CN110221437A

CN110221437A - Temple, mirror holder and glasses

Info

Publication number: CN110221437A
Application number: CN201910518525.7A
Authority: CN
Inventors: 余林蔚
Original assignee: Huawei Technologies Co Ltd
Current assignee: Huawei Technologies Co Ltd
Priority date: 2019-06-15
Filing date: 2019-06-15
Publication date: 2019-09-10
Anticipated expiration: 2039-06-15
Also published as: CN110221437B

Abstract

This application discloses a kind of temple, mirror holder and glasses.Temple includes foreleg part and rear leg section.Leg section can be rotated around an axis relative to foreleg part afterwards, and when rear leg section is rotated relative to foreleg part to a rotation position, and rear leg section can position relative to foreleg part in the rotation position motionless.Leg section can also be moved forward and backward along the direction of axis relative to foreleg part afterwards, and when rear leg section moves partially into a shift position relative to foreleg, and rear leg section positions relative to foreleg part in the shift position motionless.The temple can be applied to the temple of augmented reality (AR) intelligent glasses or virtual reality (VR) intelligent glasses.The application can adjust the chucking power of temple and wrapped, it is ensured that the stability when moving scene is worn increases the usage scenario of glasses, and can be improved different head dummys and the wearing compatibility of head circumference user, increases user group.

Description

Glasses leg, glasses frame and glasses

Technical Field

The invention relates to the technical field of head-mounted display, in particular to glasses legs, a glasses frame and glasses.

Background

The augmented reality technology is a new technology for seamlessly integrating real world information and virtual world information, and is characterized in that entity information (visual information, sound, taste, touch and the like) which is difficult to experience in a certain time space range of the real world originally is overlapped after simulation through scientific technologies such as computers and the like, virtual information is applied to the real world and is perceived by human senses, and therefore sensory experience beyond reality is achieved. An application of the augmented reality technology is the augmented reality intelligent glasses. The intelligent glasses are used as carriers, various virtual technical information is combined with actual operation, great promotion effect can be generated in various fields such as training, medical treatment, military affairs and industrial production, and more attention is paid to the intelligent glasses.

Currently, augmented reality smart glasses generally employ a half-wrapped form structure, which generally includes a temple, a display screen, a nose pad, a battery module, and a frame, whose total weight is relatively large, and provides a wearing grip through deformation of the temple itself when worn. When the augmented reality intelligent glasses adopting the structure form are worn, the wearing clamping force is provided through the deformation of the glasses legs, so that the stability is poor, the glasses are not suitable for a use scene with large motion amplitude, and the adaptability of the use scene is limited; moreover, wearing compatibility of users with different head types and head circumferences is poor.

Disclosure of Invention

The embodiment of the application provides a mirror leg, mirror holder and glasses, its clamping-force and the parcel nature that can adjust the mirror leg, the steadiness when guaranteeing that the motion scene wears has increased the use scene of glasses, and can improve different head types and head circumference user's the compatibility of wearing, and the user group that can be suitable for is more extensive.

The embodiment of the application provides a temple, the temple includes: a front leg portion and a rear leg portion, one end of the front leg portion being adapted to be connected to a frame main body, the other end of the front leg portion being connected to one end of the rear leg portion such that the rear leg portion is rotated about an axis in a forward or reverse direction with respect to the front leg portion under an external rotational force greater than a predetermined rotational force, and the rear leg portion is immovable in a direction of rotation about the axis with respect to the front leg portion when rotated to any one of a plurality of rotational positions where the external rotational force is less than the predetermined rotational force; wherein the axis is a center line which passes through a connecting portion where the front leg portion and the rear leg portion are connected and extends straight in a length direction of the temple.

The temple is provided to include a front leg portion and a rear leg portion that is rotatable about an axis relative to the front leg portion, i.e., a rotational position of the rear leg portion relative to the front leg portion in a direction of rotation about the axis is adjustable.

When the glasses frame or glasses with the glasses legs applied are worn, the rear leg part rotates to different rotating positions relative to the front leg part around the axis, the rear leg part can be clamped at different parts of the head of a user, the clamping positions of the rear leg part and the area contacted with the head of the user and the side rear area can be adjusted, so that the clamping force and the wrapping property of the glasses can be adjusted, the rear leg part can be adjusted to the rotating position with smaller clamping force and wrapping property of the glasses under a common scene, the wearing stability and comfort requirements of the user under the common scene are ensured, the rear leg part can be adjusted to the rotating position with larger clamping force and wrapping property of the glasses under a motion scene, and the wearing stability, comfort and safety of the user under the motion scene can be balanced. That is to say, the glasses that use this mirror holder can satisfy the use under the same user different scenes, has increased the use scene, uses the adaptability of scene comparatively extensive promptly.

Meanwhile, the rotating position of the rear leg part relative to the front leg part in the direction rotating around the axis is adjusted, so that the part clamped by the rear leg part and the head of the user is adjusted, the requirements on the stability and the comfort of the users with different head types and head circumference widths during wearing can be met, the wearing compatibility of the users with different head types and head circumferences can be improved, the user population is increased, and the user population applicable to the user population is wider. And the glasses legs are simple in structure and low in cost.

In some embodiments, the connection between said other end of said front leg portion and said one end of said rear leg portion is further such that said rear leg portion also moves back and forth in the direction of said axis relative to said front leg portion under an external moving force in the direction of said axis greater than a predetermined moving force, and said rear leg portion is positioned immovable in the direction of said axis relative to said front leg portion in any of a plurality of moving positions when moved to that position and said external moving force is less than said predetermined moving force.

The rear leg portion is also capable of moving back and forth in the direction of the axis relative to the front leg portion and capable of being positioned stationary in the direction of the axis relative to the front leg portion when moved to a moved position. This enables the position of movement of the rear leg portion relative to the front leg portion in the direction along the axis to be adjusted, thereby enabling the position of the rear leg portion relative to the front leg portion in the direction of the axis and the length of the temple to be adjusted. When the glasses frame or glasses with the glasses legs are worn, the glasses frame or glasses can be adjusted and used by user groups with different distances from the eyes to the ears, so that wearing compatibility of users with different head types and head circumferences can be further improved, user groups are increased, and the user groups which can be applicable are wider.

Also, the moving position of the rear leg part with respect to the front leg part in the direction along the axis and the rotational position of the rear leg part with respect to the front leg part in the direction rotating about the axis can be adjusted individually, and by coordinating the adjustment of the moving position and the adjustment of the rotational position, the user can adjust the wearing of the eyeglasses to a most comfortable position.

In some embodiments, the connection between said other end of said front leg portion and said one end of said rear leg portion is via a temple arm posture adjustment device; posture adjustment device is adjusted to mirror leg includes: a cylindrical body, a rod-shaped body and an adapter member; said tubular body being fixed or integral with respect to said front leg portion and said rod-shaped body being fixed or integral with respect to said rear leg portion, or said tubular body being fixed or integral with respect to said rear leg portion and said rod-shaped body being fixed or integral with respect to said front leg portion; the adapter component extends along the direction of the axis and is sleeved outside the rod-shaped body, and the adapter component is fixed relative to the rod-shaped body in the direction rotating around the axis; the adapter part cover is located in the tube-shape body, the rod-shaped body with the adapter part for the tube-shape body can be around the rotatory direction of axis is in forward direction or reverse rotation, the outer wall of adapter part is equipped with outside outstanding elasticity card protruding, the internal face of the tube-shape body is equipped with and follows a plurality of draw-in grooves that the rotatory direction of axis is adjacent in proper order, a plurality of draw-in grooves are used for the rod-shaped body is in under the effect of predetermined rotational force around the axis for when the tube-shape body rotates to corresponding a plurality of rotational position, can respectively with elasticity card protruding block location is motionless.

The rod-shaped body can be linked with the switching component to rotate to different multiple rotating positions relative to the cylindrical body, and the clamping grooves corresponding to the multiple rotating positions are clamped with the elastic clamping protrusions respectively, so that the relative positioning of the switching component between the corresponding rotating position and the cylindrical body in the direction rotating around the axis is ensured to be fixed, the relative fixing of the rear leg part between the corresponding rotating position and the front leg part in the direction rotating around the axis can be realized, namely, the multi-stage adjustment of the rotating position between the rear leg part and the front leg part in the direction rotating around the axis can be realized, and the operation is convenient, flexible and reliable. In addition, the rod-shaped body can be switched between a plurality of different rotating positions relative to the cylindrical body very conveniently, and reliable positioning can be realized at the corresponding rotating position, so that the wearing stability in the position state is better ensured, and the use reliability is improved. And the structure is simple, and the production cost is low.

An adapter member is additionally provided and is arranged to be fixed relative to the rod-shaped body in a direction of rotation about the axis, and is capable of rotating together with the adapter member about the axis relative to the cylinder-shaped body when the rod-shaped body rotates relative to the cylinder-shaped body. When the rotating shaft rotates to a desired rotating position, the adapter component and the cylindrical body are relatively fixed in the direction rotating around the axis through the clamping grooves and the elastic clamping convex clamping, so that the reliable positioning at the rotating position is ensured. When the abrasion is generated under the condition of multiple adjustment and use, the adapter part can be directly replaced, and the use cost is lower.

In some possible embodiments, a plurality of catching grooves and elastic catching protrusions may be directly provided on the rear leg portion and the front leg portion. For example, the elastic clamping protrusions can be arranged on the rear leg part, and the corresponding clamping grooves are arranged on the front leg part; alternatively, the elastic clamping protrusions may be disposed on the front leg portions, and the corresponding clamping grooves may be disposed on the rear leg portions.

In some possible embodiments, a plurality of locking grooves and elastic locking protrusions may be formed on the adaptor part and the rod-shaped body, and the barrel-shaped body and the adaptor part are relatively fixed in the direction of rotation around the axis, so that the rod-shaped body can integrally rotate around the axis relative to the adaptor part and the barrel-shaped body. When the rod-shaped body rotates to a desired rotating position relative to the adapter part and the barrel-shaped body, the matching of the plurality of clamping grooves and the elastic clamping protrusions can limit the relative rotation between the rod-shaped body and the adapter part in the rotating direction around the axis, so that the relative fixation of the rod-shaped body and the barrel-shaped body in the rotating direction around the axis can be realized, and the reliable positioning of the rear leg part relative to the front leg part in the rotating position can be ensured.

In some embodiments, the connection between said other end of said front leg portion and said one end of said rear leg portion is via a temple arm posture adjustment device; posture adjustment device is adjusted to mirror leg includes: a cylindrical body, a rod-shaped body and an adapter member; said tubular body being fixed or integral with respect to said front leg portion and said rod-shaped body being fixed or integral with respect to said rear leg portion, or said tubular body being fixed or integral with respect to said rear leg portion and said rod-shaped body being fixed or integral with respect to said front leg portion; the adapter component extends along the direction of the axis and is sleeved outside the rod-shaped body, and the adapter component is fixed relative to the rod-shaped body in the direction rotating around the axis;

the adapter part is sleeved in the cylindrical body, the rod-shaped body and the adapter part can rotate forward or reversely relative to the cylindrical body in the direction rotating around the axis, the outer wall surface of the adapter part is provided with elastic clamping protrusions protruding outwards, the inner wall surface of the cylindrical body is provided with a plurality of clamping grooves which are sequentially adjacent in the direction rotating around the axis, and the clamping grooves are used for clamping and positioning the rod-shaped body and the elastic clamping protrusions respectively when the rod-shaped body rotates to a plurality of corresponding rotating positions around the axis relative to the cylindrical body under the action of the preset rotating force;

the adapter component is fixed relative to the barrel-shaped body in the direction along the axis, the rod-shaped body can move back and forth relative to the barrel-shaped body and the adapter component in the direction along the axis, the inner wall surface of the adapter component is provided with a protruding elastic clamping protrusion, the outer wall surface of the rod-shaped body is provided with a plurality of clamping grooves which are inwards recessed and are sequentially adjacent in the direction along the axis, and the plurality of clamping grooves on the rod-shaped body are used for clamping and positioning the rod-shaped body with the elastic clamping protrusions on the inner wall surface of the adapter component respectively when the rod-shaped body moves to a plurality of corresponding moving positions relative to the barrel-shaped body in the direction along the axis under the action of the preset moving force.

