CN112310653B

CN112310653B - Electronic equipment

Info

Publication number: CN112310653B
Application number: CN201910703926.XA
Authority: CN
Inventors: 贾玉虎
Original assignee: Guangdong Oppo Mobile Telecommunications Corp Ltd
Current assignee: Guangdong Oppo Mobile Telecommunications Corp Ltd
Priority date: 2019-07-31
Filing date: 2019-07-31
Publication date: 2023-04-25
Anticipated expiration: 2039-07-31
Also published as: CN112310653A

Abstract

The embodiment of the application provides electronic equipment. The electronic equipment comprises a frame, a backboard, an antenna module and a reflecting piece, wherein the frame is made of shielding materials, and the backboard comprises a non-shielding part; the antenna module comprises a radiation surface, wherein the radiation surface is provided with a first radiator, and the first radiator is used for receiving and transmitting radio frequency signals of a preset frequency band; the reflecting piece comprises a reflecting surface with a preset included angle with the radiation surface, and the reflecting surface is used for reflecting the first radio frequency signal emitted by the first radiator towards one side of the non-shielding part, so that the reflected radio frequency signal is radiated to free space through the non-shielding part; the reflecting surface is also used for reflecting the radio frequency signals radiated to the reflecting surface towards the radiating surface. The electronic equipment provided by the embodiment of the application can change the radiation direction of the antenna module, so that the quality of the radio frequency signals received and transmitted by the antenna module is improved.

Description

Electronic equipment

Technical Field

The application relates to the field of electronic technology, in particular to electronic equipment.

Background

Millimeter waves have the characteristics of high carrier frequency and large bandwidth, and are a main means for realizing 5G ultra-high data transmission rate. Millimeter wave antennas are sensitive to the environment, particularly to metal materials, and can interfere with signal transmission of the antenna array, so that the radiation efficiency of the antenna array is reduced.

Disclosure of Invention

The embodiment of the application provides electronic equipment, which can improve the quality of radio frequency signals received and transmitted by an antenna module in the electronic equipment.

An embodiment of the present application provides an electronic device, including:

the frame is made of shielding materials;

the backboard is covered on the frame, an accommodating space is formed by surrounding the backboard and the frame, and the backboard comprises a non-shielding part;

the antenna module is positioned in the accommodating space and comprises a radiation surface, wherein the radiation surface is provided with a first radiator, and the first radiator is used for receiving and transmitting radio frequency signals of a preset frequency band; a kind of electronic device with high-pressure air-conditioning system

The reflecting piece is positioned in the radiation direction range of the first radiator and comprises a reflecting surface with a preset included angle with the radiation surface, and the reflecting surface is used for reflecting the first radio frequency signal emitted by the first radiator towards one side of the non-shielding part so that the radio frequency signal with the preset frequency band after reflection is radiated to a free space through the non-shielding part; the reflecting surface is also used for reflecting the radio frequency signals of the preset frequency band which are radiated to the reflecting surface from the free space through the non-shielding part towards the radiating surface.

According to the electronic equipment provided by the embodiment of the application, the reflecting piece is arranged in the radiation direction range of the radio frequency signals of the preset frequency band transmitted by the first radiator, the radio frequency signals of the preset frequency band transmitted by the first radiator are reflected towards one side of the non-shielding part of the backboard through the reflecting surface of the reflecting piece, the radio frequency signals of the preset frequency band penetrate through the non-shielding part to radiate to the free space, and the reflecting surface of the reflecting piece can reflect the radio frequency signals of the preset frequency band transmitted by the free space through the non-shielding part of the backboard towards the radiating surface, so that the quality of the radio frequency signals of the preset frequency band transmitted by the antenna module is improved.

The embodiment of the application also provides electronic equipment, which comprises a frame, a back plate, an antenna module and a reflecting piece, wherein the frame is arranged on the periphery of the back plate in a surrounding mode, the frame is made of shielding materials, the back plate comprises a non-shielding part, the antenna module comprises a first radiation surface, the first radiation surface is provided with a first radiator, the first radiator is used for receiving and transmitting radio frequency signals of a preset frequency band, the frame is located in the radiation direction range of the first radiator, the reflecting piece comprises a reflecting surface which forms a preset included angle with the first radiation surface, and the reflecting surface is used for reflecting radio frequency signals of the preset frequency band emitted by the first radiator, so that the reflected radio frequency signals of the preset frequency band are radiated to free space through the non-shielding part; the reflection surface is also used for reflecting the radio frequency signals of the preset frequency band which penetrate through the non-shielding part from the free space towards the first radiation surface.

Drawings

In order to more clearly illustrate the technical solutions of the embodiments of the present application, the drawings that are needed in the embodiments will be briefly described below, and it is obvious that the drawings in the following description are some embodiments of the present application, and other drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.

Fig. 1 is a schematic structural diagram of an electronic device according to an embodiment of the present application;

FIG. 2 isbase:Sub>A schematic structural view of an A-A cross-section of the electronic device provided in FIG. 1;

FIG. 3 is a schematic diagram of a reflector reflecting RF signals emitted by an antenna module;

FIG. 4 isbase:Sub>A schematic structural view of another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 5 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 6 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 7 isbase:Sub>A schematic structural diagram of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 8 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 9 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 10 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 11 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 12 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 13 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 14 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 15 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 16 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

FIG. 17 isbase:Sub>A schematic structural view of yet another A-A cross-sectional view of the electronic device provided in FIG. 1;

fig. 18 isbase:Sub>A schematic structural view of still anotherbase:Sub>A-base:Sub>A cross-sectional view of the electronic device provided in fig. 1.

Detailed Description

The following description of the embodiments of the present application will be made clearly and fully with reference to the accompanying drawings, in which it is evident that the embodiments described are only some, but not all, of the embodiments of the present application. All other embodiments, which can be made by one of ordinary skill in the art without undue burden from the inventor based on the embodiments herein, are within the scope of the protection of the present application.

