Electronic product support and electronic equipment accessory

Abstract

The utility model relates to an electronic product support which comprises a supporting piece, a connecting piece and a connecting layer, the connecting piece is connected to the supporting piece through the connecting layer, and the supporting piece is connected with an electronic product or an electronic product protective shell through the connecting piece. When the electronic product is wirelessly charged, the supporting piece is positioned between the electronic product and the wireless charger; the supporting piece comprises a magnetic insulation main body and a magnetic piece arranged on the magnetic insulation main body, and the wireless charger is adsorbed on the magnetic insulation main body through the magnetic piece; the magnetic insulation main body comprises a connecting piece installation part, and the connecting piece is connected to the connecting piece installation part through a connecting layer. According to the electronic product support, the wireless charger can be attracted through the magnetic piece on the supporting piece, the requirement that a user plays while charging is met, and electronic equipment can be normally used during wireless charging; meanwhile, during wireless charging, when the magnetic insulation body is subjected to the magnetic force effect of a magnetic field, the original magnetic field cannot be affected, and the influence of the supporting piece on wireless charging transmission can be effectively reduced.

Description

Technical Field

[0001] This utility model relates to the field of electronic product accessories, and in particular to an electronic product bracket and electronic device accessories. Background Technology

[0002] Users typically protect their electronic devices by using protective cases on their phones and other electronic products. With the continuous development of long and short video technologies, users often choose protective cases with built-in stands to free their hands while watching videos. These types of cases not only protect the electronic products but also support the phone for video viewing.

[0003] As wireless charging technology has developed and matured, it has become increasingly convenient for mobile phones. Since Apple released MagSafe technology, users can use the magnets inside their phones to magnetically attach the wireless charger to the back of the phone for charging, without interfering with phone use. However, with protective cases, the distance between the phone's magnets and the wireless charger increases, weakening the magnetic attraction and making the charger more prone to falling off. This necessitates the use of magnets on the protective case itself to hold the wireless charger. This results in a proliferation of functional components (magnets, stands, etc.) on protective cases, while the limited space within the case itself prevents the inclusion of too many.

[0004] Based on this, a new type of phone case has emerged on the market. By placing magnets on the stand, it not only provides support but can also be stored on the back of the case. The wireless charger can also be magnetically attached to the stand for wireless charging. This combination significantly saves space in the phone case, but it also introduces another technical problem. Current wireless charging primarily uses electromagnetic induction technology, which generates a changing magnetic field through a coil in the charger, inducing an electromotive force in the receiver of the phone and generating a current to charge it. However, existing phone cases, designed to ensure support strength and lifespan, are susceptible to magnetic forces, affecting the magnetic field of the wireless charger and leading to reduced charging efficiency and charging interruptions. Utility Model Content

[0005] Therefore, the purpose of this utility model is to provide an electronic product bracket and electronic device accessories.

[0006] An electronic product holder includes a support member, a connector, and a connecting layer. The connector is connected to the support member via the connecting layer, and the support member is connected to an electronic product or an electronic product protective case via the connector. When the electronic product is wirelessly charged, the support member is located between the electronic product and the wireless charger. The support member includes a magnetically insulated body and a magnetic element disposed on the magnetically insulated body, and the wireless charger is attracted to the magnetically insulated body via the magnetic element. The magnetically insulated body includes a connector mounting portion, and the connector is connected to the connector mounting portion via the connecting layer.

[0007] Compared to existing technologies, the electronic product holder of this utility model replaces the main body of the support component with a magnetically insulated main body and adjusts the connection method between the support component and the connector, so that the magnetically insulated main body will not affect the original magnetic field when subjected to magnetic force, which can effectively reduce the impact of the support component on wireless charging transmission; at the same time, the wireless charger can also be attached to the back of the mobile phone through the magnetic component on the support component.

[0008] Furthermore, the magnetically insulating body also includes an arc-shaped portion, which together with the connector mounting portion forms a ring structure; the ring structure has opposing inner and outer surfaces, the outer surface is a plane, and the magnetic component is embedded in the inner surface.

[0009] Furthermore, along the circumference of the annular structure, the inner surface is sequentially provided with a connector mounting groove, a first magnetic component mounting groove, a handle position, and a second magnetic component mounting groove. The magnetic components are respectively disposed in the first magnetic component mounting groove and the second magnetic component mounting groove, and the connector mounting groove is disposed on the connector mounting part.