The rod-shaped body can be linked with the switching component to rotate to different multiple rotating positions relative to the cylindrical body, the multiple clamping grooves corresponding to the multiple rotating positions and located on the inner wall surface of the cylindrical body are respectively clamped with the elastic clamping protrusions located on the outer wall surface of the switching component, so that relative positioning of the switching component between the corresponding rotating positions and the cylindrical body in the direction rotating around the axis is ensured to be fixed, relative fixing of the rear leg parts between the corresponding rotating positions and the front leg parts in the direction rotating around the axis can be realized, multi-stage adjustment of the rotating positions between the rear leg parts and the front leg parts in the direction rotating around the axis can be realized, and the operation is convenient, flexible and reliable. In addition, the rod-shaped body can be switched between a plurality of different rotating positions relative to the cylindrical body very conveniently, and reliable positioning can be realized at the corresponding rotating position, so that the wearing stability in the position state is better ensured, and the use reliability is improved. And the structure is simple, and the production cost is low.

The rod-shaped body moves to different multiple moving positions relative to the adapter part and the barrel-shaped body, the multiple clamping grooves corresponding to the multiple moving positions and located on the outer wall surface of the rod-shaped body are respectively clamped with the elastic clamping protrusions located on the inner wall surface of the adapter part, so that the adapter part can be ensured to be relatively fixed between the corresponding moving positions and the rod-shaped body in the axis direction, further the rod-shaped body can be relatively fixed between the corresponding moving positions and the barrel-shaped body in the axis rotating direction, namely the multi-stage adjustment of the moving positions between the rear leg part and the front leg part in the axis direction can be realized, and the operation is convenient, flexible and reliable. And, can guarantee the back leg part can be kept in this moving position state better, has improved the reliability of use.

An adapter member is additionally provided and is arranged to be fixed relative to the rod-shaped body in a direction of rotation about the axis, and is capable of rotating together with the adapter member about the axis relative to the cylinder-shaped body when the rod-shaped body rotates relative to the cylinder-shaped body. When the rotating shaft rotates to a desired rotating position, the adapter part and the cylindrical body are relatively fixed in the direction rotating around the axis by the clamping grooves on the inner wall surface of the cylindrical body and the elastic clamping convex clamping on the outer wall surface of the adapter part, so that the reliable positioning at the rotating position is ensured. When the rod-shaped body moves in the axial direction with respect to the cylindrical body, the rod-shaped body can also move in the axial direction with respect to the adapter member. When the movable connecting rod moves to an expected moving position, the clamping groove on the outer wall surface of the rod-shaped body and the elastic clamping convex clamping on the inner wall surface of the adapter part are used for limiting the relative fixation of the adapter part and the rod-shaped body in the axis direction, so that the reliable positioning of the moving position is ensured, the wearing stability in the position state is better ensured, and the use reliability is improved. When the abrasion is generated under the condition of multiple adjustment and use, the adapter part can be directly replaced, and the use cost is lower.

In addition, the elastic locking protrusion (including an elastic locking protrusion on the outer wall surface of the adapter member and an elastic locking protrusion on the inner wall surface of the adapter member) referred to herein means that the locking relationship can be released by applying an external force greater than the elastic force to the fastener in the prior art for maintaining the locking relationship by the elastic force.

Through the cooperation of the plurality of clamping grooves on the inner wall surface of the cylindrical body and the elastic clamping protrusions on the outer wall surface of the adapter part for realizing rotational positioning and the cooperation of the plurality of clamping grooves on the outer wall surface of the rod body and the elastic clamping protrusions on the inner wall surface of the adapter part for realizing mobile positioning, the independent adjustment of the moving position and the independent adjustment of the rotating position of the rear leg part of the glasses leg relative to the front leg part can be realized more reliably, and therefore the glasses can be adjusted to the most comfortable position.

When it is necessary to adjust the displacement position of the rod-shaped body relative to the cylinder-shaped body in the axial direction, an external displacement force in the axial direction is applied to the rod-shaped body or the cylinder-shaped body, and the rod-shaped body is displaced in the axial direction relative to the adapter member and the cylinder-shaped body as a whole, thereby adjusting the displacement position in the axial direction between the rear leg portion and the front leg portion.

When it is necessary to adjust the rotational position of the rod-shaped body relative to the cylindrical body in the direction of rotating about the axis, an external rotational force is applied to the rod-shaped body or the cylindrical body in the direction of rotating about the axis, and the rod-shaped body rotates in conjunction with the cylindrical body to rotate integrally about the axis, thereby adjusting the rotational position between the rear leg portion and the front leg portion in the direction of rotating about the axis.

That is to say, adopt the mirror leg of above-mentioned structure, can more conveniently, reliably adjust shift position and rotational position alone to guarantee its synergism, and can avoid producing mutual interference's effect between shift position control and the rotational position control, improve user operation's controllability.

In some embodiments, the tubular body is formed by a rear section of the front leg portion including the other end, and the rod-shaped body is formed extending from one end of the rear leg portion in a direction along the axis with a smaller transverse dimension than the one end; alternatively, the tubular body is formed by a front section of the rear leg portion including the one end, and the rod-shaped body is formed by extending from the other end of the front leg portion in a direction along the axis with a smaller lateral dimension than the other end.

In some embodiments, in the plurality of rotation positions where the plurality of locking grooves on the inner wall surface of the cylindrical body are respectively locked with the elastic locking projections on the outer wall surface of the adapter part, one of the locking grooves at the head end and the tail end is locked with the elastic locking projection, and at the head end rotation position where the rear leg portion is locked with the head of the user, the clamping force between the rear leg portion and the head of the user is minimum, and at the tail end rotation position where the other locking groove is locked with the elastic locking projection, the clamping force between the rear leg portion and the head of the user is maximum.

When the rod-shaped body is rotated to the head end rotating position relative to the barrel-shaped body, the rear leg part is at the rotating position which is the normal using state when the user wears the glasses, and at the position, the clamping force of the glasses frame and the glasses applying the glasses legs is relatively small, and the glasses are generally suitable for common scenes. When the rod-shaped body rotates to the tail end rotating position relative to the barrel-shaped body, the clamping force and the wrapping performance of the glasses frame and the glasses applying the glasses legs are the maximum, and the method is generally suitable for motion scenes with large motion amplitude. Therefore, the rotation angle within the preset angle range can be adjusted, the clamping force and the wrapping property can be adjusted, a user can adjust the glasses to the expected position when wearing the glasses according to the requirement, and the operation is more flexible and reliable.

In some embodiments, the rear leg portion may only grip the ears of the user's head when the rod-shaped body is rotated about the axis relative to the barrel-shaped body to the head-end rotated position.

In some embodiments, when the rod-shaped body is rotated about the axis relative to the barrel-shaped body to other rotational positions outside the head end, the rear leg portion may be clamped to different portions of the brain of the user's head corresponding to the other rotational positions, respectively.

In some embodiments, an inner wall surface of the adapter member corresponding to the elastic clamping protrusion arranged on the outer wall surface of the adapter member has a recess. Like this can make in the wall of switching part with set up the protruding part that corresponds of elasticity card that is located the outer wall surface of switching part and easily produce elastic deformation to under the circumstances that makes and receive certain effort, the protruding elastic deformation that can produce of elasticity card, and then can follow the rotatory to another draw-in groove of draw-in groove roll-off of looks block in, ensure that the user adjusts the maneuverability of the rotational position of back shank portion.

In some embodiments, the elastic snap is provided on an outer wall surface of an end portion of the adapter member in a length direction of the adapter member. This makes the elastic snap-fit projection more easily elastically deformable.

In some embodiments, a hollow portion is provided in the adapter part on a wall close to the elastic clamping protrusion on the outer wall surface of the adapter part to form a bridge-shaped structure with a circumferential direction, and the elastic clamping protrusion is located on the bridge-shaped structure with the circumferential direction. The degree of elastic deformation generated on the bridge-shaped structure in the circumferential direction of the elastic clamping protrusions can be further improved, and the operability of adjusting the rotating position of the rear leg part by a user is further improved.

In some embodiments, an outer wall surface of the adapter member corresponding to the elastic clamping protrusion arranged on the inner wall surface of the adapter member has an inward concave portion. Can improve like this in the wall of switching part and set up the part that the elasticity card that is located the protruding correspondence of the internal face of switching part easily produces elastic deformation to make under the condition that receives certain effort, the elasticity card is protruding can produce elastic deformation, and then can follow in rotatory to another draw-in groove of draw-in groove roll-off of looks block, ensure that the user adjusts the maneuverability of the shift position of back shank portion.

In some embodiments, a hollowed-out structure is adopted in the adapter part on a wall close to the elastic clamping protrusion on the inner wall surface of the adapter part to form an axially-oriented bridge-shaped structure, and the elastic clamping protrusion is located on the axially-oriented bridge-shaped structure. Therefore, the elastic deformation space of the bridge-shaped structure with the axial direction of the elastic clamping protrusions can be further increased, and the movable position can be adjusted more easily.

In some embodiments, the mating surface between the outer wall surface of the rod-shaped body and the inner wall surface of the adapter part is a fool-proof surface to limit relative rotation between the adapter part and the rod-shaped body in the direction of rotation around the axis, but the adapter part and the rod-shaped body can move relatively along the direction of the axis. The fool-proof surface is better able to limit the relative rotational movement between the adapter member and the rod-shaped body in the direction of rotation about the axis. And the correct installation direction of the rod-shaped body and the adapter component can be ensured.

In some embodiments, the temple posture adjusting device further comprises a limiting device, wherein the limiting device comprises a limiting fastener and a limiting groove, and the limiting groove is arranged on the outer wall surface of the rod-shaped body and extends along the direction of the axis; the limiting fastener is detachably mounted on the adapter part and extends into the limiting groove; the limiting fastener can slide in the limiting groove when the rod-shaped body moves relative to the adapter component in the direction along the axis; when the rod-shaped body slides to a position where the limiting fastener is abutted against the end part of the limiting groove, the rod-shaped body is limited in moving motion in a direction along the axis relative to the adapter part in a direction away from the cylindrical body. This ensures that the fastener is restrained and interferes with the movement of the rod-shaped body and the tubular body relative to each other in the axial direction, while preventing the rear leg portion from slipping out of the front leg portion.

In some embodiments, the limit fastener abuts against both sides of the limit groove in the direction of rotation about the axis, so that the rod-shaped body is fixed relative to the adapter member in the direction of rotation about the axis. The spacing fastener is capable of further limiting relative rotational movement between the adaptor member and the rod in a direction of rotation about the axis.

In some embodiments, the cylindrical body further includes a limit boss protruding from an inner wall surface of the cylindrical body at a predetermined position, and when the rod-shaped body is moved in the direction of the axis relative to the cylindrical body toward a direction away from the cylindrical body to a position abutting against the limit boss, movement of the rod-shaped body relative to the cylindrical body in the direction of the axis toward a direction away from the cylindrical body is limited.

