Connector

Abstract

The invention discloses a connector. A connector according to an aspect of the present invention may include: an insulating body including three linear island portions; a shielding member coupled along an edge of the insulating body; the contact part is combined with the insulating main body to be electrically connected with the outside; the shield contact may be configured to surround an end portion of the RF contact and surround a top surface, a front surface, and a side surface of a second island portion and a top surface, a front surface, and a side surface of a third island portion of the three linear island portions, or surrounding an end portion of the RF contact and surrounding a top surface, a back surface, and a side surface of the second island portion and a top surface, a back surface, and a side surface of the third island portion.

Description

Technical Field

[0001] This invention relates to connectors. Background Technology

[0002] B2B connectors (board to board connectors) are connectors used for internal connections between substrates and modules, combining corresponding socket connectors and plug connectors.

[0003] As described above, the socket connector and plug connector are each connected to different substrates. If the socket connector and plug connector are physically connected to each other, the different substrates can be electrically connected to each other and transmit signals.

[0004] That is, socket connectors and plug connectors can each include a plurality of contacts for transmitting various signals. If corresponding contacts are in contact with each other, they can be electrically connected and transmit signals.

[0005] However, if the plug connector and the socket connector are physically joined together for electrical connection of the contacts of the plug connector and the contacts of the socket connector, there is a risk that the individual contacts may break due to the pressure generated during this joining process.

[0006] Therefore, there is a need for a technical solution that facilitates the connection between socket connectors and plug connectors, and strengthens and improves their strength. Summary of the Invention

[0007] The problem to be solved

[0008] The present invention addresses the problems described above and aims to provide a connector that not only forms multiple contacts with corresponding contacts but also enhances strength.

[0009] In addition, the present invention aims to provide a connector that can improve RF signal transmission performance by improving the contact positions of corresponding shielding contacts.

[0010] The purpose of this invention is not limited to the purposes mentioned above, and those skilled in the art will clearly understand other purposes not mentioned from the following description.

[0011] Technical solutions to the problem

[0012] According to one aspect of the present invention, a connector is provided, the connector comprising: an insulating body including three linear island portions, the three linear island portions being formed to have a certain length along a first axis direction as a length direction, protruding from the bottom to a certain height, and spaced apart along a second axis direction perpendicular to the first axis; a shielding member formed of a conductive material and joined along the edge of the insulating body; and a contact portion joined to the insulating body to enable electrical connection with the outside; the three linear island portions including a first island portion, a second island portion, and a third island portion, the second island portion and the third island portion being arranged along a second axis direction as a width direction. The contacts are located on both sides of the first island portion, facing upwards. The contact portion includes an RF contact for transmitting RF signals, a signal contact for transmitting general signals, and a shielding contact for electrical shielding. The RF contact is configured to be located between the second island portion and the third island portion, which face each other. The shielding contact is configured to surround the end of the RF contact and surround the top, front, and side surfaces of the second island portion and the top, front, and side surfaces of the third island portion, or to surround the end of the RF contact and surround the top, back, and side surfaces of the second island portion and the top, back, and side surfaces of the third island portion.

[0013] According to another aspect of the present invention, a connector is provided, the connector comprising: an insulating body including three linear island portions, the three linear island portions being formed to have a certain length along a first axis direction as a length direction, protruding from the bottom to a certain height, and spaced apart along a second axis direction perpendicular to the first axis; a shielding member formed of a conductive material and coupled to the edge portion along the edge of the insulating body; and a contact portion coupled to the insulating body for being electrically connected to the outside; the three linear island portions including a first island portion, a second island portion, and a third island portion, the second island portion and the third island portion being configured to be located on opposite sides of the first island portion in the second axis direction as a width direction; the contact portion including an RF contact for transmitting RF signals, a signal contact for transmitting general signals, and a shielding contact for electrical shielding; the first island portion being formed to have a shorter length in the first axis direction than the second island portion and the third island portion, such that the RF contact can be located between the sides of the second island portion and the sides of the third island portion facing each other and disposed at one end of the first island portion.

[0014] Invention Effects

[0015] Based on the above configuration, the connector of the present invention can not only improve contact stability through multiple contacts, but also reduce the possibility of breakage caused by contact when combined with an object by strengthening its strength.

[0016] Furthermore, the connector of the present invention is configured such that the contact positions of the corresponding shielding contacts surround the RF contacts, thereby improving the RF signal transmission performance by improving the RF signal shielding performance.

[0017] The effects of the present invention are not limited to those mentioned above, but should be understood to include all effects that can be derived from the specific embodiments or claims. Attached Figure Description

[0018] Figure 1 This is a diagram showing the state in which the connector and the corresponding connector are separated according to an embodiment of the present invention.

[0019] Figure 2 This is a diagram illustrating a connector according to an embodiment of the present invention.

[0020] Figure 3 Viewed from below Figure 2 The image.

[0021] Figure 4 It means Figure 2 A diagram showing the state of the insulating body, shielding components, and contact parts separated.

[0022] Figure 5 Viewed from below Figure 4 The image.

[0023] Figure 6 yes Figure 2 Top view.

[0024] Figure 7 It shows Figure 4 Diagram of the contact portion in the middle.

[0025] Figure 8 It shows Figure 7 A diagram of the RF contacts.

[0026] Figure 9 It shows Figure 7 A diagram of the first part of the shielding contact.

[0027] Figure 10 It shows Figure 7 The diagram shows the second and third parts of the shielding contact.

[0028] Figure 11 It is along Figure 6 The diagram shows the connector cut along the AA direction.

[0029] Figure 12 It is along Figure 6 The diagram shows the connector cut along the BB direction.

[0030] Figure 13 It is along Figure 6 The diagram shows the connector cut in the CC direction.

[0031] Figure 14 It is along Figure 6 The diagram shows the connector cut in the DD direction.

[0032] Figure 15 This is a diagram showing a corresponding connector according to an embodiment of the present invention.

[0033] Figure 16 View from below Figure 15 The image.

[0034] Figure 17 It means Figure 15 A diagram showing the state of the insulating body, shielding components, and contact parts separated.

[0035] Figure 18 Viewed from below Figure 17 The image.

[0036] Figure 19 yes Figure 15 Top view.

[0037] Figure 20 It shows Figure 17 Diagram of the contact portion in the middle.

[0038] Figure 21 It shows Figure 20 A diagram of the shielding contact in the diagram.

[0039] Figure 22 It is along Figure 19 The diagram shows the connector cut along the EE direction.

[0040] Figure 23 It is along Figure 19 The diagram shows the connector cut in the FF direction.

[0041] Figure 24 It is along Figure 19 The diagram shows the connector cut in the GG direction.

[0042] Figure 25 It is along Figure 19 The diagram shows the connector cut along the HH direction.

[0043] Figure 26 It means Figure 11 connectors and Figure 22 A diagram showing the connected state of the connectors.

[0044] Figure 27 It means Figure 12 connectors and Figure 23 A diagram showing the connected state of the connectors.

[0045] Figure 28 It means Figure 13 connectors and Figure 24 A diagram showing the connected state of the connectors.

[0046] Figure 29 It means Figure 14 connectors and Figure 25 A diagram showing the connected state of the connectors. Detailed Implementation

[0047] Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings to enable those skilled in the art to readily implement them. The present invention can be implemented in various different forms and is not limited to the embodiments described herein. For clarity of illustration, parts unrelated to the description have been omitted from the drawings, and throughout the specification, the same reference numerals are used for the same or similar constituent elements.

[0048] The words or terms used in this specification and claims shall be interpreted as meanings and concepts consistent with the technical ideas of the present invention, in accordance with the principle that the inventor is able to define terms and concepts in order to best describe his invention, and not limited to the commonly understood meanings or dictionary meanings.

[0049] Additionally, the first axial direction used in this specification and claims can represent the same as... Figure 1 , Figure 2 as well as Figure 15 The direction parallel to the x-axis, and the direction of the second axis can be represented as parallel to... Figure 1 , Figure 2 as well as Figure 15 The direction parallel to the y-axis, and the direction of the third axis can be represented as parallel to... Figure 1 , Figure 2 as well as Figure 15 The direction parallel to the z-axis.

[0050] Furthermore, the length direction used in this specification and claims may represent a direction parallel to the first axis direction or the x-axis, the width direction may represent a direction parallel to the second axis direction or the y-axis, and the thickness direction and height direction may represent a direction parallel to the third axis direction or the z-axis.

[0051] Furthermore, the term "positive" as used in this specification and claims can be interpreted as... Figure 2 The back face can be represented by a face perpendicular to the first axis or x-axis and located on the left side of the two ends of the first island. Figure 2 The reference is the surface that is perpendicular to the first axis direction or the x-axis and located on the right side of the two ends of the first island.

[0052] In one embodiment of the present invention, the connector 100 may be a B2B connector for electrically connecting two substrates that are different from each other.

[0053] That is, such as Figure 1 As shown, in one embodiment of the present invention, connector 100 can be physically fastened to a corresponding connector 200. If it is physically fastened to the corresponding connector 200, two different substrates can be electrically connected.

[0054] In the case described above, the connector 100 can be mounted on one module substrate (not shown), and the corresponding connector 200 can be mounted on another module substrate (not shown).

[0055] Therefore, if the connector 100 and the corresponding connector 200 are physically connected to each other, the module substrate with the connector 100 installed can be electrically connected to the module substrate with the corresponding connector 200 installed.

[0056] In this invention, at least a portion of the connector 100 and the corresponding connector 200 can be formed in corresponding shapes to enable them to be physically joined together. The connector 100 and the corresponding connector 200 can each be configured to transmit RF (Radio Frequency) signals and general signals simultaneously.

[0057] In addition, the connector 100 can be a socket connector, and the corresponding connector 200 can be a plug connector.

[0058] However, the present invention is not limited thereto; the connector 100 may also be a plug connector and the corresponding connector 200 may be a socket connector.

[0059] At this time, if the connector 100 and the corresponding connector 200 of an embodiment of the present invention are physically combined with each other, the corresponding contact elements can form multiple contacts.

[0060] In addition, the connector 100 of one embodiment of the present invention can be configured to reduce the possibility of damage caused by contact when it is engaged with the corresponding connector 100.