[0010] Furthermore, it also includes screws, the connector is connected to the connector mounting slot through the connecting layer, and the connector is further connected to the connector mounting slot through the screws; or, the first magnetic component mounting slot is separated from the connector mounting slot by a spacer; or, the second magnetic component mounting slot is separated from the connector mounting slot by another spacer.

[0011] Furthermore, the magnetically insulating body also includes an arc-shaped portion, which together with the connector mounting portion forms an annular structure; along the circumference of the annular structure, the annular structure includes a connector mounting cavity, a first magnetic component mounting portion, a handle position, and a second magnetic component mounting portion; the magnetic components are respectively disposed in the first magnetic component mounting portion and the second magnetic component mounting portion, and the connector mounting cavity is disposed in the connector mounting portion.

[0012] Furthermore, in the radial direction of the annular structure, the connector mounting cavity has an opening facing away from the annular structure, one end of the connector is installed in the connector mounting cavity, and the other end of the connector protrudes out of the annular structure through the opening.

[0013] Furthermore, the connector includes a connecting portion and a rolled portion. The connecting portion is inserted into the mounting cavity of the connector, and the rolled portion protrudes outside the annular structure. The rolled portion is provided with a shaft hole for the insertion of a rotating shaft.

[0014] Furthermore, the first magnetic component mounting part is a hollow structure, and a first magnetic component mounting cavity is provided inside the first magnetic component mounting part. The second magnetic component mounting part is a hollow structure, and a second magnetic component mounting cavity is provided inside the second magnetic component mounting part. The magnetic component is disposed in the first magnetic component mounting cavity and the second magnetic component mounting cavity respectively.

[0015] Furthermore, the magnetically insulating body has opposing inner and outer surfaces, and the support further includes a surface coating, which is applied to the outer surface, or the surface coating is applied to both the outer and inner surfaces.

[0016] Furthermore, the surface coating is a frosted texture layer or a metallic-looking paint layer.

[0017] Furthermore, the magnetically insulating body is one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure.

[0018] An electronic product stand includes a support member, a connector, a connecting layer, and a magnetically insulated base; the connector is connected to the support member via the connecting layer; the support member is rotatably connected to the magnetically insulated base via the connector; the stand is connected to an electronic product or an electronic product protective case via the magnetically insulated base; when the electronic product is wirelessly charged, the stand is located between the electronic product and the wireless charger; the support member includes a main body and a magnetic element disposed on the main body, and the wireless charger is attracted to the main body via the magnetic element; the main body includes a connector mounting portion, and the connector is connected to the connecting portion via the connecting layer.

[0019] Compared to existing technologies, since the magnetically insulated base is replaced with a magnetically insulated structure, even though the support is made of metal, the heat generated during wireless charging and the power impact can be resolved to some extent due to the reduction in the amount of metal that can generate induced current.

[0020] Furthermore, the magnetically insulated base has opposing inner and outer surfaces; the magnetically insulated base is provided with a surface coating, which is applied to the outer surface, or the surface coating is applied to both the outer and inner surfaces.

[0021] Furthermore, the surface coating is a frosted texture layer or a metallic-looking paint layer.

[0022] Furthermore, the magnetically insulating base is one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure.

[0023] An electronic device accessory includes a magnetically insulated base and any of the above-mentioned electronic product brackets; the support member is rotatably connected to the magnetically insulated base via the connector, and the bracket is connected to the electronic product or an electronic product protective case via the base; when the electronic product is wirelessly charged, the electronic device accessory is located between the electronic product and the wireless charger; the support member includes a magnetically insulated body and a magnetic element disposed on the magnetically insulated body, and the wireless charger is attracted to the magnetically insulated body via the magnetic element.

[0024] Compared to existing technologies, the support components and magnetically insulated base with magnetic insulation can prevent the bracket from overheating to the greatest extent.

[0025] Furthermore, the magnetically insulated base has opposing inner and outer surfaces, and the magnetically insulated base is provided with a surface coating, which is applied to the outer surface, or the surface coating is applied to both the outer and inner surfaces.

