the user experience.
  • the flexible heat-conducting member 1 is built into the hinge shell 4.
  • the temples 6 can be inserted into the mirror frame 2 through each hinge sleeve 41, so that the hinge shell 4 can block the electrical connecting member 5 and the connecting plate 31.
  • the flexible heat-conducting member 1 can also be wrapped to protect the flexible heat-conducting member 1 .
  • one end of the flexible heat-conducting member 1 is fixed to the mirror frame 2, specifically a heat-generating component or a heat-conducting component such as a heat pipe directly fixed in the mirror frame 2, and the other end of the flexible heat-conducting member 1 is fixed to the temple 6, which can be fixed to on the inner surface of the temple 6.
  • the connecting plate 31 and the elastic piece 32 are of a split structure.
  • the elastic pieces 32 are screwed to the corresponding connecting plates 31 , which facilitates the replacement and maintenance of the elastic pieces 32 .
  • the connecting plate 31 can be elastic or not. Specifically, a suitable stainless steel material can be selected according to the actual strength required to prevent rusting.
  • the elastic piece 32 can be selected from stainless steel 304 or stainless steel 301 with better elastic properties.
  • the bottom of the elastic sheet groove 37 constitutes a pressing surface 33 that is press-fitted with the free end of the elastic sheet 32 for abutting against the free end of the elastic sheet 32.
  • the temple 6 By separately setting the elastic sheet groove 37, the temple 6 can be ensured In the state of the inward folding limit position, there is a sufficiently large distance between the free end of the elastic piece 32 and the pressing surface 33, so as to ensure that the free end of the elastic piece 32 is in the process of changing the state of the temple 6 from FIG. 19 to FIG. 18.
  • the state of being separated from the pressing surface 33 can be maintained, and the elastic piece 32 will not be pressed against the pressing surface 33 and deformed.
  • the plate rotation limiting structure can also be set differently from the specific embodiment 1. Specifically, as shown in FIG. 16 and FIG. 19 , in two adjacent connecting plates 31 , the plate rotation limiting structure includes a front end surface of the latter connecting plate 31 arranged in sequence along the direction away from the head in the wearing state. The inward folding limit surface 381 of the plate and the eversion limit surface 382 of the plate are convenient for processing. As shown in FIG. 19 , the latter connecting plate 31 can be folded inward and rotated until the inner folding limiting surface 381 of the upper plate is in contact with the rear end surface of the former connecting plate 31 to limit the inward opening between the two adjacent connecting plates 31 .
  • the maximum angle of folding and rotation is to avoid the excessively large rotation angle of the single-section connecting plate 31 resulting in excessively large bending angles and bending radii of each part of the electrical connecting piece 5 between the mirror frame 2 and the temple 6 .
  • the latter connecting plate 31 can be turned outwardly until the upper plate member eversion limiting surface 382 abuts against the rear end surface of the former connecting plate 31 to limit the space between two adjacent connecting plates 31 .
  • the rotation of each connecting plate 31 has the characteristics of a large bending radius and a small maximum bending angle.
  • connection manner of each component is not limited to the setting according to the first embodiment.
  • the hinge assembly further includes a hinge sleeve 41 that is fixedly sleeved outside each connecting plate 31 between the connecting plates 31 at the front and rear ends.
  • a hinge sleeve 41 is fixedly connected to the outside of the two connecting plates 31 in the middle.
  • each hinge sleeve 41 and its inner connecting plate 31 are fixedly connected and rotate synchronously, which can prevent the connecting plate 31 from swaying in the hinge sleeve 41 at will and colliding with components such as electrical connectors in the hinge sleeve 41 .
  • the mirror frame 2 and the frontmost connecting plate 31 and the temple 6 and the rearmost connecting plate 31 are respectively fixed by means of screw connection, welding connection or riveting connection, etc., and the fixing is stable and reliable. Since the hinge sleeve 41 is fixedly connected to its inner connecting plate 31 , the mirror frame 2 and the frontmost hinge sleeve 41 and the temple 6 and the rearmost hinge sleeve 41 may not be directly fixedly connected.
  • the adjacent connecting plates 31 are rotatably connected by positioning pins 363 .
  • the rear end of the former connecting plate 31 is provided with a front plate socket 361
  • the front end of the latter connecting plate 31 is provided with a rear plate hole 362
  • the sockets 362 are all sleeved on the positioning pins 363 .
  • the front plate insertion hole 361 is fixedly connected with the positioning pin 363, and the two cannot rotate relative to each other after being assembled;
  • the damping oil can reflect the damping property during bending and increase the use feeling, and finally make the hinge plate group 3 formed by connecting the connecting plates 31 to have a smooth damping effect while being rotatable.
  • each connecting plate 31 sleeved with the hinge sleeve 41 at least one positioning pin 363 protrudes from the connecting plate 31 in the axial direction and is inserted into the outer hinge sleeve 41 thereof, as shown in FIG. 25, the hinge The sleeve 41 is inserted and matched with the positioning pin 36 at the front end of the inner connecting plate 31, and is separated from the positioning pin 36 at the rear end of the connecting plate 31 in the axial direction, which can limit the hinge sleeve 41 relative to the inner connecting plate 31 in the front-rear direction.
  • the freedom of movement that is, the left-right direction in the orientation shown in FIG. 25 .
  • the sleeve limiting block includes a first limiting block 441 , a second limiting block 442 , a third limiting block 443 and a fourth limiting block 444 arranged on the hinge sleeve 41 .
