Intelligent glasses

Abstract

The utility model discloses a pair of intelligent glasses. The pair of intelligent glasses comprises an optical waveguide sheet, wherein two opposite end parts of the optical waveguide sheet along a first direction are provided with a first coupling-in and coupling-out area and a second coupling-in and coupling-out area; the first light conversion assembly is arranged opposite to the first coupling-in and coupling-out area, the second light conversion assembly is arranged opposite to the second coupling-in and coupling-out area, the first light conversion assembly comprises a first light machine and a first photoelectric conversion module, and the second light conversion assembly comprises a second light machine and a second photoelectric conversion module; the second optical conversion assembly comprises a second optical machine and a second photoelectric conversion module which are in communication connection with each other, and the first photoelectric conversion module and the second photoelectric conversion module can convert communication electric signals and communication optical signals mutually and are in communication connection with each other in a communication optical signal mode through an optical waveguide sheet; a first glasses leg and a second glasses leg; the first controller is arranged in the first glasses leg. According to the intelligent glasses, the light weight of the intelligent glasses can be further realized.

Description

Technical Field

[0001] The utility model relates to the field of intelligent wearable devices, in particular to a pair of intelligent glasses. Background Art

[0002] With the development of science and technology, smart glasses, as a kind of intelligent wearable device, have been applied in various usage scenarios in people's lives. Smart glasses are devices that can be worn on the user's head, have a similar appearance to glasses, and combine virtual information display technologies such as augmented reality (AR) or virtual reality (VR).

[0003] In current smart glasses, in order to achieve signal transmission between electronic components in one temple and electronic components in another temple, a relatively complex electrical connection and wiring structure needs to be arranged in the frame, making the frame part of the smart glasses heavier and larger in size. Utility Model Content

[0004] The utility model provides a pair of smart glasses, which is convenient for further realizing the lightness of the smart glasses.

[0005] The utility model provides a smart glasses, which include: an optical waveguide sheet, wherein the optical waveguide sheet is provided with a first coupling-incoupling area and a second coupling-incoupling area at two opposite ends along a first direction; a first optical conversion component and a second optical conversion component, wherein the first optical conversion component is arranged opposite to the first coupling-incoupling area, and the second optical conversion component is arranged opposite to the second coupling-incoupling area, wherein the first optical conversion component includes a first optical engine and a first photoelectric conversion module, and the second optical conversion component includes a second optical engine and a second photoelectric conversion module that are communicatively connected to each other, wherein the first optical engine can generate a first display optical signal coupled to the first coupling-incoupling area, and the second optical engine can generate a second display optical signal coupled to the second coupling-incoupling area, wherein the first photoelectric conversion module and the second photoelectric conversion module can respectively convert communication electrical signals into communication optical signals, and are communicatively connected to each other in the form of the communication optical signals through the optical waveguide sheet; a first temple and a second temple, wherein the first temple is connected to the first optical conversion component, and the second temple is connected to the second optical conversion component; and a first controller, which is arranged in the first temple, and the first controller is communicatively connected to the first optical engine and the first photoelectric conversion module.

[0006] According to the aforementioned embodiment of the utility model, the first photoelectric conversion module and the second photoelectric conversion module both include a light emitting device and a photoelectric sensor, the light emitting device is used to convert the communication electrical signal into the communication optical signal, the communication optical signal is non-visible light, and the photoelectric sensor is used to convert the communication optical signal into the communication electrical signal.

[0007] According to any of the foregoing embodiments of the utility model, the first coupling-incoupling zone includes a first communication light coupling-in zone and a first communication light coupling-out zone which are sequentially arranged corresponding to the light emitting device and the photoelectric sensor of the first photoelectric conversion module; the second coupling-incoupling zone includes a second communication light coupling-in zone and a second communication light coupling-out zone which are sequentially arranged corresponding to the light emitting device and the photoelectric sensor of the second photoelectric conversion module.

