TWM560032U - Glasses set multi-position folding device - Google Patents

Abstract

The utility model relates to a multi-directional folding device for glasses group, which is provided with a foot plate provided by the eyeglass group, which can be assembled in multiple directions, and a double-axis coupling device capable of multi-axis connection is respectively combined with the eyebrow angles on the two sides of the main body of the lens body. Through the axial change of the biaxial coupling, the foot plate provided by the lens main body is provided, which can be folded in a more angular direction, wherein the front and rear thickness of the lens group after folding can be greatly reduced, which is convenient for carrying or storing, or providing glasses. The group is placed in a suspended position to avoid mirror friction.

Description

Eyeglass group multi-directional folding device

The utility model relates to a multi-directional folding device for an eyeglass group, which can provide a multi-directional folding device for providing a foot plate provided by the eyeglass group.

The legs of the conventional glasses are folded and folded in a single angle according to the connecting portion provided on the eyebrow. The design is bent inwardly for the purpose of providing the head for attaching to the ear, and for the ear hanging The three-dimensional curved structure is bent downward, and the front and rear thickness of the glasses group occupy a lot of space after being folded, and when placed on the desktop in a transient state, it is often placed on the table in an oblique posture, and is touched. The flipping causes the lens to rub against the table top.

The utility model relates to a multi-directional folding device for an eyeglass group, which is provided with a foot plate provided by the eyeglass group, which can be assembled in a multi-directional manner, and uses a double-axis coupling device for multi-axis connection, so that the foot plate of the glasses can be folded at a more angular direction. the main purpose.

The second purpose of the present invention is that the two-axis coupling has a weft joint at one end and a warp joint at one end, and the front and the rear respectively combine the docking plate and the foot plate, so that the foot plate can be double-axis when folded. The coupler changes in multiple corners and forms a variety of folds.

The third purpose of the creation is that the foot board is folded, and can be folded in an angular position as in a conventional state, and the foot board can be folded over or formed to overlap.

The fourth object of the present invention is that a magnetic element is arranged at the end of the foot plate, and the end portions of the two leg plates are combined with the main body of the lens to form a triangular folded state, and a combination of magnetic elements is used to form a triangular frame connected structure. Hang the hook on the façade.

The fifth object of the present invention is that the inside of the two-axis coupling device is provided with a cutting buckle to act on the docking plate or the foot plate, and the elastic cutting of the cutting buckle can be cut and pressed at the upper end of the opposite end of the connecting plate. The portion, the side end fixing portion, and the oblique fixing portion form a multi-angle positioning.

The sixth object of the present invention is that the ear hook end of the end of the foot plate is provided with a deformation section, the outer end surface of the deformation section is provided with a magnetic attraction element, and a stress groove is arranged on the outer side to provide a deformation section for deformation, so that the end surface of the two side magnetic component can be It’s flat and sucking.

1‧‧‧ glasses group

10‧‧‧ glasses main body

11‧‧‧Browd

20‧‧‧ 接板

21‧‧‧Receiving holes

22‧‧‧Upper end

23‧‧‧ Side-end fixed section

24‧‧‧ oblique fixation

30‧‧‧Double-axis coupling

31‧‧ ‧ barge interface

32‧‧‧Weft direction junction

33‧‧‧ docking slot

34‧‧‧Transition to the Ministry of Connection

35‧‧‧Receiving holes

36‧‧‧ Cut button

37‧‧‧ Tensioning elements

38‧‧‧ Straight slot

340‧‧‧Displacement axis

40‧‧‧foot board

41‧‧‧ Root

42‧‧‧ ear hanging end

50‧‧‧ deformation section

51‧‧‧ Magnetic components

52‧‧‧stress trough

60‧‧‧Replacement rod

70‧‧‧hook

71‧‧‧Facade

The first picture is an exploded view of the creation.

Figure 2 is a combination of the creations.

The third figure is a schematic diagram of the displacement action of the created two-axis coupling.

Figure 4 is a schematic diagram of the displacement of the footboard of the creation.

The fifth picture is a schematic diagram of the creation of the foot plate through the double-axis coupling to the frame direction of the main body of the lens.

Fig. 6 is a front view showing the overlapping of the upper part of the frame on the main body of the lens body.

Figure 7 is a front view of the frame at the end of the creation of the foot plate.

Figure 8 is a side view of Figure 7.

