A type of power strip

Abstract

This application discloses a power strip, comprising a power strip body, a wireless charging module, and mating components. The power strip body includes a socket module; the mating components are connected to both the power strip body and the wireless charging module, and the wireless charging module is detachably mounted to the power strip body via the mating components. The socket module includes a base and a movable socket, which is vertically and vertically mounted on the base. By separating the wireless charging module from the power strip body, some structural components can be allocated and installed within the wireless charging module, effectively reducing the size of the power strip body. Furthermore, when an external charging plug needs to be inserted into the socket module, the movable socket can be raised to increase the thickness of the socket module, allowing the charging pins of the charging plug to be fully inserted into the socket module. After the charging plug is removed, the movable socket can be lowered to return to its original position, reducing the thickness of the socket module and thus achieving an ultra-thin design for the power strip.

Description

Technical Field

[0001] This application relates to the field of power strip technology, and more particularly to a power strip. Background Technology

[0002] Traditional mobile device charging typically involves directly connecting the device to a charger and charging cable, limiting device usability and easily leading to cable damage and loss. With the development and widespread adoption of wireless charging technology, the number of mobile devices equipped with this technology is increasing, driving the emergence of various wireless charging devices and greatly improving the user charging experience. However, most wireless charging devices currently on the market have independent chargers, making effective integration with other power sources difficult. This results in high desktop space usage and increased complexity in managing power sources when charging multiple devices simultaneously.

[0003] When charging multiple devices, power strips are a key power distribution device. With the increasing variety and number of electronic devices, integrating wireless charging modules into power strips to diversify their functions has certain application advantages. However, power strips that integrate multiple functions are prone to problems such as improper structural design leading to excessively large power strip sizes. Utility Model Content

[0004] This application provides a power strip that can solve the problem of large power strip size.

[0005] This application provides a power strip, which includes a power strip body, a socket module, a wireless charging module, and a mating component. The mating component is connected to the power strip body and the wireless charging module, respectively. The wireless charging module is detachably installed on the power strip body through the mating component. The socket module includes a base and a movable socket, which is vertically mounted on the base.

[0006] Based on the embodiments of this application, by separating the wireless charging module from the main body of the power strip, some structural components can be allocated and installed in the wireless charging module, thereby effectively reducing the volume of the main body of the power strip. Furthermore, the movable socket of the socket module is mounted on the base in a height-adjustable manner. When an external charging plug needs to be plugged into the socket module, the movable socket can be raised to increase the thickness of the socket module, allowing the charging pins of the charging plug to be fully inserted into the socket module. After the charging plug is unplugged, the movable socket can be lowered to return to its original position, reducing the thickness of the socket module and thus achieving an ultra-thin design for the power strip. Attached Figure Description

[0007] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0008] Figure 1 This is a three-dimensional structural diagram of a power strip according to an embodiment of this application;

[0009] Figure 2 This is a three-dimensional structural diagram of a wireless charging module separated from the main body of a power strip according to an embodiment of this application;

[0010] Figure 3 This is a cross-sectional structural schematic diagram of the main body of a power strip according to an embodiment of this application;

[0011] Figure 4 This is an exploded view of a wireless charging module according to an embodiment of this application;

[0012] Figure 5 This is a three-dimensional structural diagram of a wireless charging module in a stowed state according to an embodiment of this application;

[0013] Figure 6 This is a three-dimensional structural diagram of a wireless charging module in an unfolded state according to an embodiment of this application;

[0014] Figure 7 This is an exploded view of the main body of a power strip according to one embodiment of this application;

[0015] Figure 8 A three-dimensional structural diagram of the mounting base of the socket module and charging control module according to an embodiment of this application;

[0016] Figure 9 This is a partially exploded view of a socket module according to an embodiment of this application;

[0017] Figure 10 This is a three-dimensional structural diagram of the first linkage component according to an embodiment of this application;

[0018] Figure 11 This is a three-dimensional structural diagram of a movable socket mounted on a base according to an embodiment of this application;

[0019] Figure 12 This is a three-dimensional structural diagram of the transmission rod in contact with the first linkage member according to an embodiment of this application;

[0020] Figure 13 This is a side view of a transmission rod toggling the movable socket in a second position according to an embodiment of this application.

[0021] Figure label:

[0022] 1. Power strip; 2. External charging plug; 3. Power supply plug;

[0023] 10. Main body of the power strip;

[0024] 100. Power strip housing; 110a. Receiving cavity; 101. First surface; 1011. First region; 1012. Second region; 101a. First edge; 101b. Wireless charging opening; 101c. Socket opening; 101d. Third opening; 110. Bottom shell; 120. Cover; 121. Main cover; 122. Decorative piece; 123. Adhesive layer;

[0025] 200. Socket module; 210. Electrode unit; 211. Electrode component; 220. Base; 221. Base base plate; 222. Electrode mounting part; 220b. Electrode opening; 220c. Guide opening; 220d. Limiting opening; 230. Movable socket; 230a. Plug-in opening; 231. First rack; 232. First adjustment part; 240. Linkage assembly; 241. First linkage component; 241a. Linkage groove; 241b. Linkage opening; 2411. Second rack; 2412. Second adjustment part; 242. Second linkage component; 2421. Linkage inclined surface; 2422. Abutment part; 2423. Plug-in part; 243. Second elastic reset component; 250. Transmission assembly; 251. Transmission gear; 252. First rotating shaft; 253. Transmission rod; 254. Second rotating shaft; 260. First elastic reset component;

[0026] 300. Charging control module; 310. Charging circuit board; 320. Charging functional components; 321. Light source;

[0027] 400. Interface module; 410. Interface circuit board; 420. Power connector;

[0028] 20. Wireless charging module; 21. Wireless charging element; 22. Wireless charging housing; 201. Bottom cover; 202. Middle frame; 203. Top cover; 2231. Charging plane; 22a. Charging opening;

[0029] 30. Mating component; 31. First magnetic body; 31a. First mating part; 31b. First assembly part; 32. Second magnetic body; 32a. Second mating part; 32b. Second assembly part; 3a. First radial line; 3b. Second radial line;

[0030] 41. First conductive element; 42. Second conductive element;

[0031] X: length direction; Y: thickness direction; Z: width direction. Detailed Implementation

[0032] To make the objectives, technical solutions, and advantages of this application clearer, the following detailed description is provided in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the scope of this application.

[0033] The inventors discovered that integrating a wireless charging module into a power strip can diversify the power strip's functions. However, power strips integrating multiple functions are prone to problems such as improper structural design leading to excessively large dimensions. Therefore, this application provides a power strip embodiment.

[0034] like Figure 1 The diagram shown is a structural schematic of a power strip 1 according to an embodiment of this application. The power strip 1 includes a power strip body 10, a wireless charging module 20, and a cooperating component 30.

[0035] like Figure 2 and Figure 3 As shown, the power strip body 10 includes a power strip housing 100, a socket module 200, and a charging control module 300. The power strip housing 100 has a receiving cavity 110a inside. The socket module 200 is at least partially disposed in the receiving cavity 110a and installed in the power strip housing 100. The charging control module 300 is disposed in the receiving cavity 110a and installed in the power strip housing 100.