[0008] According to any of the aforementioned embodiments of the present invention, the first coupling-incoupling region includes a first display light coupling-in region, and the second coupling-incoupling region includes a second display light coupling-in region; the optical waveguide sheet also includes a first display light outcoupling region and a second display light outcoupling region that are spaced apart, the first display light signal is transmitted from the first display light coupling-in region to the first display light outcoupling region through the optical waveguide sheet and coupled out, and the second display light signal is transmitted from the second display light coupling-in region to the second display light outcoupling region through the optical waveguide sheet and coupled out.

[0009] According to any of the aforementioned embodiments of the utility model, the optical waveguide sheet includes a beam portion extending along the first direction and a first lens portion and a second lens portion connected to the bottom side of the beam portion, the first coupling-in coupling-out region and the second coupling-in coupling-out region are located at opposite ends of the beam portion, the first display light out coupling region is located in the first lens portion, and the second display light out coupling region is located in the second lens portion.

[0010] According to any of the aforementioned embodiments of the utility model, the smart glasses also include: a first communication processing module and a second communication processing module, the first communication processing module is electrically connected between the first controller and the first photoelectric conversion module, the second communication processing module is electrically connected to the second photoelectric conversion module, the first communication processing module can encode the first control signal generated by the first controller and send it to the first photoelectric conversion module, the first photoelectric conversion module can convert the encoded first control signal into the communication light signal, the second photoelectric conversion module can convert the communication light signal into a second control signal corresponding to the first control signal, and the second communication processing module can decode the second control signal.

[0011] According to any of the foregoing embodiments of the utility model, the smart glasses also include: a first speaker and a second speaker, the first speaker is arranged on the first temple and electrically connected to the first controller, and the second speaker is arranged on the second temple and electrically connected to the second communication processing module.

[0012] According to any of the foregoing embodiments of the present utility model, the first controller can control the first optical machine to generate the first display light signal, the second optical machine is electrically connected to the second communication processing module, and the second optical machine can generate the second display light signal based on the decoded second control signal.

[0013] According to any of the aforementioned embodiments of the present utility model, at least one of the first communication processing module and the second communication processing module is a coding and decoding chip; or at least one of the first communication processing module and the second communication processing module is a second controller.

[0014] According to any of the aforementioned embodiments of the present utility model, the smart glasses further include: a functional module, which is arranged on the second temple and is electrically connected to the second communication processing module.

[0015] According to the smart glasses of the embodiment of the utility model, it includes an optical waveguide sheet, a first optical conversion component, a second optical conversion component, a first temple, a second temple and a first controller. The optical waveguide sheet is provided with a first coupling-in coupling-out region and a second coupling-in coupling-out region at two opposite ends along the first direction, the first optical conversion component is arranged relative to the first coupling-in coupling-out region, and the second optical conversion component is arranged relative to the second coupling-in coupling-out region. The first photoelectric conversion module and the second photoelectric conversion module can respectively convert communication electrical signals and communication optical signals into each other, and communicate and connect with each other in the form of communication optical signals through the optical waveguide sheet. Therefore, the electronic components in the first temple and the electronic components in the second temple can communicate through the first photoelectric conversion module, the optical waveguide sheet and the second photoelectric conversion module, and the communication mode is carried out in the form of optical signals propagating in the optical waveguide sheet, thereby reducing the number of electrical connection lines required between the first temple and the second temple, and there is no need to set a complex wiring structure between the first temple and the second temple, which can reduce the overall weight of the smart glasses, and also facilitate reducing the volume occupied by the optical waveguide sheet, thereby facilitating the lightweighting of the smart glasses. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art are briefly introduced below.

[0017] Figure 1 This is a schematic diagram of the structure of an embodiment of the smart glasses of the present utility model;

[0018] Figure 2 This is a top exploded schematic diagram of an embodiment of the smart glasses of the present utility model;

[0019] Figure 3 A communication structure diagram of a communication method of an embodiment of the smart glasses of the utility model;

[0020] Figure 4 A schematic diagram of a communication structure of another communication method of an embodiment of the smart glasses of the utility model;

[0021] Figure 5 It is a top exploded schematic diagram of an alternative embodiment of the smart glasses of the present utility model;

[0022] Figure 6 Schematic diagram of the communication structure of an alternative embodiment of the smart glasses of the present invention.