The figure 9 is a schematic diagram of directly attaching the ear hanging end to the façade after the ear piece is combined and then hanging on the façade.

Figure 10 is a front view of Figure 9.

Figure 11 is a schematic diagram of the detailed structure of the created two-axis coupling.

The 12th figure is a schematic diagram of the cutting and shackle acting docking plate provided for the creation of the twin-shaft coupling.

The figure 13 is one of the schematic diagrams of the cutting and squeezing effect of the double-axis coupling.

The present invention provides a multi-directional folding device for eyeglasses. In order to provide a foot plate provided by the eyeglass group, the device can be folded in multiple directions, and the eyebrows provided on the two sides of the main body of the lens are combined with a connecting plate. The shaft-connected two-axis coupling connects the root of the foot plate, so that the foot plate can be displaced by the multi-axis of the two-axis coupling, and the multi-axis orientation is folded, providing a variety of convenient storage spaces for carrying, and can be flat, or The folding method of the glasses set placed on the façade.

For the detailed structure and working mode of the present creation, please refer to the following description of the drawings: First, as shown in FIG. 1 , the eyeglass group 1 is formed by a lens body 10 docking the foot plate 40, and the lens body 10 has two sides respectively. The eyebrow angle 11 is provided (for the sake of simplicity, the embodiment is exemplified by a single side), and the eyebrow angle 11 is provided with a docking plate 20 for providing a weft joint portion 32 of the double shaft coupling 30. The other end of the twin-shaft coupling 30 is a warp-joining portion 34, and the docking rod 60 provided at the root of the leg plate 40 is connected, and the weft-butting portion 32 and the warp-joining portion 34 are in different axial directions. In a vertical relationship, the ear end 42 of the leg 40 is coupled with a deformation section 50. The outer end surface of the deformation section 50 is coupled to a magnetic element 51. The deformation section 50 can be changed by a stress groove 52 on the outer side to allow the deformation section 50 is easy to bend inwardly. The foot plate 40 is basically an arch having a single curvature. The curvature of the arch is inward and the lateral direction is a linear rod-like appearance. The ear end 42 can utilize the elastic force of the deformation section 50 to increase the pair. The friction when the user hangs the ear.

Referring to FIG. 2 again, the two sides of the lens main body 10 are docked via the docking plate 20 to the weft joint portion 32 of the biaxial coupler 30, and the warp joint portion 34 of the biaxial coupler 30 is retracted. The pin plate 40 forms the basic body of the present invention to achieve the function of the multi-directional folding leg 40.

Referring to FIG. 3 again, a front end of the biaxial coupling 30 is provided with a barge interface 31, which is engaged with the docking plate 20 of the eyebrow angle 11 by a fitting manner, and the weft direction is achieved by the weft direction connecting portion 32. Refuse, The rear end of the biaxial coupling 30 is provided with a docking groove 33, and is provided with a docking rod 60 coupled to the leg plate 40. The warp direction is achieved by the warp connecting portion 34, and the weft docking portion 32 is defined. For the weft direction of the X-axis, the warp joint portion 34 is defined as a Y-axis warp direction connection, and the double-axis coupler 30 is a docking center via the weft direction joint portion 32. When the upward direction is reversed, the warp direction The connecting portion 34 moves the foot plate 40 upward, and the passing direction connecting portion 34 is displaced into a displacement axis 340. The displacement axis 340 is used as a fulcrum, and the leg plate 40 can be swung in the lower right direction to accommodate the foot plate. 40 is merged above the lens body 10 (illustrated to simplify the reading of the structure, and is represented by a simplified diagram).

Referring to FIG. 4 again, the leg plate 40 is docked on the warp docking portion 34 of the biaxial coupler 30 via the docking rod 60. The warp joint portion 34 is a fulcrum, and the leg plate 40 can be directed to the eyeglass body. The internal direction of 10 is swung to achieve the whole operation.

Referring to FIG. 5 again, the biaxial coupling 30 can be swung upward according to the weft direction connecting portion 32 via the above-described changes in the swing angular position of the third and fourth figures. The swing angle is basically based on 90 degrees.

Through the swing of the above-described biaxial coupler 30, the linked foot plate 40 is turned upside down, and the plane of the foot plate 40 and the lens main body 10 can be nearly parallel.