[0036] The wireless charging module 20 includes a wireless charging element 21 and a storage battery. The wireless charging module 20 is detachably mounted to the power strip housing 100 via a mating assembly 30. When the wireless charging module 20 is mounted to the power strip housing 100 via the mating assembly 30, the wireless charging element 21 is electrically connected to the charging control module 300 via the mating assembly 30, so that the charging control module 300 supplies power to the wireless charging element 21, thereby charging external electrical devices. When the wireless charging module 20 is detached from the power strip housing 100, the storage battery of the wireless charging module 20 can supply power to the wireless charging element 21, thereby charging external electrical devices.

[0037] In this embodiment, the socket module 200 is used to connect and cooperate with an external charging plug and to supply power to the external charging plug. The wireless charging module 20 is used to contact an external power device so that the wireless charging element 21 can wirelessly charge the external power device. The plug-in charging and wireless charging are integrated into the same power strip 1, enriching the charging functions of the power strip 1.

[0038] In this embodiment, the wireless charging module 20 is set independently of the power strip body 10. This allows the wireless charging element 21 to be distributed within the wireless charging module 20. Compared to the installation scheme where the wireless charging element 21 is installed in the receiving cavity 110a of the power strip housing 100, this solution effectively reduces the volume of the power strip body 10. Furthermore, compared to the installation scheme where the wireless charging element 21 and the charging control module 300 are all integrated into the wireless charging module 20, this solution effectively reduces the volume and weight of the wireless charging module 20, cleverly utilizing the installation space to achieve the effect of effectively reducing the volume of the power strip 1.

[0039] This application does not limit the types of wireless charging element 21 and external electrical devices. Any wireless charging element 21 that can be used to wirelessly charge external electrical devices in this field is applicable to this application. For example, the wireless charging element 21 can be a flat charging coil. When the wireless charging module 20 is installed on the power strip housing 100 through the mating component 30, and the wireless charging module 20 and the power strip body 10 are stacked in the thickness direction Y of the power strip body 10, the flat surface of the charging coil is perpendicular to the thickness direction Y of the power strip body 10. For example, the external electrical devices include mobile phones, smart wearable devices, etc.

[0040] In this embodiment, at least a portion of the socket module 200 is disposed in the receiving cavity 110a and mounted on the power strip housing 100. The socket module 200 is configured to have an adjustable thickness in the thickness direction Y of the power strip body 10 to meet the insertion requirements of an external charging plug into the socket module 200. Simultaneously, after the external charging plug is unplugged, the socket module 200 returns to a smaller thickness to meet the requirement of an ultra-thin power strip. Figure 1 The diagram shown is a three-dimensional structural schematic of an embodiment of this application, in which the external charging plug is not plugged into the socket module 200. The socket module 200 is relatively thin. Figure 5 The diagram shown is a three-dimensional structural schematic of an external charging plug being inserted into a socket module 200 in one embodiment of this application. The socket module 200 is relatively thick.

[0041] In this embodiment, the socket module 200 includes a base 220 and a movable socket 230. The movable socket 230 is vertically and vertically mounted on the base 220 to allow the thickness of the socket module 200 in the thickness direction Y of the power strip body 10 to be adjustable. When the movable socket 230 rises relative to the base 220, the socket module 200 is thicker; when the movable socket 230 falls relative to the base 220, the socket module 200 is thinner.

[0042] The socket module 200 also includes a linkage component 240 and a transmission component 250. The movable socket 230 and the linkage component 240 are movably mounted on the base 210, and the transmission component 250 is connected to the movable socket 230 and the linkage component 240, respectively. The transmission component 250 is used to drive the other to move in the opposite direction of the preset direction when one of the movable socket 230 and the linkage component 240 moves in a preset direction. The preset direction and the opposite direction of the preset direction are two directions parallel to the thickness direction Y of the socket body 10.

[0043] In this embodiment, by setting the movable socket 230 and the linkage component 240 to be linked under the drive of the transmission component 250, the movable socket 230 can be pushed to move when the charging pin of the external charging plug is inserted into the movable socket 230 and the linkage component 240 is pressed. The position of the movable socket 230 relative to the base 220 is raised to increase the thickness of the socket module 200, so that the charging pin of the external charging plug can be fully inserted into the socket module 200. After the external charging plug is pulled out, the movable socket 230 and the linkage component 240 can move relative to the base 220, so that the movable socket 230 can be reset and the thickness of the socket module 200 is reduced, thereby realizing the ultra-thin design of the power strip 1.

[0044] Furthermore, the wireless charging module 20 and the main body 10 of the power strip are separately set, which makes the installation method of the wireless charging module 20 relative to the main body 10 of the power strip more flexible. When the wireless charging module 20 is installed on the power strip housing 100 through the cooperating component 30, the cooperating component 30 is configured to drive the wireless charging module 20 to rotate relative to the power strip housing 100, so that the angle of the wireless charging module 20 relative to the main body 10 of the power strip is more flexible and changeable. This allows users to use external electrical devices without being limited by the placement of the main body 10 of the power strip and the wireless charging module 20. For example, when an external charging plug is plugged into the socket module 200, by adjusting the angle of the wireless charging module 20 relative to the main body 10 of the power strip, the external electrical device can also be placed on the wireless charging module 20 for charging, and there is no interference between the external electrical device and the external charging plug, so that the power strip 1 can meet the needs of various usage scenarios.

[0045] Please refer to the following: Figure 2 and Figure 3 The outer surface of the power strip housing 100 includes a first surface 101. The first surface 101 is provided with a wireless charging opening 101b and a socket opening 101c. The wireless charging opening 101b and the socket opening 101c are respectively connected to the receiving cavity 110a. The mating component 30 is at least partially provided in the wireless charging opening 101b so that the mating component 30 can be assembled with the wireless charging module 20 and so that the wireless charging module 20 can rotate flexibly relative to the socket body. The socket module 200 passes through the socket opening 101c so that the external charging plug 2 can be plugged in and mated.

[0046] In some embodiments, the first surface 101 includes a first region 1011 and a second region 1012 arranged side by side in the length direction X of the power strip body 10. The first region 1011 is provided with a wireless charging opening 101b, and the second region 1012 is provided with a socket opening 101c, so that the wireless charging module 20 and the socket module 200 are arranged in different regions.

[0047] like Figure 4 As shown, the wireless charging module 20 includes a wireless charging housing 22. Optionally, the wireless charging housing 22 includes a bottom cover 201, a middle frame 202, and a top cover 203. The bottom cover 201, the middle frame 202, and the top cover 203 enclose an installation space. The wireless charging element 21 is disposed in the installation space and installed on at least one of the bottom cover 201, the middle frame 202, and the top cover 203. The outer surface of the wireless charging housing 22 includes a charging plane 2231. Specifically, the surface of the top cover 203 facing away from the bottom cover 201 forms a charging plane 2231. The charging plane 2231 is used to support external electrical devices so that the external electrical devices can be stably placed on the wireless charging module 20 for charging.