Referring to fig. 1, fig. 2 and fig. 3 together, the electronic device 10 provided in the embodiment of the present application includes a frame 100, a backplate 200, an antenna module 300 and a reflector 400, wherein the frame 100 is made of a shielding material, the backplate 200 covers the frame 100, and an accommodating space S is defined by the backplate 200 and the frame 100, and the backplate 200 includes a non-shielding portion 210; the antenna module 300 is located in the accommodating space S, the antenna module 300 includes a radiating surface 300a, the radiating surface 300a is provided with a first radiator 310, and the first radiator 310 is used for receiving and transmitting radio frequency signals in a preset frequency band; the reflecting member 400 is located in the radiation direction range of the first radiator 310, the reflecting member 400 includes a reflecting surface 400a having a preset included angle with the radiation surface 300a, and the reflecting surface 400a is configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 toward one side of the non-shielding portion 210, so that the reflected radio frequency signal of the preset frequency band is radiated to a free space through the non-shielding portion 210; the reflecting surface 400a is further configured to reflect the radio frequency signal of the preset frequency band radiated from the free space through the non-shielding portion 210 to the reflecting surface 400a toward the radiating surface 300 a.

The electronic device 10 may be any device having communication functions. For example: tablet personal computers, mobile phones, electronic readers, remote controllers, personal computers (Personal Computer, PCs), notebook computers, vehicle-mounted devices, network televisions, wearable devices and other intelligent devices with communication functions.

The preset frequency band at least comprises a 3GPP millimeter wave full frequency band. The antenna module 300 may include one antenna radiator or an antenna array formed by a plurality of antenna radiators. The antenna module 300 may be a 1×2 antenna array, a 2×2 antenna array, a 2×4 antenna array, or a 4×4 antenna array. When the antenna module 300 includes a plurality of antenna radiators, the plurality of antenna radiators can operate in the same frequency band. The plurality of antenna radiators can also operate in different frequency bands, which is helpful for expanding the frequency band range of the antenna module 300.

The frame 100 and the backplate 200 are two mutually independent structures, the frame 100 is a shielding material, specifically, the frame 100 may be a metal material, the frame 100 has a shielding effect on a radio frequency signal of a preset frequency band, the radio frequency signal of the preset frequency band cannot penetrate the frame 100, a part or a whole of the backplate 200 is an unshielded material, that is, the local structure of the backplate 200 is an unshielded part 210, at this time, other structures of the backplate 200 except the unshielded part 210 may be shielding materials, or the whole backplate 200 is an unshielded part 210, and the unshielded part 210 of the backplate 200 may be penetrated by the radio frequency signal of the preset frequency band. The backplate 200 and the frame 100 enclose a housing space S, and the antenna module 300 is located in the housing space S.

In an embodiment, the reflecting member 400 is located in a radiation direction range of the antenna module 300 for receiving and transmitting the radio frequency signal of the preset frequency band, when the first radiator 310 emits the radio frequency signal in a direction of the reflecting surface 400a, the reflecting surface 400a can reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 toward one side of the non-shielding portion 210 of the backplate 200, and the radio frequency signal of the preset frequency band after being reflected is radiated to the free space through the non-shielding portion 210 of the backplate 200. In addition, when the radio frequency signal of the preset frequency band is transmitted from the non-shielding portion 210 of the free space penetrating back plate 200 toward the reflecting surface 400a, the reflecting surface 400a may reflect the radio frequency signal of the preset frequency band penetrating from the free space penetrating the non-shielding portion 210 toward the radiating surface 300 a. Wherein the position of the reflecting member 400 within the radiation direction range of the first radiator 310 means that the position of the reflecting member 400 spatially overlaps with the radiation direction of the radio frequency signal radiated by the first radiator 310. The free space may be considered as a radiation space where radio frequency signals are not blocked, e.g., a space on a side of the backplate 200 facing away from the antenna module 300.

In another embodiment, the reflecting member 400 and the frame 100 are both located in a radiation direction range of the radio frequency signal of the preset frequency band transmitted by the first radiator 310, and the reflecting member 400 is located between the frame 100 and the antenna module 300, when the radio frequency signal of the preset frequency band is transmitted by the first radiator 310 towards the frame 100, the reflecting surface 400a can reflect the radio frequency signal transmitted by the first radiator 310 towards one side of the non-shielding portion 210 of the backplate 200, and the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200. In addition, when the radio frequency signal of the preset frequency band is transmitted from the free space through the non-shielding portion 210 of the backplate 200 toward the reflective surface 400a, the reflective surface 400a may reflect the radio frequency signal of the preset frequency band radiated from the free space to the non-shielding portion 210 toward the first radiator 310.

In still another embodiment, the reflecting member 400 and the frame 100 are both located in a radiation direction range of the radio frequency signal of the preset frequency band transmitted by the first radiator 310, when the radio frequency signal is transmitted by the first radiator 310 in a direction of the frame 100 and/or the reflecting surface 400a, the radio frequency signal of the preset frequency band transmitted by the first radiator 310 can be reflected by the frame 100 and/or the reflecting surface 400a toward one side of the non-shielding portion 210 of the backplate 200, and one or more times of mutual reflection can be performed between the frame 100 and the reflecting surface 400a, so that the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200. In addition, when the radio frequency signal of the preset frequency band is transmitted from the non-shielding portion 210 of the free space penetrating back plate 200 toward the reflecting surface 400a, the reflecting member 400 may reflect the radio frequency signal of the preset frequency band penetrating from the free space penetrating the non-shielding portion 210 toward the radiating surface 300 a.

In the electronic device 10 provided in this embodiment, the reflection member 400 is disposed in the radiation direction range of the radio frequency signal of the preset frequency band transmitted by the antenna module 300, the radio frequency signal of the preset frequency band transmitted by the first radiator 310 is reflected towards one side of the non-shielding portion 210 of the backplate 200 by the reflection surface 400a of the reflection member 400, so that the radio frequency signal of the preset frequency band penetrates through the non-shielding portion 210 to radiate to free space, and the reflection surface 400a can reflect the radio frequency signal of the preset frequency band penetrating through the non-shielding portion 210 of the backplate 200 from the free space towards the radiation surface 300a, thereby improving the quality of the radio frequency signal transmitted by the antenna module 300.

In one embodiment, when the radiation direction of the first radiator 310 is toward a side facing away from the bezel 100, the reflector 400 is located at a side of the first radiator 310 facing away from the bezel 100.

