JP3231388U - Circular connector - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an annular connector which is electrically connected in a non-directional manner. An annular connector 10 includes a male plug 12 and a female socket 14. The male plug includes a first annular body, a third annular body, a first electrode assembly 126, and a third electrode assembly 128. The female socket includes a first pedestal body, a second annular body, a fourth annular body, a second pedestal body, a second electrode assembly, and a fourth electrode assembly. The second pedestal body, the fourth annular body, the second annular body, and the first pedestal body are arranged outward from the center point of the female socket, respectively. The male plug and the female socket are coupled by inserting the third annular body between the second annular body and the fourth annular body in order to realize a non-directional electrical connection. [Selection diagram] Fig. 1

Description

The present invention relates to the technical field of connectors, and more particularly to annular connectors that are electrically connected in a non-directional manner.

A conventional connector includes a male plug and a female socket, and by connecting the male plug and the female socket, the purpose of transmitting power and a signal can be achieved.

Conventional connectors are usually done within the operator's view in order to achieve the purpose of coupling. Therefore, since the positional relationship between the male plug and the female socket can be almost confirmed, the operator is assisted by connecting the male plug and the female socket to each other by the mechanical design of the connector, for example, the mechanical design such as the chamfer angle and the inclined surface. be able to.

However, in some electronic product application scenes, it may not be easy to achieve an electrical connection with the male plug and / or female socket visible. That is, the conventional connector has a problem that so-called blind fitting cannot be performed between the male plug and the female socket. In particular, conventional connectors are usually directional, so if they are inserted carelessly, the male plug and female socket may be damaged and must be replaced, and in the worst case, the electronic product itself. Can be damaged and destroyed.

Conventional connectors are designed to prevent accidental insertion, but as a result of the miniaturization of connectors, such structures prevent erroneous insertion when excessive force is applied. It can happen frequently and easily that the structure is destroyed.

In view of this, the present invention proposes an annular connector in order to solve a problem caused by a conventional connector or a problem that cannot be solved.

A first object of the present invention is to provide a male plug and a female socket, and to provide an annular connector capable of realizing a non-directional blind insertion / insertion connection by the male plug and the female socket.

A second object of the present invention is that in the above-mentioned annular connector, the male plug and the female socket provide an annular structure separately, and a plurality of corresponding electrode assemblies provided for each annular structure are provided. The coupling of the annular structure is intended to provide an electrode assembly capable of achieving at least one of power transmission and control signal transmission between a male plug and a female socket.

A third object of the present invention is to provide the above-mentioned annular connector in which the number of electrode assemblies provided for the annular structure can be adjusted and set according to the application requirements of an actual product. It is in.

A fourth object of the present invention is to provide an independent mode in which, in a large number of annular structures, each annular structure electrode assembly includes independent control signal transmission and / or power transmission in the above annular connector. It is in.

A fifth object of the present invention is to provide, in the above-mentioned annular connector, a mixed mode in which the electrodes of the annular structure electrode assembly simultaneously include control signal transmission and power transmission.

A sixth object of the present invention is that in the above-mentioned annular connector, a large number of annular structures may have the same number of electrodes in the electrode assembly provided for each annular structure, or may differ from each other. It is well to provide that the position of the electrode assembly between a large number of annular structures is designed in a symmetrical or asymmetrical arrangement.

A seventh object of the present invention is the above-mentioned annular connector in which the distances between a large number of electrodes in the electrode assembly may be equidistant distances or non-equidistant interstitial distances. Is to provide.

An eighth object of the present invention is that in the above-mentioned annular connector, a blind fitting feature between a male plug and a female socket can be more easily realized by using an electrode assembly having a floating structure in the annular structure. To provide things.

A ninth object of the present invention is to adopt a method in which a large number of annular structures cover a small-sized annular structure with a large-sized annular structure in the above-mentioned annular connector, for example, a concentric construction is adopted. To provide things.

A tenth object of the present invention is to provide a male plug having a first annular body, a third annular body, a first electrode assembly, and a third electrode assembly in the above-mentioned annular connector. ..

The eleventh object of the present invention is the first pedestal body, the second annular body, the fourth annular body, the second pedestal body, the second electrode assembly, and the fourth electrode in the above-mentioned annular connector. To provide a female socket with an assembly.