[0061] That is, the connector 100 of one embodiment of the present invention can not only reduce the possibility of damage caused by physical contact when combined with the corresponding connector 100, but also ensure contact stability through the multi-contact structure of the corresponding contact elements.

[0062] Therefore, such as Figures 2 to 6 As shown, a connector 100 according to an embodiment of the present invention may include a socket insulating body 110, a shielding member 120, and a contact portion 130.

[0063] The insulating body 110 may be formed of an electrically insulating material and may define the overall appearance of the connector 100. For example, as... Figure 4 and Figure 5 As shown, the insulating body 110 can be in a generally rectangular parallelepiped shape.

[0064] At this time, as described above, the insulating body 110 can be configured such that when combined with the corresponding connector 200, the corresponding contacts can form multiple contacts.

[0065] Therefore, the insulating body 110 may include: a plate-shaped bottom 111 having a specified area; and three straight island portions 112, 113, 114 formed to have a certain length along a first axis direction which is the length direction, and protruding from the bottom 111 to a certain height.

[0066] That is, the insulating body 110 may include three straight islands 112, 113, and 114 formed along a first axis direction which is the length direction. The three straight islands 112, 113, and 114 may be arranged at intervals along a second axis direction perpendicular to the first axis. Through the three straight islands 112, 113, and 114, a plurality of receiving spaces S1, S2, and S3 can be formed in the insulating body 110.

[0067] As an example, such as Figures 4 to 6 As shown, the insulating body 110 may include a first island portion 112, a second island portion 113, and a third island portion 114 formed to have a predetermined length along the first axial direction as the length direction and to be spaced apart by a certain interval along the second axial direction as the width direction. Three receiving spaces S1, S2, and S3 can be formed by the first island portion 112, the second island portion 113, and the third island portion 114.

[0068] In the case described above, the first island portion 112 can be disposed in the central portion, the second island portion 113 and the third island portion 114 can each be disposed on both sides of the first island portion 112, spaced apart along the second axis direction, and facing each other. The first island portion 112, the second island portion 113 and the third island portion 114 can each protrude a certain height from the bottom 111.

[0069] Therefore, a first accommodating space S1 can be formed between the first island portion 112 and the second island portion 113, a second accommodating space S2 can be formed between the first island portion 112 and the third island portion 114, and a third accommodating space S3 can be formed to surround the first island portion 112, the second island portion 113 and the third island portion 114.

[0070] That is, such as Figure 6As shown, the first accommodating space S1 and the second accommodating space S2 can be formed to be located on opposite sides with the first island portion 112 as a reference. In the insulating body 110, the third island portion 114, the second accommodating space S2, the first island portion 112, the first accommodating space S1 and the second island portion 113 can be arranged sequentially along the width direction.

[0071] In the case described above, the insulating body 110 may include an edge portion 117 extending a certain height from the edge of the bottom 111 to surround the first island portion 112, the second island portion 113 and the third island portion 114, and the third receiving space S3 may be formed between the second island portion 113, the third island portion 114 and the edge portion 117.

[0072] Here, the first receiving space S1 and the second receiving space S2 can accommodate the annular island portion 212 of the corresponding connector 200, which will be described later. The contact portion 130 can form multiple contacts with the contact portion 230 of the corresponding connector 200 when the annular island portion 212 is inserted into the first receiving space S1 and the second receiving space S2. A detailed explanation of this will be provided later.

[0073] At this time, the first island portion 112 may be formed to have a shorter length than the second island portion 113 and the third island portion 114, and the first island portion 112 may be configured such that its two ends are located in the middle of the length of the second island portion 113 and the middle of the length of the third island portion 114.

[0074] Thus, a configuration space defined by the sides of the second island portion 113 and the third island portion 114 facing each other and the front of the first island portion 112 can be formed at one end of the first island portion 112, and a configuration space defined by the sides of the second island portion 113 and the third island portion 114 facing each other and the back of the first island portion 112 can be formed at the other end of the first island portion 112.

[0075] Therefore, a portion of the contacts in the contact portion 130 can be configured to be located in the configuration space. As an example, the RF contact 131 in the contact portion 130 can be configured to be located in the configuration space.

[0076] The shielding member 120 can not only prevent damage to the insulating body 110 caused by excessive pressure when it is combined with the corresponding connector 200, but also shield electromagnetic waves flowing in from the outside.

[0077] In addition, the shielding member 120 can shield electromagnetic waves generated at the contact portion 130 that is combined with the insulating body 110.

[0078] Therefore, the shielding member 120 can be made of metal, but is not limited to this. Various known materials can be used, as long as they have the specified strength and are conductive.

[0079] like Figures 2 to 6 As shown, the shielding member 120 described above can be combined with the insulating body 110 to surround the entire edge of the insulating body 110.

[0080] That is, the shielding member 120 can be combined with the edge portion 117 extending a certain height from the bottom 111. If the shielding member 120 is combined with the edge portion 117, the shielding member 120 can be configured to surround the entire edge of the insulating body 110.

[0081] Therefore, if the connector 100 of an embodiment of the present invention is combined with the corresponding connector 200, the shielding member 120 can contact and be energized with the shielding member 220 of the corresponding connector 200, thereby forming a ground together with the shielding contact 133 described later.

[0082] The contact portion 130 can be combined with the insulating body 110 and can be electrically connected to the outside.

[0083] Therefore, the contact portion 130 can be formed of a conductive material such as metal, and is combined with the insulating body 110 such that at least a portion of it is exposed to the outside.

[0084] The contact portion 130 described above may include a plurality of contacts for a specified function, and the plurality of contacts may be combined with the insulating body 110 to make contact with the contacts or substrate of the corresponding connector 200.

[0085] As an example, the contact portion 130 may be configured on the insulating body 110 to surround the surface of the three linear island portions 112, 113, 114 that protrude from the bottom 111 to a certain height as described above and to be exposed to the outside.

[0086] Here, the contact portion 130 can be detachably attached to the insulating body 110, or it can be integrally formed with the insulating body 110 by insert molding.

[0087] Thus, the contact portion 130 can form an electrical contact with the contact portion 230 of the corresponding connector 200 when it is engaged with the corresponding connector 200.

[0088] At this time, as described above, the contact portion 130 can be configured to transmit RF (Radio Frequency) signals and general signals simultaneously, and the contact portion 130 can be configured in the insulating body 110 to form multiple contacts with the contact portion 230 of the corresponding connector 200.

[0089] As an example, the contact portion 130 may include an RF contact 131 for transmitting RF signals, a signal contact 132 for transmitting general signals, and a shielding contact 133 for electrical shielding. The RF contact 131, the signal contact 132, and the shielding contact 133 may each be configured in the insulating body 110 to form multiple contacts with the contact portion 230 of the corresponding connector 200.

[0090] In addition, the RF contact 131, signal contact 132 and shielding contact 133 may each be arranged in a plurality of spaced apart from each other along the first axis direction.

[0091] As described above, the RF contact 131 and the shielding contact 133 may be configured in the insulating body 110 to form multiple contacts in the configuration space, and the signal contact 132 may be configured in the insulating body 110 to form multiple contacts within the first accommodating space S1 or the second accommodating space S2.

[0092] As a specific example, such as Figures 2 to 7 As shown, the RF contact 131 may include a first RF contact 131-1 and a second RF contact 131-2 that are spaced apart from each other along the first axial direction.

[0093] In the case described above, the RF contact 131 can be configured in the insulating body 110 such that, when combined with the opposing connector 200, as... Figure 26 As shown, it can surround the connection island 213 inserted into the configuration space and make contact with the RF contact 231 disposed on the connection island 213 at two locations.

[0094] Additionally, the RF contact 131 can be configured outside the first island portion 112, located between the second island portion 113 and the third island portion 114 facing each other and spaced apart from the front or back of the first island portion 112, and can be configured to be located in the configuration space defined by the side of the second island portion 113 and the side of the third island portion 114 facing each other and the front or back of the first island portion 112.

[0095] That is, the first RF contact 131-1 can be configured on the outside of the first island portion 112, spaced apart from the front of the first island portion 112 along the first axial direction and located in the configuration space, and the second RF contact 131-2 can be configured on the outside of the first island portion 112, spaced apart from the back of the first island portion 112 along the first axial direction and located in the configuration space.

[0096] Here, the first RF contact 131-1 can be configured to be located between the imaginary straight line connecting the front of the second island 113 and the front of the third island 114 and the front of the first island 112, and the second RF contact 131-2 can be configured to be located between the imaginary straight line connecting the back of the second island 113 and the back of the third island 114 and the back of the first island 112.

[0097] Therefore, such as Figure 7 , Figure 8 as well as Figure 11 As shown, the first RF contact 131-1 may include: an embedded portion 131a, which is spaced apart from the front of the first island portion 112 along the first axial direction and embedded into the bottom 111; a first movable portion 131b, which extends from one end of the embedded portion 131a and is elastically deformable due to external force; and a second movable portion 131c, which extends from the other end of the embedded portion 131a and is elastically deformable due to external force.

[0098] Here, the first movable portion 131b and the second movable portion 131c can each extend a certain height along a third axis direction orthogonal to the first axis and the second axis, and can be configured to be exposed to the outside within the configuration space.

[0099] Additionally, the insulating body 110 may include movable spaces 116 formed in the second island portion 113 and the third island portion 114 respectively, recessed along the third axis direction which is the height direction, and the first movable portion 131b and the second movable portion 131c may be respectively configured to be located within the movable space 116.

[0100] And, as Figure 8 and Figure 14 As shown, the embedded portion 131a may include: a first embedded portion 131aa, which is embedded into the bottom 111 and exposed to the outside through the bottom surface of the insulating body 110; and a second embedded portion 131ab, which is embedded into the bottom 111 and extends from the first embedded portion 131aa so that the first embedded portion 131aa, the first movable portion 131b, and the second movable portion 131c can be connected to each other.

[0101] Thus, the first RF contact 131-1 can be fixed to the insulating body 110 by means of the embedded portion 131a, can smoothly form a double contact with the RF contact 231-1 of the corresponding connector 200 by means of the first movable portion 131b and the second movable portion 131c, and can be powered by means of the first embedded portion 131aa to other components such as the circuit board.