Specifically, the frame 100 deviates from the radiation direction of the antenna module 300, the reflecting member 400 is located in the radiation direction range of the antenna module 300, and when the radio frequency signal emitted by the antenna module 300 is transmitted toward the reflecting member 400, the reflecting member 400 may reflect the radio frequency signal from the antenna module 300, so that the reflected radio frequency signal is transmitted toward the non-shielding portion 210 of the backplate 200 and penetrates the non-shielding portion 210. Because the direction of the radio frequency signal radiated by the antenna module 300 deviates from the frame 100, the diffuse reflection of the radio frequency signal radiated by the antenna module 300 by the frame 100 can be avoided, and thus the problem of reducing the radiation quality of the antenna module 300 can be avoided.

With continued reference to fig. 4, in one embodiment, the radiation direction of the first radiator 310 faces to a side away from the frame 100, and the first radiator 310 is fixed to the frame 100, and the frame 100 is configured to transfer heat of the first radiator 310 to the outside of the accommodating space S.

Specifically, the radiation direction of the radio frequency signal of the first radiator 310 for receiving and transmitting the radio frequency signal of the preset frequency band is away from the frame 100, the antenna module 300 is fixed on the frame 100, the first radiator 310 radiates the radio frequency signal towards the inside of the accommodating space S, and the heat generated during the operation of the first radiator 310 can be transferred to the outside of the accommodating space S through the frame 100, so that the heat dissipation effect on the first radiator 310 is achieved.

With continued reference to fig. 5, the reflecting surface 400a is configured to reflect the radio frequency signal in the preset frequency band emitted by the first radiator 310 toward the side of the non-shielding portion 210 of the backplate 200, and when the reflecting surface 400a is a plane and the side surface of the bezel 100 is perpendicular to the plane of the backplate 200, the acute angle degree of the dihedral angle formed between the plane of the reflecting surface 400a and the side surface of the bezel 100 is 45 degrees, and the acute angle degree of the dihedral angle formed between the plane of the reflecting surface 400a and the plane of the backplate 200 is also 45 degrees.

With continued reference to fig. 6, in another embodiment, when the radiation direction of the first radiator 310 is toward one side of the frame 100, the reflector 400 is located between the antenna module 300 and the frame 100.

Specifically, the reflecting member 400 is located between the antenna module 300 and the frame 100, the reflecting member 400 is located in a radiation direction range of the first radiator 310 for receiving and transmitting radio frequency signals in a preset frequency band, and at least part of the frame 100 is located in a radiation direction range of the first radiator 310 for receiving and transmitting radio frequency signals in the preset frequency band. In one embodiment, when the first radiator 310 radiates the radio frequency signal of the preset frequency band toward the reflector 400 and the frame 100, the reflector 400 can reflect the radio frequency signal of the preset frequency band radiated by the first radiator 310 toward the non-shielding portion 210 of the backplate 200, so that the radio frequency signal of the preset frequency band after being reflected radiates to the free space through the non-shielding portion 210 of the backplate 200. At this time, most of the radio frequency signals in the predetermined frequency band are reflected to the non-shielding portion 210 of the backplate 200 via the reflection surface 400a, which is helpful for improving the radiation quality of the antenna module 300.

With continued reference to fig. 7, in another embodiment, the reflecting surface 400a is configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 toward one side of the frame 100, and the frame 100 is configured to reflect the radio frequency signal of the preset frequency band reflected by the reflecting surface 400a toward the non-shielding portion 210.

Specifically, the reflecting member 400 is located in a radiation direction range of the first radiator 310 for receiving and transmitting the radio frequency signal in the preset frequency band, and at least part of the frame 100 is located in the radiation direction range of the first radiator 310 for receiving and transmitting the radio frequency signal in the preset frequency band. When the first radiator 310 radiates the radio frequency signal of the preset frequency band toward the reflector 400, the reflection surface 400a may reflect the radio frequency signal of the preset frequency band radiated by the first radiator 310 toward the frame 100, and then the frame 100 reflects the radio frequency signal of the preset frequency band toward the non-shielding portion 210 of the backplate 200, so that the radio frequency signal of the preset frequency band radiates to the free space through the non-shielding portion 210 of the backplate 200. That is, after the radio frequency signal in the preset frequency band is reflected by the reflecting surface 400a and the frame 100 together, the radio frequency signal radiates to the free space toward the non-shielding portion 210 of the backplate 200, and the number of reflection times of the radio frequency signal in the preset frequency band between the frame 100 and the reflecting member 400 may be one or more. The radio frequency signal with the preset frequency band may be reflected from the first radiator 310 onto the reflecting surface 400a, then reflected to the frame 100 via the reflecting surface 400a, and then reflected from the frame 100 to the non-shielding portion 210 of the backplate 200. The radio frequency signal with the preset frequency band may be reflected from the first radiator 310 to the frame 100, then reflected to the reflecting member 400 via the frame 100, and then reflected to the non-shielding portion 210 of the backplate 200 by the reflecting member 400.

With continued reference to fig. 8, the reflecting surface 400a is configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 toward the side of the non-shielding portion 210 of the backplate 200, where the reflecting surface 400a has a curvature center, and when the reflecting surface 400a is a curved surface, the curvature center faces toward the side of the backplate 200, or the curvature center faces toward the side facing away from the backplate 200.

Specifically, in this embodiment, the reflecting surface 400a of the reflecting member 400 is configured to reflect the radio frequency signal in the preset frequency band. In one embodiment, the reflecting surface 400a is a curved surface, and the curvature center of the reflecting surface 400a faces one side of the backplate 200, that is, the reflecting surface 400a is a concave arc surface, when the radio frequency signal of the preset frequency band emitted by the first radiator 310 is transmitted to the reflecting surface 400a, the concave reflecting surface 400a can reflect the radio frequency signal of the preset frequency band toward one side of the non-shielding portion 210 of the backplate 200, so that the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200. In another embodiment, the reflecting surface 400a is a curved surface, and the curvature center of the reflecting surface 400a faces to a side facing away from the backplate 200, that is, the reflecting surface 400a is an arc surface with a convex shape, when the radio frequency signal of the preset frequency band emitted by the first radiator 310 is transmitted to the reflecting surface 400a, the convex reflecting surface 400a can reflect the radio frequency signal of the preset frequency band toward a side of the non-shielding portion 210 of the backplate 200, so that the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200.

It can be appreciated that in other embodiments, the reflecting surface 400a may be a non-standard curved surface, that is, the reflecting surface 400a does not have a constant curvature center, and the radio frequency signal in the preset frequency band may be reflected on the reflecting surface 400a for multiple times and then radiated to the free space toward the non-shielding portion 210 of the backplate 200.