[0026] Furthermore, the surface coating is a frosted texture layer or a metallic-looking paint layer.

[0027] Furthermore, the magnetically insulating base is one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, or carbide ceramic structure.

[0028] To better understand and implement this invention, the following detailed description is provided in conjunction with the accompanying drawings. Attached Figure Description

[0029] Figure 1 This is an exploded view of the structure of an electronic product bracket provided in this application;

[0030] Figure 2 for Figure 1 An exploded view of the electronic product stand from another angle;

[0031] Figure 3 for Figure 1A schematic diagram of the magnetically insulating main body in the electronic product bracket shown;

[0032] Figure 4 A schematic diagram of another electronic product bracket provided for this application;

[0033] Figure 5 for Figure 4 A cross-sectional view of the electronic product holder along the AA direction;

[0034] Figure 6 for Figure 4 A schematic diagram of the electronic product holder from another direction;

[0035] Figure 7 for Figure 6 A cross-sectional view of the electronic product holder along the BB direction;

[0036] Figure 8 for Figure 4 The diagram shows an exploded view of the electronic product holder.

[0037] Figure 9 This is a structural schematic diagram of another electronic product bracket provided in this application. Detailed Implementation

[0038] The stands of existing electronic products are generally made of metal. Metal is subject to magnetic force in a magnetic field, resulting in magnetic field induction and magnetic shielding.

[0039] The phenomenon of magnetic field induction refers to the phenomenon where, when a metallic material is placed in a magnetic field, the magnetic field exerts a force on the free electrons inside the metal, causing the electrons to move and thus generating an induced current inside the metal. On the one hand, this induced current generates a magnetic field around the metallic material that is opposite to the magnetic field, thereby weakening or shielding the external magnetic field. On the other hand, if the metal is a closed-loop structure, the current will flow continuously within the closed-loop structure, forming eddy currents, which cause the metal to heat up. When this heat is transferred to the wireless charger, it will reduce the output power of the wireless charger and lower the wireless charging efficiency.

[0040] Magnetic shielding refers to the phenomenon that metals have good magnetic permeability and can absorb and disperse energy in a magnetic field. When a metal is present in a magnetic field, some of the energy transmitted by the magnetic field will be carried away by the metal, resulting in a decrease in transmission efficiency.

[0041] This invention addresses the problem that existing metal supports, when subjected to magnetic forces in a magnetic field, experience magnetic field induction and shielding, thus affecting wireless charging. By replacing the main body of the support with a magnetically insulated body and adjusting the connection method between the support and the connector, the magnetically insulated body is designed to prevent interference with the original magnetic field when subjected to magnetic forces, effectively reducing the impact of the support on wireless charging transmission. Furthermore, the wireless charger can be magnetically attached to the back of the phone via the magnetic components on the support.

[0042] Example 1

[0043] Please see Figure 1 The electronic product holder provided in this application includes a support member 10, a connector 20, and a connecting layer 30. The connector 20 is connected to the support member 10 via the connecting layer 30, and the support member 10 is connected to an electronic product (not shown) or an electronic product protective case 1 via the connector 20. The electronic product may be, for example, a mobile phone, tablet computer, educational device, power bank, etc. Further reference... Figure 2 The support member 10 includes a magnetically insulated body 11 and a magnetic component 12 disposed on the magnetically insulated body. When the electronic product is wirelessly charged, the support member 10 is positioned between the electronic product and the wireless charger. The wireless charger is attracted to the magnetically insulated body 11 via the magnetic component 12. The magnetically insulated body 11 also includes a connector mounting portion 110, and the connector 20 is connected to the connector mounting portion 110 via a connecting layer 30. In this application, magnetic insulation refers to the property that, when subjected to magnetic force, does not affect the original magnetic field. For example:

[0044] 1. Materials possessing this property will not generate an induced current when placed in a magnetic field due to the magnetic field.

[0045] 2. Materials possessing this property have very low or no magnetic permeability and will not absorb or disperse energy in a magnetic field.

[0046] The magnetic insulating body 11 can be one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure and carbide ceramic structure.