[0048] The wireless charging module 20 has a retracted state and an unfolded state. The component 30 is configured to rotate the wireless charging module 20 relative to the power strip housing 100, switching between the retracted and unfolded states. Figure 5 As shown, in the stored state, the wireless charging module 20 and the power strip body 10 are stacked in the thickness direction Y of the power strip body 10. At this time, the charging plane 2231 is perpendicular to the thickness direction Y of the power strip body 10, and the surface of the wireless charging housing 22 facing away from the charging plane 2231 is in contact with the first region 1011 of the first surface 101, as shown. Figure 6 As shown, in the unfolded state, the wireless charging module 20 is angled to the power strip body 10. Specifically, the surface of the wireless charging housing 22 facing away from the charging plane 2231 is spaced apart from the first surface 101. The charging plane 2231 is angled to the thickness direction Y of the power strip body 10. Further, the first surface 101 is flat, and the charging plane 2231 is angled to the first surface 101, with the angle being α, where 0° < α ≤ 90°. The wireless charging module 20 can be switched between a retracted state and an unfolded state by tossing it. In both the retracted and unfolded states, external electrical devices can be attached to the charging plane 2231, and the wireless charging module 20 can be used to wirelessly charge external electrical devices. In the unfolded state, the bottom cover 201 of the wireless charging module 20 is separated from the power strip body 10, facilitating the direct dissipation of heat from both the wireless charging module 20 and the power strip body 10 to the external space, thus aiding in heat dissipation.

[0049] In this embodiment, the length direction X, width direction Z, and thickness direction Y of the power strip body 10 are perpendicular to each other.

[0050] It is understandable that when the wireless charging module 20 rotates relative to the power strip housing 100, a certain amount of rotation space is required to allow the wireless charging module 20 and the external electrical device attached to the wireless charging module 20 to rotate smoothly. The farther the mating component 30 is from the second area 1012, the lower the probability of the wireless charging module 20 and the external electrical device colliding with the socket module 200 and the external charging plug 2 during rotation. Please refer to [further details omitted]. Figure 2 In some embodiments, the first region 1011 has a first edge 101a that is away from the second region 1012 in the length direction X of the power strip body 10. In the length direction X of the power strip body 10, the distance from the wireless charging opening 101b to the first edge 101a is less than the distance from the wireless charging opening 101b to the second region 1012, so that the mating component 30 is located away from the second region 1012. Thus, when the wireless charging module 20 is in the unfolded state, the part of the wireless charging module 20 away from the mating component 30 can be spaced from the power strip body 10, and the rotation of the wireless charging module 20 and the external power device relative to the power strip body 10 is smoother.

[0051] like Figure 3 As shown, the main body 10 of the power strip also includes an interface module 400, which includes an interface circuit board 410 and a power interface 420. The interface circuit board 410 is located in the receiving cavity 110a and installed on the power strip housing 100. The power interface 420 is installed on the interface circuit board 410. The socket module 200 also includes an electrode 211, which is electrically connected to an external charging plug 2. The electrode 211 and the charging control module 300 are electrically connected to the power interface 420, and the power interface 420 is used to plug into and be electrically connected to a power supply plug 3. The power supply plug 3 is electrically connected to an external power source, so that the external power source can supply power to the charging control module 300 and the electrode 211 of the socket module 200 through the power interface 420. The plug-in connection between the power interface 420 and the power supply plug 3 also facilitates the independent movement of the power strip 1 after the power supply plug 3 is unplugged.

[0052] In some embodiments, the socket module 200, charging control module 300, and interface module 400 are arranged side-by-side in a plane perpendicular to the thickness direction Y of the power strip body 10, which helps to reduce the thickness of the power strip body 10. Optionally, in the thickness direction Y of the power strip body 10, at least a portion of the projection of the interface module 400 overlaps with the second region 1012, so as to reserve more sufficient space in the plane perpendicular to the thickness direction Y of the power strip body 10 for setting the charging control module 300, reducing the thickness of the power strip body 10 and facilitating heat dissipation.

[0053] In some embodiments, such as Figure 7 and Figure 8As shown, in the length direction X of the power strip body 10, the socket module 200 is located between the interface module 400 and the charging control module 300. The surface of the interface circuit board 410 is perpendicular to the length direction X of the power strip body 10. The power interface 420 is located on the side of the interface circuit board 410 away from the charging control module 300, so as to set the orientation of the power interface 420, thereby facilitating the smooth insertion of the power plug 3 into the power interface 420. The power strip housing 100 has a third opening 101d communicating with the receiving cavity 110a. The power interface 420 can be located inside the receiving cavity 110a, and the power plug 3 passes through the third opening 101d and is plugged into the power interface 420. Alternatively, the power interface 420 can be partially located in the third opening 101d, and the power plug 3 extends into the third opening 101d and is plugged into the power interface 420. Or, the power interface 420 can pass through the third opening 101d and extend out of the power strip housing 100, and the power plug 3 is plugged into the power interface 420 on the outside of the power strip housing 100.

[0054] In some embodiments, the power strip housing 100 has a third opening 101d at the portion of the socket module 200 away from the charging control module 300. The third opening 101d extends toward the length direction X of the power strip body 10. The power plug 3 moves along the length direction X of the power strip body 10 to engage with the power interface 420, so that the insertion direction of the power plug 3 and the insertion direction of the external charging plug 2 form an angle to prevent the power plug 3 and the external charging plug 2 from interfering with each other.

[0055] Combination Figure 7 and Figure 8The power strip 1 includes a first conductive element 41 and a second conductive element 42. The charging control module 300 is electrically connected to the plug interface 420 through the first conductive element 41, and the electrode element 211 of the socket module 200 is electrically connected to the plug interface 420 through the second conductive element 42. In some embodiments, the socket module 200 includes a plurality of electrode units 210, each electrode unit 210 including a plurality of electrode elements 211 with different polarities, and each electrode unit 210 is used to engage with an external charging plug 2, so that the socket module 200 can be plugged into by a plurality of external charging plugs 2. The plurality of electrode units 210 are arranged side by side in a plane perpendicular to the thickness direction Y of the power strip body 10. The first conductive element 41 is electrically connected at one end to the plug-in interface 420 and passes through the area between at least one set of two adjacent electrode units 210. The other end of the first conductive element 41 is electrically connected to the charging control module 300. The power strip 1 includes a plurality of second conductive elements 42. Each second conductive element 42 is electrically connected to the plug-in interface 420 and is connected to an electrode 211 of the plurality of electrode units 210 with the same polarity. A portion of the second conductive element 42 can be arranged around the outer periphery of the electrode unit 210 to reduce the space occupied by the socket module 200 in the thickness direction Y of the power strip body 10.

[0056] In some embodiments, the base 220 of the socket module 200 is disposed in the receiving cavity 110a and mounted on the power strip housing 100. The electrode 211 is mounted on the base 220, which supports and defines the position of the electrode 211 so that the electrode 211 can be stably plugged into the external charging plug 2. The first conductive element 41 and the second conductive element 42 are also mounted on the base 220, which restricts their positions, prevents them from moving freely, and improves installation stability.

[0057] Optionally, the base 220 includes a base plate 221 and electrode mounting portions 222 disposed on the base plate 221. The number of electrode mounting portions 222 is equal to the number of electrode units 210. Each electrode mounting portion 222 has multiple electrode openings 220b, and each electrode mounting portion 222 and the base plate 221 enclose an electrode cavity communicating with the multiple electrode openings 220b. Multiple electrode elements 211 of each electrode unit 210 are disposed in the electrode cavity and correspond one-to-one with the multiple electrode openings 220b. Each external charging plug 2 passes through an electrode opening 220b and is plugged into and engaged with multiple electrode components 211 of the same electrode unit 210. A portion of the first conductive component 41 may be located in the space between two adjacent electrode mounting portions 222, and the first conductive component 41 may be installed in at least one of the electrode mounting portion 222 and the base plate 221. A portion of the second conductive component 42 may be arranged around the outer periphery of the electrode mounting portion 222, and the other portion may extend into the electrode cavity and connect with the electrode component 211.