[0023] Description of reference numerals:

[0024] 100-optical waveguide; 110-crossbeam; 120-first lens; 130-second lens; A1-first coupling-in and coupling-out area; A11-first communication light coupling-in area; A12-first communication light coupling-out area; A13-first display light coupling-in area; A2-second coupling-in and coupling-out area; A21-second communication light coupling-in area; A22-second communication light coupling-out area; A23-second display light coupling-in area; B1-first display light coupling-out area; B2-second display light coupling-out area;

[0025] 210 - first optical conversion component; 211 - first optical engine; 212 - first photoelectric conversion module;

[0026] 220 - second optical conversion component; 221 - second optical engine; 222 - second photoelectric conversion module;

[0027] 310-first temple; 320-second temple;

[0028] 410-first controller; 420-second controller;

[0029] 510-a first encoding and decoding chip; 520-a second encoding and decoding chip;

[0030] 610-first speaker; 620-second speaker;

[0031] 700- Functional module;

[0032] 800-Hinge;

[0033] 900-battery;

[0034] X - first direction. DETAILED DESCRIPTION

[0035] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments of the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0036] In the present utility model, the descriptions of "first", "second", etc. are only used for descriptive purposes and cannot be understood as indicating or implying their relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" and "second" may explicitly or implicitly include at least one of the features. In addition, the technical solutions between the various embodiments can be combined with each other, but they must be based on the ability of ordinary technicians in the field to implement them. When the combination of technical solutions is contradictory or cannot be implemented, it should be deemed that such a combination of technical solutions does not exist and is not within the scope of protection required by the present utility model.

[0037] An embodiment of the utility model provides a pair of smart glasses, which may be, for example, augmented reality (AR) glasses. In some other embodiments, the smart glasses may also be virtual reality (VR) glasses or other head-mounted display devices with a glasses-like appearance.

[0038] Figure 1 This is a front view schematic diagram of an embodiment of the smart glasses of the utility model. Figure 2 The figure is a top exploded schematic diagram of an embodiment of the smart glasses of the utility model. The smart glasses include an optical waveguide sheet 100, a first optical conversion component 210, a second optical conversion component 220, a first temple 310, a second temple 320, and a first controller 410. The optical waveguide sheet 100 is provided with a first in-coupling and out-coupling area A1 and a second in-coupling and out-coupling area A2 at two opposite ends along the first direction X.

[0039] The first optical conversion component 210 is arranged opposite to the first coupling-in-coupling area A1, and the second optical conversion component 220 is arranged opposite to the second coupling-in-coupling area A2. The first optical conversion component 210 includes a first optical engine 211 and a first photoelectric conversion module 212. The second optical conversion component 220 includes a second optical engine 221 and a second photoelectric conversion module 222 that are connected to each other for communication. The first optical engine 211 can generate a first display light signal that is coupled into the first coupling-in-coupling area A1. The second optical engine 221 can generate a second display light signal that is coupled into the second coupling-in-coupling area A2. The first photoelectric conversion module 212 and the second photoelectric conversion module 222 can respectively convert communication electrical signals into communication optical signals, and are connected to each other for communication through the optical waveguide sheet 100 in the form of communication optical signals.

[0040] The first temple 310 is connected to the first optical conversion assembly 210, and the second temple 320 is connected to the second optical conversion assembly 220. The first controller 410 is disposed in the first temple 310, and the first controller 410 is in communication with the first optical engine 211 and the first photoelectric conversion module 212.