  • the first limiting block 441 and the second limiting block 442 axially limit the connecting plate 31 from both sides of the connecting plate 31 respectively, and the third limiting block 443 and the fourth limiting block 444 respectively extend from the connecting plate 31
  • the connecting plate 31 is limited on both sides close to and away from the head in the wearing state. More specifically, the second limiting block 442 , the third limiting block 443 and the fourth limiting block 444 may be butted to form a U-shaped groove opening toward the first limiting block 441 .
  • the hinge sleeve 41 and its inner connecting plate 31 are fixedly connected to the structure for integral movement through the limit of each set of limit blocks and the positioning pins 363 .
  • the front end of the hinge sleeve 41 is provided with a C-shaped groove 45 that opens forward, and the hinge sleeve 41 can be sleeved on the outside of the corresponding connecting plate 31 from the back to the front until the C-shaped groove is formed.
  • the slot 45 is correspondingly buckled with the positioning pin 363 at the front end of the connecting plate 31.
  • the positioning pin 363 is connected to the hinge sleeve 41 through the C-shaped groove.
  • the setting of the C-shaped groove is convenient to determine the end position of the hinge sleeve 41 on the connecting plate 31. ok.
  • the hinge sleeve 41 is provided with installation channels penetrating in the front-rear direction, and the inner space of the temple 6 communicates with the inner space of the mirror frame 2 through the installation channels.
  • the first limit block 441 and the third limit block 443 are spaced apart in the axial direction, and the spaced portion constitutes an installation channel running through the front and rear to accommodate the built-in electrical connectors 5, flexible heat-conducting members 1, etc. components in the hinge housing 4.
  • the installation channel may be connected or disconnected in the space of the connecting plate 31 .
  • an organ cover may be provided between two adjacent components to achieve a sealed connection, so as to ensure the shielding effect of the inner components.

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Abstract