[0058] In some embodiments, multiple electrode units 210 are arranged side-by-side along the width direction Z of the power strip body 10, or multiple electrode units 210 are arranged side-by-side along the length direction X of the power strip body 10, or a portion of the electrode units 210 are arranged side-by-side along the width direction Z of the power strip body 10 and another portion of the electrode units 210 are arranged side-by-side along the length direction X of the power strip body 10. For example, the socket module 200 includes two electrode units 210, which are arranged side-by-side along the width direction Z of the power strip body 10, or the two electrode units 210 are arranged side-by-side along the length direction X of the power strip body 10; for example, the socket module 200 includes four electrode units 210, which are distributed in a rectangular array, that is, the four electrode units 210 are arranged in pairs along the length direction X of the power strip body 10, and the two electrode units 210 in each pair are arranged side-by-side along the width direction Z of the power strip body 10. In some other embodiments, the socket module 200 may also include other numbers of electrode units 210, for example, three, five, six, etc.

[0059] When at least a portion of the multiple electrode units 210 are arranged side-by-side along the width direction Z of the plug-in body 10, a wiring channel is formed between the multiple electrode mounting portions 222 arranged side-by-side along the width direction Z of the plug-in body 10. A portion of the first conductive member 41 is disposed within the wiring channel. Each second conductive member 42 includes a first segment, a second segment, and a third segment connected in sequence. The first segment is mounted on the interface circuit board 410 and electrically connected to the plug-in interface 420. The second segment is disposed within the wiring channel, and the third segment extends from the second segment to the electrode mounting portion 22. 2. The second conductive element 42 extends from the side opposite to the plug-in interface 420 and into the electrode cavity to connect with the electrode 211. Each second conductive element 42 may include a plurality of third segments equal in number to the plurality of electrode units 210. For example, if there are two groups of electrode units 210, each second conductive element 42 includes a first segment, a second segment, and two third segments. The two third segments of the same second conductive element 42 are both connected to the second segment, and the two third segments of the same second conductive element 42 are electrically connected one-to-one with the electrode 211 of the same polarity in the two groups of electrode units 210.

[0060] Optionally, each electrode unit 210 includes two electrodes 211 with different polarities, one of which is a live wire (L-level) electrode and the other is a neutral wire (N-level) electrode. Correspondingly, the socket module 200 includes two second conductive elements 42 corresponding to the two electrodes 211 with different polarities. Optionally, each electrode unit 210 includes three electrodes 211 with different polarities, one of which is a live wire (L-level) electrode, one is a neutral wire (N-level) electrode, and the other is a ground wire (E-level) electrode. Correspondingly, the socket module 200 includes three second conductive elements 42 corresponding to the three electrodes 211 with different polarities.

[0061] The charging control module 300 includes a charging circuit board 310. A first conductive element 41 is mounted on the charging circuit board 310 and electrically connected to the charging circuit of the charging circuit board 310 to supply the power supplied by the power plug 3 to the charging circuit. The charging control module 300 also includes at least one charging functional device 320, which is mounted on the charging circuit board 310 and electrically connected to the charging circuit of the charging circuit board 310. A mating component 30 is also electrically connected to the charging circuit of the charging circuit board 310.

[0062] In some embodiments, the surface of the charging circuit board 310 is perpendicular to the thickness direction Y of the power strip body 10, and at least a portion of the projection of the charging circuit board 310 overlaps with the first region 1011 in the thickness direction Y of the power strip body 10. The charging functional device 320 is disposed on the side of the charging circuit board 310 facing the first region 1011, so as to lay the charging functional device 320 flat on the charging circuit board 310, reduce the thickness of the power strip body 10, and so as to carry out heat dissipation design for the multiple charging functional devices 320.

[0063] like Figure 7 As shown, the power strip housing 100 includes a bottom shell 110 and a cover 120. The cover 120 includes a main cover 121 and a decorative element 122. The decorative element 122 is installed on the main cover 121, and the main cover 121 is installed on the bottom shell 110. The main cover 121, the decorative element 122, and the bottom shell 110 enclose a receiving cavity 110a. The outer surface of the decorative element 122 has a first region 1011, and the outer surface of the main cover 121 has a second region 1012. By setting the cover 120 to include the main cover 121 and the decorative element 122, the main cover 121 and the decorative element 122 can be made of different materials so that the type of the decorative element 122 can be adjusted according to the needs.

[0064] In some embodiments, the cover 120 further includes an adhesive layer 123, which fills the gap between the main cover 121 and the decorative element 122, bonding the main cover 121 and the decorative element 122 together; alternatively, the main cover 121 and the decorative element 122 may be injection molded together. In other embodiments, the cover 120 may not be divided into separate main cover 121 and decorative element 122; the entire structure of the cover 120 may be a single unit, and all parts may be made of the same material.

[0065] like Figure 7 As shown, the main cover 121 has a decorative opening, and a decorative piece 122 is installed on the main cover 121 covering the decorative opening. The decorative piece 122 is light-transmitting. The power strip 1 also includes a light source 321 disposed in the receiving cavity 110a. The light source 321 is disposed corresponding to the decorative opening. The light emitted by the light source 321 passes through the decorative opening and the decorative piece 122 in sequence and exits the power strip body 10. The light emission status of the light source 321 reminds the user about the charging status of the power strip 1.

[0066] The wireless charging module 20 is detachably mounted to the power strip body 10 via the cooperating component 30. Please refer to [link / reference]. Figure 4 The cooperating component 30 includes a first magnetic body 31 and a second magnetic body 32. The first magnetic body 31 is installed on the power strip housing 100 and is electrically connected to the charging control module 300. The second magnetic body 32 is installed on the wireless charging module 20 and is electrically connected to the wireless charging element 21. The first magnetic body 31 and the second magnetic body 32 are magnetically attracted to each other to detachably install the wireless charging module 20 on the power strip housing 100. When the wireless charging module 20 is installed on the power strip housing 100 through the magnetic attraction of the first magnetic body 31 and the second magnetic body 32, the wireless charging element 21 can receive the electrical energy supplied sequentially through the charging control module 300, the first magnetic body 31 and the second magnetic body 32, thereby charging the external electrical device.

[0067] In some embodiments, the wireless charging module 20 includes a wireless charging housing 22, which has an installation space. A storage battery and a wireless charging element 21 are both located within the installation space. The storage battery is electrically connected to a second magnetic body 32. When the wireless charging module 20 is magnetically connected to the power strip housing 100 via the first magnetic body 31 and the second magnetic body 32, the storage battery can receive and store electrical energy supplied sequentially via the charging control module 300, the first magnetic body 31, and the second magnetic body 32. The storage battery is also electrically connected to the wireless charging element 21. When the first magnetic body 31 and the second magnetic body 32 are magnetically separated, the wireless charging module 20 can be directly removed, allowing for more flexible movement of the wireless charging module 20 relative to the power strip body 10. At this time, the wireless charging element 21 can receive electrical energy supplied by the storage battery to charge external electrical devices, making charging more convenient and flexible.