Referring to FIG. 6 again, through the first displacement operation of FIG. 5, the foot plate 40 located above the lens main body 10 is superposed on the upper side of the lens main body 10, and the docking plate 20 and the double shaft are utilized. The coupling of the coupler 30 causes the warp joint portion 34 to form a displacement centering shaft 340, so that the leg plate 40 is folded in the direction of the upper portion of the lens body 10, and the last two deformation segments 50 are alternately directed to the two sides. The biaxial coupling 30, the magnetic element 51 and the biaxial coupling 30 are also configured to form a magnetic attraction, and at least the biaxial coupling 30 is made of a magnetic material such as metal. After the foot plate 40 is folded over the lens main body 10, the magnetic attraction of the magnetic element 51 and the biaxial coupling 30 of the deformation section 50 is used to achieve the collapsed temporary fastening, and according to the folding mode, Can greatly reduce the main glasses The thickness of the front and back of the body 10 occupies a space, so that the lens main body 10 and the foot plate 40 are close to a flat shape, which provides convenience for carrying and reduces the space for storage, so that even if it is placed flat on the table, it is not easily touched by external force, so that The mirror body of the lens main body 10 is turned over to contact the table top.

Referring to FIG. 7 again, the eyebrows 11 on the two sides of the lens main body 10 are connected by the multi-axis of the two-axis coupler 30, and the displacement axis 340 that is displaced by the docking portion 34 becomes a lateral barge. The two side legs 40 can be combined according to the two ends as a fulcrum, and the ends thereof are combined into a triangular frame body. The deformation section 50 of the ear hanging end 42 of the foot plate 40 can also be easily bent by the stress groove 52, so that the magnetic The suction element 51 is more capable of planar magnetic attraction, and the bonding force can resist the quality of the entire lens set 1 and the upper end of the inner frame formed by the combination is hung on the hook 70.

Referring to FIG. 8 again, the folding of FIG. 7 is completed. The upper end of the leg plate 40 of the eyeglass group 1 can be hung on the hook 70 of the façade 71, and the side of the leg plate 40 and the biaxial coupling 30 are regarded as straight. The relationship between the warp and weft direction connecting portion 32 and the eyeglass main body 10 is such that the plane direction of the eyeglass main body 10 is close to or parallel to the vertical surface 71, so that the eyeglass body 10 is oriented toward the space. It will rub against the façade 71. The façade 71 can be any façade, such as an office screen, or a home wall, or a columnar flat surface. The hook 70 can be implemented to provide the eyeglass set 1 to be hung.

Referring to FIG. 9 again, the façade 71 is provided with a hook 70. The eyeglass group 1 is provided for magnetic removal by the magnetic component 51 provided by the earloop end 42 after being removed by the user. The lens main body 10 and the façade 71 are vertically close to each other, and the mirror surface of the spectacles main body 10 is a downward facing space, which does not rub against the façade 71, facilitating the use of the transient mounting.

Please refer to Fig. 10 again. As shown in Fig. 9, the front side is a triangular joint frame body, and its shape has an aesthetic appearance after being hung.

Referring to FIG. 11 again, the twin-axis coupling 30 is provided with a weft docking portion 32 before and after. And the other direction of the warp joint portion 34, the weft direction joint portion 32 is defined as an X-axis docking unit, and the warp joint portion 34 is defined as a Y-axis docking unit, and the weft joint portion 32. To form a barge interface 31 at the front end of the dual-axis coupler 30, the barge interface 31 can be fitted into the joint end of the docking plate 20, the other end of the docking plate 20 is combined at the eyebrow angle 11, and the joint end is laterally opened. The connecting hole 21 can be divided into an upper end fixing portion 22, a side end fixing portion 23, and an oblique fixing portion 24. The connecting hole 21 and the connecting hole 35 of the barge interface 31 are coaxially connected. The upper end fixing portion 22, the side end fixing portion 23, and the oblique fixing portion 24 are cut by a cutting hook 36 which provides an elastic arching function in the opposite direction of the inside of the double shaft coupling 30, and the cutting buckle is provided at Different angular positions allow the transient position of the connecting plate 20 and the biaxial coupling 30 to be displaced, and the connecting rod 60 is coupled to the root portion 41 of the foot plate 40. For the docking, according to the Y-axis, the foot plate 40 can be swung inward, and wherein the double-shaft coupling 30 is an elongated body, and the weft joint portion 32 is provided with the groove interface 31 in the groove depth direction, and the depth line thereof is Partial Correspondingly, the inside of the biaxial coupling 30 is opposite to the warp direction connecting portion 34, and is provided with a locking yoke 36 which is elastically outwardly arched, and acts on the relationship between the angular position of the connecting rod 60 With.