A twelfth object of the present invention is to provide the above-mentioned annular connector applied to the display field, the automotive field, or other application fields requiring electrical connection.

In order to achieve the above object and other objects, the present invention provides an annular connector applied to a first circuit board and a second circuit board. The annular connector comprises a male plug and a female socket. The male plug can be connected to the first circuit board. The male plug has a first annular body, a third annular body, a first electrode assembly, and a third electrode assembly. The third annular body is stacked on the first annular body. A first groove is formed on the inner peripheral edge of the first annular body to install the first end of the first electrode assembly. A third groove is formed on the inner peripheral edge of the third annular body to install the second end of the first electrode assembly. A fifth groove is formed on the outer peripheral edge of the first annular body to install the first end of the third electrode assembly. A seventh groove is formed on the outer peripheral edge of the third annular body to install the second end of the third electrode assembly. The female socket can be connected to the second circuit board. The female socket has a first pedestal body, a second annular body, a fourth annular body, a second pedestal body, a second electrode assembly, and a fourth electrode assembly. The second pedestal body, the fourth annular body, the second annular body, and the first pedestal body are arranged outward from the center point of the female socket, respectively. The second electrode assembly is installed between the first pedestal body and the second annular body, and the fourth electrode assembly is installed between the fourth annular body and the second pedestal body. Further, a second groove body is formed in the second annular body in order to install the first end of the second electrode assembly, and the fourth annular body is installed in order to install the first end of the fourth electrode assembly. A fourth groove is formed. Among them, the second groove body corresponds to the seventh groove body, the fourth groove body corresponds to the third groove body, and at least one of the second electrode assembly and the fourth electrode assembly is. It has a floating structure. After connecting the male plug and the female socket, the third annular body is inserted between the second annular body and the fourth annular body, so that the second end of the third electrode assembly is set to the second electrode assembly. It is electrically connected to the first end of the solid, and the second end of the first electrode assembly is electrically connected to the first end of the fourth electrode assembly.

In order to achieve the above object and other purposes, the present invention provides a male plug of an annular connector having a first annular body, a third annular body, a first electrode assembly and a third electrode assembly. provide. In the first annular body, a first groove body is formed on the inner peripheral edge thereof, and a fifth groove body is formed on the outer peripheral edge thereof. The third annular body is stacked on the first annular body. In the third annular body, a third groove body is formed on the inner peripheral edge thereof, and a seventh groove body is formed on the outer peripheral edge thereof. The first end of the first electrode assembly is installed in the first groove body, and the second end thereof is installed in the third groove body. The first end of the third electrode assembly is installed in the fifth groove body, and the second end thereof is installed in the seventh groove body.

In order to achieve the above object and other objects, the present invention has a first pedestal body, a second annular body, a fourth annular body, a second pedestal body, a second electrode assembly, and a fourth. A female socket of an annular connector having an electrode assembly is provided. The second annular body is installed in the first pedestal body. A second groove is formed in the second annular body. The fourth annular body is installed in the second annular body, and the fourth groove body is formed in the fourth annular body. The second pedestal body is installed in the fourth annular body. The second electrode assembly is installed between the first pedestal body and the second annular body, and the first end of the second electrode assembly is installed in the second groove body. Among them, the second electrode assembly has a floating structure. The fourth electrode assembly is installed between the fourth annular body and the second pedestal body, and the first end of the fourth electrode assembly is installed in the fourth groove body. Among them, the fourth electrode assembly has a floating structure. Among them, the second pedestal body, the fourth annular body, the second annular body, and the first pedestal body are arranged outward from the center point of the female socket, respectively.

Compared to existing technology, the annular connector provided by the present invention realizes the convenience of being connected non-directionally by the operator, and more than 100 for the designer in a limited space. It is possible to design a terminal (that is, an electrode referred to in the present invention) that reaches, and the present invention can simultaneously design a power transmission and a control signal transmission in one annular structure, and is different. Since the design of independent power transmission and the design of control signal transmission can be performed separately in the annular structure, the designer can design based on the transmission of more terminals and each terminal in a limited space. Therefore, it is possible to realize applications in more complicated and higher-end fields.