[0068] In some embodiments, the first magnetic body 31 has a first central axis and a second central axis. The first central axis extends along the width direction Z of the power strip body 10, and the second central axis extends along the thickness direction Y of the power strip body 10. The second magnetic body 32 can rotate around the first central axis of the first magnetic body 31, and the second magnetic body 32 can also rotate around the second central axis of the first magnetic body 31, so that the second magnetic body 32 can rotate in multiple directions relative to the first magnetic body 31, so as to flexibly adjust the angle of the wireless charging module 20 relative to the power strip body 10.

[0069] Optionally, the first magnetic body 31 includes a first docking portion 31a, and the second magnetic body 32 includes a second docking portion 32a. One of the first docking portion 31a and the second docking portion 32a is a ball head, and the other is a ball head sleeve. The ball head sleeve is fitted onto the ball head, allowing the ball head sleeve to rotate around the ball head. This makes the angle switching method of the second magnetic body 32 relative to the power strip body 10 more flexible and convenient, and the angle switching range wider. Furthermore, the installation method of the ball head sleeve fitting onto the ball head increases the contact area between the ball head sleeve and the ball head, resulting in a tighter connection and better support stability for the wireless charging module 20.

[0070] like Figure 4As shown, the first magnetic body 31 also includes a first assembly part 31b, one end of which is connected to the first docking part 31a, and the other end is installed in the power strip housing 100. Optionally, the first assembly part 31b is integrally formed with the first docking part 31a, and the first assembly part 31b is disposed in the receiving cavity 110a. The first assembly part 31b is installed in the power strip housing 100 by means of screw fastening, welding, etc., or the first assembly part 31b is snap-fitted to the power strip housing 100 to facilitate the assembly and disassembly of the first magnetic body 31. This application does not limit the snap-fitting method of the first assembly part 31b to the power strip housing 100, and the specific method can be selected according to actual needs. At least one of the first docking part 31a and the first assembly part 31b is in contact with the wall surface of the power strip housing 100, and the power strip housing 100 provides support for the first magnetic body 31, increasing the stability of the first magnetic body 31 in supporting the second magnetic body 32 and the wireless charging module 20.

[0071] The second magnetic body 32 also includes a second assembly part 32b, one end of which is connected to the second docking part 32a and the other end is installed on the wireless charging module 20. Optionally, the second assembly part 32b is integrally formed with the second docking part 32a. The second assembly part 32b is located in the internal space of the wireless charging housing 22 and is installed on the wireless charging housing 22 by means of screws, welding, or other methods. Similarly, at least one of the second docking part 32a and the second assembly part 32b is in contact with the wall surface of the wireless charging housing 22, providing support for the second magnetic body 32 through the wireless charging housing 22, increasing the installation stability of the second magnetic body 32, and enabling the second magnetic body 32 to rotate frequently relative to the first magnetic body 31.

[0072] When the wireless charging module 20 is installed on the power strip housing 100, the wireless charging module 20 has a storage position that is stacked with the power strip housing 100 in the thickness direction Z. That is, when the wireless charging module 20 is in the storage state, the wireless charging module 20 is in the storage position. In some embodiments, the first docking portion 31a has a first radial line 3a, and the second docking portion 32a has a second radial line 3b. In the retracted position, the first radial line 3a is parallel to the thickness direction Z of the power strip body 100, and the second radial line 3b is perpendicular to the thickness direction Z of the power strip body 100 (for example, the second radial line 3b may be parallel to the length direction X of the power strip body 100). The central axis m of the first assembly portion 31b is collinear with the first radial line 3a, and the central axis n of the second assembly portion 32b is parallel to the second radial line 3b. In the thickness direction Z of the power strip body 100, the central axis n of the second assembly portion 32b is located on the side of the second radial line 3b away from the first magnetic body 31. Thus, when the wireless charging module 20 switches between the retracted state and the unfolded state, the movement of the wireless charging module 20 relative to the power strip body 10 is smoother, and it can have a larger range of motion.

[0073] In some embodiments, such as Figure 4 As shown, the portion connecting the first assembly part 31b and the first docking part 31a has a columnar structure, and the central axis m of the first assembly part 31b is the same as the central axis of the columnar portion of the first docking part 31a. Similarly, the portion connecting the second assembly part 32b and the second docking part 32a also has a columnar structure, and the central axis n of the second assembly part 32b is the same as the central axis of the columnar portion of the second docking part 32a. The columnar structure can be a cylindrical structure, a square columnar structure, or other columnar structures with regular outer contours to provide uniform and stable support.

[0074] It is understood that both the ball head and the ball head sleeve have spherical surfaces with a center. The spherical surface of the ball head sleeve can be a concave hemisphere, while the spherical surface of the ball head can be a convex spherical surface. The convex spherical surface of the ball head slides and fits into the concave hemisphere of the ball head sleeve, allowing the second magnetic body 32 to rotate relative to the first magnetic body 31, thus switching the wireless charging module 20 between a retracted state and an unfolded state. When the first docking part 31a is the ball head and the second docking part 32a is the ball head sleeve, the first radial line 3a of the first docking part 31a is a radial line passing through the center of the ball head, and the second radial line 3b of the second docking part 32a is a radial line passing through the center of the ball head sleeve. When the first docking part 31a is the ball head sleeve and the second docking part 32a is the ball head, the first radial line 3a of the first docking part 31a is a radial line passing through the center of the ball head sleeve, and the second radial line 3b of the second docking part 32a is a radial line passing through the center of the ball head.

[0075] The power strip housing 100 has a wireless charging opening 101b communicating with the receiving cavity 110a, and the wireless charging housing 22 of the wireless charging module 20 has a charging opening 22a communicating with the installation space. Optionally, a first mating part 31a is disposed within the wireless charging opening 101b of the power strip housing 100, and a second mating part 32a passes through the charging opening 22a and extends into the wireless charging opening 101b to be magnetically connected to the first mating part 31a; or, the second mating part 32a is disposed within the charging opening 22a, and the first mating part 31a passes through the wireless charging opening 101b and extends into the charging opening 22a to be magnetically connected to the second mating part 32a; or, the first mating part 31a passes through the wireless charging opening 101b, and the second mating part 32a passes through the charging opening 22a, so that the portion of the first mating part 31a extending out of the power strip housing 100 is magnetically connected to the portion of the second mating part 32a extending out of the wireless charging housing 22.

[0076] In some embodiments, the first mating portion 31a of the first magnetic body 31 is separately disposed from the power strip housing 100, and the first mating portion 31a is sealed to the power strip housing 100 to prevent external substances from entering the receiving cavity 110a from the wireless charging opening 101b; or, the power strip housing 100 is not provided with a wireless charging opening 101b, and the first mating portion 31a of the first magnetic body 31 is directly integrally disposed with the power strip housing 100. Optionally, the surface of the first mating portion 31a is smoothly connected to the outer surface of the power strip housing 100.

[0077] In some embodiments, the second mating portion 32a of the second magnetic body 32 is separately disposed from the wireless charging housing, and the second mating portion 32a of the second magnetic body 32 is sealed to the wireless charging housing to prevent external substances from entering the installation space from the charging opening 22a; or, the wireless charging housing is not provided with a charging opening 22a, and the second mating portion 32a of the second magnetic body 32 is directly integrally disposed with the wireless charging housing. Optionally, the surface of the second mating portion 32a is smoothly connected to the outer surface of the wireless charging housing.