一种智能眼镜，包括镜框（2）和镜腿（6），镜腿（6）中的控制组件通过电连接件（5）电连接于镜框（2）中的主控板（21），镜腿（6）通过铰链组件转动连接于镜框（2），铰链组件包括铰链壳（4），铰链壳（4）的两端分别铰接于镜框（2）和镜腿（6），电连接件（5）由镜腿（6）穿过铰链壳（4）内部后伸入镜框（2）中。电连接件（5）内置于铰链壳（4）中，能够降低电连接件（5）的裸露程度，对电连接件（5）进行有效防护，降低电连接件（5）的损坏风险。

Description

智能眼镜
本申请要求于2020年10月30日提交中国专利局、申请号为202011189112.8、发明名称为“智能眼镜”的中国专利申请的优先权，其全部内容通过引用结合在本申请中。
技术领域
本申请涉及穿戴类智能设备技术领域，特别涉及一种智能眼镜。
背景技术
目前，在头戴显示设备产品领域，大多数产品为了减轻产品的重量，越来越多地设置为眼镜形态的智能眼镜。智能眼镜内部空间狭小，能够利用的空间都被布置上了相关硬件。其中，主控制板部分因为体积相对较大一般都布置在镜框侧，这就导致镜框侧的发热量很大，影响用户的体验，而镜腿侧多布置音频、电池或充电接口等，发热量较小。
现有的一些智能眼镜中，镜腿部分具有可折叠功能，镜腿与镜框通过转轴转动连接，而镜腿中需要连接于镜框中主控制板的信号线等电连接件往往裸露在外面，该部分电连接件存在易损坏风险。
因此，如何降低电连接件的损坏风险，是本领域技术人员目前需要解决的技术问题。
发明内容
有鉴于此，本申请的目的是提供一种智能眼镜，能够降低镜框和镜腿间电连接件的损坏风险。
为实现上述目的，本申请提供如下技术方案：
本申请提供的
一种智能眼镜，包括镜框和镜腿，所述镜腿中的控制组件通过电连接件电连接于所述镜框中的主控板，所述镜腿通过铰链组件转动连接于所述镜框，所述铰链组件包括铰链壳，所述铰链壳的两端分别铰接于所述镜框和所述镜腿，所述电连接件由所述镜腿穿过所述铰链壳内部后伸入所述镜框中。
优选地，所述铰链壳包括至少两个铰链套，所述镜框、各所述铰链套与所述镜腿由前至后依次转动连接构成外壳组件，所述铰链套为沿前后方向贯穿设置的环形套；所述电连接件由所述镜腿依次穿过各所述铰链套后伸入所述镜框中。
优选地，在所述外壳组件中，每相邻两个部件之间分别设有外壳限转结构，以分别限制相邻两个部件可相对转动的角度。
优选地，在所述外壳组件的每相邻两个部件中，其中一者上设置连接凸起，另一者上设置连接凹槽，且所述连接凹槽转动套接于所述连接凸起外侧。
优选地，所述连接凹槽的槽口端面中，在佩戴状态下靠近头部的一端构成内折限位面，且远离头部的一端构成外翻限位面，以使所述连接凸起能够内折运动至与所述内折限位面相抵以及外翻运动至与所述外翻限位面相抵。
优选地，所述连接凹槽的内表面、所述连接凸起的外表面中的至少一者包括圆弧面，且圆心线与所述连接凹槽和所述连接凸起两者之间的旋转中心线共线或平行。
优选地，所述铰链组件还包括设于所述铰链壳内的弹性组件，所述镜腿相对于所述镜框外翻且转角大于预设转角后，所述弹性组件弹性形变以使所述镜腿具有内折转动的运动趋势，所述镜腿相对于所述镜框外翻且转角不大 于所述预设角度时，所述弹性组件处于原状。
优选地，所述铰链组件还包括至少两个由前至后依次设置的连接板，最前端所述连接板连接于所述镜框，最后端所述连接板连接于所述镜腿；所述弹性组件包括设于每相邻两个所述连接板之间的弹性件。
优选地，所述连接板的后端部和其后对接的所述连接板的前端部中，一者在轴向上的中部朝向佩戴状态下远离头部的一侧翻转形成第一连接环，另一者在轴向上的中部朝向佩戴状态下远离头部的一侧弯折以形成所述弹性件且两端朝向佩戴状态下靠近头部的一侧翻转形成第二连接环，所述第一连接环与所述第二连接环均套接于连接轴上且所述第一连接环位于两个所述第二连接环之间，以实现转动连接。
优选地，所述镜腿和所述镜框之间还设有柔性导热件。
本申请提供的智能眼镜，包括镜框和镜腿，镜腿中的控制组件通过电连接件电连接于镜框中的主控板，镜腿通过铰链组件转动连接于镜框，铰链组件包括铰链壳，铰链壳的两端分别铰接于镜框和镜腿，电连接件由镜腿穿过铰链壳内部后伸入镜框中。
电连接件内置于铰链壳中，能够降低电连接件的裸露程度，对电连接件进行有效防护，降低电连接件的损坏风险。
附图说明
为了更清楚地说明本申请实施例或现有技术中的技术方案，下面将对实施例或现有技术描述中所需要使用的附图作简单地介绍，显而易见地，下面描述中的附图仅仅是本申请的一部分附图，对于本领域普通技术人员来讲， 在不付出创造性劳动的前提下，还可以根据提供的附图获得其他的附图。
图1为本申请所提供智能眼镜的具体实施例一的外观图；
图2为本申请所提供智能眼镜的具体实施例一的爆炸图；
图3为本申请所提供智能眼镜的具体实施例一中左侧铰链板组的结构图；
图4为本申请所提供智能眼镜的具体实施例一中左侧铰链板组的纵向剖面图；
图5为本申请所提供智能眼镜的具体实施例一中左侧铰链板组在镜腿处于预设外翻极限位置时的横向剖视图；
图6为本申请所提供智能眼镜的具体实施例一中左侧铰链板组在镜腿处于预设临界位置时的横向剖视图；
图7为本申请所提供智能眼镜的具体实施例一中右侧铰链板组在镜腿处于预设内折极限位置时的横向剖视图；
图8为本申请所提供智能眼镜的具体实施例一中左侧外壳组件的爆炸图；
图9为本申请所提供智能眼镜的具体实施例一中左侧铰链壳内部部件在镜腿处于预设临界位置时的横向剖视图；
图10为本申请所提供智能眼镜的具体实施例一中左侧铰链壳内部部件在镜腿处于预设内折极限位置时的横向剖视图；
图11为本申请所提供智能眼镜的具体实施例一中左侧镜框、铰链板组与镜腿的连接结构图；
图12为本申请所提供智能眼镜的具体实施例一中左侧铰链板组与铰链 套在镜腿处于预设临界位置时的横向剖视图；