[0041] According to the smart glasses of the embodiment of the utility model, it includes an optical waveguide sheet 100, a first optical conversion component 210, a second optical conversion component 220, a first temple 310, a second temple 320 and a first controller 410. The optical waveguide sheet 100 is provided with a first coupling-in-coupling area A1 and a second coupling-in-coupling area A2 at two opposite ends along the first direction X. The first optical conversion component 210 is arranged opposite to the first coupling-in-coupling area A1, and the second optical conversion component 220 is arranged opposite to the second coupling-in-coupling area A2. The first photoelectric conversion module 212 and the second photoelectric conversion module 222 can respectively convert communication electrical signals into communication optical signals, and are connected to each other in communication through the optical waveguide sheet 100 in the form of communication optical signals. Therefore, the electronic components in the first temple 310 and the electronic components in the second temple 320 can communicate through the first photoelectric conversion module 212, the optical waveguide sheet 100 and the second photoelectric conversion module 222, and the communication is carried out in the form of an optical signal propagated in the optical waveguide sheet 100, thereby reducing the number of electrical connection lines required between the first temple 310 and the second temple 320, and eliminating the need to set up a complex wiring structure between the first temple 310 and the second temple 320, thereby reducing the overall weight of the smart glasses and facilitating reducing the volume occupied by the optical waveguide sheet 100, thereby facilitating the lightweighting of the smart glasses.

[0042] In the above embodiment, there is no need to set a complex wiring structure in the optical waveguide sheet 100, and the design freedom of the appearance of the smart glasses is higher. Since the optical waveguide sheet 100 is used to achieve communication, the high-speed signal can be wired very short, so that the electromagnetic interference (EMI) of the smart glasses can be well controlled.

[0043] In some embodiments, the first incoupling / outcoupling region A1 and the second incoupling / outcoupling region A2 are grating structures.

[0044] In some embodiments, the first photoelectric conversion module 212 and the second photoelectric conversion module 222 both include a light emitting device and a photoelectric sensor. The light emitting device is used to convert a communication electrical signal into a communication optical signal, and the communication optical signal is non-visible light. The photoelectric sensor is used to convert the communication optical signal into a communication electrical signal. In one example, the light emitting device is an infrared light emitter, such as an infrared laser diode; and the photoelectric sensor is an infrared sensor.

[0045] In this embodiment, the main communication medium used to realize the electronic components in the first temple 310 and the electronic components in the second temple 320 is invisible light, thereby ensuring that the communication optical signal will not affect the display effect of the visible light display when it is transmitted in the waveguide.

[0046] In some embodiments, the first coupling-incoupling area A1 includes a first communication light coupling-in area A11 and a first communication light coupling-out area A12 which are sequentially arranged corresponding to the light emitting device and the photoelectric sensor of the first photoelectric conversion module 212; the second coupling-incoupling area A2 includes a second communication light coupling-in area A21 and a second communication light coupling-out area A22 which are sequentially arranged corresponding to the light emitting device and the photoelectric sensor of the second photoelectric conversion module 222.

[0047] In some embodiments, the first communication light in-coupling region A11 and the second communication light in-coupling region A21 are grating in-coupling structures; the first communication light out-coupling region A12 and the second communication light out-coupling region A22 are grating out-coupling structures.

[0048] In some embodiments, the first coupling-in-outcoupling region A1 includes a first display light coupling-in region A13, and the second coupling-in-outcoupling region A2 includes a second display light coupling-in region A23. In some embodiments, the optical waveguide sheet 100 further includes a first display light outcoupling region B1 and a second display light outcoupling region B2 that are spaced apart. The first display light signal is transmitted from the first display light coupling-in region A13 to the first display light outcoupling region B1 through the optical waveguide sheet 100 and coupled out, and the second display light signal is transmitted from the second display light coupling-in region A23 to the second display light outcoupling region B2 through the optical waveguide sheet 100 and coupled out.

[0049] In this embodiment, in the first coupling-incoupling area A1, the first communication light coupling-in area A11 and the first communication light outcoupling area A12 are located on the outer peripheral side of the first display light coupling-in area A13, and in the second coupling-incoupling area A2, the second communication light coupling-in area A21 and the second communication light outcoupling area A22 are located on the outer peripheral side of the second display light coupling-in area A23.

[0050] In some embodiments, the first display light in-coupling region A13 and the second display light in-coupling region A23 are grating in-coupling structures; the first display light out-coupling region B1 and the second display light out-coupling region B2 are grating out-coupling structures.

[0051] In this embodiment, the optical waveguide sheet 100 is a one-piece optical waveguide sheet 100 , and the main material of the optical waveguide sheet 100 is glass or resin.