In some embodiments, the cartridge has a stepped chamber formed therein with a stepped change in diameter greater than the chambers of the other parts, the adapter member being located within the stepped chamber and being rotatable relative to the cartridge about the axis within the stepped chamber; stepped wall surfaces at two ends of the stepped chamber can limit relative movement between the cylindrical body and the adapter component in the direction along the axis. This makes it possible to more reliably fix the adapter member to the cylindrical body in the direction along the axis.

In some embodiments, the rear leg portion includes a straight line section and a bent section which are integrally formed and sequentially arranged along a length direction of the rear leg portion, an end of the straight line section away from the bent section forms the one end of the rear leg portion, an end of the bent section away from the straight line section forms the other end of the rear leg portion, and the bent section is used for clamping with the head of the user.

In some embodiments, the temple is for an temple of augmented reality smart glasses or virtual reality smart glasses.

Embodiments of the present application also provide a temple comprising a front leg portion and a rear leg portion, one end of the front leg portion being adapted to be connected to a frame main body, the other end of the front leg portion being connected to one end of the rear leg portion such that the rear leg portion moves back and forth in a direction of an axis relative to the front leg portion under an external moving force in the direction of the axis greater than a predetermined moving force, and the rear leg portion is immovable in the direction of the axis relative to the front leg portion in a moving position when moved to any one of a plurality of moving positions and the external moving force is less than the predetermined moving force; wherein the axis is a center line which passes through a connecting portion where the front leg portion and the rear leg portion are connected and extends straight in a length direction of the temple.

By implementing the embodiment of the application, the glasses legs are arranged to comprise the front leg parts and the rear leg parts, the moving positions of the rear leg parts relative to the front leg parts in the direction along the axis can be conveniently adjusted, so that the distance between the rear leg parts and the front leg parts can be adjusted, and when the glasses frames or glasses applying the glasses legs are worn, the adjustment and use of user groups with different distances from eyes to ears can be met, the wearing compatibility of users with different head types and head circumferences can be further improved, the user groups are increased, and the user groups which can be applied are wider.

In some embodiments, the connection between said other end of said front leg portion and said one end of said rear leg portion is via a temple arm posture adjustment device; posture adjustment device is adjusted to mirror leg includes: a cylindrical body, a rod-shaped body and an adapter member; said tubular body being fixed or integral with respect to said front leg portion and said rod-shaped body being fixed or integral with respect to said rear leg portion, or said tubular body being fixed or integral with respect to said rear leg portion and said rod-shaped body being fixed or integral with respect to said front leg portion; the adapter component extends along the direction of the axis and is sleeved outside the rod-shaped body, and the adapter component is sleeved in the cylindrical body and is fixed relative to the cylindrical body along the direction of the axis;

the rod-shaped body can move back and forth in the direction along the axis relative to the cylinder-shaped body and the adapter part, the inner wall surface of the adapter part is provided with a protruding elastic clamping protrusion, the outer wall surface of the rod-shaped body is provided with a plurality of clamping grooves which are inwards recessed and are sequentially adjacent in the direction of the axis, and the clamping grooves are used for clamping and positioning the rod-shaped body with the elastic clamping protrusion when the rod-shaped body moves to a plurality of corresponding moving positions relative to the cylinder-shaped body in the direction of the axis under the action of the preset moving force.

A transfer member is additionally provided so that when the rod-shaped body is moved in the axial direction relative to the cylinder-shaped body, the rod-shaped body can also be moved in the axial direction relative to the transfer member. When the movable connecting rod moves to an expected moving position, the clamping groove on the outer wall surface of the rod-shaped body and the elastic clamping convex clamping on the inner wall surface of the adapter part are used for limiting the relative fixation of the adapter part and the rod-shaped body in the axis direction, so that the reliable positioning of the moving position is ensured, the wearing stability in the position state is better ensured, and the use reliability is improved. When the abrasion is generated under the condition of multiple adjustment and use, the adapter part can be directly replaced, and the use cost is lower.

The elastic locking projection is a conventional fastener that maintains the engagement relationship by an elastic force, and the engagement relationship can be released by applying an external force greater than the elastic force.

In some possible embodiments, the plurality of clamping grooves and the elastic clamping protrusions may be arranged between the adapter component and the cylindrical body, the rod-shaped body and the adapter component are relatively fixed in the axial direction, and the rod-shaped body and the adapter component can integrally move relative to the cylindrical body in the axial direction. When the rod-shaped body and the adapter component integrally move to a desired moving position relative to the cylindrical body, the rod-shaped body and the adapter component can be limited to move relative to the cylindrical body through the matching of the plurality of clamping grooves and the elastic clamping protrusions, so that the rod-shaped body and the cylindrical body can be relatively fixed in the axial direction, and the rear leg part is reliably positioned relative to the front leg part at the moving position.

In some embodiments, the outer wall surface of the adapter part corresponding to the elastic clamping protrusion is provided with an inward concave part. Can improve like this in the wall of switching part and set up the part that the elasticity card that is located the protruding correspondence of the internal face of switching part easily produces elastic deformation to make under the condition that receives certain effort, the elasticity card is protruding can produce elastic deformation, and then can follow in rotatory to another draw-in groove of draw-in groove roll-off of looks block, ensure that the user adjusts the maneuverability of the shift position of back shank portion.

In some embodiments, a hollowed-out structure is adopted on a wall of the adapter part close to the elastic clamping protrusion to form an axially-oriented bridge-shaped structure, and the elastic clamping protrusion is located on the axially-oriented bridge-shaped structure. Therefore, the elastic deformation space of the bridge-shaped structure with the axial direction of the elastic clamping protrusions can be further increased, and the movable position can be adjusted more easily.

The embodiment of this application still provides a mirror holder, the mirror holder includes: a frame body for securing a lens; and at least one temple arm, said temple arm being provided as in any one of the above embodiments or possible embodiments, said one end of said front leg portion of said temple arm being connected to said frame body.

Embodiments of the present application further provide a pair of glasses, the glasses include: a frame as provided in any one of the above embodiments or possible embodiments; a lens secured to the frame body of the frame.

When the glasses with the glasses frame provided by any one of the possible embodiments are worn, the rotation position of the rear leg part relative to the front leg part in the direction rotating around the axis can be adjusted, namely, the area clamped by the rear leg part and the head of a user can be adjusted, so that the clamping force and the wrapping property of the glasses can be adjusted, the glasses can be used in different scenes of the same user, and the use scenes are increased. Meanwhile, the requirements of stability and comfort when users with different head types and head circumference widths wear the head can be met, so that the wearing compatibility of users with different head types and head circumferences can be improved, and the user population is increased.

When the glasses are worn, the moving position of the rear leg part relative to the front leg part in the direction along the axis can be adjusted, so that the position of the rear leg part relative to the front leg part in the axis direction and the length of each glasses leg can be adjusted, the adjustment and use of user groups with different distances from eyes to ears can be met, the wearing compatibility of users with different head types and head circumferences can be further improved, and the user groups are increased.

In some embodiments, the glasses are augmented reality smart glasses or virtual reality smart glasses.

Drawings

In order to more clearly illustrate the detailed description of the present application or the technical solutions in the prior art, the drawings needed to be used in the detailed description of the present application or the prior art description will be briefly introduced below, and it is obvious that the drawings in the following description are some embodiments of the present application, and other drawings can be obtained by those skilled in the art without creative efforts.

Fig. 1 is a schematic perspective view of smart glasses according to an embodiment of the present application, wherein a rear leg portion is at a rotation angle of 0 ° and a stretching length of 0 with respect to a front leg portion;

fig. 2a to 2d are schematic structural diagrams of smart glasses according to an embodiment of the present application in different viewing angle states when worn;

FIG. 3 is an exploded view of the smart eyewear of an embodiment of the present application, wherein the rear leg portion is in a rotated position about 0 relative to the front leg portion;

FIG. 4 is a schematic top view of a pair of smart glasses according to an embodiment of the present application, wherein the rear leg portion is rotated by 0 ° and extended by 0 ° relative to the front leg portion;

FIG. 5 is a side view schematic illustration (I) of a smart eyewear according to an embodiment of the present application, wherein the rear leg portion is rotated at an angle of 0 ° and the extended length is 0 with respect to the front leg portion;

FIG. 6 is a schematic cross-sectional view taken along A-A of FIG. 5;

FIG. 7 is an enlarged view of the portion C of FIG. 6;

FIG. 8 is an exploded view of a temple piece of smart eyewear in accordance with an embodiment of the present disclosure, shown in another perspective, wherein the rear leg portion is in a rotated position about 0 relative to the front leg portion;

FIG. 9 is an enlarged view of section I of FIG. 8;

fig. 10 is a schematic perspective view of an adapter part of a temple of smart glasses according to an embodiment of the present application.

FIG. 11 is a schematic cross-sectional view taken along line B-B of FIG. 5;

FIG. 12 is an enlarged view of portion D of FIG. 11;

fig. 13 is an exploded view of smart eyewear in accordance with an embodiment of the present disclosure (ii), wherein the rear leg portion is in a rotated position about 90 ° relative to the front leg portion;

fig. 14 is a schematic top view of smart eyewear in accordance with an embodiment of the present disclosure (ii), wherein the rear leg portion is rotated 90 ° relative to the front leg portion and the extended length is 0;

FIG. 15 is a side view schematic (two) of a smart eyewear embodiment of the present application, wherein the rear leg portion is rotated 90 degrees and extended to a length of 0 relative to the front leg portion;

fig. 16 is an exploded view of another smart eyewear according to an embodiment of the present disclosure;

fig. 17 is a schematic side view of another smart eyewear of an embodiment of the present application;

FIG. 18 is a schematic cross-sectional view taken along E-E of FIG. 17;

FIG. 19 is an enlarged view of the portion G of FIG. 18;

FIG. 20 is a schematic cross-sectional view taken along F-F of FIG. 17;

fig. 21 is an enlarged schematic view of a portion H in fig. 20.

Description of reference numerals:

100: smart glasses;

200: a frame; 220: a frame body; 240: a lens;

300: a temple;

400: mirror leg posture adjusting device

500: a front leg portion; 510: one end; 520: the other end; 530: a housing chamber; 540: a step chamber; 550: step-by-step wall surface; 560: a cylindrical body;

600: a rear leg portion; 610: one end; 620: the other end; 630: a straight line segment; 640: a curved section; 650: a rod-shaped body;

700: an adapter component; 710: a recess; 720: a hollow structure; 730: a recessed portion; 740: a hollow-out section;

800: moving the positioning component; 810: a first elastic clamping protrusion; 820: a first card slot;

900: a rotational positioning assembly; 910: the second elastic clamping bulge; 912: a second card slot;

920: a limiting device; 922: a limiting fastener; 924: a limiting groove; 926: a limiting boss; 928: a flange;

930: a damping member;

950: presetting a rotation area; 952: a head end rotation position; 954: a tail end rotation position;

960: the width direction of the smart glasses;

970: the height direction of the smart glasses;

980: a user; 982: a head portion;

o: an axis.

Detailed Description

The following description of the embodiments of the present application is provided by way of specific examples, and other advantages and effects of the present application will be readily apparent to those skilled in the art from the disclosure herein. While the description of the present application will be described in conjunction with the preferred embodiments, it is not intended that the features of the present application be limited to this embodiment. On the contrary, the application of the present disclosure with reference to the embodiments is intended to cover alternatives or modifications as may be extended based on the claims of the present disclosure. In the following description, numerous specific details are included to provide a thorough understanding of the present application. The present application may be practiced without these particulars. Moreover, some of the specific details have been omitted from the description in order to avoid obscuring or obscuring the focus of the present application. It should be noted that the embodiments and features of the embodiments in the present application may be combined with each other without conflict.