图13为本申请所提供智能眼镜的具体实施例一中左侧铰链板组与铰链套在镜腿处于预设内折极限位置时的横向剖视图；
图14为本申请所提供智能眼镜的具体实施例二的爆炸图；
图15为本申请所提供智能眼镜的具体实施例二中右侧铰链板组的结构图；
[根据细则91更正 25.01.2021]　
图16为本申请所提供智能眼镜的具体实施例二中右侧铰链板组在镜腿处于预设外翻极限位置时的外观图；
图17为本申请所提供智能眼镜的具体实施例二中右侧铰链板组在镜腿处于预设外翻极限位置时的横向剖视图；
图18为本申请所提供智能眼镜的具体实施例二中右侧铰链板组在镜腿处于预设临界位置时的横向剖视图；
图19为本申请所提供智能眼镜的具体实施例二中右侧铰链板组在镜腿处于预设内折极限位置时的横向剖视图；
图20为本申请所提供智能眼镜的具体实施例二中右侧铰链板组与铰链壳的连接结构图；
图21为本申请所提供智能眼镜的具体实施例二中右侧铰链板组与铰链壳连接后的第一纵向剖视结构图；
图22为本申请所提供智能眼镜的具体实施例二中右侧铰链板组与铰链壳连接后的第二纵向剖视结构图；
图23为本申请所提供智能眼镜的具体实施例二中右侧铰链板组与铰链壳连接后的第一横向剖视图；
图24为本申请所提供智能眼镜的具体实施例二中右侧铰链板组与铰链壳连接后的第二横向剖视图；
图25为本申请所提供智能眼镜的具体实施例二中右侧铰链套与连接板套接后的纵向剖视图；
图26为本申请所提供智能眼镜的具体实施例二中右侧铰链套、连接板在镜腿处于预设内折极限位置时的外观图；
图27为本申请所提供智能眼镜的具体实施例二中右侧铰链套、连接板在镜腿处于预设内折极限位置时的横向剖视图；
图28为本申请所提供智能眼镜的具体实施例二中右侧铰链套、连接板在镜腿处于预设外翻极限位置时的外观图；
图29为本申请所提供智能眼镜的具体实施例二中右侧铰链套、连接板在镜腿处于预设外翻极限位置时的横向剖视图；
图30为本申请所提供智能眼镜的具体实施例二中右侧铰链壳内部部件在镜腿处于预设内折极限位置时的结构图；
图31为本申请所提供智能眼镜的具体实施例二中右侧铰链壳内部部件在镜腿处于预设临界位置时的结构图；
图32为本申请所提供智能眼镜的具体实施例二中右侧镜框、铰链板组与镜腿的连接结构图。
附图标记：
柔性导热件1；
镜框2，主控板21，镜框连接凸起22，镜框连接凹槽23，镜框内折限位面24，镜框外翻限位面25，镜框转轴柱26；
铰链板组3，连接板31，弹片32，挤压面33，第一连接环341，第二连接环342，连接轴343，限转槽351，弹片限位凸起352，前板插孔361，后板插孔362，定位销363，弹片槽37，板件内折限位面381，板件外翻限位面382；
铰链壳4，铰链套41，铰链转轴槽42，铰链转轴柱43，第一限位块441，第二限位块442，第三限位块443，第四限位块444，C型槽45，套体连接凸起461，套体连接凹槽462，套体内折限位面471，套体外翻限位面472；
电连接件5，FPC51，cable线束52；
镜腿6，镜腿连接凸起61，镜腿转轴槽62。
具体实施方式
下面将结合本申请实施例中的附图，对本申请实施例中的技术方案进行描述，显然，所描述的实施例仅仅是本申请一部分实施例，而不是全部的实施例。基于本申请中的实施例，本领域普通技术人员在没有做出创造性劳动前提下所获得的所有其他实施例，都属于本申请保护的范围。
本申请的核心是提供一种智能眼镜，能够降低镜框和镜腿间电连接件的损坏风险。
需要说明的是，当元件被称为“固定”另一个元件，它可以直接在另一个元件上或者也可以存在居中的元件。当一个元件被认为是“连接”另一个元件，它可以是直接连接到另一个元件或者可能同时存在居中元件。在本申请的描述中，需要说明的是，术语“中心”、“上”、“下”、“左”、“右”、“竖直”、“水平”、“内”、“外”等指示的方位或位置关系为基于附图所示的方位或位置关系，仅是为了便于描述本申请和简化描述，而不是指示 或暗示所指的装置或元件必须具有特定的方位、以特定的方位构造和操作，因此不能理解为对本申请的限制。此外，术语“第一”、“第二”、“第三”、“第四”仅用于描述目的，而不能理解为指示或暗示相对重要性。
除非另有定义，本文所使用的所有的技术和科学术语与属于本申请的技术领域的技术人员通常理解的含义相同。本文中在本申请的说明书中所使用的术语只是为了描述具体的实施例的目的，不是旨在于限制本申请。
本申请所提供智能眼镜的具体实施例一中，请参考图1至图13，包括镜框2和镜腿6。镜腿6中设有控制组件，镜框2中设有主控板21，控制组件通过电连接件5电连接于主控板21。具体地，电连接件5包括FPC51和cable线束52。
镜腿6通过铰链组件转动连接于镜框2，以使镜腿6能够相对于镜框2内折或者外翻。具体地，在智能眼镜中，两个镜腿6分别通过对应的铰链组件连接于镜框2。
其中，铰链组件包括铰链壳4，铰链壳4的两端分别铰接于镜框2和镜腿6，电连接件5由镜腿6穿过铰链壳4内部后伸入镜框2中。
本实施例中，电连接件5内置于铰链壳4中，能够降低电连接件5的裸露程度，对电连接件5进行有效防护，降低电连接件5的损坏风险。
进一步地，请参考图8、图12和图13，铰链壳4包括至少两个铰链套41，如图8所示，本实施例中，铰链壳4包括两个铰链套41。当然，在其实施例中，铰链壳4也可以包括三个或者其他数量的铰链套41。镜框2、各铰链套41与镜腿6由前至后依次转动连接构成外壳组件，图8所示为镜框2、左侧的各铰链套41、左侧的镜腿6构成的左侧的外壳组件，另外，镜框2、 右侧的各铰链套41、右侧的镜腿6构成右侧的外壳组件。铰链套41为沿前后方向贯穿设置的环形套，电连接件5由镜腿6依次穿过各铰链套41后伸入镜框2中。