[0052] like Figure 1In some embodiments, the optical waveguide sheet 100 includes a beam portion 110 extending along a first direction X and a first lens portion 120 and a second lens portion 130 connected to the bottom side of the beam portion 110. The first coupling-in-coupling area A1 and the second coupling-in-coupling area A2 are located at opposite ends of the beam portion 110. The first display light outcoupling area B1 is located in the first lens portion 120, and the second display light outcoupling area B2 is located in the second lens portion 130. In this embodiment, when the smart glasses are in a normal wearing state, the first direction X is horizontal, that is, the first direction X is a horizontal direction. By setting the beam portion 110, it is ensured that there is an optical waveguide structure on the connecting line of the first coupling-in-coupling area A1 and the second coupling-in-coupling area A2, so as to ensure that the communication optical signal can be transmitted on the beam portion 110.

[0053] In this embodiment, the first light conversion component 210 and the second light conversion component 220 are fixedly connected to the optical waveguide sheet 100 , and the first temple 310 and the first light conversion component 210 , and the second temple 320 and the second light conversion component 220 are rotatably connected via the hinge 800 .

[0054] In some embodiments, the smart glasses further include a battery 900. The battery 900 is disposed inside at least one of the first temple 310 and the second temple 320. Figure 1 In this embodiment, a battery 900 is disposed in the second temple 320 .

[0055] In some embodiments, the smart glasses further include a first communication processing module and a second communication processing module. The first communication processing module is electrically connected between the first controller 410 and the first photoelectric conversion module 212 , and the second communication processing module is electrically connected to the second photoelectric conversion module 222 .

[0056] Figure 3 This is a schematic diagram of a communication structure of a communication method of an embodiment of the smart glasses of the utility model. Figure 4 The communication structure diagram of another communication method of an embodiment of the smart glasses of the utility model is as follows. The first communication processing module can encode the first control signal generated by the first controller 410 and send it to the first photoelectric conversion module 212, the first photoelectric conversion module 212 can convert the encoded first control signal into a communication optical signal, the second photoelectric conversion module 222 can convert the communication optical signal into a second control signal corresponding to the first control signal, and the second communication processing module can decode the second control signal.

[0057] At least one of the first communication processing module and the second communication processing module is a coding and decoding chip; or at least one of the first communication processing module and the second communication processing module is a second controller.

[0058] In this embodiment, the first communication processing module is a first encoding and decoding chip 510 disposed at the first optical conversion component 210 , and the second communication processing module is a second encoding and decoding chip 520 disposed at the second optical conversion component 220 .

[0059] In some embodiments, the first controller 410 can control the first optical engine 211 to generate a first display light signal, the second optical engine 221 is electrically connected to the second communication processing module, and the second optical engine 221 can generate a second display light signal based on the decoded second control signal.

[0060] like Figure 3 In one communication mode, the control of the display light is a dual-channel output signal control. The first controller 410 generates a first display light control signal and a second display light control signal. The first display light control signal is sent to the first optical machine 211 to control the first optical machine 211 to generate a first display light signal coupled into the first coupling-in-coupling area A1. The second display light control signal, as a part of the first control signal (communication electrical signal), is encoded by the first encoding and decoding chip 510 and sent to the first photoelectric conversion module 212. The first photoelectric conversion module 212 can convert the encoded first control signal into a communication light signal. The second photoelectric conversion module 222 can convert the communication light signal into a second control signal corresponding to the first control signal. The second encoding and decoding chip 520 can decode the second control signal. The decoded second control signal includes the above-mentioned second display light control signal. The second display light control signal controls the second optical machine 221 to generate a second display light signal coupled into the second coupling-in-coupling area A2.