With continued reference to fig. 9, the reflecting member 400 includes a reflecting body 410 and an isolation coating 420 disposed on the reflecting body 410, wherein at least a portion of the isolation coating forms the reflecting surface 400a, and the isolation coating 420 is configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 toward one side of the non-shielding portion 210.

Specifically, the reflective body 410 forms a bearing substrate, and the isolation coating 420 is carried on the reflective body 410 to reflect the radio frequency signal emitted by the first radiator 310, so that the reflected radio frequency signal is transmitted toward the non-shielding portion 210 of the backplate 200. The isolation coating 420 may be a metal coating, the reflective body 410 may be made of the same material as the isolation coating 420, and the reflective body 410 may be made of a different material from the isolation coating 420.

With continued reference to fig. 10, the electronic device 10 further includes a battery 500 and a battery compartment 510, where the battery 500 is accommodated in the battery compartment 510, the battery 500 and the battery compartment 510 are both located in the accommodating space S, and the battery compartment 510 at least partially forms the reflecting member 400.

Specifically, in one embodiment, the battery compartment 510 at least partially forms the reflecting member 400, that is, the radio frequency signal in the preset frequency band emitted by the first radiator 310 is transmitted in the direction of the battery compartment 510, and is reflected by the battery compartment 510 and then radiated into the free space through the non-shielding portion 210 of the backplate 200. The battery compartment 510 is configured to accommodate the battery 500 on the one hand, and reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 on the other hand, at this time, without additional arrangement of a reflective structure, the reflection effect on the radio frequency signal of the preset frequency band can be achieved by multiplexing the battery compartment 510, so that the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200.

In another embodiment, the electronic device 10 may further include other reflecting structures besides the battery compartment 510, specifically, the electronic device 10 includes the battery compartment 510 and a middle frame for fixing the battery compartment 510, where the battery compartment 510 and the middle frame are both metal structures, and the battery compartment 510 is configured to accommodate the battery 500 on one hand and reflect the radio frequency signal of the preset frequency band of the first radiator 310 on the other hand, and the middle frame forms a supporting frame of the electronic device 10 on the one hand and is configured to reflect the radio frequency signal of the preset frequency band of the first radiator 310 on the other hand. The reflection effect on the radio frequency signals of the preset frequency band can be realized by multiplexing the battery compartment 510 and the middle frame, so that the radio frequency signals of the preset frequency band are transmitted through the non-shielding part 210 of the backboard 200.

With continued reference to fig. 11, the electronic device 10 further includes a main board 550, the main board 550 is located in the accommodating space S, the first radiator 310 is electrically connected to the main board 550, at least a portion of the main board 550 forms the reflector 400, the main board 550 is located at a side of the reflector 400 away from the first radiator 310, and a beam direction of the radio frequency signal transmitted and received by the first radiator 310 is parallel to a plane where the main board 550 is located.

The main board 550 is a circuit board of the electronic device 10, the main board 550 and the back board 200 are disposed at intervals, at least a portion of the main board 550 forms a reflector 400, and the reflector is configured to reflect the radio frequency signal in the preset frequency band emitted by the first radiator 310, so that the radio frequency signal in the preset frequency band after being reflected is radiated to a free space through the non-shielding portion 210; the main board 550 is further configured to reflect the radio frequency signal of the preset frequency band radiated from the free space to the main board 550 through the non-shielding portion 210 toward the radiation surface 300 a. The main board 550 is electrically connected to the first radiator 310, and the first radiator 310 receives and transmits radio frequency signals of a preset frequency band under the control of the main board 550. When the preset frequency band rf signal emitted from the first radiator 310 is transmitted toward the main board 550 or the reflective surface 400a, the preset frequency band rf signal may radiate toward the non-shielding portion 210 of the backplate 200 to free space under the reflection of the main board 550, or the preset frequency band rf signal may radiate toward the non-shielding portion 210 of the backplate 200 to free space under the reflection of the reflective surface 400a, or the preset frequency band rf signal may radiate toward the non-shielding portion 210 of the backplate 200 to free space after one or more mutual reflections of the reflective surface 400a and the main board 550.

With continued reference to fig. 12, the electronic device 10 further includes a screen 600, the screen 600 is disposed at a distance from the backplate 200, the screen 600 is covered on the frame 100, and the reflecting surface 400a is configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 toward a side facing away from the screen 600, so as to avoid coupling of the radio frequency signal of the preset frequency band to the screen 600.

Specifically, the screen 600, the frame 100, and the backplate 200 enclose together to form the accommodating space S, the reflective surface 400a and the first radiator 310 are both located in the accommodating space S, the reflective surface 400a is located in a radiation direction range of the radio frequency signal of the preset frequency band transmitted by the first radiator 310, and when the radio frequency signal of the preset frequency band transmitted by the first radiator 310 is transmitted towards the reflective surface 400a, the reflective surface 400a is used for reflecting the radio frequency signal of the preset frequency band of the first radiator 310 towards one side facing away from the screen 600, and transmitting the radio frequency signal of the preset frequency band towards the non-shielding portion 210 of the backplate 200, so that the radio frequency signal of the preset frequency band can be prevented from being coupled to the screen 600, and interference caused by the radio frequency signal of the preset frequency band to normal display of the screen 600 is avoided.

With continued reference to fig. 13, the electronic device 10 includes a frame 100, a back plate 200, an antenna module 300, and a reflector 400, where the frame 100 is enclosed on a periphery of the back plate 200, the frame 100 is made of a shielding material, the back plate 200 includes a non-shielding portion 210, the antenna module 300 includes a first radiation surface 310a, the first radiation surface 310a is provided with a first radiator 310, the first radiator 310 is used for receiving and transmitting radio frequency signals in a preset frequency band, the frame 100 is located in a radiation direction range of the first radiator 310, the reflector 400 includes a reflection surface 400a that forms a preset angle with the first radiation surface 310a, and the reflection surface 400a is used for reflecting the radio frequency signals in the preset frequency band emitted by the first radiator 310, so that the radio frequency signals in the preset frequency band after being reflected are radiated to a free space through the non-shielding portion 210; the reflecting surface 400a is further configured to reflect the radio frequency signal of the preset frequency band transmitted through the non-shielding portion 210 from the free space toward the first radiating surface 310 a.