[0047] As a lightweight, high-strength, high-toughness, good insulation, corrosion resistance, fatigue resistance, and customizable structural function material, fiberglass structures can be made into back covers for electronic products through punching / CNC (planar) or hot pressing (3D) forming, and with decorative effects. They are lightweight, thin, and high-strength, making them an ideal material for thin and light back covers of electronic products such as mobile phones and tablets.

[0048] Carbon fiber structures are primarily composed of carbon elements and possess properties such as high temperature resistance, friction resistance, thermal conductivity, and corrosion resistance. They are fibrous, flexible, and can be processed into various fabrics. Due to the preferred orientation of their graphite microcrystalline structure along the fiber axis, they exhibit high strength and modulus along the fiber axis. Carbon fiber has a low density, resulting in high specific strength and specific modulus. The main application of carbon fiber is as a reinforcing material in composites with resins, metals, ceramics, and carbon, creating advanced composite materials. Carbon fiber reinforced epoxy resin composites have the highest specific strength and specific modulus among existing engineering materials.

[0049] Silicon fiber structures are primarily composed of silicon nitride, a highly covalent compound. This strong covalent bonding endows silicon nitride with the following excellent properties: high hardness, high strength at high temperatures, good thermal shock resistance, high oxidation resistance, high insulation, and good elastic modulus. Silicon nitride fibers also possess these excellent properties, making them suitable as reinforcing materials for plastics, metals, glass, and ceramics. However, from a manufacturing perspective, the strong covalent bonds make silicon nitride extremely brittle and difficult to melt when heated. Therefore, it is difficult to form continuous fibers using conventional processes (such as melt spinning in glass fiber forming). Continuous silicon nitride fibers can be prepared using direct ammoniation of silicon fibers and pyrolysis conversion of organic polymer fibers. The latter method has significant industrial application value.

[0050] Oxide ceramic structures can be made of alumina, which has advantages such as high hardness, high wear resistance, good insulation and chemical stability. It is a widely used ceramic material and is often used to manufacture cutting tools, bearings, electronic components, etc.; or it can be made of zirconium oxide, which has relatively good toughness and good high temperature resistance, and can be used to make high temperature structural parts, dental restoration materials, etc.

[0051] Nitride ceramic structures can be made of silicon nitride, which has high strength, high hardness, and excellent thermal shock resistance, and is often used to manufacture engine parts, high-temperature bearings, and other parts that work in harsh high-temperature environments; or they can be made of aluminum nitride, which has high thermal conductivity and good electrical insulation, and is widely used in the field of electronic packaging, such as for making heat dissipation substrates.

[0052] Carbide ceramic structures can be made of silicon carbide, which has high hardness, high temperature resistance, wear resistance and good chemical stability, and can be used to manufacture abrasives, high temperature furnace parts, and certain parts in the semiconductor industry; or they can be made of tungsten carbide, which has extremely high hardness and is often made into cemented carbide with binders such as cobalt, and is widely used in cutting tools, mining tools and other fields.

[0053] The aforementioned material is lightweight, thin, and high-strength. Its high strength ensures that the magnetically insulated body 11 has sufficient strength and lifespan, just like existing metal supports. Its lightweight and thinness effectively reduce the thickness of the magnetically insulated body. At the same time, it also has magnetic insulation properties, which can ensure the strength of the support 10 and effectively reduce the impact of the support 10 on wireless charging transmission when used to manufacture the magnetically insulated body 11.

[0054] Further reading Figure 3 The magnetically insulated body 11 also includes an arc-shaped portion 120. The arc-shaped portion 120 and the connector mounting portion 110 together form a ring structure. The ring structure has an inner surface 10B and an outer surface 10A, wherein the outer surface 10A is flat, and the magnetic component 12 is embedded in the inner surface 10B. This arrangement ensures that when the support component 10 is stored, the magnetic component 12 is located between the magnetically insulated body 11 and the electronic product protective case 1, making it less likely for the magnetic component 12 to fall off. At the same time, since the outer surface 10A is flat, the support component 10 can be flush with the surface of the electronic product protective case 1 when stored. Furthermore, the flat surface design makes it more comfortable for users to hold the electronic product protective case 1 and use the electronic product without discomfort.