It is a structural schematic diagram of the annular connector of one Embodiment of this invention. It is a bottom view explaining the male plug of the annular connector of FIG. 1 of this invention. It is a top view explaining the female socket of the annular connector of FIG. 1 of this invention. It is a top view explaining the 2nd annular body and the 1st pedestal body of the female socket of FIG. 3 of this invention. It is a top view explaining the 4th annular body and the 2nd pedestal body of the female socket of FIG. 3 of this invention. It is a schematic diagram explaining another embodiment of the female socket of FIG. 3 of this invention. It is a top view which shows before the connection between the male plug and the female socket of FIG. 1 of this invention. FIG. 7 is a cross-sectional side view of AA showing before the male plug and the female socket of FIG. 7A of the present invention are connected. It is a side view explaining the 4th annular body of the female socket of FIG. 3 of this invention. It is a partially enlarged top view explaining the 4th annular main body of FIG. 8 of this invention. It is a side view explaining the connection of the annular connector of FIG. 1 of this invention.

<First Embodiment>
Refer to FIG. 1, which is a schematic structural diagram of an annular connector according to an embodiment of the present invention. In FIG. 1, the annular connector 10 is applied to the first circuit board 2 and the second circuit board 4, and the connection method thereof is a side view illustrating the connection of the annular connector of FIG. 1 of the present invention. 10 can be referred to. In one embodiment, the first circuit board 2 may be a part of a display panel (not shown), and the second circuit board 4 may be installed, for example, on a frame of a wall (not shown). By connecting the male plug 12 installed on the first circuit board 2 and the female socket 14 installed on the second circuit board 4, the display panel is connected to the female socket via the male plug 12 of the first circuit board 2. The control signal and the power signal from 14 can be received.

Returning to FIG. 1, the annular connector 10 includes a male plug 12 and a female socket 14. In FIG. 1, in addition to the female socket 14, the male plug 12 also has a first groove body 1222, a fifth groove body 1224, a first electrode assembly 126, and a first end 1262 of the first electrode assembly 126. The third electrode assembly 128 and the first end 1282 of the third electrode assembly 128 are shown at the same time. Further, in the present embodiment, the annular connector 10 will be described as an example of having a circular annular shape, and in other embodiments, the annular connector 10 will be further described as a rectangular annular connector, an even-numbered side ring, an odd-numbered side ring, or the like. It may be an annular body of. A detailed description of the male plug 12 can be referred to with reference to FIG. 2, and a detailed description of the female socket 14 can be referred to with reference to FIGS. 3 to 6.

See FIG. 2, which is a bottom view illustrating the male plug of FIG. 1 of the present invention. In FIG. 2, the male plug 12 includes a first annular body 122, a third annular body 124, a second end 1264 of the first electrode assembly 126, a second end 1284 of the third electrode assembly 128, and a second. A three-groove body 1242, a fifth groove body 1224, and a seventh groove body 1244 are shown.

The first annular body 122 and the third annular body 124 are both circular rings, and the diameter of the first annular body 122 is larger than the diameter of the third annular body 124. In the present embodiment, the third annular body 124 is stacked above the first annular body 122 to cause the third annular body 124 to protrude from the first annular body 122, and a schematic view thereof is shown in FIG. 7 (b). Can be referred to, which is a schematic diagram showing the connection between the first annular body 122 and the third annular body 124.

Referring back to FIG. 2, in the first annular body 122, in order to install the first end 1282 of the third electrode assembly 128 as shown in FIG. 1, a fifth groove body 1224 is provided on the outer peripheral edge portion thereof. It is formed. Among them, the first end 1282 of the third electrode assembly 128 is soldered and connected to the first circuit board 2 in order to receive a control signal and / or a power signal (not shown) from the first circuit board 2. Used for The second end 1284 of the third electrode assembly 128 also passes through the first annular body 122 of FIG. 2 and is exposed from the seventh groove body 1244 of the third annular body 124. A first groove body 1222 is formed on the inner peripheral edge of the first annular body 122 in order to install the first end 1262 of the first electrode assembly 126 as shown in FIG. The first end 1262 of the first electrode assembly 126 is also used for soldering and connecting to the first circuit board 2 in order to receive control signals and / or power signals (not shown) from the first circuit board 2. Be done.