其中，需要说明的是，如无特殊说明，在镜框2和镜腿6之间，前、后是以镜框2、镜腿6的位置为基准进行界定的，镜框2在前而镜腿6在后，例如，对于铰链套41，其靠近镜框2的一端为前端，而靠近镜腿6的一端为后端。
相比于仅由一个铰链套41构成铰链壳4的实施例，本实施例可通过不同铰链套41的分别转动分担镜腿6和镜框2之间的可外翻角度，能够提高铰链组件转动的灵活性。另外，铰链套41呈环形，能够套住电连接件5，可以提高对电连接件5的防护效果。
进一步地，在外壳组件中，每相邻两个部件之间分别设有外壳限转结构，以分别限制相邻两个部件可相对转动的角度。通过外壳限转结构的设置，使得镜腿6相对于镜框2内折或外翻转动时，相邻两个部件之间最多只能内折或外翻到外壳限转结构所限定的角度，电连接件5上位于不同铰链套41内的部分的弯折变形较为均匀，可以降低电连接件5上各位置过度弯折变形的风险。
进一步地，请参考图8、图12和图13所示，在外壳组件的每相邻两个部件中，其中一者上设置连接凸起，另一者上设置连接凹槽，且连接凹槽转动套接于连接凸起外侧。也就是说，镜框2与最前端铰链套41、相邻铰链套41以及最后端铰链套41和镜腿6之间均采用套接连接，可以改善该外壳组件中任意相邻两者的对接处的封闭效果，可以进一步确保对电连接件5的防 护效果。
其中，优选地，镜腿6相对于镜框2处于任意可转角度的状态下，外壳组件中相邻两者之间在佩戴状态下靠近头部的一侧和远离头部的一侧均具有部分面积相重叠，以使各个状态下铰链壳对其内部部件始终具有较好的遮挡效果，使设备外观美观。
其中，具体地，在外壳组件中，相邻两部件之间，前者的后端设置连接凹槽，如图8中镜框2端部的镜框连接凹槽23以及各铰链套41后端的套体连接凹槽462，而后者的前端设置连接凸起，如图8中各铰链套41前端的套体连接凸起461以及镜腿6前端的镜腿连接凸起61。当然，在其他实施例中，如具体实施例二中，如图24所示，在外壳组件中，相邻两部件之间，前者的后端设置连接凸起，而后者的前端设置连接凹槽。
进一步地，连接凹槽的槽口端面中，在佩戴状态下靠近头部的一端构成内折限位面，且远离头部的一端构成外翻限位面，以使连接凸起能够内折运动至与内折限位面相抵以及外翻运动至与外翻限位面相抵。
具体以相邻两个铰链套41之间的限转为例，图12和13所示，前一铰链套41上设有套体内折限位面471和套体外翻限位面472，镜腿6内折转动过程中，后一铰链套41(具体为其上连接凸起的外表面)与前一铰链套41上的套体内折限位面471相抵后，后一铰链套41不能继续内折转动；镜腿6外翻转动过程中，后一铰链套41(具体为其上与连接凸起后端对接的台阶面)与前一铰链套41上的套体外翻限位面472相抵后，后一铰链套41不能继续外翻转动。
进一步地，请参考图12和图13，连接凹槽的内表面、连接凸起的外表 面中的至少一者包括圆弧面，且圆心线与连接凹槽和连接凸起两者之间的旋转中心线共线或平行。通过圆弧面的设置，可以提高外壳组件中相邻两个部件转动的顺畅性，避免两者之间发生干涉。
具体地，如图12所示，以连接凹槽和连接凸起两者的旋转中心线S为圆心线，连接凹槽的内表面中在佩戴状态下靠近头部的一侧(即图12中的上侧)、远离头部的一侧(即图12中的下侧)均为以该旋转中心线S为圆心线的圆弧面，其中，各圆弧面的半径与弧长根据与该旋转中心线S的径向距离进行确定，如图12中，连接凹槽的上侧圆弧面距离旋转中心线S距离大于下侧圆弧面距离旋转中心线S的距离更大，上侧圆弧面的半径、弧长也设置成分别大于下侧圆弧面的半径与弧长。
另外，对于连接凸起的外周面，连接凸起的外表面在佩戴状态下远离头部的一侧(即图12中的下侧)为以该旋转中心线S为圆心线的圆弧面。其中，连接凸起上的圆弧面的半径与连接凹槽上对应圆弧面的半径的大小关系可以根据需要进行设置。可选地，连接凸起下侧圆弧面的半径与连接凹槽下侧圆弧面的半径可以设置为相同的或者略小于连接凹槽下侧圆弧面的半径，以使镜腿6外翻转动过程中，连接凸起后端对接的台阶面能够顺利转动至与前侧连接凹槽上的套体外翻限位面472相抵而限转。
此外，对于连接凸起的外周面中靠近头部的一侧(即图12中的上侧)的部分，其优选设置为圆弧面但是其圆心线为平行于旋转中心线S的另一直线，在其他实施例中也可以设置为平面。可选地，如图13所示，连接凸起上侧圆弧面的弯曲程度小于其外连接凹槽上侧圆弧面的弯曲程度，以使镜腿6内折转动过程中，连接凸起上侧圆弧面能够转动至与前侧连接凹槽上的套体内折 限位面471(具体为其上一边线)相抵而限转。
当然，在其他实施例中，连接凹槽的内表面、连接凸起的外表面也可以设置为相贴合的球面，能够提高两者之间的密封性。
进一步地，如图8所示，在相套接的连接凹槽和连接凸起中，连接凹槽的内表面、连接凸起的外表面中一者上设有转轴槽，另一者上固定有转动插接于转轴槽中的转轴柱，以实现铰链套41、镜腿6和镜框2之间的转动连接，且连接的可靠性不受铰链壳4内部结构的影响，如图8所示，套体连接凸起461上在轴向上的两端面上分别设置一个铰链转轴槽42，且两个铰链转轴槽42限定了套体连接凸起461、套体连接凹槽462两者的旋转中心线，套体连接凹槽462上设有与各铰链转轴槽42相配合插接的铰链转轴柱43。
进一步地，铰链组件还包括设于铰链壳4内的弹性组件。镜腿6相对于镜框2外翻且转角大于预设转角后，弹性组件弹性形变以使镜腿6具有内折转动的运动趋势，而在镜腿6相对于镜框2外翻且转角不大于预设角度时，弹性组件处于原状。