[0061] like Figure 4 In another communication mode, the control of the display light is a single-channel output signal control. The first controller 410 generates a display light control signal. The display light control signal is sent to the first optical machine 211 on the one hand to control the first optical machine 211 to generate a first display light signal coupled into the first coupling-in-coupling area A1. On the other hand, as a part of the first control signal (communication electrical signal), the display light control signal is encoded by the first encoding and decoding chip 510 and sent to the first photoelectric conversion module 212. The first photoelectric conversion module 212 can convert the encoded first control signal into a communication light signal. The second photoelectric conversion module 222 can convert the communication light signal into a second control signal corresponding to the first control signal. The second encoding and decoding chip 520 can decode the second control signal. The decoded second control signal includes the above-mentioned display light control signal. The display light control signal also controls the second optical machine 221 to generate a second display light signal coupled into the second coupling-in-coupling area A2.

[0062] In some embodiments, the smart glasses further include a first speaker 610 and a second speaker 620. The first speaker 610 is disposed on the first temple 310 and electrically connected to the first controller 410, and the second speaker 620 is disposed on the second temple 320 and electrically connected to the second communication processing module.

[0063] In some embodiments, the smart glasses further include a functional module 700, which is disposed on the second temple 320 and electrically connected to the second communication processing module. The functional module 700 is a module having other functions except the speaker function and the optical machine function. In one example, the functional module 700 is a microphone module disposed on the second temple 320; in another example, the functional module 700 is a gyroscope module disposed on the second temple 320. The functional module 700 can be communicatively connected to the first controller 410 through the second communication processing module, the second optical conversion component 220, the optical waveguide sheet 100, the first optical conversion component 210, and the first communication processing module.

[0064] In the above embodiment, the first communication processing module is a first encoding and decoding chip 510 disposed at the first optical conversion component 210, and the second communication processing module is a second encoding and decoding chip 520 disposed at the second optical conversion component 220. In some other embodiments, at least one of the first communication processing module and the second communication processing module is a second controller.

[0065] Figure 5 The figure is a top exploded schematic diagram of an alternative embodiment of the smart glasses of the utility model. In the alternative embodiment, the first communication processing module is a first encoding and decoding chip 510 disposed at the first optical conversion component 210 , and the second communication processing module is a second controller 420 disposed at the second optical conversion component 220 .

[0066] Figure 6 The communication structure diagram of an alternative embodiment of the smart glasses of the utility model. The first controller 410 generates a first display light control signal and a second display light control signal. The first display light control signal is sent to the first optical machine 211 to control the first optical machine 211 to generate a first display light signal coupled into the first coupling-in-coupling-outcoupling area A1. The second display light control signal, as a part of the first control signal (communication electrical signal), is encoded by the first encoding and decoding chip 510 and sent to the first photoelectric conversion module 212. The first photoelectric conversion module 212 can convert the encoded first control signal into a communication light signal. The second photoelectric conversion module 222 can convert the communication light signal into a second control signal corresponding to the first control signal. The second controller 420 can decode the second control signal. The decoded second control signal includes the above-mentioned second display light control signal. The second display light control signal controls the second optical machine 221 to generate a second display light signal coupled into the second coupling-in-coupling-outcoupling area A2.

[0067] According to the smart glasses of the embodiment of the utility model, the electronic components in the first temple 310 and the electronic components in the second temple 320 can communicate through the first photoelectric conversion module 212, the optical waveguide sheet 100 and the second photoelectric conversion module 222, and the communication method is in the form of an optical signal propagated in the optical waveguide sheet 100, thereby reducing the number of electrical connection lines required between the first temple 310 and the second temple 320, and there is no need to set up a complex wiring structure between the first temple 310 and the second temple 320, which can reduce the overall weight of the smart glasses and facilitate reducing the volume occupied by the optical waveguide sheet 100, thereby facilitating the lightweighting of the smart glasses.

[0068] The above description is only a preferred embodiment of the present invention, and does not limit the patent scope of the present invention. All equivalent structural changes made by using the contents of the present invention specification and drawings under the concept of the present invention, or directly / indirectly applied in other related technical fields are included in the patent protection scope of the present invention.