It should be noted that in this specification, like reference numerals and letters refer to like items in the following drawings, and thus, once an item is defined in one drawing, it need not be further defined and explained in subsequent drawings.

The technical solutions of the present application will be described clearly and completely with reference to the accompanying drawings, and it should be understood that the described embodiments are only some embodiments of the present application, but not all embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present application.

In the description of the present application, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings, and are only for convenience of description and simplicity of description, and do not indicate or imply that the device or element being referred to must have a particular orientation, be constructed and operated in a particular orientation, and thus, should not be construed as limiting the present application. Furthermore, the terms "first" and "second" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance.

In the description of the present application, it is to be noted that, unless otherwise explicitly specified or limited, the terms "mounted," "connected," and "connected" are to be construed broadly, e.g., as meaning either a fixed connection, a removable connection, or an integral connection; can be mechanically or electrically connected; they may be connected directly or indirectly through intervening media, or they may be interconnected between two elements. The specific meaning of the above terms in the present application can be understood in a specific case by those of ordinary skill in the art.

To make the objects, technical solutions and advantages of the present application more clear, embodiments of the present application will be described in further detail below with reference to the accompanying drawings.

Referring to fig. 1 to 2d, fig. 1 shows a schematic structure of a pair of smart glasses 100 according to an embodiment of the present disclosure, and fig. 2a to 2d show schematic structures of a pair of smart glasses 100 according to an embodiment of the present disclosure in different viewing angles when worn. When the smart glasses 100 are worn on the head 982 of the user 980, the user 980 can see the image presented by the lenses 240 of the smart glasses 100. In this embodiment, the smart glasses 100 are augmented reality smart glasses, and may display a virtual image for the user 980 while the user 980 views a real-world scene, and the user 980 may also interact with the virtual image to achieve an augmented reality effect.

It can be understood that the embodiment of the present application is described by taking the smart glasses 100 as the augmented reality smart glasses as an example, but some embodiments of the embodiment of the present application are not limited to the Augmented Reality (AR) smart glasses, and may also be other smart glasses, such as smart glasses for implementing a Virtual Reality (VR) effect or smart glasses for implementing a hybrid reality (MR) effect.

As shown in fig. 1-2 d, the smart glasses 100 include a frame 200 and a lens 240. The frame includes a frame body 220 and two legs 300 respectively disposed at two sides of the frame body 220. The lenses 240 are secured to the frame body 220. Each temple 300 may be provided with any of the embodiments described below, as well as possible embodiments.

Those skilled in the art will understand that the smart glasses 100 in the embodiment of the present application are described by taking a pair of glasses legs, that is, two glasses legs as an example, but the embodiment of the present application is not limited to the smart glasses using two glasses legs, and may also be a glasses frame or smart glasses using one glasses leg, or a glasses frame or smart glasses using the structure of the present application in one of the two glasses legs. The embodiment of the present application is not limited to smart glasses, and may be common glasses.

In addition, the pair of temples 300 are of symmetrical design and construction. The two temples 300 may have the same or different structures.

The structure of one embodiment of a temple 300 of the frame 200 of the smart eyewear 100 will be described in detail below with reference to fig. 3-15.

Fig. 3 to 5 show schematic structures of the smart glasses 100 in different viewing angles according to the embodiment of the present application, in which the rear leg part 600 of the temple 300 is in a position of a rotation angle of 0 ° and a stretching length of 0 with respect to the front leg part 500. Fig. 6 to 12 show a partial sectional view and a partial enlarged view of the smart glasses 100 of the embodiment of the present application, mainly illustrating a schematic structure of a region where the rear leg part 600 and the front leg part 500 of the temple 300 are connected. Fig. 13 to 15 show schematic structures of the smart glasses 100 in different viewing angles according to the embodiment of the present application, in which the rear leg part 600 of the temple 300 is in a position of a rotation angle of 90 ° and a stretching length of 0 with respect to the front leg part 500.

As shown in fig. 3 to 5, the temples 300 are of a two-step structure including a front leg part 500 and a rear leg part 600 which are sequentially arranged in a length direction of the temples 300. One end 510 of the front leg portion 500 is connected to the frame body 220 and one end 610 of the rear leg portion 600 is connected to the other end 520 of the front leg portion 500. As shown in fig. 3, the front leg portion 500 of the temple 300 is adjacent to the temple piece 300 for attachment to the frame body 220, and the rear leg portion 600 of the temple 300 is adjacent to the temple piece 300 on the right side of fig. 3. One end 510 of the front leg portion 500 is an end of the front leg portion 500 near and for connecting to the frame body 220, and the other end 520 of the front leg portion 500 is an end of the front leg portion 500 away from the frame body 220 and for connecting to the rear leg portion 600. One end 610 of the rear leg portion 600 is an end of the rear leg portion 600 that is used to connect the front leg portion 500, and the other end 620 of the rear leg portion 600 is an end of the rear leg portion 600 that is distal from the front leg portion 500.

The rear leg portion 600 includes a straight section 630 and a bent section 640 formed integrally and arranged in this order along the length direction of the rear leg portion 600, one end 610 of the rear leg portion 600 is located at the straight section 630, and the other end 620 of the rear leg portion 600 is located at the bent section 640. The curved section is for gripping with the head of the user. That is, the end of the straight section 630 remote from the curved section 640 constitutes one end 610 of the rear leg portion 600, and the end of the curved section 640 remote from the straight section 630 constitutes the other end 620 of the rear leg portion 600.

The front leg part 500 and the rear leg part 600 of the temples 300 may be made of a light material to reduce the weight as much as possible. For example, but not limited to, a lightweight material such as plastic, aluminum alloy, titanium alloy, or carbon fiber may be used while maintaining sufficient strength.

As shown in fig. 6-12, the rear leg portion 600 is movable back and forth in the direction of the axis O relative to the front leg portion 500 to enable the rear leg portion 600 to be switched between different multiple movement positions relative to the front leg portion 500. When the rear leg portion 600 is moved to a desired movement position with respect to the front leg portion 500, relative movement between the rear leg portion 600 and the front leg portion 500 in the direction along the axis O can be restricted, thereby achieving positioning of the rear leg portion 600 with respect to the front leg portion 500 in the direction along the axis O. The axis O means a center line which is connected to the front leg part 500 and the rear leg part 600 through the connecting part and extends linearly in a length direction of the temple.

The rear leg portion 600 moves back and forth in the direction along the axis O relative to the front leg portion 500 under the action of an external moving force in the direction along the axis O greater than a predetermined moving force, and when moved to any one of a plurality of moving positions where the external moving force is less than the predetermined moving force, the rear leg portion 600 is positioned in the direction of the axis O relative to the front leg portion 500. Thereby enabling the rear leg part 600 to be switched between different plural moving positions relative to the front leg part 500, i.e., enabling the moving position of the rear leg part 600 relative to the front leg part 500 in the direction along the axis O to be adjusted, thereby enabling the position of the rear leg part 600 relative to the front leg part 500 in the direction of the axis O and the length of the temple 300 to be adjusted. When the intelligent glasses 100 with the glasses legs 300 are worn, the user groups with different distances from eyes to ears can be adjusted and used, so that the wearing compatibility of users with different head types and head circumferences can be further improved, the user groups are increased, and the user groups which can be suitable for the user groups are wider.

When the rear leg portion 600 is moved in the direction of the axis O to a moving position desired by the user with respect to the front leg portion 500, relative movement between the rear leg portion 600 and the front leg portion 500 in the direction of the axis O can be restricted, i.e., relative positioning between the rear leg portion 600 and the front leg portion 500 in the direction of the axis O can be achieved, so that the rear leg portion 600 can be fixed in the desired moving position in the direction of the axis O with respect to the front leg portion 500, ensuring reliability of adjustment.

The rear leg part 600 is moved to different moving positions in the direction of the axis O with respect to the front leg part 500, enabling the temples 300 to be drawn differently in length. As shown in fig. 7, when the rear leg part 600 is moved to the head end moving position relative to the front leg part 500 in the direction of the axis O, the stretched length of the temple 300 is 0, i.e., the stretched length is at the minimum position. When the rear leg part 600 is moved to the caudal end movement position with respect to the front leg part 500 in the direction of the axis O, the stretched length of the temple 300 is at the maximum position.

It will be understood by those skilled in the art that the connection of the other end 520 of the front leg section 500 to one end of the rear leg section 600 may also be configured such that the rear leg section 600 can move back and forth in the direction of the axis O relative to the front leg section 500 between the head end moved position to the aft end moved position under an external moving force in the direction of the axis O greater than a predetermined moving force, and the rear leg section 600 can be positioned in the direction of the axis O relative to the front leg section 500 when moved to any one of the moved positions between the head end moved position to the aft end moved position and the external moving force is less than the predetermined moving force. This allows the adjustment of any displacement position. In addition, the connection of the other end 520 of the front leg portion 500 with one end of the rear leg portion 600 is provided such that the rear leg portion 600 can also rotate about the axis O in the forward or reverse direction with respect to the front leg portion 500 under the action of an external rotational force about the axis O greater than a predetermined rotational force, so that the rear leg portion 600 can be switched between a plurality of different rotational positions with respect to the front leg portion 500, i.e., the rotational position of the rear leg portion 600 with respect to the front leg portion 500 in the direction of rotation about the axis O can be adjusted. When the rear leg portion 600 is rotated to a desired rotational position with respect to the front leg portion 500 and the external rotational force is less than the predetermined rotational force, the relative rotational movement between the rear leg portion 600 and the front leg portion 500 about the axis O can be restricted, thereby achieving the relative positioning immobility between the rear leg portion 600 and the front leg portion 500 in the direction of rotation about the axis O.

Rotation of the rear leg portion 600 about the axis O to different rotational positions relative to the front leg portion 500 enables the rear leg portion 600 to be clamped to different parts of the user's head. As shown in fig. 3-12, when the rear leg portion 600 is rotated about the axis O relative to the front leg portion 500 to the head end rotated position 952 (see fig. 12), the rear leg portion 600 is supported and clamped on the ears of the user's head with the clamping force of the rear leg portion 600 with the head at a minimum position. As shown in fig. 13-15, when the rear leg portion 600 is rotated about the axis O relative to the front leg portion 500 to the caudal rotated position 954 (see fig. 12), the rear leg portion 600 is supported on and clamped to the brain of the user's head with the clamping force of the rear leg portion 600 with the head at a maximum position.

When the glasses frame 200 or the smart glasses 100 adopting the glasses legs 300 is worn, the rotation position of the rear leg part 600 relative to the front leg part 500 in the direction rotating around the axis O can be adjusted, so that the part of the rear leg part 600 clamped with the head of a user can be adjusted, the clamping force and the wrapping performance of the smart glasses 100 can be adjusted, the rear leg part 600 can be adjusted to the rotation position with smaller clamping force and wrapping performance of the smart glasses 100 in a common scene, and the wearing stability and comfort requirements of the user in the common scene are ensured. Also, the rear leg part 600 can be adjusted to a rotational position where the clamping force and the wrapping property of the glasses are relatively large in the sports scene, so that the wearing stability, comfort and safety of the user in the sports scene can be balanced. That is to say, the smart glasses 100 using the glasses legs 300 can meet the use requirements of the same user in different scenes, and the use scenes are increased, that is, the adaptability of the use scenes is wide.

Meanwhile, the rotating position of the rear leg part 600 relative to the front leg part 500 in the direction rotating around the axis O is adjusted, so that the part of the rear leg part 600 clamped with the head of the user is adjusted, the requirements of stability and comfort when the user with different head types and head circumference widths wears the head can be met, the wearing compatibility of the user with different head types and head circumferences can be improved, the user group is increased, and the user group which can be applied to the head support is wider. And the temples 300 have a simple structure and a low cost.