具体请参考图5至图7，线K为镜框2所在直线，线T为镜腿6所在直线，图6为镜腿6处于预设临界位置时的状态，向下为外翻方向，向上为内折方向，图5为镜腿6处于预设外翻极限位置时的状态，图7为镜腿6处于预设内折极限位置时的状态。可选地，图5中，镜腿6与镜框2之间转角为B1；图6中，镜腿6与镜框2之间转角为B0，0＜B0＜B1，B0即为预设转角，更具体地，B0＜90°；图7中，镜腿6与镜框2之间转角为0，两者相平行。
在佩戴过程中，使用者外翻镜腿6，在镜腿6由如图7所示状态外翻至图6所示状态的过程中，弹性组件在各位置保持不形变的原状，而由图6所 示状态翻转至图5所示状态的过程中，弹性组件在各位置均处于形变状态，相应地，弹性组件的复位力使得镜腿6具有内折的运动趋势，佩戴后，头部位于图5方位下镜腿6的上侧，镜腿6能够为头部提供夹持力。
其中，预设临界位置的设置可以结合人体尺寸的大数据进行分析设置，使得多数使用者在佩戴时，镜腿6均能够提供夹持力。
本实施例中，通过在铰链组件中增设弹性组件，能够使得佩戴状态下，两个镜腿6可以夹持头部，避免佩戴状态下的智能眼镜掉落，提高佩戴的可靠性。另外，由于弹性组件在镜腿6外翻预设转角后才开始形变，而在预设转角之内是不形变的，可以使得弹性组件在较不适宜佩戴的转角下处于不形变的松弛状态，有利于延长弹性组件的使用寿命。
进一步地，请参考图11，铰链组件还包括至少两个由前至后依次设置的连接板31，最前端连接板31连接于镜框2，最后端连接板31连接于镜腿6，具体地，如图11所示，最前端连接板31插装并螺钉固定于镜框2，最后端连接板31插装并螺钉固定于镜腿6，固定稳定可靠，螺钉数量可设置至少两个。
另外，弹性组件包括设于每相邻两个连接板31之间的弹性件，使得不同弹性件配合完成弹性组件的整体形变，各连接板31分别承担一部分弹性压力，有利于延长铰链组件的使用寿命。本实施例中，连接板31设置4个，当然，在其他实施例中，连接板31也可以为两个或者其他数量。
进一步地，请参考图3，弹性件为弹片32，便于加工。具体地，弹片32位于连接板31在佩戴状态下远离头部的一侧。弹片32的一端固定于其中一个连接板31上，另一端为自由端且通过与另一个连接板31相抵以形变。
显然，在其他实施例中，弹性件也可以为套设在两个连接板31之间连接轴343上的扭簧。
进一步地，如图3所示，弹片32一体成型于连接板31上。具体地，连接板31具有弹性，具体可根据实际使用所需强度选用适合的不同厚度的不锈钢板材，以在保证连接板31弹性性能较好且强度也满足使用要求。另外，连接板31采用钣金折弯工艺实现，结构设计形状简单、制作简单，成本低效率高，制作精度较高，量产性好。
进一步地，每相邻两个连接板31中，前一个连接板31的后端和后一个连接板31的前端中，一者在轴向上的中部朝向佩戴状态下远离头部的一侧弯折以形成弹片32，而两端朝向佩戴状态下靠近头部的一侧翻转形成第二连接环342，另一者在轴向上的中部朝向佩戴状态下远离头部的一侧翻转形成第一连接环341。第一连接环341与第二连接环342均套接于连接轴343上且所述第一连接环341位于两个所述第二连接环342之间，以实现转动连接。也就是说，连接板31上用于与连接轴343相连接的部分与连接板31是一体结构，通过其卷曲即可实现与连接轴343的连接，能够进一步方便加工，减少设备所需的零部件数量。
具体如图7所示，两个连接板31的对接处，前一个连接板31的后端设置第一连接环341，后一个连接板31的前端设置第二连接环342，前一个连接板31在佩戴状态下远离头部的侧面上形成与弹片32配合挤压的挤压面33，基于第一连接环341的翻转方向，其相对于挤压面33朝向佩戴状态下远离头部的一侧凸出，可以保证镜腿6处于预设内折极限位置的状态下，弹片32的自由端与挤压面33之间具有足够大的距离，从而确保镜腿6的状态由图7向 图6变化的过程中，弹片32的自由端与挤压面33能够保持分离状态，弹片32不会挤压到挤压面33而形变。
其中，优选地，相邻两个连接板31之间，第二连接环342与连接轴343紧配固定，即两者之间固定连接不能相对转动。第一连接环341与连接轴343转动连接，即第一连接环341与连接轴343过盈配合，但可相对转动具备一定的摩擦力，具体可以在第一连接环341内添加阻尼油，由于有摩擦力存在，在弯折时会体现顺滑的阻尼性，增加使用手感，使得各连接板31连接形成的链式结构在可转动的同时具备顺滑的阻尼效果。
其中，优选地，相邻连接板31之间设有板件限转结构，以限制相邻两个连接板31可相对转动的角度。如图5至图7所示，相邻连接板31之间，板件限转结构包括设置在第二连接环342上的限转槽351和设置在弹片32上的弹片限位凸起352，弹片限位凸起352插接于限转槽351中。如图7所示的状态，后一个连接板31相对于连接轴343可内折转动至限转槽351的一端面与弹片限位凸起352相抵，以限定相邻两个连接板31之间可内折转动的最大角度，避免单节连接板31转动角度过大导致镜框2和镜腿6之间电连接件5的各部分弯折角及弯折半径过大。如图5所示的状态，后一个连接板31相对于连接轴343可外翻转动至限转槽351的另一端面与弹片限位凸起352相抵，以限定相邻两个连接板31之间可外翻转动的最大角度，各连接板31的转动具有弯折半径大、可弯折的最大角度小的特征。