Claims

1. A pair of smart glasses, characterized in that: include: An optical waveguide sheet, wherein two opposite ends of the optical waveguide sheet along a first direction are provided with a first coupling-in / out coupling region and a second coupling-in / out coupling region; a first optical conversion component and a second optical conversion component, wherein the first optical conversion component is arranged opposite to the first incoupling / outcoupling region, and the second optical conversion component is arranged opposite to the second incoupling / outcoupling region, the first optical conversion component comprises a first optical engine and a first photoelectric conversion module, and the second optical conversion component comprises a second optical engine and a second photoelectric conversion module that are communicatively connected to each other, the first optical engine can generate a first display optical signal that is coupled to the first incoupling / outcoupling region, and the second optical engine can generate a second display optical signal that is coupled to the second incoupling / outcoupling region, the first photoelectric conversion module and the second photoelectric conversion module can respectively convert communication electrical signals into communication optical signals, and are communicatively connected to each other in the form of the communication optical signals through the optical waveguide sheet; A first temple and a second temple, wherein the first temple is connected to the first light conversion component, and the second temple is connected to the second light conversion component; The first controller is arranged in the first temple, and the first controller is communicatively connected with the first optical machine and the first photoelectric conversion module.

2. The smart glasses according to claim 1, wherein: The first photoelectric conversion module and the second photoelectric conversion module both include a light emitting device and a photoelectric sensor. The light emitting device is used to convert the communication electrical signal into the communication optical signal, and the communication optical signal is non-visible light. The photoelectric sensor is used to convert the communication optical signal into the communication electrical signal.

3. The smart glasses according to claim 2, wherein: The first coupling-incoupling zone includes a first communication light coupling-in zone and a first communication light coupling-out zone which are sequentially arranged corresponding to the light emitting device and the photoelectric sensor of the first photoelectric conversion module; the second coupling-incoupling zone includes a second communication light coupling-in zone and a second communication light coupling-out zone which are sequentially arranged corresponding to the light emitting device and the photoelectric sensor of the second photoelectric conversion module.

4. The smart glasses according to claim 1, wherein: The first incoupling / outcoupling region includes a first display light incoupling region, and the second incoupling / outcoupling region includes a second display light incoupling region; The optical waveguide sheet also includes a first display light out-coupling area and a second display light out-coupling area that are spaced apart. The first display light signal is transmitted from the first display light in-coupling area to the first display light out-coupling area through the optical waveguide sheet and coupled out. The second display light signal is transmitted from the second display light in-coupling area to the second display light out-coupling area through the optical waveguide sheet and coupled out.

5. The smart glasses according to claim 4, wherein: The optical waveguide sheet includes a beam portion extending along the first direction and a first lens portion and a second lens portion connected to the bottom side of the beam portion, the first coupling-in coupling-out region and the second coupling-in coupling-out region are located at opposite ends of the beam portion, the first display light out coupling region is located in the first lens portion, and the second display light out coupling region is located in the second lens portion.

6. The smart glasses according to claim 1, wherein: Also includes: a first communication processing module and a second communication processing module, wherein the first communication processing module is electrically connected between the first controller and the first photoelectric conversion module, and the second communication processing module is electrically connected to the second photoelectric conversion module, The first communication processing module can encode the first control signal generated by the first controller and send it to the first photoelectric conversion module, the first photoelectric conversion module can convert the encoded first control signal into the communication optical signal, the second photoelectric conversion module can convert the communication optical signal into a second control signal corresponding to the first control signal, and the second communication processing module can decode the second control signal.

7. The smart glasses according to claim 6, wherein: Also includes: A first speaker and a second speaker, wherein the first speaker is disposed on the first temple and electrically connected to the first controller, and the second speaker is disposed on the second temple and electrically connected to the second communication processing module.

8. The smart glasses according to claim 6, wherein: The first controller can control the first optical engine to generate the first display light signal. The second optical engine is electrically connected to the second communication processing module. The second optical engine can generate the second display light signal based on the decoded second control signal.

9. The smart glasses according to claim 6, wherein: At least one of the first communication processing module and the second communication processing module is a coding and decoding chip; or At least one of the first communication processing module and the second communication processing module is a second controller.

10. The smart glasses according to claim 6, wherein: Also includes: The functional module is arranged on the second temple and is electrically connected to the second communication processing module.

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