[0102] Similarly, as Figure 7 , Figure 8 as well as Figure 11 As shown, the second RF contact 131-2 may include: an embedded portion 131a, which is spaced apart from the back side of the first island portion 112 along the first axial direction and embedded into the bottom 111; a first movable portion 131b, which extends from one end of the embedded portion 131a and is elastically deformable due to external force; and a second movable portion 131c, which extends from the other end of the embedded portion 131a and is elastically deformable due to external force.

[0103] Here, the first movable portion 131b and the second movable portion 131c can each extend a certain height along a third axis direction orthogonal to the first axis and the second axis, and can be configured to be exposed to the outside within the configuration space.

[0104] Additionally, the insulating body 110 may include movable spaces 116 formed in the second island portion 113 and the third island portion 114, respectively, which are recessed along the third axis direction, which is the height direction. The first movable portion 131b and the second movable portion 131c may be respectively configured to be located within the movable spaces 116.

[0105] And, as Figure 8 and Figure 14 As shown, the embedded portion 131a may include: a first embedded portion 131aa, which is embedded into the bottom 111 and exposed to the outside through the bottom surface of the insulating body 110; and a second embedded portion 131ab, which is embedded into the bottom 111 and extends from the first embedded portion 131aa so that the first embedded portion 131aa, the first movable portion 131b, and the second movable portion 131c can be connected to each other.

[0106] Thus, the second RF contact 131-2 can be fixed to the insulating body 110 by means of the embedded portion 131a, can smoothly form a double contact with the RF contact 231-2 of the corresponding connector 200 by means of the first movable portion 131b and the second movable portion 131c, and can be powered by means of the first embedded portion 131aa to other components such as the circuit board.

[0107] As described above, in a connector 100 according to an embodiment of the present invention, the RF contact 131 is configured to be movable such that the first movable portion 131b and the second movable portion 131c, which form a double contact with the RF contact 231 of the corresponding connector 200, can be elastically deformed under the action of an external force, thereby ensuring better power-conducting stability.

[0108] Again, refer to Figures 2 to 7 The signal contact 132 may include a first signal contact 132-1 and a second signal contact 132-2 that are spaced apart from each other along the second axial direction.

[0109] In the case described above, the first signal contact 132-1 and the second signal contact 132-2 can each be configured to be located between the first RF contact 131-1 and the second RF contact 131-2 in the first axial direction.

[0110] At this time, the first signal contact 132-1 can be fixed in the second island portion 113 to surround the surface of the second island portion 113 and exposed to the outside, and the second signal contact 132-2 can be fixed in the third island portion 114 to surround the surface of the third island portion 114 and exposed to the outside.

[0111] Therefore, such as Figure 7 and Figure 12 As shown, the first signal contact 132-1 may include: a fixed portion 132a, which is fixed to the second island portion 113 to surround the surface of the second island portion 113 that protrudes a certain height from the bottom 111 and is exposed to the outside; a bottom portion 132b, which extends from the fixed portion 132a and is disposed on the bottom surface of the first receiving space S1; and a movable portion 132c, which extends from the bottom portion 132b and is capable of elastically deforming due to external force.

[0112] Here, the fixed portion 132a, the bottom portion 132b, and the movable portion 132c can all be configured to be exposed to the outside within the first receiving space S1. The insulating body 110 can include a movable space 115 formed in the first island portion 112 along the third axis direction which is the height direction. The movable portion 132c can be configured to be located within the movable space 115.

[0113] In the case described above, the first signal contact 132-1 may further include a protruding portion 132d that protrudes from the fixed portion 132a toward the first receiving space S1.

[0114] Therefore, if the connector 100 and the corresponding connector 200 of an embodiment of the present invention are coupled to each other, then as Figure 27 As shown, the first signal contact 132-1 can form a double contact with the signal contact 232-1 of the corresponding connector 200 within the first receiving space S1 using the protruding portion 132d and the movable portion 132c.

[0115] Similarly, such as Figure 7 and Figure 12 As shown, the second signal contact 132-2 may include: a fixed portion 132a, which is fixed to the third island portion 114 to surround the surface of the third island portion 114 that protrudes a certain height from the bottom 111 and is exposed to the outside; a bottom portion 132b, which extends from the fixed portion 132a and is disposed on the bottom surface of the second receiving space S2; and a movable portion 132c, which extends from the bottom portion 132b and is capable of elastically deforming due to external force.

[0116] Here, the fixed portion 132a, the bottom portion 132b, and the movable portion 132c can all be configured to be exposed to the outside in the second receiving space S2. The insulating body 110 can include a movable space 115 formed in the first island portion 112 along the third axis direction which is the height direction. The movable portion 132c can be configured to be located in the movable space 115.

[0117] In the case described above, the second signal contact 132-2 may further include a protruding portion 132d that protrudes from the fixed portion 132a toward the second receiving space S2.

[0118] Therefore, if the connector 100 of one embodiment of the present invention is combined with the corresponding connector 200, then as Figure 27 As shown, the second signal contact 132-1 can form a double contact with the signal contact 232-2 of the corresponding connector 200 within the second receiving space S2 using the protruding portion 132d and the movable portion 132c.

[0119] Therefore, in the connector 100 of one embodiment of the present invention, since the first signal contact 132-1 and the second signal contact 132-2, which are formed of metal material, are fixed to the second island portion 113 or the third island portion 114 by the fixing portion 132a to surround the surface of the second island portion 113 or the third island portion 114, and the end side near the first island portion 112 is set to be movable, the second island portion 113 and the third island portion 114 can be strengthened by the fixing portion 132a, and can form a double contact with the signal contact 232 of the corresponding connector 200 by the protrusion portion 132d and the movable portion 132c.

[0120] Therefore, in the connector 100 of one embodiment of the present invention, even if a second island portion 113 and a third island portion 114 are arranged on both sides of the first island portion 112, the possibility of the second island portion 113 and the third island portion 114 being damaged by external force when combined with the corresponding connector 200 can be reduced, and the power supply stability can be ensured.

[0121] In this case, in a connector 100 according to an embodiment of the present invention, the insulating body 110 may further include a short-circuit prevention portion 119 extending a certain height from the bottom 111 along the third axis direction.

[0122] As described above, the short-circuit prevention part 119 can prevent the soldering member from moving along the signal contact 132 in the third axis direction when the connector 100 of an embodiment of the present invention is mounted on one side of the circuit board in an SMT manner.

[0123] Therefore, the short-circuit prevention part 119 can prevent electrical short circuits in the signal contact 132 caused by the welding components.

[0124] Therefore, the short-circuit prevention part 119 can be configured to cover one side of the fixing part 132a fixed to the second island part 113 or the third island part 114, so as to cover the surface of the second island part 113 or the third island part 114.

[0125] In the case described above, the short-circuit prevention part 119 can extend a certain height from the bottom 111 along the third axis direction.

[0126] As an example, such as Figures 4 to 6 As shown, the short-circuit prevention part 119 may include: a first short-circuit prevention part 119-1, which extends from the bottom 111 to a certain height to cover one side of the fixing portion 132a of the first signal contact 132-1; and a second short-circuit prevention part 119-2, which extends from the bottom 111 to a certain height to cover one side of the fixing portion 132a of the second signal contact 132-2.

[0127] Therefore, even if the edge portion 117 includes a cut portion 118 (118-1, 118-2) formed at a position corresponding to the signal contact 132, and the signal contact 132 is configured to be located on the side of the cut portion 118, the short-circuit prevention portion 119 can prevent one side of the fixed portion 132a of the signal contact 132 from being exposed to the outside.

[0128] Therefore, when the connector 100 of an embodiment of the present invention is mounted on one side of the circuit board in an SMT manner, the short-circuit prevention part 119 can be used to block the movement of the fixing part 132a for electrically connecting the signal contact 132 and the soldering member (not shown) of the circuit board along the fixing part 132a in the third axis direction.

[0129] Here, the first signal contact 132-1 and the second signal contact 132-2 may each be provided in a plurality of units and arranged spaced apart from each other along the first axis direction.

[0130] That is, a plurality of the first signal contacts 132-1 can be configured such that the fixing portion 132a is fixed to the second island portion 113 along the first axial direction and spaced apart from each other, and a plurality of the second signal contacts 132-2 can be configured such that the fixing portion 132a is fixed to the third island portion 114 along the first axial direction and spaced apart from each other.

[0131] Refer again Figures 2 to 7 The shielding contact 133 can be configured along a second axis direction which is the width direction and is located between adjacent RF contacts 131 and signal contacts 132 to electrically shield the RF contacts 131 and signal contacts 132 from each other.

[0132] As an example, the shielding contact 133 may include a first shielding contact 133-1 and a second shielding contact 133-2. The first shielding contact 133-1 may be configured along the second axis direction between the first RF contact 131-1 and the signal contact 132, and the second shielding contact 133-2 may be configured along the second axis direction between the second RF contact 131-2 and the signal contact 132.

[0133] Therefore, the first shielding contact 133-1 can electrically shield the first RF contact 131-1 and the signal contact 132, and the second shielding contact 133-2 can electrically shield the second RF contact 131-2 and the signal contact 132.

[0134] At this time, the shielding contact 133 can be configured to surround the end of the RF contact 131 and surround the top, front and side surfaces of the second island 113 and the top, front and side surfaces of the third island 114, or it can be configured to surround the end of the RF contact 131 and surround the top, back and side surfaces of the second island 113 and the top, back and side surfaces of the third island 114.

[0135] That is, the shielding contact 133 can be fixed in the insulating body 110 to surround the two ends of the second island portion 113 and the two ends of the third island portion 114 that protrude from the bottom 111 to a certain height and to be exposed to the outside.

[0136] Furthermore, the shielding contact 133 can be fixed in the insulating body 110 to surround both ends of the first island 112, which is located between the second island 113 and the third island 114 and protrudes a certain height from the bottom 111.

[0137] Therefore, in the insulating body 110, the two ends of the first island portion 112, the second island portion 113 and the third island portion 114 can be covered by the shielding contact 133 formed of metal material.

[0138] Therefore, the strength of the two end sides of the first island 112, the second island 113 and the third island 114 can be enhanced by the shielding contact 133.

[0139] Furthermore, the RF contact 131 can be configured in the configuration space to be surrounded by the shielding contact 133 in at least three directions.

[0140] Therefore, the shielding contact 133 may include: a first portion 133a, which covers the top, front and side surfaces of the second island portion 113 or the top, back and side surfaces of the third island portion 114; a second portion 133b, which covers the top, back and side surfaces of the second island portion 113 or the top, front and side surfaces of the third island portion 114; and a third portion 133c, which covers the front or back surface of the first island portion 112.