The preset frequency band at least comprises a 3GPP millimeter wave full frequency band. The antenna module 300 may include one antenna radiator or an antenna array formed by a plurality of antenna radiators. The antenna module 300 may be a 2×2 antenna array, a 2×4 antenna array, or a 4×4 antenna array. When the antenna module 300 includes a plurality of antenna radiators, the plurality of antenna radiators can operate in the same frequency band. The plurality of antenna radiators can also operate in different frequency bands, which is helpful for expanding the frequency band range of the antenna module 300.

The frame 100 and the backplate 200 may be two structures that are independent of each other, the frame 100 is made of a shielding material, specifically, the frame 100 may be made of a metal material, the frame 100 has a shielding effect on a radio frequency signal in a preset frequency band, the radio frequency signal in the preset frequency band cannot penetrate the frame 100, a part or a whole of the backplate 200 is made of an unshielded material, that is, the local structure of the backplate 200 is an unshielded part 210, or the whole backplate 200 is an unshielded part 210, and the unshielded part 210 of the backplate 200 can be penetrated by the radio frequency signal in the preset frequency band.

In an embodiment, the frame 100 is located in a radiation direction range of the antenna module 300 for receiving and transmitting the radio frequency signal of the preset frequency band, when the antenna module 300 transmits the radio frequency signal of the preset frequency band towards the direction of the frame 100, the reflection surface 400a may reflect the radio frequency signal of the preset frequency band transmitted by the first radiator 310 towards one side of the non-shielding portion 210 of the backplate 200, so as to prevent the radio frequency signal of the preset frequency band transmitted by the first radiator 310 from being transmitted to the frame 100, and the reflection member 400 makes the radio frequency signal of the preset frequency band radiate to free space through the non-shielding portion 210 of the backplate 200. In addition, when the radio frequency signal of the preset frequency band penetrates through the non-shielding portion 210 of the backplate 200 and is transmitted toward the reflective surface 400a, the reflective surface 400a may reflect the radio frequency signal of the preset frequency band penetrating through the non-shielding portion 210 from the free space toward the first radiation surface 310 a.

In another embodiment, the reflecting member 400 and the frame 100 are both located in a radiation direction range of the radio frequency signal of the preset frequency band transmitted by the first radiator 310, and the reflecting member 400 is located between the frame 100 and the antenna module 300, when the radio frequency signal of the preset frequency band is transmitted by the first radiator 310 towards the frame 100, the reflecting surface 400a can reflect the radio frequency signal of the preset frequency band transmitted by the first radiator 310 towards one side of the non-shielding portion 210 of the backplate 200, and the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200. In addition, when the radio frequency signal of the preset frequency band penetrates through the non-shielding portion 210 of the backplate 200 and is transmitted toward the reflective surface 400a, the reflective surface 400a may reflect the radio frequency signal of the preset frequency band of the non-shielding portion 210 toward the first radiation surface 310 a.

In still another embodiment, both the reflector 400 and the frame 100 are located in a radiation direction range of the radio frequency signal of the preset frequency band transmitted by the first radiator 310, when the radio frequency signal is transmitted by the first radiator 310 towards the frame 100 and/or the reflector 400, the radio frequency signal of the preset frequency band transmitted by the first radiator 310 can be reflected by the frame 100 and/or the reflector 400 towards one side of the non-shielding portion 210 of the backplate 200, and one or more reflections can be performed between the frame 100 and the reflector 400, so that the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200. In addition, when the radio frequency signal of the preset frequency band is transmitted from the free space through the non-shielding portion 210 of the backplate 200 toward the reflective surface 400a, the reflective surface 400a may reflect the radio frequency signal of the preset frequency band transmitted from the free space through the non-shielding portion 210 toward the first radiation surface 310 a.

According to the electronic device 10 provided by the embodiment of the application, since the frame 100 is made of shielding materials, and the frame 100 is located in the radiation direction range of the radio frequency signals of the preset frequency band transmitted by the first radiator 310, the radio frequency signals of the preset frequency band transmitted by the first radiator 310 are reflected towards one side of the non-shielding portion 210 of the backboard 200 through the reflecting surface 400a of the reflecting piece 400, the radio frequency signals of the preset frequency band transmitted by the first radiator 310 can be prevented from being transmitted towards the frame 100, the radio frequency signals of the preset frequency band can penetrate through the non-shielding portion 210 to radiate to free space, and the radio frequency signals of the preset frequency band transmitted by the free space through the non-shielding portion 210 of the backboard 200 can be reflected towards the first radiating surface 310a through the reflecting surface 400a, so that the quality of the radio frequency signals transmitted by the antenna module 300 is improved.

With continued reference to fig. 14, the reflecting member 400 is located between the first radiator 310 and the frame 100, and the beam direction of the radio frequency signal in the preset frequency band reflected by the reflecting surface 400a is orthogonal to the plane in which the backplate 200 is located.

Where a beam (wave beam) refers to a shape formed on the earth's surface by a radio frequency signal emitted by the first radiator 310. There are mainly global beams, spot beams, shaped beams. The beam direction refers to the main lobe direction in which the first radiator 310 emits the radio frequency signal.

Specifically, the reflecting member 400 is located between the first radiator 310 and the frame 100, the reflecting member 400 is located in a radiation direction range of the first radiator 310 for receiving and transmitting radio frequency signals in a preset frequency band, and at least part of the frame 100 is located in a radiation direction range of the first radiator 310 for receiving and transmitting radio frequency signals in the preset frequency band. In one embodiment, when the first radiator 310 radiates the rf signal toward the reflector 400 and the frame 100, the reflecting surface 400a of the reflector 400 can reflect the rf signal of the predetermined frequency band radiated by the first radiator 310 toward the non-shielding portion 210 of the backplate 200, so that the rf signal of the predetermined frequency band radiates into the free space through the non-shielding portion 210 of the backplate 200. At this time, most of the radio frequency signals in the preset frequency band are reflected to the non-shielding portion 210 of the backplate 200 via the reflection surface 400a and then radiated to the free space, which is helpful for improving the radiation quality of the antenna module 300. Further, the beam direction of the radio frequency signal of the preset frequency band reflected by the reflecting surface 400a is orthogonal to the plane where the back plate 200 is located, so that the quality of the radio frequency signal radiated by the antenna module 300 can be improved.