[0055] In some embodiments, along the circumference of the annular structure, the inner surface 10B is sequentially provided with a connector mounting groove 111, a first magnetic component mounting groove 121, a handle position 122, and a second magnetic component mounting groove 123. Magnetic components 12 are respectively disposed in the first magnetic component mounting groove 121 and the second magnetic component mounting groove 123. There can be two magnetic components 12, one in each of the first and second magnetic component mounting grooves 121; or there can be multiple magnetic components 12, with some disposed in the first magnetic component mounting groove 121 and the remaining in the second magnetic component mounting groove 123. The number of magnetic components 12 in the first and second magnetic component mounting grooves 121 and 123 can be the same or different. The magnetic components 12 are arranged along the circumference of the annular structure. Since most portable wireless chargers on the market are disc-shaped, this arrangement facilitates magnetic connection between the wireless charger and the magnetic components 12. The connector mounting groove 111 is provided on the connector mounting part 110. By providing the connector mounting groove 111, the connector 20 can be installed in the connector mounting groove 111, which can effectively reduce the thickness of the connector 20 and the support 10 after they are stacked together, making the support 10 lighter and thinner overall. At the same time, the connector mounting groove 111 can also play a role in positioning and limiting the installation of the connector 20, making the installation easier and the position more accurate after installation.

[0056] The connector 20 can be rotatably connected to the electronic product protective case 1, allowing the support member 10 to rotate relative to the electronic product protective case 1 for opening for support or closing for storage. The handle 122 allows the user to easily pull up the stored support member 10 for opening and support. The handle 122 can be, for example, a notch structure as shown in the figure, where the annular support member 10 is partially missing, allowing fingers or fingernails to easily insert into the notch and pull up the support member 10. In other embodiments, the handle 122 can also be configured with other structures, as long as it facilitates opening the support member 10; the specific structure is not limited. Furthermore, by placing the handle 122 and the connector mounting part 110 on opposite sides of the annular structure (i.e., the line connecting them passes through the center / center of the annular structure), it is easier for the user to pull up the support member 10 using the handle 122.

[0057] In some embodiments, the first magnetic component mounting groove 121 and the connector mounting groove 111 are separated by a spacer. The spacer ensures that the magnetic component 12 in the first magnetic component mounting groove 121 and the connector 20 in the connector mounting groove 111 do not come into contact and interfere with each other. Furthermore, since both the first magnetic component mounting groove 121 and the connector mounting groove 111 are groove structures formed by removing a portion of the magnetic insulating body 11, their arrangement can easily weaken the strength of the magnetic insulating body 11, making it prone to deformation or breakage. Therefore, the spacer can compensate for the weakness of the magnetic insulating body 11 to a certain extent, equivalent to providing a reinforcing rib on the magnetic insulating body. Similarly, the second magnetic component mounting groove 123 and the connector mounting groove 111 can also be separated by another spacer. The two spacers can be provided individually or simultaneously.

[0058] In some embodiments, since the connector 20 is connected to the connector mounting groove 111 via a connecting layer 30, the connecting layer may be, for example, one of the following:

[0059] 1. The connecting layer 30 can be an adhesive layer, which connects the support (non-metallic) and the connector (metallic) through adhesive, replacing the existing metal-to-metal riveting connection method (riveting is not suitable for connecting metal and non-metal).

[0060] 2. The bonding layer 30 can be a bonding fluid (bondic). The main component of Bondic is a special resin that cures rapidly under ultraviolet light. When using Bondic, first clean the surfaces to be bonded, then apply Bondic to the areas to be bonded, and finally cure it by irradiating with an ultraviolet lamp for 4 seconds. The bonding fluid achieves the same function and effect as adhesive.

[0061] 3. The connecting layer 30 can also be a metal sheet. The connecting layer 30 (metal) can be integrally formed with the support component by injection molding or similar injection molding methods. Then the connecting layer (metal) can be connected with the connecting component (metal) by welding or riveting.

[0062] Considering that the connection between the connector 20 and the support 10 may be weak and prone to falling off if the connection is only achieved through the connecting layer 30, screws (not shown) can be added to reinforce the connection on the basis of the connection layer 30, further strengthening the connection stability between the connector 20 and the support 10. Even if the connecting layer 30 fails, the screws can ensure that the connector 20 and the support 10 do not detach.