[0141] In the case described above, in the shielding contact 133, the portion surrounding the surface of the first island portion 112, the surface of the second island portion 113, and the surface of the third island portion 114 that protrude a certain height from the bottom 111 can be exposed to the outside, while the portion corresponding to the bottom surface of the third receiving space S3 and the bottom surface of the configuration space can be not exposed to the outside.

[0142] In addition, the first shielding contact 133-1 and the second shielding contact 133-2 can each be configured as a single component, but they can also be configured as two components arranged along the second axis and physically separated.

[0143] Furthermore, the third portion 133c may be integrally formed with the first portion 133a or integrally formed with the second portion 133b.

[0144] As an example, such as Figure 6 , Figure 7 , Figure 9 as well as Figure 10 As shown, the first portion 133a may include: an upper portion 133aa that covers the top surface of the second island portion 113 or the top surface of the third island portion 114; a first extension portion 133ab that extends from the upper portion 133aa to cover the outer side surface of the second island portion 113 or the outer side surface of the third island portion 114; a second extension portion 133ac that extends from the upper portion 133aa to cover the front surface of the second island portion 113 or the back surface of the third island portion 114; a first contact portion 133ad that extends from the upper portion 133aa to cover the inner side surface of the second island portion 113 or the inner side surface of the third island portion 114; and a mounting portion 133ae that extends from the end of the first extension portion 133ab to be exposed on the bottom surface of the bottom portion 111.

[0145] Additionally, the second portion 133b may include: an upper portion 133ba that covers the top surface of the second island portion 113 or the top surface of the third island portion 114; a third extension portion 133bb that extends from the upper portion 133ba to cover the outer side surface of the second island portion 113 or the outer side surface of the third island portion 114; a fourth extension portion 133bc that extends from the upper portion 133ba to cover the back surface of the second island portion 113 or the front surface of the third island portion 114; a second contact portion 133bd that extends from the upper portion 133ba to cover the inner side surface of the second island portion 113 or the inner side surface of the third island portion 114; and a mounting portion 133be that extends from the end of the third extension portion 133bb to be exposed on the bottom surface of the bottom portion 111.

[0146] Furthermore, the third portion 133c may include: a third contact portion 133ca, which extends from the second portion 133b along the height direction of the first island portion 112 to cover the front or back of the first island portion 112; and a fixing portion 133cb, which is bent from the end of the third contact portion 133ca to be able to be embedded into the interior of the first island portion 112.

[0147] Here, the first contact portion 133ad of the first portion 133a, the second contact portion 133bd of the second portion 133b, and the third contact portion 133ca of the third portion 133c may be portions that form contacts with the shielding contact 233 of the opposite connector 200, respectively.

[0148] Thus, the RF contact 131 can be configured in the configuration space to be surrounded by the first portion 133a, the second portion 133b and the third portion 133c, and can be configured in the configuration space to be surrounded by three contacts formed by the shielding contact 133 and the shielding contact 233 of the opposite connector 200.

[0149] Furthermore, since the contact formed by the shielding contact 133 and the shielding contact 233 of the opposite connector 200 is located close to the RF contact 131, the shielding contact 133 can improve the RF signal transmission performance by improving the shielding performance.

[0150] The shielding performance of the shielding contact 133 can be improved by increasing the number of contacts formed by the shielding contact 133 and the shielding contact 233 of the connector 200, and the shielding performance of the shielding contact 133 is further improved by the number of directions in which the contacts are formed relative to the RF contact 131. This is because the direct transmission of noise from the contacts to the ground side is important. In particular, for 5G RF signals, ultra-high frequency signals, which have short wavelengths and therefore significant signal attenuation, may be more susceptible to interference from adjacent general signals. Therefore, the shielding of the RF contact and the general signal contact determines the overall signal transmission performance of the connector.

[0151] The connector of one embodiment of the present invention can be an ultra-small connector used in mobile phones with a horizontal length of less than 1 cm and a vertical length of less than 1 cm. Even under the circumstances described above, the connector of one embodiment of the present invention can minimize signal interference and signal attenuation by optimizing the number and position of the contacts formed by the shielding contact 133 and the shielding contact 233 relative to the connector 200.

[0152] As a specific example, such as Figure 6 , Figure 7 , Figure 9 as well as Figure 10As shown, the first shielding contact 133-1 may include a first portion 133a covering the top surface, front surface and side surface of the second island portion 113, a second portion 133b covering the top surface, front surface and side surface of the third island portion 114, and a third portion 133c covering the front surface of the first island portion 112. The third portion 133c may be integrally formed with the second portion 133b.

[0153] That is, the first portion 133a may include: an upper portion 133aa that covers the top surface of the second island portion 113; a first extension portion 133ab that extends from the upper portion 133aa to cover the outer side surface of the second island portion 113; a second extension portion 133ac that extends from the upper portion 133aa to cover the front surface of the second island portion 113; a first contact portion 133ad that extends from the upper portion 133aa to cover the inner side surface of the second island portion 113 and forms a contact with the shielding contact 233 of the opposite connector 200; and a mounting portion 133ae that extends from the end of the first extension portion 133ab to be exposed on the bottom surface of the bottom portion 111.

[0154] Additionally, the second portion 133b may include: an upper portion 133ba that covers the top surface of the third island portion 114; a third extension portion 133bb that extends from the upper portion 133ba to cover the outer side surface of the third island portion 114; a fourth extension portion 133bc that extends from the upper portion 133ba to cover the front surface of the third island portion 114; a second contact portion 133bd that extends from the upper portion 133ba to cover the inner side surface of the third island portion 114 and forms a contact with the shielding contact 233 of the opposite connector 200; and a mounting portion 133be that extends from the end of the third extension portion 133bb to be exposed on the bottom surface of the bottom portion 111.

[0155] Furthermore, the third portion 133c may include: a third contact portion 133ca, which extends from the second portion 133b along the height direction of the first island portion 112 to cover the front surface of the first island portion 112; and a fixing portion 133cb, which is bent from the end of the third contact portion 133ca to be able to be embedded into the interior of the first island portion 112.

[0156] In the case described above, the first contact portion 133ad can be formed to be located closer to the first island portion 112 than the first RF contact 131-1 disposed in the configuration space, the second contact portion 133bd can be formed to be located closer to the first island portion 112 than the first RF contact 131-1 disposed in the configuration space, and the third contact portion 133ca of the third portion 133c can extend integrally from the second contact portion 133bd of the second portion 133b along the height direction of the first island portion 112.

[0157] Therefore, in the first shielding contact 133-1, the second part 133b and the third part 133c can be integrally formed, and the first contact portion 133ad of the first part 133a, the second contact portion 133bd of the second part 133b and the third contact portion 133ca of the third part 133c can each be configured to surround the two sides and the back of the first RF contact 131-1 disposed in the configuration space.

[0158] Thus, the first RF contact 131-1 can be configured in the configuration space to be surrounded in three directions by the first contact portion 133ad of the first portion 133a, the second contact portion 133bd of the second portion 133b, and the third contact portion 133ca of the third portion 133c.

[0159] Therefore, if in the first shielding contact 133-1, the first contact portion 133ad of the first part 133a, the second contact portion 133bd of the second part 133b, and the third contact portion 133ca of the third part 133c form contacts with the shielding contact 233 of the opposite connector 200 respectively, then the first shielding contact 133-1 can contact the shielding contact 233 of the opposite connector 200 at three locations.

[0160] Therefore, since the first RF contact 131-1 can be configured in the configuration space to be surrounded by corresponding contacts at three positions corresponding to the first contact portion 133ad of the first portion 133a, the second contact portion 133bd of the second portion 133b, and the third contact portion 133ca of the third portion 133c, the RF transmission performance can be improved by enhancing the shielding performance based on the first shielding contact 133-1.

[0161] In addition, since the first RF contact 131-1 can be configured such that the contact formed by the first shielding contact 133 and the shielding contact 233 of the opposite connector 200 is located close to the first RF contact 131-1, the first shielding contact 133 can improve the RF transmission performance of the first RF contact 131-1 by improving the shielding performance.

[0162] Similarly, the second shielding contact 133-2 may include a first portion 133a covering the top, back, and side surfaces of the third island portion 114, a second portion 133b covering the top, back, and side surfaces of the second island portion 113, and a third portion 133c covering the back surface of the first island portion 112, wherein the third portion 133c may be integrally formed with the second portion 133b.

[0163] That is, the first portion 133a may include: an upper portion 133aa that covers the top surface of the third island portion 114; a first extension portion 133ab that extends from the upper portion 133aa to cover the outer side surface of the third island portion 114; a second extension portion 133ac that extends from the upper portion 133aa to cover the back surface of the third island portion 114; a first contact portion 133ad that extends from the upper portion 133aa to cover the inner side surface of the third island portion 114 and forms a contact with the shielding contact 233 of the opposite connector 200; and a mounting portion 133ae that extends from the end of the first extension portion 133ab to be exposed on the bottom surface of the bottom portion 111.

[0164] Additionally, the second portion 133b may include: an upper portion 133ba that covers the top surface of the second island portion 113; a third extension portion 133bb that extends from the upper portion 133ba to cover the outer side surface of the second island portion 113; a fourth extension portion 133bc that extends from the upper portion 133ba to cover the back surface of the second island portion 113; a second contact portion 133bd that extends from the upper portion 133ba to cover the inner side surface of the second island portion 113 and forms a contact with the shielding contact 233 of the opposite connector 200; and a mounting portion 133be that extends from the end of the third extension portion 133bb to be exposed on the bottom surface of the bottom portion 111.

[0165] Furthermore, the third portion 133c may include: a third contact portion 133ca, which extends from the second portion 133b along the height direction of the first island portion 112 to cover the back side of the first island portion 112; and a fixing portion 133cb, which is bent from the end of the third contact portion 133ca to be able to be embedded into the interior of the first island portion 112.

[0166] In the case described above, the first contact portion 133ad can be formed to be located closer to the first island portion 112 than the second RF contact 131-2 disposed in the configuration space, and the second contact portion 133bd can be formed to be located closer to the first island portion 112 than the second RF contact 131-2 disposed in the configuration space. The third contact portion 133ca of the third portion 133c can extend integrally from the second contact portion 133bd of the second portion 133b along the height direction of the first island portion 112.