In the third annular body 124, as described above, the seventh groove body 1244 may be formed on the outer peripheral edge thereof, and the third groove body 1242 may be formed on the inner peripheral edge thereof. The third groove body 1242 is used to install the second end 1264 of the first electrode assembly 126.

In the above, the number of the fifth groove body 1224 and the seventh groove body 1244 is greater than or equal to the number of the third electrode assembly 128, and the number of the first groove body 1222 and the third groove body 1242 is the first. More than or equal to the number of 1-electrode assemblies 126.

See FIG. 3, which is a top view illustrating the female socket of FIG. 1 of the present invention. In FIG. 3, the female socket 14 includes a first pedestal body 142, a second annular body 144, a fourth annular body 146, a second pedestal body 148, a second electrode assembly 1410, and a fourth electrode set. The solid 1412 is shown. The first pedestal body 142 and the second pedestal body 148 may be fixed to the second circuit board 4. The second pedestal body 148, the fourth annular body 146, the second annular body 144, and the first pedestal body 142 are arranged outward from the center point of the female socket 14, respectively.

Refer to FIG. 4, which is a top view for explaining the second annular body and the first pedestal body of FIG. 3 of the present invention. In FIG. 4, the material of the first pedestal body 142 may be a non-conductive material such as plastic. A large number of groove bodies 1422 are formed on the outer peripheral edge of the first pedestal body 142, and the plurality of groove bodies 1422 are the first of the second annular main body 144 in order to expose the second end 14104 of the second electrode assembly 1410. Corresponds to the two-groove body 1442. The second end 14104 of the second electrode assembly 1410 is used for soldering and connecting to the second circuit board 4 in order to receive a control signal and / or a power signal (not shown) from the second circuit board 4. Be done. Here, the second electrode assembly 1410 is installed between the first pedestal body 142 and the second annular body 144. The second electrode assembly 1410 further provides a floating structure and a first end 14102, except that the above-mentioned second end 14104 is exposed from the plurality of groove bodies 1422. The material of the two-electrode assembly 1410 may be a conductive material such as metal. Among them, the shape of the floating structure is a shape similar to the alphabet S shown in FIG. 4, and the floating structure is formed between the first end 14102 and the second end 14104 of the second electrode assembly 1410. Then, when an external force acts on the second annular body 144 (or the fourth annular body 146), the amount of displacement between the second annular body 144 and the first pedestal 142 is increased according to the amount of deformation that deforms the floating structure. Can be varied, and the first end 14102 of the second electrode assembly 1410 is exposed from the second groove body 1442 and is used to transmit control and / or power signals from the second circuit board 4. The second groove body 1442 is installed corresponding to the seventh groove body 1244 of the third annular main body 124 of FIG.

In addition, the second electrode assembly 1410 is composed of a plurality of second electrodes. The range of the minimum angle between the plurality of second electrodes from the center point O (that is, the center of the circle) of the second annular body 144 is such that the second end 14104 of the second electrode assembly 1410 is the second circuit board 4. It is related to the size of the solder to be soldered to, and simply put, if no short circuit due to interference occurs between the adjacent second ends 14104 of the second electrode assembly 1410 during the soldering connection process. If this is the case, the minimum angle θ1 of the adjacent second ends 14104 of the second electrode assembly 1410 can be brought closer to 0 degrees. Here, it will be described as an example that the range of the minimum angle θ1 is larger than or equal to 7 degrees.