[0063] Further reading Figure 1 and Figure 2 The magnetically insulating body 11 has an inner surface 10B and an outer surface 10A. Due to the material characteristics of the magnetically insulating body 11, it does not have a smooth surface or a metallic frosted texture like metal or alloy materials, which would provide a better user experience. To give the magnetically insulating body 11 the same texture and user experience, a surface coating can be applied to the outer surface 10A. This surface coating can be, for example, a frosted texture layer to give the surface of the magnetically insulating body 11 a frosted texture, or a metallic paint layer to make the magnetically insulating body 11 look like metal. In other embodiments, other surface coatings may also be used. The surface coating not only enhances the texture and user experience of the magnetically insulating body 11, but also protects it by effectively isolating it from the external environment. During use, the magnetically insulating body 11 can effectively prevent sweat, cosmetics, dust, etc., from the user's hands, preventing these substances from corroding the magnetically insulating body 11 and affecting its magnetic insulation properties.

[0064] Example 2

[0065] Please see Figure 4 , Figure 4 This is a schematic diagram of another electronic product bracket provided in this application. The bracket structure in this embodiment is basically the same as that in Embodiment 1, also including a support member 10, a connector 20, and a connecting layer 30. The connector 20 is connected to the support member 10 through the connecting layer 30, and the support member 10 is connected to the electronic product (not shown) or the electronic product protective case 1 through the connector 20. Therefore, the basic structure will not be described in detail here. The magnetically insulated body 11 in this embodiment still includes an arc-shaped portion 120 and a connector mounting portion 110, which together form a ring structure. For further details, please refer to... Figures 5-7The difference lies in that, circumferentially, the annular structure includes a connector mounting cavity 111A, a first magnetic component mounting portion, a handle position 122, and a second magnetic component mounting portion. Magnetic components 12 are respectively disposed in the first magnetic component mounting portion and the second magnetic component mounting portion, and the connector mounting cavity 111A is disposed on the connector mounting portion 110.

[0066] Furthermore, the first magnetic component mounting part has a hollow structure with a first magnetic component mounting cavity 121A inside, and the second magnetic component mounting part has a hollow structure with a second magnetic component mounting cavity 123A inside. The magnetic component 12 is respectively disposed in the first magnetic component mounting cavity 121A and the second magnetic component mounting cavity 123A. Compared with the magnetic component mounting groove, the magnetic component mounting cavity can completely enclose the magnetic component 12. After the electronic product bracket is formed, there is no risk that the magnetic component 12 will fall off from the magnetic component mounting cavity. Moreover, since the magnetic component 12 is not exposed, there is no need to use additional Mylar sheets to protect the magnetic component. In actual production, the magnetic insulating body 11 uses materials such as glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure. Compared to metals and alloys, these materials can completely encapsulate the magnetic component 12 through post-forming processes. For example, the magnetic component 12 is first arranged on a mold, and then the magnetic insulating body 11 is covered and formed on the outside of the magnetic component 12 through injection molding, hot pressing, and other processes, ultimately forming the structure in this embodiment. Similarly, the connector 20 can also be embedded into the magnetic insulating body 11 through a similar process.

[0067] In some embodiments, see Figure 8 In the radial direction of the annular structure, the connector mounting cavity 111A has an opening facing away from the annular structure. One end of the connector 20 is installed inside the connector mounting cavity 111A, and the other end of the connector 20 protrudes outside the annular structure through the opening. Figure 4 and Figure 8 As can be seen, the connector 20 includes a connecting portion 201 and a rolled portion 202. The connecting portion 201 is embedded in the magnetically insulating body 11, and the rolled portion 202 protrudes from the magnetically insulating body 11. The rolled portion 202 is provided with a shaft hole for inserting a rotating shaft, so as to achieve a rotatable connection with the electronic product protective shell through the rotating shaft. In other embodiments, the connecting layer 30 can also be a metal sheet. The connecting layer 30 (metal) can be integrally formed with the magnetically insulating body 11 through the above process, that is, the connecting layer 30 is formed on the cavity wall of the connector mounting cavity 111A. Then, the connector 20 can be connected to the connecting layer 30 by riveting or welding to achieve the connection between the connector 20 and the magnetically insulating body 11.