[0078] Understandably, in related technologies, sockets are generally quite thick, resulting in a generally large size. Simply reducing the thickness of the socket to make it thinner would reduce its size, but it also means that the plug prongs might not be fully inserted, leaving some exposed to the air. This could increase the risk of electric shock for users, posing a safety hazard. In this embodiment, the socket module 200 is positioned corresponding to the socket opening 101c of the power strip housing 100, and the thickness of the socket module 200 is adjustable. That is, in this embodiment, the thickness direction of the socket module 200 is parallel to the thickness direction Y of the power strip body 10.

[0079] like Figure 9 As shown, the electrode 211 of the socket module 200 is mounted on the base 220, and the movable socket 230 is movably mounted on the base 220 along the thickness direction Y of the socket body 10, so that the thickness of the socket module 200 is adjustable. Specifically, the movable socket 230 covers the portion of the electrode mounting part 222 that has the electrode opening 220b, thereby covering the electrode 211 and preventing the electrode 211 from being directly exposed to the outside. The movable socket 230 also has a plurality of insertion openings 230a that correspond one-to-one with the plurality of electrode openings 220b of the electrode mounting part 222. The plug pins of each power plug pass through the insertion openings 230a and the electrode openings 220b in a preset direction and extend into the electrode cavity to insert and cooperate with the electrode 211.

[0080] When the movable socket 230 moves along a preset direction, the thickness of the socket module 200 decreases; conversely, when the movable socket 230 moves in the opposite direction of the preset direction, the thickness of the socket module 200 increases. The preset direction and the opposite direction are parallel to the thickness direction Y of the power strip body 10. When the socket module 200 is thicker, it provides a suitable thickness for the external charging plug 2 to be inserted, and supports and protects the electrode pins of the external charging plug 2. After the external charging plug 2 is separated from the socket module 200, the thickness of the socket module 200 can be adjusted to decrease. In this embodiment, the thickness switching of the socket module 200 is achieved through the cooperation of the base 220, the movable socket 230, the linkage component 240, the transmission component 250, and the external charging plug 2.

[0081] In some embodiments, during the process of the electrode pins of the charging plug 2 moving along a preset direction to be inserted into the electrode member 211, the linkage component 240 contacts the electrode pins of the charging plug 2. The linkage component 240 is subjected to the force of the electrode pins of the charging plug 2, causing the linkage component 240 to move together along the preset direction. Furthermore, the linkage component 240 acts on the transmission component 250, causing the transmission component 250 to push the movable socket 230 to rise relative to the base 220 in the opposite direction of the preset direction, thereby increasing the thickness of the socket module 200. Further, during this process, the movable socket 230 rises relative to the base 220 from a first position to a second position. In the first position, the thickness of the socket module 200 is thinner, and in the second position, the thickness of the socket module 200 is thicker.

[0082] In the thickness direction Y of the power strip body 10, the movable socket 230 has a plug-in opening on the surface facing away from the base plate 221. Optionally, in the first position, a portion of the movable socket 230 is located in the receiving cavity 110a, and the remaining portion is located in the socket opening 101c. Further, in the first position, the surface of the movable socket 230 facing away from the base plate 221 is located on the plane of the first surface 101, so that the power strip body 10 has a regular appearance. In the second position, a portion of the movable socket 230 is located in the receiving cavity 110a, a portion is located in the socket opening 101c, and the remaining portion protrudes from the outer surface of the power strip housing 100 (that is, protrudes from the first surface 101). In this way, only the thickness of the socket module 200 needs to be adjusted to meet the plug-in requirements of the external charging plug 2, while the thickness of other structures of the power strip body 10 can be designed to be thinner.

[0083] To facilitate the movable socket 230 to move and reset from the second position to the first position along a preset direction, in some embodiments, the socket module 200 further includes a first elastic reset member 260. The first elastic reset member 260 is connected to the base 220 and the movable socket 230 respectively. The first elastic reset member 260 is used to drive the movable socket 230 to move from the second position to the first position along a preset direction when the linkage component 240 is separated from the external charging plug, so as to realize the automatic reset of the movable socket 230.

[0084] Optionally, the socket module 200 includes a plurality of first elastic reset members 260 along the length direction X of the socket body 10. A portion of the first elastic reset members 260 are disposed on one side of the electrode mounting portion 222, and another portion of the first elastic reset members 260 are disposed on the other side of the electrode mounting portion 222. The number of first elastic reset members 260 disposed on opposite sides of the same electrode mounting portion 222 can be equal, which helps to improve the stability of the movement of the movable socket 230 relative to the base 220 along the thickness direction Y of the socket body 10.

[0085] Optionally, one end of the first elastic reset member 260 is connected to the base plate 221 of the base 220 and the other end is connected to the movable socket 230, so as to facilitate the flexible extension and retraction of the first elastic reset member 260 in the thickness direction Y of the power strip body 10.

[0086] In some embodiments, the linkage component 240 includes a first linkage member 241 and a second linkage member 242. The first linkage member 241 is movably mounted on the base 220 (specifically, the first linkage member 241 is movably mounted on the electrode mounting portion 222 of the base 220) and connected to the transmission component 250. The second linkage member 242 is movably mounted on the first linkage member 241 in a direction that forms an angle with a preset direction. When one of the first linkage member 241 and the second linkage member 242 moves along the thickness direction Y of the power strip body 10, it can drive the other to move together in the thickness direction Y of the power strip body 10. The second linkage member 242 is also used to move relative to the first linkage member 241 in a direction that forms an angle with a preset direction to engage with the base 220 when it moves to a preset position, so as to limit the position of the linkage component 240 relative to the base 220 in the preset direction. During the movement of the second linkage 242 relative to the first linkage 241 at an angle to the preset direction, it gradually makes way for the electrode pins of the external charging plug 2 to be further inserted into the socket module 200 along the preset direction. At the same time, the first linkage 241 pushes the movable socket 230 to move from the first position to the second position in the opposite direction of the preset direction through the transmission component 250, so that the movable socket 230 can more fully block the electrode pins of the external charging plug 2.

[0087] When the second linkage 242 contacts the electrode pins of the external charging plug 2, to facilitate the movement of the second linkage 242 relative to the first linkage 241 at an angle to the preset direction until it engages with the base 220, optionally, the second linkage 242 is provided with a linkage inclined surface 2421. This inclined surface 2421 is tilted away from the electrode 211 in the opposite direction to the preset direction. This allows the second linkage 242 to be driven by the movement of the electrode pins of the external charging plug 2 in the preset direction until they engage with the electrode 211, thus moving the first linkage 241 in the preset direction. When the first linkage 241 moves to abut against the base 220 in the preset direction, the linkage inclined surface 2421 slides relative to the surface of the electrode pins, thereby pushing the second linkage 242 to move at an angle to the preset direction until it engages with the base 220. Optionally, the direction in which the second linkage 242 moves relative to the first linkage 241 to engage with the base 220 is the length direction X of the power strip body.

[0088] In some embodiments, the linkage component 240 includes a second elastic reset member 243, one end of which is mounted on the first linkage member 241 and the other end of which is mounted on the second linkage member 242. The second elastic reset member 243 is configured to be retractable in a direction that forms an angle with a preset direction. When the electrode pins of the external charging plug 2 are inserted into the electrode member 211, the second elastic reset member 243 can push the second linkage member 242 to abut against the side wall of the electrode pin, thereby improving the insertion stability of the external charging plug 2. After the external charging plug 2 is unplugged, the second elastic reset member 243 can push the second linkage member 242 to release the insertion state from the base 220, thereby enabling the linkage component 240 to move in the preset direction and the opposite direction of the preset direction.