In another embodiment, the reflecting member 400 is configured to reflect the radio frequency signal emitted by the first radiator 310 toward one side of the bezel 100, and the bezel 100 is configured to reflect the radio frequency signal of the preset frequency band reflected by the reflecting member 400 toward the non-shielding portion 210.

Specifically, the reflecting member 400 is located in a radiation direction range of the first radiator 310 for receiving and transmitting the radio frequency signal in the preset frequency band, and at least part of the frame 100 is located in the radiation direction range of the first radiator 310 for receiving and transmitting the radio frequency signal in the preset frequency band. When the first radiator 310 emits the radio frequency signal of the preset frequency band toward the reflector 400, the reflecting surface 400a may reflect the radio frequency signal of the preset frequency band radiated by the first radiator 310 toward the frame 100, and then the frame 100 reflects the radio frequency signal of the preset frequency band toward the non-shielding portion 210 of the backplate 200, so that the radio frequency signal of the preset frequency band radiates into the free space through the non-shielding portion 210 of the backplate 200. That is, after the reflection of the reflection surface 400a and the frame 100 together, the radio frequency signal in the preset frequency band radiates to the free space toward the non-shielding portion 210 of the backplate 200, and the reflection frequency of the radio frequency signal in the preset frequency band between the frame 100 and the reflection surface 400a may be one or more times. The rf signal may be emitted from the first radiator 310 onto the reflector 400, then reflected to the frame 100 via the reflecting surface 400a, and then reflected by the frame 100 to the non-shielding portion 210 of the backplate 200 for further radiation into the free space. The radio frequency signal with the preset frequency band may be emitted from the first radiator 310 onto the frame 100, then reflected onto the reflecting surface 400a via the frame 100, and then reflected onto the non-shielding portion 210 of the backplate 200 by the reflecting surface 400a, and further radiated into the free space. Further, the beam direction of the radio frequency signal of the preset frequency band reflected by the reflecting surface 400a is orthogonal to the plane where the back plate 200 is located, so that the quality of the radio frequency signal radiated by the antenna module 300 can be improved.

With continued reference to fig. 15, the frame 100 and the backplate 200 enclose a receiving space S, the antenna module 300 is disposed in the receiving space S, the electronic device 10 further includes a battery 500 and a battery compartment 510, the battery 500 is received in the battery compartment 510, the battery 500 and the battery compartment 510 are both disposed in the receiving space S, and the battery compartment 510 at least partially forms the reflector 400.

The frame 100 and the back plate 200 may be in an integrated structure or a split structure. The frame 100 is made of non-shielding material, and can play a role in shielding radio frequency signals, the backplate 200 has a non-shielding portion 210, and the non-shielding portion 210 can be penetrated by radio frequency signals.

In particular, in one embodiment, the battery compartment 510 at least partially forms the reflector 400. That is, the radio frequency signal of the preset frequency band emitted by the first radiator 310 is transmitted toward the battery compartment 510, and is reflected by the battery compartment 510 and then radiated into free space through the non-shielding portion 210 of the backplate 200. The battery compartment 510 is configured to accommodate the battery 500 on the one hand, and reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310 on the other hand, at this time, without additional arrangement of a reflective structure, the reflection effect on the radio frequency signal of the preset frequency band can be achieved by multiplexing the battery compartment 510, so that the radio frequency signal of the preset frequency band is radiated to the free space through the non-shielding portion 210 of the backplate 200.

In another embodiment, the electronic device 10 may further include other reflecting structures besides the battery compartment 510, specifically, the electronic device 10 includes the battery compartment 510 and a middle frame for fixing the battery compartment 510, where the battery compartment 510 and the middle frame are both metal structures, and the battery compartment 510 is configured to accommodate the battery 500 on one hand and reflect the radio frequency signal of the preset frequency band of the first radiator 310 on the other hand, and the middle frame forms a supporting frame of the electronic device 10 on the one hand and is configured to reflect the radio frequency signal of the preset frequency band of the first radiator 310 on the other hand. The reflection effect on the radio frequency signals of the preset frequency band can be realized by multiplexing the battery compartment 510 and the middle frame, so that the radio frequency signals of the preset frequency band are radiated to the free space through the non-shielding part 210 of the backboard 200.

With continued reference to fig. 16, the frame 100 and the backplate 200 enclose a receiving space S, the antenna module 300 and the reflector 400 are disposed in the receiving space S, the electronic device 10 further includes a main board 550, the main board 550 is disposed in the receiving space S, the antenna module 300 is electrically connected to the main board 550, at least a portion of the main board 550 forms the reflector 400, the main board 550 is disposed on a side of the reflector 400 away from the first radiator 310, and a beam direction of the radio frequency signal transmitted by the first radiator 310 is parallel to a plane on which the main board 550 is disposed.

The main board 550 is a circuit board of the electronic device 10, and the main board 550 is configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator 310, so that the reflected radio frequency signal of the preset frequency band is radiated to free space through the non-shielding portion 210; the main board 550 is further configured to reflect the radio frequency signal of the preset frequency band radiated from the free space to the main board 550 through the non-shielding portion 210 toward the first radiation surface 310 a. The main board 550 is electrically connected to the antenna module 300, and the antenna module 300 receives and transmits the radio frequency signal of the preset frequency band under the control of the main board 550. The main board 550 and the antenna module 300 are both located in the accommodating space S formed by the frame 100 and the backplate 200, and the main board 550 is located at one side of the antenna module 300 away from the backplate 200, when the radio frequency signal of the preset frequency band emitted by the first radiator 310 is transmitted towards the main board 550 or the reflecting surface 400a, the radio frequency signal of the preset frequency band may be transmitted towards the non-shielding portion 210 of the backplate 200 under the reflection effect of the main board 550, or the radio frequency signal of the preset frequency band may be transmitted towards the non-shielding portion 210 of the backplate 200 under the reflection effect of the reflecting surface 400a, or the radio frequency signal of the preset frequency band may be transmitted towards the non-shielding portion 210 of the backplate 200 after one or more mutual reflection effects of the reflecting surface 400a and the main board 550.

In one embodiment, the beam direction of the radio frequency signal of the preset frequency band emitted by the first radiator 310 is parallel to the plane of the main board 550.