Referring to FIG. 12 again, the joint end of the docking plate 20 is coupled to the biaxial coupler 30 via the weft joint portion 32. The double shaft coupling 30 is internally provided with a straight groove 38 for accommodating the tension member. 37, the end surface of the tension member 37 acts on one end of the cutting cymbal 36, and the outer end of the shackle 36 is cut at the side end fixing portion 23 of the docking plate 20, and the angle of the swinging double shaft coupling 30 and the docking plate 20 After the position, the cutting hook 36 can respectively cut the oblique fixing portion 24 or the upper end fixing portion 22 to provide the angular position temporary setting after the relative angular position change, wherein the upper end fixing portion 22 and the side end portion The fixed portion 23 and the obliquely fixed portion 24 are basically two or more sets, and more fixed points can provide a change in the more angular positions of the two-axis coupler 30 and the weft-butted portion 32.

Referring again to Figure 13, the angular position change between the docking plate 20 and the dual-axis coupler 30, Through the docking of the weft-butting portion 32, and the elastic action of the locking hook 36, the engaging end of the connecting plate 20 can be buckled, and the outer end of the locking hook 36 can be a flat surface, and can be cut. The flat upper end fixing portion 22, the side end fixing portion 23, and the oblique fixing portion 24 are pressed, and the upper end fixing portion 22, the side end fixing portion 23, and the oblique fixing portion 24 are shown as one. The flat shape is supported by the center point of the weft-butting portion 32, and the distance from the double-shaft coupling 30 is subjected to the elastic arching action of the locking hook 36 to achieve the purpose of elastic cutting, and the upper end fixing portion 22 and the side The end fixing portion 23 and the oblique fixing portion 24 are subjected to the locking action of the locking hook 36, and may be implemented in the corresponding structure of the inside of the warp joint portion 34 and the docking rod 60 as shown in FIG. The angular position of the foot plate 40 and the biaxial coupling 30 is changed, and the transient setting of the elastic cutting is also obtained.

Claims (10)

The utility model relates to a multi-directional folding device for eyeglasses, which is provided with a foot plate provided by the eyeglass group, which can be assembled in a multi-directional manner, comprising: a connecting plate which can be combined with the eyebrow angle of the main body of the eyeglass; a double-axis coupling device, One end is provided with a weft joint portion, and the other end is a warp joint portion, and the weft joint portion is connected with the docking plate; a foot plate is provided, and the root portion is connected with the warp joint portion, and the rear end is One ear is hanging. The multi-directional folding device of the eyeglass group according to the first aspect of the invention, wherein the docking plate is provided with a connecting hole, and the connecting hole of the connecting interface with the weft connecting portion is X-axis. The multi-directional folding device of the eyeglass group according to the second aspect of the invention, wherein the directional connecting portion is provided with a docking groove, and a connecting rod provided by the foot plate is provided to achieve a Y-axis connection. The multi-directional folding device of the eyeglass group according to the first aspect of the invention, wherein the biaxial coupling is an elongated body, and the weft interface is provided with a groove depth direction of the interface, and the depth line corresponds to a skew. The multi-directional folding device for the eyeglass group according to the first aspect of the patent application, wherein the inside of the double-axis coupling is oriented in the direction of the weft-butting portion, and the elastic buckle is externally arched, and is disposed on the connecting plate. The upper end fixed portion, the side end fixed portion, and the oblique fixed portion are temporarily set in the changed relationship angular position. The multi-directional folding device of the eyeglass group according to the first aspect of the invention, wherein the inside of the two-axis coupling is directed toward the warp direction connecting portion, and a locking buckle which is elastically outwardly arched is provided, which acts on the connecting rod The relationship angle after the change is temporarily fixed. The multi-directional folding device of the eyeglass group according to claim 1, wherein the end of the ear-hanging end of the leg plate is provided with a deformation section, and the outer end surface of the deformation section is provided with a magnetic component. The multi-directional folding device for glasses according to claim 7, wherein the deformation section is provided with a stress groove for bending. The eyeglass group multi-directional folding device according to claim 1, wherein the body of the foot plate has a curved shape of a single curvature. The eyeglass group multi-directional folding device according to claim 1, wherein the devices are two sets of eyebrows symmetrically combined on the two sides of a lens body.