Also, the moving position of the rear leg part 600 with respect to the front leg part 500 in the direction along the axis O and the rotational position of the rear leg part 600 with respect to the front leg part 500 in the direction of rotation about the axis O can be adjusted individually, and by coordinating the adjustment of the moving position and the adjustment of the rotational position, the user can adjust the wearing of the smart glasses 100 to a most comfortable position.

It will be understood by those skilled in the art that the connection of the other end 520 of the front leg section 500 to one end 610 of the rear leg section 600 may also be configured such that the rear leg section 600 is capable of moving in a forward or reverse direction about the axis O relative to the front leg section 500 between the head-end rotated position to the aft-end rotated position under an external rotational force greater than a predetermined rotational force, and the rear leg section 600 is capable of being positioned in a fixed position relative to the front leg section 500 in the direction of rotation about the axis O when moved to any one of the rotated positions between the head-end rotated position to the aft-end rotated position and the external rotational force is less than the predetermined rotational force. This allows for adjustment of any rotational position.

The structure of the movement position adjustment of the temples 300 will be described and explained below.

As shown in fig. 3 to 12, the connection of the other end 520 of the front leg part 500 to the one end 610 of the rear leg part 600 is made through the temple-posture adjusting means 400. As shown in fig. 3 and 7-10, the temple-posture adjusting means 400 includes a barrel 560, a rod 650, and an adaptor member 700. The cylinder 560 is provided with a housing chamber 530 extending in the direction of the axis O. The rod-shaped body 650 extends into the accommodation chamber 530 in the direction of the axis O, and one end of the rod-shaped body 650 is a free end. The cylinder 560 is formed for the rear section of the front leg part 500 including the other end 520, and the rod 650 is formed to extend from one end 610 of the rear leg part 600 in a direction axially away from the rear leg part 600 in a smaller lateral dimension than the one end 610. That is, the cylinder 560 is integral with respect to the front leg part 500, and the rod 650 is integral with respect to the rear leg part 600. In this embodiment, the cross-sectional dimension of the rod-shaped body 650 is smaller than the cross-sectional dimension of the rear leg portion 600.

It should be noted that the tubular body 560 and the rod-shaped body 650 may be formed in such a manner that, for example, the tubular body 560 is formed as a front section of the rear leg portion 600 including the one end 610, and the rod-shaped body 650 is formed as a front leg portion 500 extending from the other end 520 of the front leg portion 500 in a direction away from the front leg portion 500 in a direction along the axis with a smaller lateral dimension than the other end 520. That is, the cylinder 560 is integral with respect to the rear leg portion 600, and the rod 650 is integral with respect to the front leg portion 500.

Of course, it will be understood by those skilled in the art that the temple-posture adjusting means 400 may be separated from the temple 300 as a separate temple-posture adjuster having a moving-position adjusting function and a rotating-position adjusting function, for example, one end of the cylindrical body 560 is configured to be fixedly coupled and detachably coupled to the other end 520 of the front leg part 500, and the other end of the rod body 650 is configured to be fixedly coupled and detachably coupled to one end 610 of the rear leg part 600; alternatively, one end of the cylindrical body 560 is configured to be fixedly and removably attached to one end 610 of the rear leg section 600 and the other end of the rod-shaped body 650 is configured to be fixedly and removably attached to the other end 520 of the front leg section 500.

As shown in fig. 7, the adapter member 700 extends along the direction of the axis O, and the adapter member 700 is sleeved on the outer wall surface of the rod-shaped body 650 and is sleeved in the accommodating chamber 530 of the cylindrical body 560. The adapter member 700 is fixed relative to the cartridge 560 in a direction along the axis O. A movement positioning unit 800 is formed between the outer wall surface of the rod 650 and the inner wall surface of the adaptor member 700. The cylindrical body 560 and the adapter member 700 are relatively fixed in the direction along the axis O so that the rod body 650 can move in the direction along the axis O relative to the cylindrical body 560 and the adapter member 700. That is, when the rod-shaped body 650 moves in the direction of the axis O with respect to the cylinder-shaped body 560, the rod-shaped body 650 can also move in the direction of the axis O with respect to the adapter member 700, thereby causing the rear leg portion 600 to move in the direction of the axis O with respect to the front leg portion 500.

When the rod-shaped body 650 moves to a desired moving position relative to the cylindrical body 560 and the adapter member 700, the moving positioning assembly 800 can limit the relative moving motion between the rod-shaped body 650 and the cylindrical body 560 in the direction along the axis O, can ensure the relative fixation of the rod-shaped body 650 and the cylindrical body 560 in the direction along the axis O, and can better ensure that the rod-shaped body 650 can be kept in the moving position state, so that the temple 300 can be fixed at the adjusted moving position, thereby ensuring the reliable positioning at the moving position and improving the use reliability. When abrasion is generated under the condition of multiple adjustment and use, the adapter part 700 is directly replaced, and the use cost is low.

When the rod-shaped body 650 is moved to a movement position among a plurality of movement positions with respect to the cylinder 560, if the cylinder 560 or the rod-shaped body 650 is subjected to an external movement force less than or equal to a predetermined movement force at the movement position or is canceled, the rod-shaped body 650 is positioned in the direction of the axis O with respect to the cylinder 560. If the cylinder 560 or the rod 650 is subjected to an external moving force greater than a predetermined moving force at the moving position, the rod 650 moves in the direction of the axis O with respect to the cylinder 560. It will be understood by those skilled in the art that the predetermined moving force is an interaction force between two components cooperating with each other in a moving direction, and may be, for example, a friction force or an elastic force. In this embodiment, the mobile positioning assembly 800 is capable of providing the predetermined movement force.

In the present embodiment, the material of the adapter member is a Polyoxymethylene (POM) thermoplastic crystalline polymer. The adapter part made of the material has high strength and rigidity, good elasticity and good abrasion resistance. It will be understood by those skilled in the art that the material of the adapter component is not limited to the polyoxymethylene thermoplastic crystalline polymer, and other materials with good elasticity may be used, which does not limit the scope of the present application.

In the present embodiment, as shown in fig. 7, a stepped chamber 540 having a stepped diameter larger than that of the accommodation chamber 530 of the other portion is formed in the cylindrical body 560. The adapter member 700 is located within the indexing chamber 540 and is capable of rotating within the indexing chamber 700 about axis O relative to the cartridge 560. The stepped wall surfaces 550 at both ends of the stepped chamber 540 can limit relative movement between the cartridge 560 and the adapter member 700 in the direction along the axis O. That is, both ends of the adapter member 700 in the direction of the axis O abut against the stepped wall surfaces 550 of both ends of the stepped chamber 540, respectively. Thereby, the cylindrical body 560 and the adapter member 700 can be relatively fixed in the direction of the axis O.

In some alternative embodiments, the movement positioning assembly 800 may be formed between an outer wall surface of the adapter member 700 and an inner wall surface of the cylinder 560, the rod-shaped body 650 and the adapter member 700 being relatively fixed in the direction of the axis O, the rod-shaped body 650 and the adapter member 700 being movable as a whole in the direction of the axis O relative to the cylinder 560. When the rod-shaped body 650 and the adapter member 700 are integrally moved to a desired movement position with respect to the cylinder 560, the movement positioning assembly 800 can restrict the rod-shaped body 650 and the adapter member 700 from moving with respect to the cylinder 560, so that the relative positioning of the rod-shaped body 650 and the cylinder 560 in the direction along the axis O can be realized, and the relative positioning of the rear leg portion 600 and the front leg portion 500 in the direction along the axis O can be realized, thereby ensuring reliable positioning in the movement position.

Referring to fig. 7-9, the mobile positioning assembly 800 includes a first resilient tab 810 and a plurality of first slots 820. The first elastic protrusion 810 protrudes from the surface of the adaptor member 700 that is engaged with the rod 650, i.e., the inner wall surface of the adaptor member 700. The plurality of first engaging grooves 820 are disposed on the outer wall surface of the rod-shaped body 650 and are recessed inward with respect to the outer wall surface of the rod-shaped body 650, and the plurality of first engaging grooves 820 are spaced apart along the direction of the axis O. When the rod 650 moves to a plurality of different moving positions with respect to the cylindrical body 560, the first engaging grooves 820 corresponding to the plurality of moving positions engage with the first elastic engaging protrusions 810, respectively, to restrict relative movement between the cylindrical body 560 and the rod 650 in the direction of the axis O.

The rod-shaped body 650 moves to a plurality of different moving positions relative to the adaptor member 700 and the cylindrical body 560, and the plurality of first locking grooves 820 are respectively locked with the first elastic locking protrusions 810, so that the relative positioning between the adaptor member 700 and the rod-shaped body 650 at the corresponding moving position in the direction of the axis O can be ensured, the relative positioning between the rod-shaped body 650 and the cylindrical body 560 in the direction of the rotation of the axis O can be realized, that is, the multi-stage adjustment of the moving positions between the rear leg part 600 and the front leg part 500 in the direction of the axis O can be realized, and the operation is convenient, flexible and reliable. And the structure is simple, and the production cost is low.

The first elastic locking protrusion is a conventional fastener that maintains the locking relationship by an elastic force, and the locking relationship can be released by applying an external force greater than the elastic force. In this embodiment, the elastic force generated between the first elastic locking protrusion and the first locking groove is the predetermined moving force at the locking position.

When the user wears the smart glasses 100, as shown in fig. 7, when an external moving force greater than a predetermined moving force is applied to the rod 650 in the direction of the axis O, the first elastic latching protrusion 810 can be elastically deformed, slide out of the currently engaged first latching groove 820, move into another first latching groove 820, and engage with another first latching groove 820, and when the external moving force is smaller than the predetermined moving force or is cancelled, the temple 300 can be reliably positioned at the adjusted moving position by the engaging force of the first elastic latching protrusion 810 and the first latching groove 820.

When the rear leg portion 600 moves to the head end moving position relative to the front leg portion 500 in the direction of the axis O, the first engaging groove 820 at the head end of the plurality of first engaging grooves 820 is engaged with the first elastic engaging protrusion 810, and one end of the rear leg portion 600 is in contact with one end of the adjacent cylindrical body 560 (in the present embodiment, the other end 520 of the front leg portion 500), and at this time, the stretched length of the temple 300 is 0, that is, the stretched length is at the minimum position.

When the rear leg part 600 is moved to the end moving position relative to the front leg part 500 in the direction of the axis O, the first locking groove 820 of the end of the plurality of first locking grooves 820 is engaged with the first elastic locking protrusion 810, and one end of the rear leg part 600 and one end of the adjacent cylindrical body 560 (in this embodiment, the other end 520 of the front leg part 500) are spaced apart in the direction of the axis O, and at this time, the stretched length of the temple 300 is at the maximum position.

In this embodiment, the first card slot 820 has four. It should be noted that the number of the first card slots 820 is not limited to four, and may be set appropriately according to actual requirements, and the scope of protection of the present application is not limited herein.

As shown in fig. 7 and 10, a wall surface of a portion of the peripheral wall of the adapter member 700, where the first elastic clamping protrusion 810 is disposed, has a concave portion 710 which is recessed inward in the radial direction of the adapter member 700, and the concave portion 710 extends to positions near both ends of the adapter member 700 in the length direction of the adapter member 700. Meanwhile, the hollow structure 720 is adopted in the adapter part 700 on the wall close to the first elastic clamping protrusion 810 in the circumferential direction of the adapter part 700, so that a bridge-shaped structure with an axial trend is formed, and the first elastic clamping protrusion 810 is arranged on the bridge-shaped structure with the axial trend. Therefore, the part of the peripheral wall of the adapting component 700, which is provided with the first elastic clamping protrusion 810, is easy to generate elastic deformation, so that under the condition of certain acting force, the first elastic clamping protrusion 810 can generate elastic deformation, and further can slide out and rotate to the other first clamping groove 820 from one first clamping groove 820 clamped with each other, and the operability of adjusting the moving position of the back leg part 600 by a user is ensured.