[0167] Therefore, in the second shielding contact 133-2, the second part 133b and the third part 133c can be integrally formed, and the first contact portion 133ad of the first part 133a, the second contact portion 133bd of the second part 133b and the third contact portion 133ca of the third part 133c can each be configured to surround the two sides and the back of the second RF contact 131-2 disposed in the configuration space.

[0168] Thus, the second RF contact 131-2 can be configured in the configuration space to be surrounded in three directions by the first contact portion 133ad of the first portion 133a, the second contact portion 133bd of the second portion 133b, and the third contact portion 133ca of the third portion 133c.

[0169] Therefore, if the first contact portion 133ad of the first portion 133a of the second shielding contact 133-2, the second contact portion 133bd of the second portion 133b, and the third contact portion 133ca of the third portion 133c each form a contact with the shielding contact 233 of the opposite connector 200, then the second shielding contact 133-2 can contact the shielding contact 233 of the opposite connector 200 at three locations.

[0170] Therefore, since the second RF contact 131-2 can be configured in the configuration space to be surrounded by corresponding contacts at three positions corresponding to the first contact portion 133ad of the first portion 133a, the second contact portion 133bd of the second portion 133b, and the third contact portion 133ca of the third portion 133c, the RF transmission performance can be improved by enhancing the shielding performance based on the second shielding contact 133-2.

[0171] In addition, since the second RF contact 131-2 can be configured such that the contact formed by the second shielding contact 133-2 and the shielding contact 233 of the opposite connector 200 is located close to the second RF contact 131-2, the second shielding contact 133-2 can improve the RF transmission performance of the second RF contact 131-2 by improving the shielding performance.

[0172] As described above, in the connector 100 of one embodiment of the present invention, since the shielding contact 133 formed of metal material can be configured to surround the surfaces of both ends of the first island 112, the second island 113 and the third island 114, each of the first island 112, the second island 113 and the third island 114 can have its end side strength reinforced by the shielding contact 133.

[0173] Therefore, the connector 100 of one embodiment of the present invention not only smoothly forms multiple contacts of the contact portion 130, but also strengthens the first island portion 112, the second island portion 113 and the third island portion 114, thereby further reducing the possibility of damage to the first island portion 112, the second island portion 113 and the third island portion 114 caused by misalignment.

[0174] Furthermore, in a connector 100 according to an embodiment of the present invention, since the RF contact 131 can be configured in the insulating body 110 to be surrounded by three contacts formed between the shielding contact 133 and the shielding contact 230 opposite to the connector 200, the RF contact 131 can further improve the RF transmission performance based on the improved shielding performance of the shielding contact 133.

[0175] Although the accompanying drawings show the third portion 133c integrally formed with the second portion 133b, the invention is not limited thereto, and the third portion 133c may also be integrally formed with the first portion 133b. In the case described above, the third contact portion 133ca of the third portion 133c may extend integrally from the first contact portion 133ad of the first portion 133a along the height direction of the first island portion 112.

[0176] On the other hand, the corresponding connector 200 of one embodiment of the present invention can be configured such that when physically combined with the aforementioned connector 100, the corresponding contact elements can form multiple contacts.

[0177] That is, the corresponding connector 200 of one embodiment of the present invention can not only reduce the possibility of damage caused by physical contact when combined with the connector 100, but also ensure contact stability through the multi-contact structure of the corresponding contact elements.

[0178] In addition, the corresponding connector 200 of one embodiment of the present invention can improve the RF signal transmission performance by improving the contact position of the shielding contact 233 corresponding to the shielding contact 133 of the connector 100.

[0179] Therefore, such as Figures 15 to 19 As shown, a corresponding connector 200 in one embodiment of the present invention may include an insulating body 210, a shielding member 220, and a contact portion 230.

[0180] The insulating body 210 can be formed of an electrically insulating material and can define the overall appearance of the corresponding connector 200. For example, as... Figure 17 As shown, the insulating body 210 can be in a generally rectangular parallelepiped shape.

[0181] The insulating body 210 described above can be configured to have a shape corresponding to the connector 100 so that the corresponding connector 200 can be physically coupled to the connector 100.

[0182] In addition, as described above, the insulating body 210 can be configured to not only reduce the possibility of damage caused by physical contact when combined with the connector 100, but also to form multiple contacts with corresponding contact elements.

[0183] That is, in one embodiment of the present invention, the corresponding connector 200 can be configured such that when combined with the connector 100, the contact positions of the shielding contacts 133, 233 that correspond to each other surround the RF contact 231, and the RF contact 231 can be configured to be surrounded by the contacts of three shielding contacts that are not in a straight line.

[0184] Therefore, the insulating body 210 may include receiving grooves 214 and placement grooves 215 formed such that the three islands 112, 113, 114 can be inserted into each individually.

[0185] In the case described above, the insulating body 210 may include: a plate-shaped bottom 211 having a defined area; and an annular island portion 212 protruding from the bottom 211 at a certain height to form the receiving groove 214 and the placement groove 215.

[0186] That is, the annular island portion 212 can protrude from the bottom 211 by a certain height to form a receiving groove 214 for accommodating the first island portion 112 and a placement groove 215 for accommodating the second island portion 113 and the third island portion 114.

[0187] Here, the annular island portion 212 can be inserted into the first receiving space S1 and the second receiving space S2 of the connector 100 when the connector 100 and the corresponding connector 200 are combined, and the contact portion 230 can form multiple contacts with the contact portion 130 of the connector 100 when the annular island portion 212 is inserted into the first receiving space S1 and the second receiving space S2.

[0188] In addition, the receiving groove 214 may be formed to be located inside the annular island portion 212, and the placement groove 215 may be formed to surround the annular island portion 212 on the outside.

[0189] Therefore, if the corresponding connector 200 of an embodiment of the present invention is combined with the connector 100, the first island portion 112 can be inserted into the receiving groove 214, and the second island portion 113 and the third island portion 113 disposed on both sides of the first island portion 112 can each be inserted into the placement groove 215.

[0190] At this time, the annular island portion 212 can be arranged in a closed-loop shape to have increased strength regardless of direction.

[0191] Furthermore, the corresponding connector 200 in one embodiment of the present invention may also include a connecting island 213 to further enhance the strength of the annular island 212.

[0192] That is, the insulating body 210 may include: an edge portion 217 that extends upward along the edge of the bottom 211 to a certain height; and a connecting island portion 213 that extends from the annular island portion 212 along a first axis direction that is the length direction.

[0193] In the case described above, the connecting island portion 213 can protrude from the bottom 211 by a certain height to connect the edge portion 217 and the annular island portion 212 to each other.

[0194] As a specific example, such as Figure 15 , Figure 17 as well as Figure 19 As shown, the annular island portion 212 can be in the form of a first island interval portion 212-1, a second island interval portion 212-2, a third island interval portion 212-3, and a fourth island interval portion 212-4, each having a predetermined length, connected to each other to form a closed loop shape.

[0195] Additionally, the connecting island portion 213 may include a first connecting island portion 213-1 connecting the third island interval portion 212-3 and the edge portion 217, and a second connecting island portion 213-2 connecting the fourth island interval portion 212-4 and the edge portion 217.

[0196] In the case described above, the first island section 212-1 and the second island section 212-2 can be formed to be spaced apart from each other along a second axis direction which is the width direction and have a certain length in the first axis direction, and the third island section 212-3 and the fourth island section 212-4 can be formed to be spaced apart from each other along a first axis direction which is the length direction and have a certain length in the second axis direction.

[0197] In addition, the third island section 212-3 can connect one end of the first island section 212-1 and one end of the second island section 212-2, and the fourth island section 212-4 can connect the other end of the first island section 212-1 and the other end of the second island section 212-2.

[0198] Furthermore, the first connecting island portion 213-1 is formed to have a certain length along the first axis direction so as to connect the third island interval portion 212-3 and the edge portion 217 facing each other, and the second connecting island portion 213-2 is formed to have a certain length along the first axis direction so as to connect the fourth island interval portion 212-4 and the edge portion 217 facing each other.

[0199] Thus, the annular island portion 212 can be formed into a closed loop shape by sequentially connecting the first island interval portion 212-1, the third island interval portion 212-3, the second island interval portion 212-2, and the fourth island interval portion 212-4 in one direction, and is formed to be connected to the edge portion 217 by the first connecting island portion 213-1 and the second connecting island portion 213-2.

[0200] Therefore, even when the corresponding connectors 200 and 100 are combined, and a load is applied to the first island section 212-1 or the second island section 212-2 due to physical contact, the first island section 212-1 or the second island section 212-2 can support the load by the third island section 212-3 and the fourth island section 212-4, which are connected to each other and arranged in a direction substantially parallel to the direction of the load applied to the first island section 212-1 or the second island section 212-2.

[0201] Similarly, even when the corresponding connectors 200 and 100 are combined, and the load is applied to the third island section 212-3 or the fourth island section 212-4 due to physical contact, the third island section 212-3 or the fourth island section 212-4 can support the load by connecting the first connecting island section 213-1 or the second connecting island section 213-2 to the annular island section 212 and the edge section 217.

[0202] Therefore, the annular island portion 212 can have increased strength regardless of the direction of the applied load, thereby reducing the possibility of breakage caused by physical contact when the corresponding connectors 200 and 100 are engaged.

[0203] In particular, in a corresponding connector 200 of an embodiment of the present invention, the annular island portion 212 is connected to the edge portion 217 via the first connecting island portion 213-1 and the second connecting island portion 213-2, thereby enabling more effective support of the load applied along the first axial direction.

[0204] Furthermore, the contact portion 230 may be formed of a metal material, and the contact portion 230 formed of a metal material may be fixed to the insulating body 210 to surround the surface of the annular island portion 212 and the connecting island portion 213 that protrude from the bottom 211 to a certain height and be exposed to the outside.

[0205] Therefore, the surface of the annular island portion 212 is protected by the contact portion 230, which has a higher strength than the insulating body 210, thus strengthening itself and further reducing the possibility of damage caused by physical contact when the corresponding connector 200 and the connector 100 are combined.