[0068] Example 3

[0069] Please see Figure 9 , Figure 9 A schematic diagram of another electronic product holder provided in this application includes a support member 10, a connector 20, a connecting layer 30, and a magnetically insulated base 40. The connector 20 is connected to the support member 10 via the connecting layer 30. The support member 10 is rotatably connected to the magnetically insulated base 40 via the connector 20. The holder is connected to the electronic product or the electronic product protective case 1 via the magnetically insulated base 40. When the electronic product is wirelessly charged, the holder is located between the electronic product and the wireless charger. The support member 10 includes a main body and a magnetic component 12 disposed on the main body. The wireless charger is attracted to the main body via the magnetic component 12. The main body includes a connector mounting portion 110, and the connector 20 is connected to the connecting portion via the connecting layer 30. Compared with embodiment 1, the holder structure in this embodiment adds a magnetically insulated base 40. By setting the magnetically insulated base 40 to be connected to the electronic product or the electronic product protective case 1, for example, by setting it to be rotatably connected, the support member 10 can rotate with the magnetically insulated base 40 and thus change its position, achieving more support angles and more application scenarios. Since the base can also affect wireless charging, setting the base to be magnetically insulated can effectively reduce the impact of the base on wireless charging.

[0070] Furthermore, the magnetically insulating base 40 can also be one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure, consistent with the magnetically insulating body, and will not be described in detail here. Similarly, a surface coating can be provided on the surface of the magnetically insulating base 40, and the method of application is the same as that of the magnetically insulating body in Embodiment 1, and will not be described in detail here either.

[0071] Example 4

[0072] The support structure in this example is the same as that in Example 3. The difference is that the main body of the support in this example can also be set as a magnetically insulated body, which can eliminate the influence of both the base and the support being made of metal or alloy materials on wireless charging, and further improve charging efficiency. The structures of the magnetically insulated body and the magnetically insulated base are the same as those in Examples 1 and 3, so they will not be described again here.

[0073] The terminology used in the embodiments of this application is for the purpose of describing particular embodiments only and is not intended to limit the embodiments of this application. The singular forms “a,” “the,” and “the” used in the embodiments and claims of this application are also intended to include the plural forms, unless the context clearly indicates otherwise. It should also be understood that, unless otherwise stated, “a plurality” means two or more; the terms “first,” “second,” “third,” etc., are used only to distinguish and not to describe a particular order or sequence, nor should they be construed as indicating or implying relative importance. The term “and / or” as used herein refers to and includes any or all possible combinations of one or more associated listed items. When the above description relates to drawings, unless otherwise indicated, the same numbers in different drawings represent the same or similar elements. In the description of this application, those skilled in the art can understand the specific meaning of the above terms in this application according to the specific circumstances.

[0074] The embodiments described above are merely examples of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and this utility model also intends to include these modifications and variations.

Claims

1. An electronic product stand, characterized in that: The device includes a support member, a connector, and a connecting layer. The connector is connected to the support member via the connecting layer. The support member is connected to an electronic product or a protective case for the electronic product via the connector. When the electronic product is wirelessly charged, the support member is located between the electronic product and the wireless charger. The support member includes a magnetically insulated body and a magnetic element disposed on the magnetically insulated body. The wireless charger is attracted to the magnetically insulated body via the magnetic element. The magnetically insulated body includes a connector mounting portion, and the connector is connected to the connector mounting portion via the connecting layer.

2. The electronic product holder according to claim 1, characterized in that: The magnetically insulating body also includes an arc-shaped portion, which together with the connector mounting portion forms a ring structure; the ring structure has opposing inner and outer surfaces, the outer surface is a plane, and the magnetic component is embedded in the inner surface.

3. The electronic product holder according to claim 2, characterized in that: Along the circumference of the annular structure, the inner surface is sequentially provided with a connector mounting groove, a first magnetic component mounting groove, a handle position, and a second magnetic component mounting groove. The magnetic components are respectively disposed in the first magnetic component mounting groove and the second magnetic component mounting groove, and the connector mounting groove is disposed on the connector mounting part.

4. The electronic product holder according to claim 3, characterized in that: It also includes screws, the connector is connected to the connector mounting slot through the connecting layer, and the connector is further connected to the connector mounting slot through the screws; or, the first magnetic component mounting slot is separated from the connector mounting slot by a spacer; or, the second magnetic component mounting slot is separated from the connector mounting slot by another spacer.