In some alternative embodiments, the mobile positioning assembly 800 may be formed directly between the outer wall surface of the rod-shaped body 650 and the inner wall surface of the barrel-shaped body 560. For example, the first elastic locking protrusion 810 of the mobile positioning assembly 800 may be disposed on the outer wall surface of the rod-shaped body 650, and the corresponding plurality of first locking grooves 820 may be disposed on the inner wall surface of the cylindrical body 560; alternatively, the first elastic locking protrusion 810 of the mobile positioning assembly 800 may be disposed on the inner wall surface of the cylindrical body 560, and the corresponding plurality of first locking grooves 820 may be disposed on the outer wall surface of the rod-shaped body 650.

As shown in fig. 7-10, the temple 300 further includes a stop 920, the stop 920 including a stop fastener 922 and a stop slot 924. The limiting groove 924 is disposed on the outer wall surface of the rod 650 and extends in the direction of the axis O. The retaining fastener 922 is fixed to and detachably connected to the adapting member 700, and the retaining fastener 922 extends into the retaining groove 924.

When the rod 650 moves relative to the adapter member 700 in the direction of the axis O, the limit fastener 922 can move within the limit groove 924. When the rod-shaped body 650 is slid to a position where the limit fastener 922 abuts against the end of the limit groove 924, the movement of the rod-shaped body 650 in the direction of the axis O toward the rear (i.e., toward the right in fig. 7) with respect to the adapter member 700 is limited. This ensures that the fastener 922 is retained and interferes with the relative movement of the rod 650 and the cartridge 560 in the direction of the axis O, whilst preventing the rod 650 from slipping out of the cartridge 560. So that the rear leg part 600 can be prevented from slipping out of the front leg part 500 in the case where excessive force is applied when the user operates. Thus, the reliability and safety of use are improved.

In some alternative embodiments, the limiting device 920 may include a limiting boss 926 (see fig. 19), the limiting boss 926 protrudes from the cylindrical body 560, and when the rod-shaped body 650 moves backward in the direction of the axis O relative to the cylindrical body 560 to a position abutting against the limiting boss 926, the backward movement of the rod-shaped body 650 relative to the adapting member 700 in the direction of the axis O is limited.

The structure of the rotational position adjustment of the temples 300 will be described and explained below.

Referring to fig. 8-10, a rotational positioning assembly 900 is formed between the inner wall surface of the cylindrical body 560 and the outer wall surface of the adapter member 700. And the adapter member 700 is fixed relative to the rod 650 in the direction of rotation about the axis O. The rod-shaped body 650 and the adapter member 700 are relatively fixed in the direction of rotation about the axis O, so that the rod-shaped body 650 can rotate relative to the cylindrical body 560 in conjunction with the rotation of the adapter member 700 about the axis O. That is, when the rod body 650 rotates in the direction of rotating about the axis O with respect to the cylinder body 560, the rod body 650 can rotate in the direction of rotating about the axis O with respect to the cylinder body 560 in conjunction with the adaptor member 700.

The limit fastener 922 abuts against both sides of the limit groove 924 in the direction of rotation about the axis O, so that the rod-shaped body 650 and the adapter member 700 are relatively fixed in the direction of rotation about the axis O. This enables further limiting of the relative rotational movement between the adaptor member 700 and the rod 650 in the direction of rotation about the axis O.

Further, the mating surface between the outer wall surface of the rod-shaped body 650 and the inner wall surface of the adapter member 700 is a fool-proof surface to limit the relative rotation between the adapter member 700 and the rod-shaped body 650. The fool-proofing structure is better able to limit the relative rotational movement between the adapter member 700 and the rod-shaped body 650 in the direction of rotation about the axis O. In the present embodiment, the portion of the rod-shaped body 650 that mates with the adaptor member 700 is configured in the shape of a semi-cylinder. It should be noted that the foolproof structure of the present application is not limited to the semi-cylindrical shape, and the portion of the rod 650 that mates with the adapter 700 may be configured to have an at least partially asymmetrical shape, such as a non-cylindrical shape, for example, a polyhedron, a cuboid, a cube, etc. And corresponding mounting holes of substantially the same shape and size may be provided at corresponding mounting locations of the adaptor member 700 for insertion of the mounting rod 650. The correct mounting orientation of the rod 650 is determined based on the asymmetrically shaped mounting hole, thereby further providing a foolproof mounting feature.

The rotational positioning assembly 900 is capable of limiting relative rotational movement of the rod 650 and the adapter member 700 relative to the cartridge 560 in a direction of rotation about the axis O when the rod 650 and the adapter member 700 are rotated to a desired rotational position relative to the cartridge 560. The relative positioning of the adapting component 700 and the cylindrical body 560 in the direction of rotating around the axis O is realized through the rotary positioning assembly 900, so that the reliable positioning at the rotating position is ensured, the wearing stability at the position state is further better ensured, and the use reliability is improved. When abrasion is generated under the condition of multiple adjustment and use, the adapter part 700 is directly replaced, and the use cost is low.

When the rod-shaped body 650 is rotated to one of a plurality of rotational positions with respect to the cylinder 560, if the cylinder 560 or the rod-shaped body 650 is subjected to an external rotational force less than or equal to a predetermined rotational force at the rotational position or is cancelled, the rod-shaped body 650 and the adapter member 700 can be positioned in the direction of rotation about the axis O with respect to the cylinder 560. If the cartridge 560 or the rod 650 is subjected to an external rotational force greater than the predetermined rotational force at that rotational position, the rod 650 and the adaptor part 700 can rotate about the axis relative to the cartridge 560. It will be understood by those skilled in the art that the predetermined rotational force is an interaction force between two components engaged with each other in a rotational direction, and may be, for example, a frictional force or an elastic force, etc. In this embodiment, the rotational positioning assembly 900 is capable of providing the predetermined rotational force.

In the present embodiment, the adaptor member 700 serves as both a movement adaptor member for performing movement position adjustment and a rotation adaptor member for performing rotation position adjustment, and the rotation adaptor member and the movement adaptor member are the same member. Of course, the mobile adapter part and the rotary adapter part may also be designed as non-integral parts, for example, as separate parts that are fixedly connected to each other.

When it is necessary to adjust the movement position of the rod body 650 in the direction of the axis O with respect to the cylinder body 560, a force is applied to the rod body 650 or the cylinder body 560 in the direction of the axis O, and the rod body 650 moves in the direction of the axis O with respect to the adapter member 700 and the cylinder body 560 as a whole, thereby adjusting the movement position between the rod body 650 and the cylinder body 560 in the direction of the axis O.

When it is necessary to adjust the rotational position of the rod 650 relative to the cylindrical body 560 in the direction of rotation about the axis O, a force applied to the rod 650 or the cylindrical body 560 in the direction of rotation about the axis O causes the rod 650 to rotate integrally with the adapter 700 relative to the cylindrical body 560 about the axis O, thereby adjusting the rotational position between the rod 650 and the cylindrical body 560 in the direction of rotation about the axis O.

That is, the glasses legs 300 having the above structure can adjust the moving position and the rotating position independently more conveniently and reliably, so as to ensure the cooperative action thereof, avoid the mutual interference between the moving position adjustment and the rotating position adjustment, and improve the adjustability of the user operation. Through the cooperation of the rotational positioning assembly 900 and the mobile positioning assembly 800, the independent adjustment of the mobile position and the independent adjustment of the rotational position can be more reliably achieved, so that the smart glasses 100 can be adjusted to the most comfortable position.

In some alternative embodiments, the rotational positioning assembly 900 may be formed between an inner wall surface of the adapter member 700 and an outer wall surface of the rod-shaped body 650, and the barrel-shaped body 560 and the adapter member 700 are arranged to be relatively fixed in a direction of rotation about the axis O, such that the rod-shaped body 650 can rotate integrally about the axis O with respect to the adapter member 700 and the barrel-shaped body 560. Upon rotation of the rod 650 relative to the adaptor member 700 and the cartridge 560 to a desired rotational position, the rotational positioning assembly 900 is able to limit relative rotation between the rod 650 and the adaptor member 700 in a rotational direction about the axis O, thereby enabling relative fixation of the rod 650 and the cartridge 560 in a rotational direction about the axis O, thereby ensuring reliable positioning at that rotational position.

Referring to fig. 7-12, the rotational positioning assembly 900 includes a second resilient tab 910 and a plurality of second detents 912. The second elastic locking protrusion 910 is protruded from an outer wall surface of the adaptor member 700, and the plurality of second locking grooves 912 are provided on an inner wall surface of the cylindrical body 560, are recessed from the inner wall surface of the cylindrical body 560 in a radial direction of the cylindrical body 560 toward the outer wall surface of the cylindrical body, and are spaced apart from each other in a direction rotating about the axis O. When the rod-shaped body 650 is rotated to a plurality of different rotational positions in conjunction with the adaptor member 700 with respect to the cylindrical body 560, the second engaging grooves 912 corresponding to the plurality of rotational positions are engaged with the second elastic engaging protrusions 910, respectively, so as to restrict relative rotation between the cylindrical body 560 and the rod-shaped body 650 in a direction of rotation about the axis O.

The rod-shaped body 650 rotates together to a plurality of different rotation positions relative to the cylindrical body 560 in a linkage manner, and the second locking grooves 912 corresponding to the plurality of rotation positions are respectively engaged with the second elastic locking protrusions 910, so that the relative fixation of the adapter member 700 between the corresponding rotation position and the cylindrical body 560 in the direction of rotating around the axis O can be ensured, the relative fixation of the rod-shaped body 650 between the corresponding rotation position and the cylindrical body 560 in the direction of rotating around the axis O can be realized, that is, the multi-stage adjustment of the rotation position between the rear leg part 600 and the front leg part 500 in the direction of rotating around the axis O can be realized, and the operation is convenient, flexible and reliable. And the structure is simple, and the production cost is low.

The second elastic locking protrusion is a conventional fastener that maintains the locking relationship by an elastic force, and the locking relationship can be released by applying an external force greater than the elastic force.

As shown in fig. 9 and 12, an inner wall surface of a portion of the peripheral wall of the adapter member 700, on which the second elastic locking protrusion 910 is provided, has a recess 730 that is recessed toward an outer wall surface of the adapter member in a radial direction of the adapter member 700. Therefore, the part of the peripheral wall of the adapter 700, where the second elastic clamping protrusion 910 is disposed, is easily elastically deformed, so that under the condition of a certain acting force, the second elastic clamping protrusion 910 can elastically deform, and further can slide out from one second clamping groove 912 to rotate into the other second clamping groove 912, thereby ensuring the operability of adjusting the rotating position of the rod-shaped body 650 by a user.

Further, as shown in fig. 7 and 9, a second elastic snap 910 is provided on an outer wall surface of one end portion of the adapter member 700 in the longitudinal direction of the adapter member 700. This makes the second elastic bead 910 more easily elastically deformed.

Further, as shown in fig. 7 and 9, a hollow portion 740 is disposed on a wall of the adapter member 700 in the length direction of the adapter member 700, the wall being close to the second elastic protrusion 910, so as to form a bridge-shaped structure extending in the circumferential direction, and the second elastic protrusion 910 is located on the bridge-shaped structure extending in the circumferential direction. This can further improve the degree of elastic deformation of the portion of the wall of the adaptor member 700 where the second elastic protrusion 910 is provided, thereby further improving the operability of the user in adjusting the rotational position of the rod-shaped body 650.