但是，由于外壳组件中各部件之间通过铰链转轴柱43和铰链转轴槽42的配合实现铰接，而连接板31之间通过连接轴343实现铰接，铰链转轴柱43与连接轴343为不同的部件，连接板31与铰链套并非直接固定连接，外 壳组件中各部件的摆动与连接板31连接后形成的铰链板组3的摆动可能并非完全同步，在另一实施例中，外壳组件中各部件之间不设置外壳限转结构，仅依靠设置在连接板31之间的板件限转结构实现对镜腿6转角的限定，或者，连接板31之间不设置板件限转结构，仅依靠外壳限转结构实现对镜腿6转角的限定。
进一步地，镜框2和镜腿6之间连接有柔性导热件1，柔性导热件1具体为柔性石墨片、柔性石墨烯等高导热、可多次弯折的材料，能够将发热量较大、温度较高的镜框2侧的热量通过柔性导热件1传至发热较小、温度较低的镜腿6侧，降低镜框2侧的温度，使智能眼镜整体温度较均衡，可提高用户体验。
其中，优选地，柔性导热件1内置于铰链壳4中，具体可由镜腿6穿过各个铰链套41伸入镜框2中，使得铰链壳4除了能够遮挡电连接件5、连接板31外，还能够将柔性导热件1包裹住，可以对柔性导热件1进行保护。更具体地，柔性导热件1的一端固定于镜框2，具体直接固定在镜框2内的发热元器件或热管等导热元器件，柔性导热件1的另一端固定于镜腿6，具体可以固定于镜腿6的内表面上。
本申请所提供智能眼镜的具体实施例二中，如图14至图32所示，连接板31与弹片32为分体式结构。如图15所示，弹片32螺钉固定于对应的连接板31上，便于弹片32的更换与维修。由于弹片32和连接板31的分体式设置，可以降低对连接板31的弹性要求，连接板31有没有弹性均可，具体可以根据实际使用所需强度选用适合的不锈钢材料，可防止生锈，另外，弹片32可以选用弹性性能较好的不锈钢304或不锈钢301。
进一步地，每相邻两个连接板31中，其中一者在轴向上的中部固定弹片32，另一者在轴向上的中部设有弹片槽37，弹片32通过伸入于弹片槽37并与弹片槽37的槽底相抵以形变。如图17所示，弹片槽37的槽底构成与弹片32的自由端挤压配合的挤压面33以供与弹片32的自由端相抵，通过单独设置弹片槽37，可以保证镜腿6处于预设内折极限位置的状态下，弹片32的自由端与挤压面33之间具有足够大的距离，从而确保镜腿6的状态由图19向图18变化的过程中，弹片32的自由端与挤压面33能够保持分离状态，弹片32不会挤压到挤压面33而形变。
此外，对于板件限转结构也可以区别于具体实施例一进行设置。具体地，如图16和图19所示，在相邻两个连接板31中，板件限转结构包括后一个连接板31的前端面上沿着佩戴状态下远离头部的方向依次设置的板件内折限位面381和板件外翻限位面382，便于加工。如图19所示，后一个连接板31可内折转动至其上板件内折限位面381与前一个连接板31的后端面相抵，以限定相邻两个连接板31之间可内折转动的最大角度，避免单节连接板31转动角度过大导致镜框2和镜腿6之间电连接件5的各部分弯折角及弯折半径过大。如图16所示，后一个连接板31可外翻转动至其上板件外翻限位面382与前一个连接板31的后端面相抵，以限定相邻两个连接板31之间可外翻转动的最大角度，各连接板31的转动具有弯折半径大、可弯折的最大角度小的特征。
此外，外壳组件中，各部件的连接方式也不限于按照实施例一的方式进行设置。具体地，本实施例中，连接板31为至少三个，铰链组件还包括固定套接于前后两端连接板31之间的各连接板31外的铰链套41。如图22所示， 本实施例中，连接板31为4个，中间的两个连接板31外各固定连接一个铰链套41。
本实施例中，各铰链套41与其内连接板31是固定连接、同步转动的，能够避免连接板31在铰链套41中随意晃动而与铰链套41内的电连接件等部件发生碰撞。
另外，镜框2与最前端连接板31之间、镜腿6与最后端连接板31之间分别通过螺钉连接、焊接连接或者铆接连接等方式相固定，固定稳定可靠。由于铰链套41固定连接于其内连接板31上，镜框2与最前端铰链套41之间、镜腿6与最后端铰链套41可以不直接固定连接。
进一步地，如图25所示，相邻连接板31通过定位销363转动连接。可选地，相邻两个连接板31中，前一连接板31的后端设置前板插孔361，后一连接板31的前端设置后板插孔362，前板插孔361和后板插孔362均套接于定位销363上。具体地，前板插孔361与定位销363固定连接，在套装后两者不能相对转动；后板插孔362与定位销363转动连接，具体为间隙配合，且在后板插孔362中添加阻尼油，以在弯折时体现阻尼性，增加使用手感，最终使得各连接板31连接形成的铰链板组3在可转动的同时具备顺滑的阻尼效果。
进一步地，对于套设有铰链套41的各连接板31，其上至少一个定位销363沿轴向伸出于连接板31并插接于其外铰链套41上，如图25所示，铰链套41与其内连接板31前端的定位销36插接配合，而与该连接板31后端的定位销36在轴向上相分离，可限定铰链套41相对于其内连接板31在前后方向的移动自由度，即图25所示方位下的左右方向。
进一步地，铰链套41的内表面上在轴向上的两端、在佩戴状态下靠近和远离头部的两端分别设置有套限位块，以与连接板31的外表面对应相抵。如图23至图25所示，套限位块包括设置在铰链套41上的第一限位块441、第二限位块442、第三限位块443和第四限位块444。第一限位块441和第二限位块442分别从连接板31的两侧对连接板31进行轴向限位，第三限位块443和第四限位块444分别从连接板31上在佩戴状态下靠近和远离头部的两侧对连接板31进行限位。更具体地，第二限位块442、第三限位块443和第四限位块444可以对接形成朝向第一限位块441开口的U型槽。通过各套限位块与定位销363的限位，使铰链套41与其内连接板31固定连接为一体运动的结构。