Refer to FIG. 5, which is a top view for explaining the fourth annular body and the second pedestal body of FIG. 3 of the present invention. In FIG. 5, the material of the second pedestal body 148 may be a non-conductive material such as plastic. A large number of groove bodies 1482 are formed on the inner peripheral edge of the second pedestal body 148, so to speak, formed on the bottom of the second pedestal body 148 in FIG. 5, and the plurality of groove bodies 1482 are the second of the fourth electrode assembly 1412. Corresponds to the fourth groove body 1462 of the fourth annular body 146 to expose the end 14124. The second end 14124 of the fourth electrode assembly 1412 is used for soldering and connecting to the second circuit board 4 in order to receive a control signal and / or a power signal (not shown) from the second circuit board 4. Be done. Here, the fourth electrode assembly 1412 is installed between the second pedestal body 148 and the fourth annular body 146. In the fourth electrode assembly 1412, the above-mentioned second end 14124 is exposed from the plurality of groove bodies 1482, and the fourth electrode assembly 1412 further provides a floating structure and a first end 14122. The material of the four-electrode assembly 1412 may be a conductive material such as metal. Among them, the shape of the floating structure is a shape similar to the alphabet S shown in FIG. 5, and the floating structure is formed between the first end 14122 and the second end 14124 of the fourth electrode assembly 1412. Then, when an external force acts on the fourth annular body 146 (or the second annular body 144), the amount of displacement between the fourth annular body 146 and the second pedestal 148 is increased according to the amount of deformation that deforms the floating structure. As well as being variable, the first end 14122 of the fourth electrode assembly 1412 is exposed from the fourth groove body 1462 and is used to transmit control and / or power signals from the second circuit board 4. Be done. Further, the fourth groove body 1462 is installed corresponding to the third groove body 1242 of the third annular main body 124 of FIG. In another embodiment, FIG. 8 which is a side view illustrating the fourth annular body of FIG. 3 of the present invention can be referred to. In FIG. 8, in order to easily install the first end 14122 of the fourth electrode assembly 1412, the fourth groove body 1462 can be designed to represent a small plane, and the first of the fourth electrode assembly 1412. The end 14122 is provided to fit the fourth groove body 1462 snugly, and a similar design can be applied to the other groove bodies of the present invention. FIG. 9, which is a partially enlarged top view for explaining the fourth annular body of FIG. 8 of the present invention, can also be referred to. In FIG. 9, the fourth groove body 1462 is shown to be installed in a small plane and is used to install the first end 14122 of the fourth electrode assembly 1412.

The fourth electrode assembly 1412 is composed of a plurality of fourth electrodes. The range of the minimum angle between the plurality of fourth electrodes from the center point O (that is, the center of the circle) of the fourth annular body 146 is such that the second end 14124 of the fourth electrode assembly 1412 is the second circuit board 4. It is related to the size of the solder to be soldered to, and simply put, when there is no short circuit due to interference between the adjacent second ends 14124 of the fourth electrode assembly 1412 during the soldering connection process. If this is the case, the minimum angle θ2 of the adjacent second ends 14124 of the fourth electrode assembly 1412 can be brought closer to 0 degrees. The range of the minimum angle θ2 here is larger than or equal to the range of the above-mentioned minimum angle θ1.

The number of second electrode assemblies 1410 of the second annular body 144 described above is greater than or equal to the number of fourth electrode assemblies 1412 of the fourth annular body 146, and the second electrode of the second electrode assembly 1410. The arrangement position of the fourth electrode and the arrangement position of the fourth electrode of the fourth electrode assembly 1412 may be formed symmetrically or asymmetrically. For example, in the installation of the first protrusion assembly 1444 and the second protrusion assembly 1464 in FIG. 3, a large number of blocks A, B, C and D are divided on an annulus. Therefore, the number of second electrodes of the second electrode assembly 1410 in the current blocks A, B, C and D is the same as the number of fourth electrodes of the fourth electrode assembly 1412. However, in other embodiments, the sequence position may only be present in symmetrical blocks, for example, the second and / or fourth electrodes are only in the diagonal blocks of block A and block C. However, the arrangement position may be in an asymmetric block, for example, the second and / or fourth electrode is only in the neighboring blocks of block A and block B.

Following the above, except for the installation of number and arrangement position, the first electrode assembly 126 and the third electrode assembly 128 provide independent modes of power signal and control signal to each other, and the second electrode assembly. The 1410 and the fourth electrode assembly 1412 each provide an independent mode of the power signal and the control signal, and the first electrode assembly 126 or the third electrode assembly 128 simultaneously receives the power signal and the control signal. A mixing mode is provided, and the second electrode assembly 1410 or the fourth electrode assembly 1412 is provided with a mixing mode of the power signal and the control signal at the same time.