[0206] Therefore, the corresponding connector 200 of one embodiment of the present invention can ensure contact stability through the multi-contact structure of the corresponding contact elements, and can reduce the possibility of damage caused by physical contact even if misalignment occurs when it is combined with the connector 100.

[0207] In the case described above, the mounting groove 215 formed on the outside of the annular island portion 212 to surround the annular island portion 212 can be divided into two parts by the first connecting island portion 213-1 and the second connecting island portion 213-2.

[0208] That is, the placement groove 215 may include a first placement groove 215-1 defined by the first island section portion 212-1, the edge portion 217, the second connecting island portion 213-2 and the second connecting island portion 213-2, and a second placement groove 215-2 defined by the second island section portion 212-2, the edge portion 217, the second connecting island portion 213-2 and the second connecting island portion 213-2.

[0209] Therefore, if the corresponding connector 200 and the connector 100 are coupled together, the second island portion 113 of the connector 100 can be inserted into the first mounting slot 215-1, and the third island portion 114 of the connector 100 can be inserted into the second mounting slot 215-2.

[0210] The shielding member 220 not only prevents damage to the insulating body 210 caused by excessive pressure when it is combined with the connector 100, but also shields electromagnetic waves flowing in from the outside.

[0211] In addition, the shielding member 220 can shield electromagnetic waves generated at the contact portion 230 that is combined with the insulating body 210.

[0212] Therefore, the shielding member 220 can be made of metal, but is not limited to this. Various known materials can be used, as long as they have the specified strength and are conductive.

[0213] like Figures 15 to 19 As shown, the shielding member 220 described above can be combined with the insulating body 210 to surround the entire edge of the insulating body 210.

[0214] Therefore, the insulating body 210 may include an edge portion 217 extending a certain height from the bottom 211, the edge portion 217 extending a certain height from the edge of the bottom 211 to be spaced apart from the annular island portion 212.

[0215] Therefore, if the shielding member 220 is combined with the edge portion 217, the shielding member 220 can be configured to surround the edge of the insulating body 210.

[0216] Therefore, if the corresponding connector 200 of an embodiment of the present invention is combined with the connector 100, the shielding member 220 contacts and is energized with the shielding member 120 of the connector 200, thereby forming a ground together with the shielding contact 233 described later.

[0217] The contact portion 230 can be combined with the insulating body 210 and can be electrically connected to the outside.

[0218] Therefore, the contact portion 230 can be formed of a conductive material such as metal, and can be combined with the insulating body 210 so that at least a portion is exposed to the outside.

[0219] The contact portion 230 described above may include a plurality of contacts for a specified function, and the plurality of contacts may be combined with the insulating body 210 to make contact with the contacts or substrate of the connector 100.

[0220] In addition, the contact portion 230 can be configured to be located at a position corresponding to the contact portion 130 of the aforementioned connector 100.

[0221] That is, the contact portion 230 can be combined with the insulating body 210 to make contact with the contact elements of the corresponding connector 100 when the corresponding connector 200 and connector 100 are combined.

[0222] Here, the contact portion 230 can be detachably attached to the insulating body 210, or it can be integrally formed with the insulating body 210 by insert molding.

[0223] Therefore, the contact portion 230 can form an electrical contact with the contact portion 130 of the connector 100 when the corresponding connector 200 and connector 100 are combined.

[0224] At this time, the contact portion 230 can be configured in the same way as the aforementioned contact portion 130 to be able to transmit RF (Radio Frequency) signals and general signals simultaneously. The contact portion 230 can be configured in the insulating body 210 to form multiple contacts with the contact portion 130 of the connector 100.

[0225] Additionally, the RF contact 231 in the contact portion 230 can be configured to be surrounded by the contacts of shielding contacts that are not on a straight line.

[0226] That is, the RF contact 231 can be configured in the insulating body 210 to be surrounded by shielding contacts that are not in a straight line and form contacts with each other on the front or back and both sides of the RF contact 231.

[0227] Furthermore, the contact portion 230 can be fixed to the insulating body 210 to surround the surface of the annular island portion 212 that protrudes a certain height from the bottom 211 and the surface of the connecting island portion 213 and exposed to the outside.

[0228] Therefore, since the annular island portion 212 and the connecting island portion 213 are fixed to the insulating body 210 with their surfaces surrounded by contact portions 230 formed of metal material, the annular island portion 212 and the connecting island portion 213 can be strengthened by the contact portions 230 surrounding the surfaces.

[0229] As an example, the contact portion 230 may include an RF contact 231 for transmitting RF signals, a signal contact 232 for transmitting general signals, and a shielding contact 233 for electrical shielding. The RF contact 231, the signal contact 232, and the shielding contact 233 may be configured in the insulating body 210 to form multiple contacts with the contact portion 130 of the connector 100, respectively.

[0230] In addition, the RF contact 231, the signal contact 232 and the shielding contact 233 can be provided in a plurality of spaced apart from each other along the first axis direction. The signal contact 232 can be fixed to the surface of the annular island portion 212 to surround the surface of the annular island portion 212, and the RF contact 231 can be fixed to the surface of the connecting island portion 213 to surround the surface of the connecting island portion 213.

[0231] As a specific example, such as Figures 17 to 20 As shown, the plug RF contact 231 may include a first RF contact 231-1 and a second RF contact 231-2 that are spaced apart from each other along the first axial direction.

[0232] In the case described above, such as Figure 26 As shown, the RF contact 231 can be configured in the insulating body 210 to contact the RF contact 131 disposed in the configuration space at two locations when the corresponding connector 200 and the connector 100 are combined, and the insulating body 210 can be configured to strengthen the connection island 213.

[0233] Here, the first RF contact 231-1 can be fixed to the first connecting island 213-1 to surround the surface of the first connecting island 213-1 and exposed to the outside, and the second RF contact 231-2 can be fixed to the second connecting island 213-2 to surround the surface of the second connecting island 213-2 and exposed to the outside.

[0234] Therefore, such as Figure 20 , Figure 22 as well as Figure 26As shown, the first RF contact 231-1 may include: an exposed portion 231a, which is fixed to the first connecting island 213-1 to surround the surface of the first connecting island 213-1 and exposed to the outside; and an embedded portion 231b, which extends from the exposed portion 231a and is embedded into the bottom 211.

[0235] Here, the embedded portion 231b can be embedded into the bottom 211 and exposed to the outside through the bottom surface of the insulating body 210.

[0236] Therefore, the first RF contact 231-1 can smoothly form a dual contact with the first RF contact 131-1 of the connector 100 using the exposed portion 231a, and can be powered with other components such as circuit boards using the embedded portion 231b.

[0237] Similarly, the second RF contact 231-2 may include: an exposed portion 231a, which is fixed to the second connecting island 213-2 to surround the surface of the second connecting island 213-2 and exposed to the outside; and an embedded portion 231b, which extends from the exposed portion 231a and is embedded into the bottom 211.

[0238] Here, the embedded portion 231b can be embedded into the bottom 211 and exposed to the outside through the bottom surface of the insulating body 210.

[0239] Therefore, the second RF contact 231-1 can smoothly form a dual contact with the second RF contact 131-1 of the connector 100 using the exposed portion 231a, and can be powered with other components such as circuit boards using the embedded portion 231b.

[0240] Again, refer to Figures 17 to 20 The signal contact 232 may include a first signal contact 232-1 and a second RF contact 231-2 that are spaced apart from each other along the second axial direction.

[0241] In the case described above, the first signal contact 232-1 and the second signal contact 232-2 can be configured along the first axial direction between the first RF contact 231-1 and the second RF contact 231-2.

[0242] At this time, the first signal contact 232-1 can be fixed in the first island section 212-1 to surround the surface of the first island section 212-1 and exposed to the outside, and the second signal contact 232-2 can be fixed in the second island section 212-2 to surround the surface of the second island section 212-2 and exposed to the outside.

[0243] Additionally, the signal contact 232 may be configured in the insulating body 210 to form a dual contact with the signal contact 132 of the connector 100.

[0244] That is, such as Figure 27 As shown, if the connector 100 and the corresponding connector 200 are combined, the signal contact 232 can contact the signal contact 132 of the connector 100 at two locations.

[0245] Therefore, such as Figure 20 and Figure 23 As shown, the first signal contact 232-1 may include: a fixing portion 232a, which is fixed in the first island section 212-1 to surround the surface of the first island section 212-1 that protrudes a certain height from the bottom 211 and is exposed to the outside; and a bottom portion 232b, which extends from the fixing portion 232a and in the bottom 211.

[0246] Therefore, as Figure 27 As shown, if the connector 100 and the corresponding connector 200 are combined, the first signal contact 232-1 can form a double contact with the first signal contact 132-1 of the connector 100 using the protruding portion 132d and the movable portion 132c of the first signal contact 132-1.

[0247] Similarly, such as Figure 20 As shown, the second signal contact 232-2 may include: a fixing portion 232a, which is fixed in the second island section 212-2 to surround the surface of the second island section 212-2 that protrudes a certain height from the bottom 211 and is exposed to the outside; and a bottom portion 232b, which extends from the fixing portion 232a and is located in the bottom 211.

[0248] Therefore, if the connector 100 and the corresponding connector 200 are combined, the second signal contact 232-2 can form a double contact with the second signal contact 132-2 of the connector 100 using the protruding portion 132d and the movable portion 132c of the aforementioned second signal contact 132-2.

[0249] As described above, in the corresponding connector 200 of one embodiment of the present invention, the signal contact 232 and the RF contact 231 can form dual contacts with the signal contact 132 and the RF contact 131 of the connector 100, respectively.

[0250] Therefore, the corresponding connector 200 of one embodiment of the present invention can transmit RF signals and general signals, and can ensure that both RF signals and general signals have power-on stability through a dual-contact method.

[0251] Furthermore, in a corresponding connector 200 of an embodiment of the present invention, the first signal contact 232-1 and the second signal contact 232-2, which are formed of metal material, are fixed by the fixing portion 232a to surround the surface of the first island section 212-1 or the second island section 212-2. Therefore, the strength of the annular island section 212 can be enhanced by the fixing portion 232a.

[0252] Similarly, in a corresponding connector 200 of an embodiment of the present invention, the RF contact 231 formed of metal material is fixed to the surface of the connection island 213 by the exposed portion 231a for forming a double contact with the RF contact 131 of the connector 100, so the strength of the connection island 213 can be enhanced by the exposed portion 231a.