进一步地，如图21和图24所示，铰链套41内的前端设有开口向前的C型槽45，铰链套41能够由后至前套设于对应的连接板31外，直至C型槽45与连接板31前端的定位销363对应扣接，定位销363通过C型槽连接于铰链套41，其通过C型槽的设置，便于确定铰链套41在连接板31上套接结束位置的确定。
进一步地，铰链套41上设有沿前后方向贯穿的安装通道，镜腿6的内部空间经各安装通道连通镜框2的内部空间。具体地，第一限位块441与第三限位块443之间在轴向上相间隔设置，该间隔部分构成沿前后贯通的安装通道，以容纳电连接件5、柔性导热件1等内置于铰链壳4中的部件。其中，在铰链套41中，安装通道可以设置连接板31的空间相连通或者相断开。
显然，在其他实施例中，外壳组件中，相邻两部件之间还可以通过设置风琴罩实现密封连接，以确保对其内部件的遮挡效果。
本说明书中各个实施例采用并列或者递进的方式描述，每个实施例重点说明的都是与其它实施例的不同之处，各个实施例之间相同或相似部分互相参见即可。对于实施例公开的装置而言，由于其与实施例公开的方法相对应，所以描述的比较简单，相关之处可参见方法部分说明。
还需要说明的是，在本文中，诸如第一和第二等之类的关系术语仅仅用来将一个实体或者操作与另一个实体或操作区分开来，而不一定要求或者暗示这些实体或操作之间存在任何这种实际的关系或者顺序。而且，术语“包括”、“包含”或者其任何其他变体意在涵盖非排他性的包含，从而使得包括一系列要素的过程、方法、物品或者设备不仅包括那些要素，而且还包括没有明确列出的其他要素，或者是还包括为这种过程、方法、物品或者设备所固有的要素。在没有更多限制的情况下，由语句“包括一个……”限定的要素，并不排除在包括所述要素的过程、方法、物品或者设备中还存在另外的相同要素。
以上对本申请所提供的智能眼镜进行了详细介绍。本文中应用了具体个例对本申请的原理及实施方式进行了阐述，以上实施例的说明只是用于帮助理解本申请的方法及其核心思想。应当指出，对于本技术领域的普通技术人员来说，在不脱离本申请原理的前提下，还可以对本申请进行若干改进和修饰，这些改进和修饰也落入本申请权利要求的保护范围内。

Claims (10)

  1. 一种智能眼镜，包括镜框(2)和镜腿(6)，所述镜腿(6)中的控制组件通过电连接件(5)电连接于所述镜框(2)中的主控板(21)，其特征在于，所述镜腿(6)通过铰链组件转动连接于所述镜框(2)，所述铰链组件包括铰链壳(4)，所述铰链壳(4)的两端分别铰接于所述镜框(2)和所述镜腿(6)，所述电连接件(5)由所述镜腿(6)穿过所述铰链壳(4)内部后伸入所述镜框(2)中。
  2. 根据权利要求1所述的智能眼镜，其特征在于，所述铰链壳(4)包括至少两个铰链套(41)，所述镜框(2)、各所述铰链套(41)与所述镜腿(6)由前至后依次转动连接构成外壳组件，所述铰链套(41)为沿前后方向贯穿设置的环形套；所述电连接件(5)由所述镜腿(6)依次穿过各所述铰链套(41)后伸入所述镜框(2)中。
  3. 根据权利要求2所述的智能眼镜，其特征在于，在所述外壳组件中，每相邻两个部件之间分别设有外壳限转结构，以分别限制相邻两个部件可相对转动的角度。
  4. 根据权利要求2所述的智能眼镜，其特征在于，在所述外壳组件的每相邻两个部件中，其中一者上设置连接凸起，另一者上设置连接凹槽，且所述连接凹槽转动套接于所述连接凸起外侧。
  5. 根据权利要求4所述的智能眼镜，其特征在于，所述连接凹槽的槽口端面中，在佩戴状态下靠近头部的一端构成内折限位面，且远离头部的一端构成外翻限位面，以使所述连接凸起能够内折运动至与所述内折限位面相抵以及外翻运动至与所述外翻限位面相抵。
  6. 根据权利要求4所述的智能眼镜，其特征在于，所述连接凹槽的内表面、所述连接凸起的外表面中的至少一者包括圆弧面，且圆心线与所述连接凹槽和所述连接凸起两者之间的旋转中心线共线或平行。
  7. 根据权利要求1至6任一项所述的智能眼镜，其特征在于，所述铰链组件还包括设于所述铰链壳(4)内的弹性组件，所述镜腿(6)相对于所述镜框(2)外翻且转角大于预设转角后，所述弹性组件弹性形变以使所述镜腿(6)具有内折转动的运动趋势，所述镜腿(6)相对于所述镜框(2)外翻且转角不大于所述预设角度时，所述弹性组件处于原状。
  8. 根据权利要求7所述的智能眼镜，其特征在于，所述铰链组件还包括至少两个由前至后依次设置的连接板(31)，最前端所述连接板(31)连接于所述镜框(2)，最后端所述连接板(31)连接于所述镜腿(6)；所述弹性组件包括设于每相邻两个所述连接板(31)之间的弹性件。
  9. 根据权利要求8所述的智能眼镜，其特征在于，所述连接板(31)的后端部和其后对接的所述连接板(31)的前端部中，一者在轴向上的中部朝向佩戴状态下远离头部的一侧翻转形成第一连接环(341)，另一者在轴向上的中部朝向佩戴状态下远离头部的一侧弯折以形成所述弹性件且两端朝向佩戴状态下靠近头部的一侧翻转形成第二连接环(342)，所述第一连接环(341)与所述第二连接环(342)均套接于连接轴(343)上，且所述第一连接环(341)位于两个所述第二连接环(342)之间，以实现转动连接。
  10. 根据权利要求7所述的智能眼镜，其特征在于，所述镜腿(6)和所述镜框(2)之间还设有柔性导热件(1)。
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