[0089] A portion of the first linkage member 241 is disposed within the electrode cavity of the base 220, and the second linkage member 242 is disposed within the electrode cavity. Before the second linkage member 242 moves to a preset position, the end face of the second linkage member 242 away from the electrode member 211 is in contact with the wall surface of the electrode cavity defined by the base 220 to prevent the second linkage member 242 from moving relative to the first linkage member 241 in a direction at an angle to the preset direction. The base 220 has a limiting opening 220d. When the second linkage member 242 moves to the preset position, the second linkage member 242 is pushed by the second elastic reset member 243 and inserted into the limiting opening 220d in a direction at an angle to the preset direction. In the preset direction, the surface of the second linkage member 242 is in contact with the wall surface of the limiting opening 220d defined by the base 220 to limit the position of the second linkage member 242 in the preset direction and the opposite direction of the preset direction, thereby also limiting the position of the first linkage member 241 in the preset direction and the opposite direction of the preset direction.

[0090] In some embodiments, the second linkage member 242 includes an abutment portion 2422 and a plug-in portion 2423. The abutment portion 2422 or the plug-in portion 2423 has a linkage inclined surface 2421, and the plug-in portion 2423 is integrally disposed with the abutment portion 2422. When the second linkage member 242 moves relative to the first linkage member 241 at an angle to a preset direction, the plug-in portion 2423 can be plugged into the limiting opening 220d. Further, when the plug-in portion 2423 is plugged into the limiting opening 220d, the surface of the abutment portion 2422 facing away from the electrode member 211 contacts the surface of the base 220 defining the electrode cavity, thereby limiting the position of the second linkage member 242 in an angle to the preset direction, so that the abutment portion 2422 can stably abut against the electrode pin of the external charging plug in an angle to the preset direction.

[0091] Optionally, the electrode mounting portion 222 has a limiting opening 220d, or the electrode mounting portion 222 and the base plate 221 enclose each other to form a limiting opening 220d, and the limiting opening 220d extends in a preset direction.

[0092] Combination Figure 9 and Figure 10 In some embodiments, the first linkage member 241 has a linkage groove 241a. In the direction in which the second linkage member 242 slides relative to the first linkage member 241, the linkage groove 241a penetrates the first linkage member 241. The second elastic reset member 243 is disposed within the linkage groove 241a. A portion of the second linkage member 242 is disposed within the linkage groove 241a and connected to the second elastic reset member 243. For example, a portion of the abutment portion 2422 and a portion of the insertion portion 2423 are disposed within the linkage groove 241a, and the abutment portion 2422 is connected to the second elastic reset member 243. In a preset direction, the surface of the portion of the second linkage member 242 disposed within the linkage groove 241a contacts the wall surface of the first linkage member 241 defining the linkage groove 241a, so that the first linkage member 241 and the second linkage member 242 can mutually drive each other to move in the preset direction and in the opposite direction of the preset direction. When the second linkage 242 moves to the preset position, the linkage groove 241a aligns with the limiting opening 220d so that the insertion part 2423 can be inserted into the limiting opening 220d.

[0093] In some embodiments, the first linkage member 241 has a linkage opening 241b. In the direction in which the second linkage member 242 slides relative to the first linkage member 241, the linkage opening 241b penetrates the first linkage member 241, and only the insertion portion 2423 of the second linkage member 242 is provided in the linkage opening 241b. One end of the second elastic reset member 243 is connected to the abutment portion 2422, and the other end is connected to the first linkage member 241. In a preset direction, the surface of the portion of the second linkage member 242 located within the linkage opening 241b contacts the wall surface of the first linkage member 241 defining the linkage opening 241b, so that the first linkage member 241 and the second linkage member 242 can mutually drive each other to move in the preset direction and the opposite direction of the preset direction. When the second linkage member 242 moves to a preset position, the linkage opening 241b aligns with the limiting opening 220d, so that the insertion portion 2423 can be inserted into the limiting opening 220d.

[0094] In some embodiments, the first linkage member 241 may have a linkage groove 241a, and the bottom wall of the linkage groove 241a is provided with a linkage opening 241b. Then, a portion of the abutment portion 2422, a portion of the insertion portion 2423, and the second elastic reset member 243 are disposed in the linkage groove 241a. The abutment portion 2422 is connected to the second elastic reset member 243, and the insertion portion 2423 passes through the linkage opening 241b. When the second linkage member 242 moves to a preset position, the linkage opening 241b is aligned with the limiting opening 220d so that the insertion portion 2423 can be inserted into the limiting opening 220d.

[0095] When the second linkage 242 is in a preset position, the first linkage 241 can be spaced apart from or in contact with the base plate 221 in a preset direction.

[0096] In some embodiments, combined with Figure 9 and Figure 11 The electrode mounting part 222 also includes a guide opening 220c communicating with the electrode cavity. One part of the first linkage member 241 is disposed in the electrode cavity and assembled with the second linkage member 242. The other part of the first linkage member 241 passes through the guide opening 220c and is connected to the transmission assembly 250. The guide opening 220c extends along a preset direction, and the wall surface of the guide opening 220c contacts the wall surface of the first linkage member 241 to guide the first linkage member 241 to move in the preset direction and the opposite direction of the preset direction.

[0097] In some embodiments, such as Figure 11As shown, the transmission assembly 250 includes a transmission gear 251 and a first rotating shaft 252. The axial direction of the first rotating shaft 252 is perpendicular to a preset direction (parallel to the thickness direction Y of the socket body 10). The transmission gear 251 is sleeved on the first rotating shaft 252 and rotates around the axial direction of the first rotating shaft 252. The movable socket 230 includes a first rack 231. The portion of the first linkage member 241 extending out of the guide opening 220c forms a second rack 2411. The length direction of the first rack 231 and the length direction of the second rack 2411 are parallel to the preset directions, respectively. The transmission gear 251 is disposed between the first rack 231 and the second rack 2411, and the first rack 231 and the second rack 2411 mesh with the transmission gear 251, so that when the second rack 2411 of the first linkage member 241 moves along the preset direction, the first rack 231 can move in the opposite direction of the preset direction under the drive of the transmission gear 251, thereby driving the entire movable socket 230 to move.

[0098] In some embodiments, combined with Figure 12 and Figure 13 As shown, the transmission assembly includes a transmission rod 253 and a second rotating shaft 254. The axial direction of the second rotating shaft 254 is perpendicular to a preset direction. The transmission rod 253 is sleeved on the second rotating shaft 254 and rotates around the axial direction of the second rotating shaft 254. The movable socket 230 includes a first adjusting part 232. The first linkage member 241 of the linkage assembly 240 includes a second adjusting part 2412. The first adjusting part 232 and the second adjusting part 2412 are spaced apart. One end of the transmission rod 253 is connected to the first adjusting part 232 and the other end is connected to the second adjusting part 2412, so that when the second adjusting part 2412 moves in a preset direction, the first adjusting part 232 can move in the opposite direction of the preset direction under the drive of the transmission rod 253, thereby driving the entire movable socket 230 to move.