In some alternative embodiments, the rotational positioning assembly 900 may be formed directly between the rod 650 and the cartridge 560. For example, the second elastic locking protrusion 910 of the rotational positioning component 900 may be disposed on the outer wall surface of the rod-shaped body 650, and the corresponding plurality of second locking grooves 912 may be disposed on the inner wall surface of the cylindrical body 560; alternatively, the second elastic locking protrusion 910 of the rotational positioning member 900 may be disposed on the inner wall surface of the cylindrical body 560, and the corresponding plurality of second locking grooves 912 may be disposed on the outer wall surface of the rod-shaped body 650.

When the user wears the smart glasses 100, as shown in fig. 12, when an external rotational force greater than a predetermined rotational force is applied to the rod 650 in a direction rotating about the axis O, the second elastic latching protrusion 910 is elastically deformed, slides out of the currently engaged second latching groove 912, rotates into another second latching groove 912, and is engaged with another second latching groove 912, and when the external rotational force is smaller than the predetermined rotational force or is removed, the temple 300 can be reliably positioned at the adjusted rotational position by the engagement force of the second elastic latching protrusion 910 and the second latching groove 912.

In this embodiment, the second card slot 912 has four. It should be noted that the number of the second card slots 912 in the present application is not limited to four, and may be set appropriately according to actual requirements, and the protection scope of the present application is not limited herein.

As shown in fig. 11-12, the rod 650 is capable of multiple levels of rotational position adjustment and positioning relative to the cartridge 560 in a predetermined rotational region 950. Here, the rotation positions of the predetermined rotation region 950 at the head and tail ends in the rotation direction are defined as a head rotation position 952 and a tail rotation position 954, respectively. In the present embodiment, the leading rotational position 952 is a rotational position at a rotational angle of 0 °, and the trailing rotational position 954 is a rotational position at a rotational angle of 90 °. When the rod-shaped body 650 is rotated to a plurality of rotational positions of the predetermined rotational region 950 with respect to the cylinder 560, the relative rotational movement between the rod-shaped body 650 and the cylinder 560 about the axis O can be restricted, so that multi-stage adjustment of the rotational position between the rod-shaped body 650 and the cylinder 560 in the rotational direction about the axis O can be achieved, and relatively reliable positioning between the rod-shaped body 650 and the cylinder 560 at the adjusted rotational position can be ensured, improving flexibility, operability, and reliability of adjustment.

As will be understood by referring to fig. 3 to 5 and fig. 11 to 12, when the rod-shaped body 650 rotates around the axis O to the head end rotation position 952 with respect to the cylinder-shaped body 560, that is, the rod-shaped body 650 is located at the rotation position of 0 ° with respect to the cylinder-shaped body 560, at this time, the second elastic locking protrusion 910 is engaged with the second locking groove 912 located at the head end, at this time, the clamping force of the rear leg part 600 with the head of the user is minimum, and the other end 620 of the rod-shaped body 650 is located below one end 610 of the rod-shaped body 650 in the height direction 970 of the smart glasses. That is, the rear leg portion 600 may only be supported and clamped to the ears of the user's head when the rod 650 is rotated about axis O to the head end rotational position 952 relative to the cartridge 560. The rotation position is a rotation position of a user in a normal use state when the user wears the smart glasses 100, and at the rotation position, the clamping force of the smart glasses is relatively small, the comfort is high, and the smart glasses are generally suitable for common scenes.

Referring to fig. 11 to 15, when the rod 650 rotates around the axis O to the rear end rotation position 954 with respect to the cylinder 560, the rod 650 is located at a rotation position of 90 ° with respect to the cylinder 560, and at this time, the second elastic protrusion 910 is engaged with the second engaging groove 912 located at the rear end, and at this time, the holding force of the rear leg part 600 with the head of the user is the largest, and the other end 620 of the rear leg part 600 is located inside the front leg part 500 in the width direction 960 of the smart glasses. That is, when the rod 650 is rotated about the axis O to the caudal rotational position 954 with respect to the cylinder 560, the hind leg portion 600 is supported and clamped to the brain or back of the brain of the user's head. When the rod 650 is located at the tail end rotation position 954, the holding force and the wrapability of the smart glasses 100 are the greatest, and the smart glasses are generally suitable for a motion scene with a large motion amplitude. Therefore, the rotation angle within 0-90 degrees can be adjusted, the clamping force and the wrapping property can be adjusted, a user can adjust the intelligent glasses 100 to a desired position when wearing the glasses according to requirements, and the operation is more flexible and reliable.

It will be understood by those skilled in the art that the rotation angle range of the predetermined rotation region 950 can be adaptively set according to actual requirements, and is not limited to the rotation angle adjustment within the range of 0 ° to 90 °, and may also be a rotation angle adjustment within the range of more than 90 °, which does not limit the protection scope of the present application.

The pair of temples 300 are shaped such that their shape substantially conforms to the shape of the user's head, particularly substantially conforms or conforms to the brain or back of the user's head, after being assembled to the frame 200 or smart eyewear 100. The posterior leg portion 600 of the temple 300 may be formed with an arc that substantially conforms to the shape of the posterior lateral region of the user's head (i.e., the arc formed at the curved segment 640 conforms to the shape of the posterior lateral portion of the user's head) so that the posterior leg portion 600 may be more conformable to the posterior lateral region of the head when adjusted to the proper rotational position, facilitating secure wear. The rear leg portion 600 of the temple 400 may be constructed of a material that is flexible, particularly moderately elastically flexible. Through such design for the intelligent glasses 100 of this application can furthest increase the area of contact with user's head when adjusting to suitable rotational position after wearing to reduce the oppression sense to the head, increase the comfort level.

Referring to fig. 14, the two temples 300, after being assembled to the frame 200 or the smart glasses 100, and rotating the rear leg part 600 to a rotational position rotated by 90 ° with respect to the front leg part 500, may assume an open structure substantially conforming to the shape of the brain or the back of the brain of the user's head, i.e., a half-wrapped structure. With this arrangement and configuration, wearing is convenient.

Referring to fig. 16-21, fig. 16-21 show schematic structures of another smart glasses 100 provided by an embodiment of the present application. In which fig. 18 to 21 highlight the schematic structure of the region where the rear leg part 600 of the temple 400 is connected to the front leg part 500.

As shown in fig. 16 to 21, the smart glasses 100 of the present embodiment have substantially the same structure as the smart glasses 100 of the embodiment shown in fig. 1 to 15, and include a frame 200 and a lens 240, wherein the frame 200 includes a frame body 220 and two legs 300 respectively disposed at two sides of the frame body 220. The lenses 240 are secured to the frame body 220. Each temple 300 is constructed in a segmented structure, one end 510 of the front leg part 500 is connected to the frame main body 220, the other end 520 of the front leg part 500 is connected to one end 610 of the rear leg part 600, and a structure enabling a moving position adjustment and a rotational position adjustment is provided between the rear leg part 600 and the front leg part 500. The difference is that the temple 300 has a different specific structure for performing the adjustment of the moving position and the adjustment of the rotational position, that is, the temple posture adjustment apparatus 400 has a different structure.

It will be understood by those skilled in the art that one temple 300 of the smart eyewear 100 may employ the temple 300 provided in any of the following embodiments and possible embodiments shown in fig. 19-21, and the other temple 300 may employ the temple 300 provided in any of the above embodiments and possible embodiments shown in fig. 3-15; alternatively, the structure of each of the two temples 300 of the smart glasses 100 may also adopt the temples 300 provided in any one of the following embodiments and possible embodiments shown in fig. 19-21; alternatively, one of the two temples 300 may be the frame 200 or the smart glasses 100 according to the embodiment of the present application shown in fig. 19 to 21.

The structure of another embodiment of one temple 300 of the smart glasses 100 will be mainly described with reference to fig. 16 to 21.

As shown in fig. 16 to 21, the temple-posture adjusting means 400 includes a cylindrical body 560, a rod body 650, and a damping member 930. The cylinder 560 is provided with a housing chamber 530 extending in the direction of the axis O. The rod-shaped body 650 extends into the accommodation chamber 530 in the direction of the axis O, and one end of the rod-shaped body 650 is a free end. The cylindrical body 560 is formed for the rear section where the other end 520 of the front leg part 500 is located, and the rod-shaped body 650 is formed extending from the one end 610 of the rear leg part 600 in the direction of the axis toward the direction away from the rear leg part 600. That is, the cartridge 560 is fixed with respect to the front leg part 500, and the rod 650 is fixed with respect to the rear leg part 600. In this embodiment, the rod-shaped body 650 has a diameter smaller than that of the rear leg portion 600.

As shown in fig. 19, the damping member 930 extends in the direction of the axis O and is located in the accommodation chamber 530. The outer wall surface of the damper member 930 is fixed to the inner wall surface of the cylindrical body 560. And the damping member 930 is fitted around the outer wall surface of the rod 650 and is in interference fit with the rod 650.

As shown in fig. 19, when the rod-shaped body 650 receives an external moving force in the direction along the axis O greater than the interaction force between the damping member 930 and the rod-shaped body 650 in the direction along the axis O (i.e., the predetermined moving force mentioned in the above-mentioned embodiment), the rod-shaped body 650 can move in the direction along the axis O with respect to the damping member 930 and the cylinder-shaped body 560, so that the adjustment of the moving position of the rear leg portion 600 of the temple 300 with respect to the front leg portion 500 in the direction along the axis O can be achieved. When the external moving force received is cancelled or smaller than the interaction force between the damping member 930 and the rod-shaped body 650 in the direction of the axis O, the rod-shaped body 650 can be fixed in the direction along the axis O with respect to the damping member 930 and the cylinder-shaped body 560, so that the temple 300 is fixed in the adjusted moving position, ensuring reliability of use.

As shown in fig. 19 to 21, when the rod-shaped body 650 is subjected to an external rotational force in the direction of rotation about the axis O which is greater than the interaction force between the damping member 930 and the rod-shaped body 650 in the direction of rotation about the axis O (i.e., the predetermined rotational force mentioned in the above-mentioned embodiment), the rod-shaped body 650 can be rotated in the direction of rotation about the axis O with respect to the damping member 930 and the cylinder-shaped body 560, so that the adjustment of the rotational position of the rear leg portion 600 of the temple 300 with respect to the front leg portion 500 in the direction of rotation about the axis O can be achieved. When the external moving force received is cancelled or smaller than the interaction force between the damping member 930 and the rod-shaped body 650 in the direction of rotation about the axis O, the rod-shaped body 650 can be fixed in the direction of rotation about the axis O with respect to the damping member 930 and the cylinder-shaped body 560, so that the temple 300 is fixed in the adjusted rotational position, ensuring reliability of use.

Further, as shown in fig. 19, the stopper 920 may include a stopper boss 926, and the stopper boss 926 is protruded from an inner wall surface of the cylindrical body 560 forming the receiving chamber 530. The end of the rod 650 remote from the rear leg portion 600 is provided with a flange 928. When the rod-shaped body 650 moves rearward in the direction of the axis O relative to the cylindrical body 560 to a position where the flange 928 abuts the limit boss 926, the movement of the rod-shaped body 650 rearward in the direction of the axis O relative to the damping member 930 and the cylindrical body 560 is limited. The rod 650 can be prevented from slipping out of the cylinder 560, and the rear leg part 600 can be prevented from slipping out of the front leg part 500 in the case of excessive force applied by the user at the time of operation. Thus, the reliability and safety of use are improved.

In the present embodiment, the damping member 930 is made of silicon rubber. The damping member 930 may be made of other materials capable of producing a damping effect, and the scope of the present invention is not limited thereto.