[0253] Therefore, the corresponding connector 200 of one embodiment of the present invention can not only reduce the possibility of damage to the annular island portion 212 and the connecting island portion 213 caused by external force when combined with the connector 100, but also ensure power supply stability.

[0254] Here, the first signal contact 232-1 and the second signal contact 232-2 may each be provided in a plurality of units and arranged apart from each other along the first axis direction.

[0255] That is, a plurality of the first signal contacts 232-1 can be configured such that the fixing portion 232a is fixed to the first island section 212-1 along the first axis direction and spaced apart from each other, and a plurality of the second signal contacts 232-2 can be configured such that the fixing portion 232a is fixed to the second island section 212-2 along the first axis direction and spaced apart from each other.

[0256] Refer again Figures 17 to 20 The shielding contact 233 can be configured along a second axis direction which is the width direction and is located between adjacent RF contacts 231 and signal contacts 232 to electrically shield the RF contacts 231 and signal contacts 232 from each other.

[0257] As an example, the shielding contact 233 may include a first shielding contact 233-1 and a second shielding contact 233-2. The first shielding contact 233-1 may be configured along the second axis direction between the first RF contact 231-1 and the signal contact 232, and the second shielding contact 233-2 may be configured along the second axis direction between the second RF contact 231-2 and the signal contact 232.

[0258] Therefore, the first shielding contact 233-1 can electrically shield the first RF contact 231-1 and the signal contact 232, and the second shielding contact 233-2 can electrically shield the second RF contact 231-2 and the signal contact 232.

[0259] At this time, the shielding contact 233 can be configured to contact the shielding contact 133 of the connector 100 in the first axial direction and the second axial direction respectively when combined with the connector 100.

[0260] That is, the shielding contact 233 can be formed such that when it is combined with the connector 100, the contact position of the shielding contact 133 of the connector 100 surrounds the RF contact 231 and is not on a straight line.

[0261] Therefore, the shielding contact 233 may include: a main body 233a, which is disposed along the second axial direction and embedded in the bottom 211; a first leg 233b, which extends from the main body 233a to protrude from the receiving groove 214 and is fixed to the annular island 212; and a pair of second legs 233c, which extend from the main body 233a to protrude to the outside of the annular island 212 and are fixed to the annular island 212.

[0262] In the case described above, the first leg 233b can extend from the main body 233a to be spaced apart from the pair of second legs 233c and located between the pair of second legs 233c.

[0263] Additionally, the shielding contact 233 may include a first protrusion 233d that protrudes from the main body 233a along the first axial direction and a second protrusion 233e that protrudes from the main body 233a along the second axial direction.

[0264] As an example, the first protrusion 233d may be formed in the first leg 233b to protrude from the first leg 233b toward the receiving groove 214 along the first axis direction, and the second protrusion 233e may be formed in the second leg 233c to protrude outward from the second leg 233c along the second axis direction.

[0265] Therefore, as Figure 28 and Figure 29 As shown, if the connector 100 and the corresponding connector 200 are combined, the first protrusion 233d can contact the third contact portion 133c of the aforementioned shielding contact 133 within the receiving groove 214, and the second protrusion 233e can contact the first contact portion 133ad and the second contact portion 133bd of the aforementioned shielding contact 133 respectively.

[0266] Therefore, the RF contact 231 can be surrounded by three contacts that are not on a straight line, formed by the first protrusion 233d, the second protrusion 233e, the first contact portion 133ad, the second contact portion 133bd, and the third contact portion 133c.

[0267] Furthermore, the contacts formed by the shielding contact 233 and the shielding contact 133 of the connector 100 can be located near the RF contact 231.

[0268] The shielding performance of the shielding contact 233 can be improved by increasing the number of contacts formed by the shielding contact 233 and the shielding contact 133 of the connector 100. Based on the RF contact 231, the more directions in which the contacts are formed, the higher the shielding performance of the shielding contact 233. This is because the direct transmission of noise from the contacts to the ground side is important. In particular, for 5G RF signals, ultra-high frequency signals, due to their shorter wavelengths and greater signal attenuation, may be affected by many adjacent general signals. Therefore, the shielding of the RF contact and the general signal contact determines the overall signal transmission performance of the connector.

[0269] The connector of one embodiment of the present invention can be an ultra-small connector used in mobile phones with a horizontal length of less than 1 cm and a vertical length of less than 1 cm. In the case described above, the connector of one embodiment of the present invention, as described above, can minimize signal interference and signal attenuation by optimizing the number and position of the contacts formed by the shielding contact 233 and the shielding contact 133 relative to the connector 100.

[0270] As a specific example, such as Figure 20 , Figure 21 , Figure 24as well as Figure 25 As shown, the first shielding contact 233-1 may include: a main body 233a, which is disposed along the second axial direction and embedded in the bottom 211; a first leg 233b, which extends from the main body 233a to protrude from the receiving groove 214 and is fixed to the annular island 212; and a pair of second legs 233c, which extend from the main body 233a to protrude to the outside of the annular island 212 and are fixed to the annular island 212.

[0271] In the case described above, the first leg 233b can extend from the main body 233a to be spaced apart from the pair of second legs 233c and located between the pair of second legs 233c.

[0272] Additionally, the first shielding contact 233-1 may include: a first protrusion 233d, which is formed on the first leg 233b to protrude from the main body 233a toward the receiving groove 214 along the first axis direction; and a second protrusion 233e, which is formed on the second leg 233c to protrude outward from the second leg 233c along the second axis direction.

[0273] Therefore, as Figure 28 and Figure 29 As shown, if the connector 100 and the corresponding connector 200 are combined, the first protrusion 233d can contact the third contact portion 133c of the first shielding contact 133-1 in the receiving groove 214, and the second protrusion 233e can contact the first contact portion 133ad and the second contact portion 133bd of the first shielding contact 133-1 respectively.

[0274] Thus, the first shielding contact 233-1 can contact the first shielding contact 133-1 of the connector 100 at three locations using the first protrusion 233d and the second protrusion 233e.

[0275] Therefore, the front and two sides of the first RF contact 231-1 can be surrounded by the contact point formed with the first shielding contact 133-1 in the first axial direction by the first protrusion 233d and the two contacts formed with the first shielding contact 133-1 in the second axial direction by the second protrusion 233e, thereby improving the RF transmission performance by improving the shielding performance based on the first shielding contact 233-1.

[0276] In addition, since the first RF contact 231-1 can be configured such that the contact formed by the first shielding contact 233-1 and the first shielding contact 133-1 of the connector 100 is located close to the first RF contact 231-1, the first shielding contact 233 can improve the RF transmission performance of the first RF contact 231-1 by improving the shielding performance.

[0277] Similarly, the second shielding contact 233-2 may include: a main body 233a, which is disposed along the second axial direction and embedded in the bottom 211; a first leg 233b, which extends from the main body 233a to protrude from the receiving groove 214 and is fixed to the annular island 212; and a pair of second legs 233c, which extend from the main body 233a to protrude to the outside of the annular island 212 and are fixed to the annular island 212.

[0278] In the case described above, the first leg 233b can extend from the main body 233a to be spaced apart from the pair of second legs 233c and located between the pair of second legs 233c.

[0279] Additionally, the second shielding contact 233-2 may include: a first protrusion 233d, which is formed on the first leg 233b to protrude from the main body 233a toward the receiving groove 214 along the first axis direction; and a second protrusion 233e, which is formed on the second leg 233c to protrude outward from the second leg 233c along the second axis direction.

[0280] Therefore, as Figure 28 and Figure 29 As shown, if the connector 100 and the corresponding connector 200 are combined, the first protrusion 233d can contact the third contact portion 133c of the second shielding contact 133-2 in the receiving groove 214, and the second protrusion 233e can contact the first contact portion 133ad and the second contact portion 133bd of the second shielding contact 133-2 respectively.

[0281] Therefore, the second shielding contact 233-2 can contact the second shielding contact 133-2 of the connector 100 at three locations using the first protrusion 233d and the second protrusion 233e.

[0282] Therefore, the front and two sides of the second RF contact 231-2 can be surrounded by the contact point formed with the second shielding contact 133-2 in the first axial direction by the first protrusion 233d and the two contacts formed with the second shielding contact 133-2 in the second axial direction by the second protrusion 233e, thereby improving the RF transmission performance by improving the shielding performance based on the second shielding contact 233-2.

[0283] In addition, since the second RF contact 231-2 can be configured such that the contact formed by the second shielding contact 233-2 and the second shielding contact 133-2 of the connector 100 is located close to the second RF contact 231-2, the second shielding contact 233 can improve the RF transmission performance of the second RF contact 231-2 by improving the shielding performance.

[0284] As described above, in the corresponding connector 200 of one embodiment of the present invention, since the RF contact 231 can be configured in the insulating body 210 to be surrounded by three contacts formed between the shielding contact 233 and the shielding contact 130 of the connector 100, the RF contact 231 can further improve the RF transmission performance by improving the shielding performance based on the shielding contact 233.

[0285] On the other hand, in a corresponding connector 200 of one embodiment of the present invention, the connecting island 213 can protrude from the bottom 211 by a certain height to form a lower height than the annular island 212.

[0286] That is, the first connecting island 213-1 and the second connecting island 213-2 that connect the annular island portion 212 and the edge portion 217 to each other can be configured to have a lower height than the annular island portion 212 based on a third direction.

[0287] Therefore, when the corresponding connector 200 and the connector 100 are engaged with each other, the possibility of the end sides of the second island portion 113 and the third island portion 114 contacting the annular island portion 212 first can be reduced.

[0288] Therefore, the annular island portion 212 can reduce the possibility of physical contact with the shielding contact 133 made of metal material that surrounds the end side of the second island portion 113 and the third island portion 114, and can reduce the possibility of damage caused by physical contact.

[0289] In the case described above, since the signal contact 232 is disposed on the annular island portion 212 and the RF contact 231 is disposed on the connecting island portion 213, when the corresponding connector 200 and the connector 100 are combined, the corresponding signal contacts 132-1, 132-2, 232-1, and 232-2 can contact each other first, and then the corresponding RF contacts 131-1, 131-2, 231-1, and 231-2 can contact each other.