[0099] In the accompanying drawings of this embodiment, the same or similar reference numerals correspond to the same or similar components. In the description of this application, it should be understood that if terms such as "upper," "lower," "left," and "right" indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, they are only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, the terms used to describe positional relationships in the accompanying drawings are only for illustrative purposes and should not be construed as limiting this patent. For those skilled in the art, the specific meaning of the above terms can be understood according to the specific circumstances.

[0100] The above description is merely a preferred embodiment of this application and is not intended to limit this application. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of this application should be included within the protection scope of this application.

Claims

1. A power strip, characterized by, include: The main body of the power strip includes the socket module; Wireless charging module; and The mating components are respectively connected to the power strip body and the wireless charging module, and the wireless charging module is detachably installed on the power strip body through the mating components; The socket module includes a base and a movable socket, which is mounted on the base in a height-adjustable manner.

2. The power strip of claim 1, wherein, The socket module further includes a transmission component and a linkage component. The transmission component is connected to the movable socket and the linkage component respectively. The transmission component is used to drive the other to move in the opposite direction of the preset direction when one of the movable socket and the linkage component moves in a preset direction.

3. The power strip according to claim 2, characterized in that, The socket module also includes an electrode component for electrical connection with the electrode pins of an external charging plug, the electrode component being mounted on the base; During the process of the electrode pins of the charging plug moving along the preset direction to be inserted into the electrode component, the linkage component is used to contact the electrode pins of the charging plug and act on the transmission component, so that the transmission component pushes the movable socket to move in the opposite direction of the preset direction, thereby causing the movable socket to rise relative to the base. The preset direction is parallel to the thickness direction of the power strip body.

4. The power strip of claim 3, wherein, The power strip body includes a power strip housing, the power strip housing having a receiving cavity and a socket opening communicating with the receiving cavity; The transmission component pushes the movable socket to rise from the first position to the second position relative to the base in the opposite direction of the preset direction; In the first position, a portion of the movable socket is located in the receiving cavity, and the remaining portion is located in the socket opening; In the second position, a portion of the movable socket is located in the receiving cavity, a portion is located in the socket opening, and the remaining portion is located outside the socket housing.

5. The power strip of claim 4, wherein, The socket module further includes a first elastic reset member, which is connected to the base and the movable socket respectively. The first elastic reset member is used to drive the movable socket to move from the second position to the first position along the preset direction when the linkage component is separated from the charging plug.

6. The power strip of claim 2, wherein, The linkage component includes: The first linkage component is movably mounted on the base and connected to the transmission assembly; The second linkage is movably mounted on the first linkage in a direction that forms an angle with the preset direction. When the second linkage is subjected to a force in the preset direction, it drives the first linkage to move relative to the base in the preset direction. When the first linkage moves to a preset position in the preset direction, the second linkage moves relative to the first linkage in a direction that forms an angle with the preset direction to engage with the base, thereby defining the position of the linkage assembly relative to the base in the preset direction.

7. The power strip according to claim 6, characterized in that, The socket module also includes an electrode component, which is mounted on the base and is used for electrical connection with the electrode pins of an external charging plug. The second linkage member has a linkage inclined surface, which is inclined in the opposite direction to the preset direction. The linkage inclined surface is inclined to the side away from the electrode member. The linkage inclined surface is used to slide in contact with the surface of the electrode pin of the charging plug, so that the second linkage member can be moved by the force of the electrode pin in a direction that is at an angle to the preset direction to be inserted into the base.

8. The power strip of claim 6, wherein, The linkage component includes a second elastic reset member, one end of which is installed on the first linkage member and the other end of which is installed on the second linkage member. The second elastic reset member is configured to be retractable in a direction that forms an angle with the preset direction.

9. The power strip according to claim 2, characterized in that, The movable socket includes a first rack, and the linkage component includes a second rack, wherein the length direction of the first rack and the length direction of the second rack are respectively parallel to the preset direction; The transmission assembly includes a transmission gear, which is rotatably mounted on the base about a direction perpendicular to the preset direction. The transmission gear is disposed between the first rack and the second rack and meshes with the first rack and the second rack respectively.

10. The power strip of claim 2, wherein, The movable socket includes a first adjustment part, and the linkage component includes a second adjustment part, with the first adjustment part and the second adjustment part being spaced apart. The transmission assembly includes a transmission rod, which is rotatably mounted on the base about a direction perpendicular to the preset direction, and one end of the transmission rod is connected to the first adjustment part and the other end is connected to the second adjustment part.

11. The power strip according to claim 2, characterized in that, The socket module also includes electrode components for electrical connection with the electrode pins of an external charging plug; The base has an electrode cavity for accommodating the electrode and a guide opening communicating with the electrode cavity. The transmission assembly is mounted on the base. One part of the linkage assembly is located in the electrode cavity, and the other part passes through the guide opening and is connected to the transmission assembly.

12. The power strip according to claim 11, characterized in that, The socket module includes multiple electrode units, and each electrode unit includes multiple electrode elements with different polarities for plugging into and cooperating with a charging plug. The power strip body also includes an interface module, which includes a power interface for connecting and engaging with a power plug. The power strip body includes a first conductive element and a plurality of second conductive elements that are electrically connected to the power interface. The first conductive element and the second conductive elements are both mounted on the base. The power strip body also includes a charging control module electrically connected to the wireless charging module, wherein the first conductive element passes through the area between at least one set of two adjacent electrode units and is electrically connected to the charging control module; Each of the second conductive elements is connected to the electrode elements of the plurality of electrode units having the same polarity.

13. The power strip according to claim 12, characterized in that, At least some of the electrode units are arranged side-by-side along the width direction of the plug body; and / or, At least some of the electrode units are arranged side by side along the length of the plug body.

14. The power strip according to claim 13, characterized in that, Along the length of the power strip body, the interface module is located on the side of the socket module opposite to the charging control module; The interface module also includes an interface circuit board, the surface of which is perpendicular to the length of the power strip body, and the power interface is located on the side of the interface circuit board away from the charging control module.

15. The power strip of claim 1, wherein, The power strip body includes a power strip housing, the power strip housing has an internal cavity, and the outer surface of the power strip housing includes a first surface, the first surface including a first region and a second region arranged side by side in the length direction of the power strip body; The first region is provided with a wireless charging opening that communicates with the receiving cavity, and a portion of the mating assembly is provided in the receiving cavity and another portion is provided in the wireless charging opening; The second region is provided with a socket opening that communicates with the receiving cavity, wherein a portion of the socket module is located in the receiving cavity and another portion is located in the socket opening.

16. The power strip of claim 15, wherein, The first region has a first edge that is away from the second region along the length direction of the power strip body; Along the length of the power strip body, the distance from the wireless charging opening to the first edge is less than the distance from the wireless charging opening to the second region.

17. The power strip according to claim 16, characterized in that, The power strip housing includes a bottom shell and a cover. The cover includes a main cover and a decorative element. The decorative element is installed on the main cover, and the main cover is installed on the bottom shell. The main cover, the decorative element, and the bottom shell together form the receiving cavity. The outer surface of the decorative element has the first region, and the outer surface of the main cover has the second region.

18. The power strip of claim 17, wherein, The main cover has a decorative opening, and the decorative piece is installed on the main cover, covering the decorative opening; The decorative element is translucent, and the power strip also includes a light source disposed in the receiving cavity. The light source is disposed corresponding to the decorative opening, and the light emitted by the light source passes through the decorative opening and the decorative element in sequence before exiting the power strip body.

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