<Second Embodiment>
See FIG. 6, which is a schematic diagram illustrating another embodiment of the female socket of FIG. In FIG. 6, the female socket 14 includes the first pedestal body 142, the second annular body 144, the fourth annular body 146, the second pedestal body 148, the second electrode assembly 1410, and the like. The configuration other than the fourth electrode assembly 1412 further includes a first lid 16, a second lid 18, a first protrusion assembly 1444, and a second protrusion assembly 1464.

The description of the first pedestal body 142, the second annular body 144, the fourth annular body 146, the second pedestal body 148, the second electrode assembly 1410, and the fourth electrode assembly 1412 is as described above. Therefore, the duplicate description here will be omitted.

The first lid 16 is used to shield the floating structure of the second electrode assembly 1410.

The second lid 18 is used to shield the floating structure of the fourth electrode assembly 1412.

In order to install and position the first lid body 16, the first protrusion assembly 1444 is installed on the outer peripheral edge of the second annular body 144.

In order to install and position the second lid 18, the second protrusion assembly 1464 is installed on the inner peripheral edge of the fourth annular body 146.

Refer to FIGS. 7 (a) and 7 (b), which are schematic views for explaining the connection between the male plug and the female socket of FIG. 1 of the present invention. FIG. 7 (a) shows a top view showing before the male plug and the female socket of FIG. 1 of the present invention are coupled, and FIG. 7 (b) shows FIG. 7 (a) of the present invention. ) A cross-sectional side view showing before the connection between the male plug and the female socket is shown. The description of the above-described embodiment can be assisted by using FIGS. 7 (a) and 7 (b). When the male plug 12 is to be coupled toward the female socket 14, the third annular body 124 is inserted between the second annular body 144 and the fourth annular body 146, so that the second electrode assembly 128 is second. The end 1284 is electrically connected to the first end 14102 of the second electrode assembly 1410, and the second end 1264 of the first electrode assembly 126 is electrically connected to the first end 14122 of the fourth electrode assembly 1412. ..

2 ... 1st circuit board 4 ... 2nd circuit board 10 ... Ring type connector 12 ... Male plug 122 ... 1st ring body 1222 ... 1st groove body 1224 ... 5th groove body 124 ... 3rd ring body 1242 ... 3rd groove body 1244 ... 7th groove body 126 ... 1st electrode assembly 1262 ... 1st end 1264 of the 1st electrode assembly ... 2nd end 128 of the 1st electrode assembly ... 3rd electrode assembly 1282 ... Of the 3rd electrode assembly 1st end 1284 ... 2nd end 14 of the 3rd electrode assembly ... Female socket 142 ... 1st pedestal body 1422 ... Groove body 144 ... 2nd annular body 1442 ... 2nd groove body 1444 ... 1st protrusion assembly 146 ... 4th annular body 1462 ... 4th groove body 1464 ... 2nd protrusion assembly 148 ... 2nd pedestal body 1482 ... Groove body 1410 ... 2nd electrode assembly 14102 ... 1st end 14104 of the 2nd electrode assembly ... 2nd Second end 1412 of the electrode assembly ... Fourth electrode assembly 14122 ... First end 14124 of the fourth electrode assembly ... Second end 16 of the fourth electrode assembly ... First lid 18 ... Second lid O ... Center points θ1, θ2 ... Minimum angle
A, B, C, D ... block

Claims (10)