In alternative embodiments, the damping member 930 may be fixed to the rod-shaped body 650, and the damping member 930 may be in interference fit with the cylindrical body 560. The rod 650 rotates in the axial direction of the axis O with respect to the cylinder 560 in conjunction with the damping member 930, and moves in the axial direction of the axis O.

Those skilled in the art will appreciate that the structure of the temple 300 and the frame 200 of the present embodiment is not limited to the application in the augmented reality smart glasses, and may also be applied to other smart glasses, and even to ordinary glasses.

In general, when the intelligent glasses 100 with the glasses legs 300 are worn, the rotation position of the rear leg part 600 relative to the front leg part 500 in the direction rotating around the axis O can be adjusted, that is, the part clamped between the rear leg part 600 and the head of the user can be adjusted, so that the clamping force and the wrapping property of the intelligent glasses 100 can be adjusted, the use of the same user in different scenes can be met, and the use scenes are increased; meanwhile, the requirements of stability and comfort when users with different head types and head circumference widths wear the head can be met, so that the wearing compatibility of users with different head types and head circumferences can be improved, and the user population is increased.

Meanwhile, when the glasses are worn, the moving position of the rear leg part 600 relative to the front leg part 500 in the direction along the axis O can be adjusted, so that the position of the rear leg part 600 relative to the front leg part 500 in the direction of the axis O and the length of the glasses legs 300 can be adjusted, the adjustment and use of user groups with different distances from eyes to ears can be met, the wearing compatibility of users with different head types and head circumferences can be further improved, and the user groups are increased.

That is to say, the embodiment of the present application can satisfy the use requirements of users with different head types and head circumferences by adopting the structure of the temple 300 with adjustable moving positions and adjustable rotating positions between the rear leg part 600 and the front leg part 500, thereby improving the wearing compatibility of users with different head types and head circumferences and increasing the user population; meanwhile, the use requirements of the common scene and the motion scene of the same user are met, and the use scenes are increased.

In short, the above description is only an example of the technical solution of the present application, and is not intended to limit the protection scope of the present application. Any modifications, equivalents, improvements and the like made in accordance with the disclosure of the present application are intended to be included within the scope of the present application.

Claims

1. A temple arm, comprising:

a front leg portion and a rear leg portion, one end of the front leg portion being adapted to be connected to a frame main body, the other end of the front leg portion being connected to one end of the rear leg portion such that the rear leg portion is rotated about an axis in a forward or reverse direction with respect to the front leg portion under an external rotational force greater than a predetermined rotational force, and the rear leg portion is immovable in a direction of rotation about the axis with respect to the front leg portion when rotated to any one of a plurality of rotational positions where the external rotational force is less than the predetermined rotational force;

wherein the axis is a center line which passes through a connecting portion where the front leg portion and the rear leg portion are connected and extends straight in a length direction of the temple.

2. The temple of claim 1 wherein the connection between said other end of said front leg portion and said one end of said rear leg portion is further such that said rear leg portion also moves back and forth in the direction of said axis relative to said front leg portion under an external moving force in the direction of said axis greater than a predetermined moving force, and said rear leg portion is immovable in the direction of said axis relative to said front leg portion in said moved position when moved to any of a plurality of moved positions and said external moving force is less than said predetermined moving force.

3. The temple of claim 1 wherein said connection between said other end of said front leg portion and said one end of said rear leg portion is via a temple arm attitude adjustment means;

posture adjustment device is adjusted to mirror leg includes: a cylindrical body, a rod-shaped body and an adapter member;

said tubular body being fixed or integral with respect to said front leg portion and said rod-shaped body being fixed or integral with respect to said rear leg portion, or said tubular body being fixed or integral with respect to said rear leg portion and said rod-shaped body being fixed or integral with respect to said front leg portion; wherein,

the adapter component extends along the direction of the axis and is sleeved outside the rod-shaped body, and the adapter component is fixed relative to the rod-shaped body in the direction rotating around the axis;

the adapter part cover is located in the tube-shape body, the rod-shaped body with the adapter part for the tube-shape body can be around the rotatory direction of axis is in forward direction or reverse rotation, the outer wall of adapter part is equipped with outside outstanding elasticity card protruding, the internal face of the tube-shape body is equipped with and follows a plurality of draw-in grooves that the rotatory direction of axis is adjacent in proper order, a plurality of draw-in grooves are used for the rod-shaped body is in under the effect of predetermined rotational force around the axis for when the tube-shape body rotates to corresponding a plurality of rotational position, can respectively with elasticity card protruding block location is motionless.

4. The temple of claim 2 wherein said connection between said other end of said front leg portion and said one end of said rear leg portion is via a temple arm attitude adjustment means;

5. The temple of claim 3 or 4 wherein said barrel is formed by a rear section of said front leg portion including said other end, said rod being formed to extend from one end of said rear leg portion in a direction along said axis which is smaller in transverse dimension than said one end;

alternatively, the tubular body is formed by a front section of the rear leg portion including the one end, and the rod-shaped body is formed by extending from the other end of the front leg portion in a direction along the axis with a smaller lateral dimension than the other end.

6. The temple according to any one of claims 3 to 5, wherein, among the plurality of rotational positions at which the plurality of engaging grooves on the inner wall surface of the cylindrical body engage with the elastic engaging projections on the outer wall surface of the adapter, respectively, one of the engaging grooves at the leading end and the trailing end engages with the elastic engaging projection at a leading end rotational position at which the gripping force of the rear leg portion with respect to the head of the user is smallest, and the other engaging groove at the trailing end rotational position at which the engaging groove engages with the elastic engaging projection at which the gripping force of the rear leg portion with respect to the head of the user is largest.

7. The temple of claim 6 wherein said rear leg portion is adapted to be retained only on the ear portion of the user's head when said stem is rotated about said axis relative to said barrel to said head end rotated position.

8. The temple of claim 6 or 7 wherein said rear leg portion is adapted to be retained in a different portion of the brain of said user's head corresponding to each of said other rotational positions when said shaft is rotated about said axis relative to said barrel to said other rotational positions beyond said head end.

9. The temple according to any of claims 3-8, wherein an inner wall surface of said adapter member corresponding to said resilient tabs provided on an outer wall surface of said adapter member has a depression.

10. The temple according to any of claims 3-9, wherein said adapter member is provided with a cutout in a wall thereof adjacent to said resilient tab on an outer wall surface of said adapter member to form a circumferentially oriented bridge structure, said resilient tab being located on said circumferentially oriented bridge structure.

11. The temple according to any of claims 4-10, wherein said adapter member has an inwardly recessed depression in an outer wall surface thereof corresponding to said resilient detent provided on an inner wall surface of said adapter member.

12. The temple according to any of claims 4-11, wherein said adapter member has a hollowed-out structure in a wall thereof adjacent to said resilient tab on an inner wall surface of said adapter member to form an axially oriented bridge structure, said resilient tab being located on said axially oriented bridge structure.

13. The temple of any of claims 3-12, wherein the mating surfaces of the outer wall surface of said stem body and the inner wall surface of said adapter member are fool-proof surfaces to limit relative rotation between said adapter member and said stem body in a direction of rotation about said axis, but relative movement between said adapter member and said stem body in a direction along said axis.

14. The temple according to any of claims 3 to 13, wherein said temple posture adjusting means further comprises a position-limiting means comprising a position-limiting fastener and a position-limiting groove provided on an outer wall surface of said rod-shaped body and extending in the direction of said axis; the limiting fastener is detachably mounted on the adapter part and extends into the limiting groove;

the limiting fastener can slide in the limiting groove when the rod-shaped body moves relative to the adapter component in the direction along the axis; when the rod-shaped body slides to a position where the limiting fastener is abutted against the end part of the limiting groove, the rod-shaped body is limited in moving motion in a direction along the axis relative to the adapter part in a direction away from the cylindrical body.

15. The temple of claim 14 wherein said spacing fastener abuts both sides of said spacing groove in a direction of rotation about said axis to secure said shaft relative to said adapter member in a direction of rotation about said axis.

16. The temple according to any of claims 4-13, wherein said cylindrical body further comprises a stopper boss protruding from a predetermined position of an inner wall surface of said cylindrical body, and wherein when said shaft body is moved in a direction along said axis relative to said cylindrical body to a position abutting said stopper boss, movement of said shaft body relative to said cylindrical body in a direction along said axis is restricted in a direction away from said cylindrical body.

17. The temple of any of claims 3-16, wherein said barrel has a stepped-through chamber formed therein having a stepped-through diameter greater than the other portion of the chamber, said adapter member being located within said stepped-through chamber and being rotatable relative to said barrel about said axis within said stepped-through chamber;

stepped wall surfaces at two ends of the stepped chamber can limit relative movement between the cylindrical body and the adapter component in the direction along the axis.

18. The temple portion of any of claims 1-17, wherein said rear leg portion comprises an integrally formed straight segment and a curved segment disposed in series along the length of said rear leg portion, an end of said straight segment remote from said curved segment forming said one end of said rear leg portion, an end of said curved segment remote from said straight segment forming said other end of said rear leg portion, said curved segment for gripping with the head of said user.

19. The temple of any of claims 1-18, wherein said temple is for use with an temple of augmented reality smart glasses or virtual reality smart glasses.

20. A temple arm, comprising:

a front leg portion having one end for connecting with a frame main body and the other end connected with one end of the rear leg portion such that the rear leg portion moves back and forth in the direction of an axis relative to the front leg portion under an external moving force in the direction of the axis greater than a predetermined moving force, and the rear leg portion is positioned immovably in the direction of the axis relative to the front leg portion when moved to any one of a plurality of moving positions where the external moving force is smaller than the predetermined moving force;

21. The temple of claim 20 wherein said connection between said other end of said front leg portion and said one end of said rear leg portion is via a temple arm attitude adjustment means;

the adapter component extends along the direction of the axis and is sleeved outside the rod-shaped body, and the adapter component is sleeved in the cylindrical body and is fixed relative to the cylindrical body along the direction of the axis;

22. The temple of claim 21 wherein said barrel is formed by a rear section of said front leg portion including said other end, said rod being formed to extend from one end of said rear leg portion in a direction along said axis that is smaller in transverse dimension than said one end;

23. The temple according to claim 21 or 22, wherein an outer wall surface of said adapter member corresponding to said resilient clip projection is provided with an inwardly recessed depression.

24. The temple according to any of claims 21-23, wherein said adapter member includes an undercut in a wall thereof adjacent said resilient tab to form an axially oriented bridge structure, said resilient tab being positioned on said axially oriented bridge structure.

25. The temple of any of claims 21-24, wherein said barrel has a stepped-through chamber formed therein having a stepped-through diameter greater than the other portion of the chamber, said adapter member being located within said stepped-through chamber and being rotatable relative to said barrel about said axis within said stepped-through chamber;

26. The temple according to any of claims 21-25, wherein said temple posture adjustment means further comprises a position-limiting means, said position-limiting means comprising a position-limiting fastener and a position-limiting groove, said position-limiting groove being provided on an outer wall surface of said rod-shaped body and extending in the direction of said axis; the limiting fastener is detachably mounted on the adapter part and extends into the limiting groove;

27. The temple of any of claims 21-26, wherein said temple is for use with an temple of augmented reality smart glasses or virtual reality smart glasses.

28. A frame, comprising:

a frame body for securing a lens; and

at least one temple bar employing a temple bar according to any of claims 1-27, said one end of said front leg portion of said temple bar being connected to said frame body.

29. An eyeglass, comprising:

a frame as in claim 28;

a lens secured to the frame body of the frame.

30. The glasses according to claim 29, wherein the glasses are augmented reality smart glasses or virtual reality smart glasses.