[0290] Therefore, even if the corresponding connector 200 and the connector 100 are connected in a state of misalignment, the possibility of damage to the RF contacts 131-1, 131-2, 231-1, and 231-2 due to misalignment can be reduced.

[0291] Although embodiments of the present invention have been described, the spirit of the present invention is not limited to the embodiments given in this specification. Those skilled in the art who understand the spirit of the present invention can easily propose other embodiments by adding, changing, deleting, or adding constituent elements within the same spirit scope, which also fall within the spirit scope of the present invention.

Claims

1. A connector, wherein, include: The insulating body (110) includes three straight island portions (112, 113, 114), which are formed to have a certain length along a first axis direction which is the length direction, protrude from the bottom (111) to a certain height, and are spaced apart along a second axis direction perpendicular to the first axis. A shielding member (120), formed of a conductive material, is joined to the edge portion (117) along the edge of the insulating body (110); and The contact portion (130) is combined with the insulating body (110) to enable electrical connection to the outside; The three straight island portions (112, 113, 114) include a first island portion (112), a second island portion (113), and a third island portion (114), wherein the second island portion (113) and the third island portion (114) are configured to be located on both sides of the first island portion (112) along a second axis direction which is the width direction; The contact portion (130) includes an RF contact (131) for transmitting RF signals, a signal contact (132) for transmitting general signals, and a shielding contact (133) for electrical shielding. The RF contact (131) is configured to be located between the second island portion (113) and the third island portion (114) which are facing each other; The shielding contact (133) is configured to surround the end of the RF contact (131) and the top, front and side surfaces of the second island (113) and the top, front and side surfaces of the third island (114), or to surround the end of the RF contact (113) and the top, back and side surfaces of the second island (113) and the top, back and side surfaces of the third island (114).

2. The connector according to claim 1, wherein, The first island portion (112) is formed to have a shorter length in the first axial direction than the second island portion (113) and the third island portion (114).

3. The connector according to claim 2, wherein, The RF contact (131) includes a first RF contact (131-1) and a second RF contact (131-2); The first RF contact (131-1) is arranged on the outside of the first island (112) and spaced apart from the front of the first island (112) along the first axis direction; The second RF contact (131-2) is configured on the outside of the first island (112) and spaced apart from the back of the first island (112) along the first axial direction.

4. The connector according to claim 3, wherein, The first RF contact (131-1) is configured to be located between the imaginary straight line connecting the front of the second island (113) and the front of the third island (114) and the front of the first island (112); The second RF contact (131-2) is configured to be located between the back of the second island (113) and the back of the third island (114) on an imaginary straight line and the back of the first island (112).

5. The connector according to claim 3, wherein, The shielding contact (133) includes: The first part (133a) covers the top, front and side surfaces of the second island (113) or the top, back and side surfaces of the third island (114); The second part (133b) covers the top, back, and sides of the second island (113) or the top, front, and sides of the third island (114); and The third part (133c) covers the front or back of the first island (112); The RF contact (131) is configured to be surrounded by the first portion (133a), the second portion (133b), and the third portion (133c).

6. The connector according to claim 5, wherein, The third part (133c) is integrally formed with the first part (133a), or the third part (133c) is integrally formed with the second part (133b).

7. The connector according to claim 5, wherein, The first portion (133a), the second portion (133b), and the third portion (133c) each include portions that form contacts with the shielding contacts of the opposite connector.

8. The connector according to claim 5, wherein, The first part (133a) includes: The upper portion (133aa) covers the top surface of the second island portion (113) or the top surface of the third island portion (114); The first extension portion (133ab) extends from the upper portion (133aa) to cover the outer side of the second island portion (113) or the outer side of the third island portion (114); The second extension (133ac) extends from the upper portion (133aa) to cover the front of the second island (113) or the back of the third island (114); A first contact portion (133ad) extends from the upper portion (133aa) to cover the inner side of the second island portion (113) and form a contact with the shielding contact (233) of the opposing connector (200), or to cover the inner side of the third island portion (114) and form a contact with the shielding contact (233) of the opposing connector (200); and The mounting portion (133ae) extends from the end of the first extension portion (133ab) to expose the bottom surface of the bottom (111).

9. The connector according to claim 5, wherein, The second part (133b) includes: The upper portion (133ba) covers the top surface of the second island portion (113) or the top surface of the third island portion (114); The third extension (133bb) extends from the upper portion (133ba) to cover the outer side of the second island portion (113) or the outer side of the third island portion (114); The fourth extension (133bc) extends from the upper portion (133ba) to cover the back of the second island (113) or the front of the third island (114); The second contact portion (133bd) extends from the upper portion (133ba) to cover the inner side of the second island portion (113) and form a contact with the shielding contact of the opposing connector, or to cover the inner side of the third island portion (114) and form a contact with the shielding contact (233) of the opposing connector (200); and The mounting portion (133be) extends from the end of the third extension portion (133bb) to expose the bottom surface of the bottom (111).

10. The connector according to claim 5, wherein, The third part (133c) includes: The third contact portion (133ca) extends from the first portion (133a) or the second portion (133b) along the height direction of the first island portion (112) to cover the front or back of the first island portion (112) and form a contact with the shielding contact of the opposite connector; and The fixing portion (133cb) bends from the end of the third contact portion (133ca) so that it can be embedded into the interior of the first island portion (112).

11. The connector according to claim 3, wherein, The RF contact (131) includes: The embedded portion (131a) is spaced apart from the front of the first island portion (112) along the first axial direction and embedded into the bottom (111); A first movable portion (131b) extends from one end of the embedded portion (131a) along a third axis orthogonal to the first and second axes, and is capable of elastic deformation under external force; and The second movable part (131c) extends from the other end of the embedded part (131a) along the third axis direction and is capable of elastic deformation due to external force; The RF contact (131) forms a double contact with the RF contact of the opposite connector using the first movable portion (131b) and the second movable portion (131c).

12. The connector according to claim 11, wherein, The embedded portion (131a) includes: The first embedded portion (131aa) is embedded into the bottom (111) and exposed to the outside through the bottom surface of the insulating body (110); and The second embedded portion (131ab) is embedded into the bottom (111) and extends from the first embedded portion (131aa) to connect the first embedded portion (131aa), the first movable portion (131b) and the second movable portion (131c) to each other.

13. The connector according to claim 1, wherein, The signal contact (132) includes: A first signal contact (132-1) is fixed to the second island portion (113) as a surface surrounding the second island portion (113) and exposed to the outside; and The second signal contact (132-2) is fixed to the third island (114) as a surface surrounding the third island (114) and exposed to the outside.

14. The connector according to claim 1, wherein, The insulating body (110) also includes: An edge portion (117) is formed along the edge of the bottom to be spaced apart from and completely surround the three island portions; and The cut portion (118) is cut from the edge portion (117) and is located at a position corresponding to the signal contact (132).

15. A connector, wherein, include: The insulating body (110) includes three straight island portions (112, 113, 114), which are formed to have a certain length along a first axis direction which is the length direction, protrude from the bottom (111) to a certain height, and are spaced apart along a second axis direction perpendicular to the first axis. A shielding member (120), formed of a conductive material, is joined to the edge portion (117) along the edge of the insulating body (110); and The contact portion (130) is combined with the insulating body (110) to enable electrical connection to the outside; The three straight island portions (112, 113, 114) include a first island portion (112), a second island portion (113), and a third island portion (114), wherein the second island portion (113) and the third island portion (114) are configured to be located on both sides of the first island portion (112) along a second axis direction which is the width direction; The contact portion (130) includes an RF contact (131) for transmitting RF signals, a signal contact (132) for transmitting general signals, and a shielding contact (133) for electrical shielding. The first island (112) is formed to have a shorter length in the first axial direction than the second island (113) and the third island (114), such that the RF contact (131) can be located between the sides of the second island (113) and the sides of the third island (114) facing each other and disposed at one end of the first island.

16. The connector according to claim 15, wherein, The shielding contact (133) includes: The first part (133a) covers the top, front and side surfaces of the second island (113) or the top, back and side surfaces of the third island (114); The second part (133b) covers the top, back, and sides of the second island (113) or the top, front, and sides of the third island (114); and The third part (133c) covers the front or back of the first island (112); The RF contact (131) is configured to be surrounded by the first portion (133a), the second portion (133b), and the third portion (133c).

17. The connector according to claim 16, wherein, The first portion (133a), the second portion (133b), and the third portion (133c) each include portions that form contacts with the shielding contacts of the opposite connector.

18. The connector according to claim 16, wherein, The first part (133a) includes: The upper portion (133aa) covers the top surface of the second island portion (113) or the top surface of the third island portion (114); The first extension portion (133ab) extends from the upper portion (133aa) to cover the outer side of the second island portion (113) or the outer side of the third island portion (114); The second extension (133ac) extends from the upper portion (133aa) to cover the front of the second island (113) or the back of the third island (114); A first contact portion (133ad) extends from the upper portion (133aa) to cover the inner side of the second island portion (113) and form a contact with the shielding contact (233) of the opposing connector (200), or to cover the inner side of the third island portion (114) and form a contact with the shielding contact (233) of the opposing connector (200); and The mounting portion (133ae) extends from the end of the first extension portion (133ab) to expose the bottom surface of the bottom (111).

19. The connector according to claim 16, wherein, The second part (133b) includes: The upper portion (133ba) covers the top surface of the second island portion (113) or the top surface of the third island portion (114); The third extension (133bb) extends from the upper portion (133ba) to cover the outer side of the second island portion (113) or the outer side of the third island portion (114); The fourth extension (133bc) extends from the upper portion (133ba) to cover the back of the second island (113) or the front of the third island (114); The second contact portion (133bd) extends from the upper portion (133ba) to cover the inner side of the second island portion (113) and form a contact with the shielding contact of the opposing connector, or to cover the inner side of the third island portion (114) and form a contact with the shielding contact (233) of the opposing connector (200); and The mounting portion (133be) extends from the end of the third extension portion (133bb) to expose the bottom surface of the bottom (111).

20. The connector according to claim 16, wherein, The third part (133c) includes: The third contact portion (133ca) extends from the first portion (133a) or the second portion (133b) along the height direction of the first island portion (112) to cover the front or back of the first island portion (112) and form a contact with the shielding contact of the opposite connector. The fixing portion (133cb) bends from the end of the third contact portion (133ca) so that it can be embedded into the interior of the first island portion (112).

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