The beam direction refers to the main lobe direction of the radio frequency signal of the preset frequency band emitted by the first radiator 310. When the beam direction of the radio frequency signal of the preset frequency band emitted by the first radiator 310 is parallel to the plane where the main board 550 is located, the first radiator 310 can be considered to stand on the main board 550, and at this time, the area of the main board 550 occupied by the first radiator 310 can be reduced, so that more electronic components can be arranged on the main board 550. Further, the radio frequency signal with the preset frequency band emitted by the first radiator 310 may be reflected by the main board 550 and then transmitted towards the non-shielding portion 210 of the backplate 200, so as to improve the radiation quality of the first radiator 310 on the premise of reducing the area of the main board 550 occupied by the first radiator 310.

With continued reference to fig. 17, a distance d between the first radiation surface 310a and the reflection surface 400a satisfies λ/8 and d and λ/2, where λ is a wavelength of the radio frequency signal in the preset frequency band.

The first radiating surface 310a is a surface of the first radiator 310 for receiving and transmitting radio frequency signals in a preset frequency band. When the distance between the reflecting surface 400a for reflecting the radio frequency signal in the preset frequency band and the first radiating surface 310a of the first radiator 310 for receiving and transmitting the radio frequency signal in the preset frequency band is in the range of λ/8 to λ/2, the in-phase reflection characteristic can be satisfied, and at this time, the reflecting surface 400a can better reflect the radio frequency signal in the preset frequency band emitted from the first radiator 310, so that the reflection effect of the reflecting surface 400a can be improved.

With continued reference to fig. 18, the antenna module 300 further includes a second radiating surface 320a, where the second radiating surface 320a is provided with a second radiator 320, and a radiation direction of at least one of the first radiator 310 and the second radiator 320 for receiving and transmitting radio frequency signals faces the frame 100.

The first radiator 310 is configured to receive and transmit radio frequency signals in a first frequency band, and the second radiator 320 is configured to receive and transmit radio frequency signals in a second frequency band.

In one embodiment, the first frequency band is consistent with the second frequency band, and at this time, the radio frequency signal reflected by the reflecting member 400 is radiated to the free space through the non-shielding portion 210, which helps to enhance the intensity of the radio frequency signal.

In another embodiment, the first frequency band is different from the second frequency band, and at this time, the radio frequency signals of the first frequency band and the radio frequency signals of the second frequency band reflected by the reflecting element 400 are radiated to the free space through the non-shielding portion 210, so as to facilitate the receiving and transmitting of the dual-band radio frequency signals. The radio frequency signal of the first frequency band can be a millimeter wave signal, and the radio frequency signal of the second frequency band can be a radio frequency signal of a preset frequency band of sub 6 GHz.

According to the 3gpp TS 38.101 protocol provision, 5G mainly uses two segments of frequencies: FR1 band and FR2 band. The frequency range of the FR1 frequency band is 450 MHz-6 GHz, which is also called sub-6GHz frequency band; the frequency range of the FR2 band is 24.25 GHz-52.6 GHz, commonly known as millimeter Wave (mm Wave). The 3GPP 15 release specifies the current 5G millimeter wave band as follows: n257 (26.5-29.5 GHz), n258 (24.25-27.5 GHz), n261 (27.5-28.35 GHz) and n260 (37-40 GHz). The first frequency band can cover 24.25 GHz-52.6 GHz frequency band, and at this time, the second frequency band can cover 450 MHz-6 GHz frequency band. The first radiator 310 may be a millimeter wave antenna or a non-millimeter wave antenna.

In one embodiment, the first radiator 310 operates in the first frequency band, and the first radiator 310 is a directional antenna; when the second radiator 320 works in the second frequency band, the second radiator 320 is an omni-directional antenna.

Specifically, since the frequency range of the first frequency band is 24.25GHz to 52.6GHz, and the frequency range of the second frequency band is 450MHz to 6GHz, the radio frequency signal of the first frequency band has a shorter wavelength, and is suitable for a scene with a higher density, and when the first radiator 310 works in the first frequency band, the first radiator 310 is a directional antenna. At this time, the advantage of the first radiator 310 can be exerted. The radio frequency signal in the second frequency band has a longer wavelength, can better cross an obstacle, is suitable for long-distance transmission, and when the second radiator 320 works in the second frequency band, the second radiator 320 is an omni-directional antenna, and can cover a larger radiation range.

Further, because the difference between the radio frequency signals in the first frequency band and the radio frequency signals in the second frequency band is larger, the problem of coupling is not easy to occur between the radio frequency signals in the first frequency band and the radio frequency signals in the second frequency band, so that the radio frequency signals in the first frequency band can be transmitted and received by the first radiator 310 and the radio frequency signals in the second frequency band can be transmitted and received by the second radiator 320 at the same time, the problem of mutual coupling and mutual interference can not occur, and the first radiator 310 and the second radiator 320 at the moment can work in different frequency bands at the same time, so that the application range of the first radiator 310 is enlarged. In addition, the coexistence problem of the millimeter wave signal transmitted and received by the first radiator 310 and the sub 6GHz radio frequency signal transmitted and received by the second radiator 320 can be solved.

The first radiator 310 is disposed on a side of the antenna module 300 facing the frame 100, the reflecting member 400 is disposed between the frame 100 and the antenna module 300, and the second radiator 320 is disposed on a side of the antenna module 300 facing the non-shielding portion 210. In one embodiment, when the first radiator 310 and the second radiator 320 radiate radio frequency signals with the same frequency band, the reflector 400 is used to increase the intensity of the radio frequency signals. In another embodiment, when the first radiator 310 receives and transmits the radio frequency signal in the first frequency band, the second radiator 320 receives and transmits the radio frequency signal in the second frequency band, and the first frequency band is different from the second frequency band, the reflecting member 400 is configured to implement receiving and transmitting of the radio frequency signal in the dual frequency band.

Specifically, the reflecting surface 400a may reflect the radio frequency signal emitted by the first radiator 310, so that the radio frequency signal reflected by the reflecting surface 400a is radiated to the free space through the non-shielding portion 210 of the backplate 200. The radio frequency signal emitted by the second radiator 320 may be directly radiated into the free space through the non-shielding portion 210 of the backplate 200. In one embodiment, when the first radiator 310 and the second radiator 320 radiate radio frequency signals with the same frequency band, the reflecting surface 400a is used to increase the intensity of the radio frequency signals received and transmitted by the antenna module 300. In another embodiment, when the radio frequency signal in the first frequency band transmitted by the first radiator 310 is different from the radio frequency signal in the second frequency band transmitted by the second radiator 320, the reflecting member 400 can realize the transmission and reception of the radio frequency signal in the dual frequency bands, that is, the antenna module 300 can operate in the first frequency band and the second frequency band at the same time.