5. The electronic product holder according to claim 1, characterized in that: The magnetically insulating body further includes an arc-shaped portion, which together with the connector mounting portion forms an annular structure. Along the circumference of the annular structure, the annular structure includes a connector mounting cavity, a first magnetic component mounting portion, a handle position, and a second magnetic component mounting portion. The magnetic components are respectively disposed in the first magnetic component mounting portion and the second magnetic component mounting portion, and the connector mounting cavity is disposed in the connector mounting portion.

6. The electronic product holder according to claim 5, characterized in that: In the radial direction of the annular structure, the connector mounting cavity has an opening facing away from the annular structure, one end of the connector is installed in the connector mounting cavity, and the other end of the connector protrudes out of the annular structure through the opening.

7. The electronic product holder according to claim 6, characterized in that: The connector includes a connecting part and a rolled part. The connecting part is inserted into the mounting cavity of the connector, and the rolled part protrudes outside the annular structure. The rolled part is provided with a shaft hole for the insertion of a rotating shaft.

8. The electronic product holder according to claim 5, characterized in that: The first magnetic component mounting part is a hollow structure, and a first magnetic component mounting cavity is provided inside the first magnetic component mounting part. The second magnetic component mounting part is a hollow structure, and a second magnetic component mounting cavity is provided inside the second magnetic component mounting part. The magnetic component is disposed in the first magnetic component mounting cavity and the second magnetic component mounting cavity respectively.

9. The electronic product holder according to any one of claims 1-8, characterized in that: The magnetically insulating body has opposing inner and outer surfaces, and the support further includes a surface coating, which is applied to the outer surface, or the surface coating is applied to both the outer and inner surfaces.

10. The electronic product holder according to claim 9, characterized in that: The surface coating is a frosted textured layer or a metallic-looking paint layer.

11. The electronic product holder according to any one of claims 1-8, characterized in that: The magnetically insulating body is one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure.

12. An electronic product stand, characterized in that: The device includes a support member, a connector, a connecting layer, and a magnetically insulated base. The connector is connected to the support member via the connecting layer. The support member is rotatably connected to the magnetically insulated base via the connector. The bracket is connected to an electronic product or a protective case of the electronic product via the magnetically insulated base. When the electronic product is wirelessly charged, the bracket is located between the electronic product and the wireless charger. The support member includes a main body and a magnetic component disposed on the main body, and the wireless charger is attracted to the main body via the magnetic component. The main body includes a connector mounting portion, and the connector is connected to the connector mounting portion via the connecting layer.

13. The electronic product holder according to claim 12, characterized in that: The magnetically insulated base has opposing inner and outer surfaces; the magnetically insulated base is provided with a surface coating, which is applied to the outer surface, or the surface coating is applied to both the outer and inner surfaces.

14. The electronic product holder according to claim 13, characterized in that: The surface coating is a frosted textured layer or a metallic-looking paint layer.

15. The electronic product holder according to claim 12, characterized in that: The magnetically insulating base is one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure.

16. An electronic device accessory, characterized in that: The device includes a magnetically insulated base and an electronic product holder as described in any one of claims 1-11; the support member is rotatably connected to the magnetically insulated base via the connector, and the electronic device accessory is connected to the electronic product or the electronic product protective case via the base; when the electronic product is wirelessly charged, the electronic device accessory is located between the electronic product and the wireless charger; the support member includes a magnetically insulated body and a magnetic element disposed on the magnetically insulated body, and the wireless charger is attracted to the magnetically insulated body via the magnetic element.

17. The electronic device accessory according to claim 16, characterized in that: The magnetically insulated base has opposing inner and outer surfaces, and the magnetically insulated base is provided with a surface coating, which is applied to the outer surface, or the surface coating is applied to both the outer and inner surfaces.

18. The electronic device accessory according to claim 17, characterized in that: The surface coating is a frosted textured layer or a metallic-looking paint layer.

19. The electronic device accessory according to claim 16, characterized in that: The magnetically insulating base is one or more of the following: glass fiber structure, carbon fiber structure, silicon fiber structure, oxide ceramic structure, nitride ceramic structure, and carbide ceramic structure.

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