An annular connector applied between the first circuit board and the second circuit board.
A male plug for connecting to the first circuit board and a female socket for connecting to the second circuit board are provided.
The male plug has a first annular body, a third annular body stacked on the first annular body, a first electrode assembly, and a third electrode assembly, and the first electrode assembly is the first. A first groove is formed on the inner peripheral edge of the first annular body to install the end, and a first groove is formed on the inner peripheral edge of the third annular body to install the second end of the first electrode assembly. A third groove is formed, and a fifth groove is formed on the outer peripheral edge of the first annular body in order to install the first end of the third electrode assembly, and the second end of the third electrode assembly is formed. A seventh groove is formed on the outer peripheral edge of the third annular body in order to install the third annular body.
The female socket has a first pedestal body, a second annular body, a fourth annular body, a second pedestal body, a second electrode assembly, and a fourth electrode assembly of the female socket. The second pedestal, the fourth annular body, the second annular body, and the first pedestal are arranged outward from the center point, respectively, and the first pedestal and the second annular body are arranged. The second electrode assembly is installed between the two electrodes, the fourth electrode assembly is installed between the fourth annular body and the second pedestal body, and the first end of the second electrode assembly is installed. A second groove corresponding to the seventh groove is formed in the second annular body, and the fourth annular body is provided with the first end of the fourth electrode assembly. A fourth groove corresponding to the three grooves is formed, and at least one of the second electrode assembly and the fourth electrode assembly has a floating structure.
By inserting the third annular body between the second annular body and the fourth annular body, the male plug and the female socket are coupled, and the second end of the third electrode assembly is inserted. An annular shape, characterized in that it is electrically connected to the first end of the second electrode assembly and the second end of the first electrode assembly is electrically connected to the first end of the fourth electrode assembly. Type connector. The floating structure is formed between the first end and the second end of the second electrode assembly.
Moreover, the floating structure is formed between the first end and the second end of the fourth electrode assembly.
The annular connector according to claim 1, wherein the shape of the floating structure is substantially S-shaped. The second electrode assembly is composed of a plurality of second electrodes.
The range of the minimum angle between the center point of the second annular body and the plurality of second electrodes is the solder at which the second end of the second electrode assembly is soldered and connected to the second circuit board. The annular connector according to claim 1, characterized in that it corresponds to a size. The fourth electrode assembly is composed of a plurality of fourth electrodes.
The range of the minimum angle between the center point of the fourth annular body and the plurality of fourth electrodes is the solder at which the second end of the fourth electrode assembly is soldered and connected to the second circuit board. The annular connector according to claim 1, characterized in that it corresponds to a size. The number of the second electrode assemblies of the second annular body is not less than the number of the fourth electrode assemblies of the fourth annular body.
The second electrode assembly is composed of a plurality of second electrodes.
The fourth electrode assembly is composed of a plurality of fourth electrodes.
The annular connector according to claim 1, wherein the arrangement positions of the plurality of second electrodes and the arrangement positions of the plurality of fourth electrodes are formed symmetrically or asymmetrically. The first electrode assembly and the third electrode assembly provide independent modes of power signal and control signal to each other.
The annular connector according to claim 1, wherein the second electrode assembly and the fourth electrode assembly each provide an independent mode of the power signal and the control signal. For the first electrode assembly or the third electrode assembly, a mixed mode of a power signal and a control signal is simultaneously provided.
The annular connector according to claim 1, wherein the second electrode assembly or the fourth electrode assembly simultaneously provides a mixed mode of the power signal and the control signal. The first electrode assembly, the third electrode assembly, the second electrode assembly, and the fourth electrode assembly each supply a power signal or a control signal, according to claim 1. Circular connector. A male plug of an annular connector having a first annular body, a third annular body, a first electrode assembly, and a third electrode assembly.
In the first annular body, a first groove body is formed on the inner peripheral edge thereof, and a fifth groove body is formed on the outer peripheral edge thereof.
The third annular body is stacked on the first annular body, a third groove is formed on the inner peripheral edge thereof, and a seventh groove is formed on the outer peripheral edge thereof.
The first electrode assembly has its first end installed in the first groove body and its second end installed in the third groove body.
The third electrode assembly is a male plug of an annular connector, characterized in that the first end thereof is installed in the fifth groove body and the second end thereof is installed in the seventh groove body. A female socket of an annular connector having a first pedestal body, a second annular body, a fourth annular body, a second pedestal body, a second electrode assembly, and a fourth electrode assembly.
A second groove body is formed in the second annular body installed in the first pedestal body, and the second groove body is formed.
A fourth groove body is formed in the fourth annular body installed in the second annular body, and the fourth groove body is formed.
The second pedestal body is installed in the fourth annular body and is installed in the fourth annular body.
The first end of the second electrode assembly installed between the first pedestal body and the second annular body is installed in the second groove body.
The second electrode assembly has a floating structure and has a floating structure.
The first end of the fourth electrode assembly installed between the fourth annular body and the second pedestal body is installed in the fourth groove body.
The fourth electrode assembly has a floating structure and has a floating structure.
An annular type, wherein the second pedestal, the fourth annular body, the second annular body, and the first pedestal are arranged outward from the center point of the female socket, respectively. Female socket of the connector.

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