The foregoing has outlined rather broadly the more detailed description of embodiments of the present application, wherein specific examples are provided herein to illustrate the principles and embodiments of the present application, the above examples being provided solely to assist in the understanding of the methods of the present application and the core ideas thereof; meanwhile, as those skilled in the art will have modifications in the specific embodiments and application scope in accordance with the ideas of the present application, the present description should not be construed as limiting the present application in view of the above.

Claims

1. An electronic device, the electronic device comprising:

the frame is made of shielding materials;

The reflecting piece is positioned in the radiation direction range of the first radiator and comprises a reflecting surface with a preset included angle with the radiation surface, and the reflecting surface is used for reflecting the radio frequency signals of the preset frequency band emitted by the first radiator towards one side of the non-shielding part so that the radio frequency signals of the preset frequency band after reflection are radiated to free space through the non-shielding part; the reflection surface is also used for reflecting the radio frequency signals of the preset frequency band which are radiated to the reflection surface from the free space through the non-shielding part towards the radiation surface.

2. The electronic device of claim 1, wherein the radiating direction of the first radiator is toward a side facing away from the bezel, and the reflector is located on a side of the first radiator facing away from the bezel; or the radiation direction of the first radiator faces one side of the frame, and the reflecting piece is positioned between the first radiator and the frame.

3. The electronic device of claim 2, wherein the first radiator is fixed to the frame with a radiation direction of the first radiator facing away from the frame, and the frame is configured to transfer heat from the first radiator to the outside of the housing space.

4. The electronic device of claim 1, wherein the reflective surface is curved, the reflective surface having a center of curvature that is oriented toward a side of the back plate or that is oriented away from the back plate.

5. The electronic device of claim 1, wherein the reflective member comprises a reflective body and an isolation coating disposed on the reflective body, the isolation coating at least partially constituting the reflective surface.

6. The electronic device of any of claims 1-5, further comprising a battery and a battery compartment, wherein the battery is housed in the battery compartment, wherein the battery and the battery compartment are both located in the housing space, and wherein at least a portion of the battery compartment forms the reflective member.

7. The electronic device of claim 1, further comprising a main board, wherein the main board is located in the accommodating space, the antenna module is electrically connected to the main board, at least part of the main board forms the reflecting member, the main board is located at a side of the reflecting member away from the first radiator, and a beam direction of the first radiator for receiving and transmitting the radio frequency signal in the preset frequency band is parallel to a plane where the main board is located.

8. The electronic device of claim 1, further comprising a screen disposed at a distance from the back plate, the screen covering the frame, the reflecting surface configured to reflect the radio frequency signal of the preset frequency band emitted by the first radiator toward a side facing away from the screen, so as to avoid coupling of the radio frequency signal of the preset frequency band to the screen.

9. The electronic equipment is characterized by comprising a frame, a back plate, an antenna module and a reflecting piece, wherein the frame is arranged on the periphery of the back plate in a surrounding mode, the frame is made of shielding materials, the back plate comprises a non-shielding part, the antenna module comprises a first radiating surface, the first radiating surface is provided with a first radiator, the first radiator is used for receiving and transmitting radio frequency signals of a preset frequency range, the frame is located in the radiation direction range of the first radiator, the reflecting piece comprises a reflecting surface which forms a preset included angle with the first radiating surface, and the reflecting surface is used for reflecting radio frequency signals of the preset frequency range emitted by the first radiator, so that the reflected radio frequency signals of the preset frequency range are radiated to free space through the non-shielding part; the reflection surface is also used for reflecting the radio frequency signals of the preset frequency band which penetrate through the non-shielding part from the free space towards the first radiation surface.

10. The electronic device of claim 9, wherein the reflecting member is located between the first radiator and the frame, and a beam direction of the radio frequency signal in the preset frequency band reflected by the reflecting surface is orthogonal to a plane in which the back plate is located.

11. The electronic device of claim 9, wherein the frame and the back plate define a receiving space, the antenna module is located in the receiving space, the electronic device further comprises a battery and a battery compartment, the battery is received in the battery compartment, the battery and the battery compartment are both located in the receiving space, and at least a portion of the battery compartment forms the reflecting member.

12. The electronic device of claim 9, wherein the frame and the back plate enclose a receiving space, the antenna module and the reflector are located in the receiving space, the electronic device further comprises a main board located in the receiving space, the antenna module is electrically connected to the main board, at least part of the main board forms the reflector, and the main board is located at a side of the reflector away from the first radiator.

13. The electronic device of claim 12, wherein a beam direction of the radio frequency signal of the preset frequency band emitted by the first radiator is parallel to a plane in which the motherboard is located.

14. The electronic device according to any one of claims 9-13, wherein a distance d between the radiating surface and the reflecting surface satisfies λ/8+.d+.λ/2, where λ is a wavelength of the radio frequency signal of the preset frequency band.

15. The electronic device of claim 9, wherein the antenna module further comprises a second radiating surface, the second radiating surface is provided with a second radiator, and at least one of the first radiator and the second radiator transmits and receives radio frequency signals in a radiation direction toward the frame.

16. The electronic device of claim 15, wherein the first radiator is configured to transmit and receive radio frequency signals in a first frequency band and the second radiator is configured to transmit and receive radio frequency signals in a second frequency band.

17. The electronic device of claim 16, wherein the first radiator is disposed on a side of the antenna module facing the bezel, the reflector is disposed between the bezel and the antenna module, and the second radiator is disposed on a side of the antenna module facing the non-shielding portion.

18. The electronic device of claim 17, wherein the first radiator and the second radiator radiate radio frequency signals of a same frequency band, and the reflector is configured to increase the intensity of the radio frequency signals.

19. The electronic device of claim 17, wherein the first radiator transmits and receives radio frequency signals in a first frequency band, the second radiator transmits and receives radio frequency signals in a second frequency band, and the first frequency band is different from the second frequency band, and the reflector is configured to transmit and receive radio frequency signals in dual frequency bands.

20. The electronic device of claim 9, wherein the preset frequency band comprises at least a 3GPP millimeter wave full band.