TW201345086A - Riveting terminal having buttonhole mechanism - Google Patents

Abstract

A riveting terminal having a buttonhole mechanism is disclosed. The terminal is combined between a coaxial wire and an antenna and comprises a wire clip unit and buckling sheet units. The wire clip unit includes a first wire clip and a second clip to allow the terminal to be directly riveted on the central conductor of the coaxial wire as a whole through the first wire clip and directly riveted on the external conductor of the coaxial wire as a whole through the second wire clip. The buckling sheet units are connected with the wire holder units, and have a first buckling sheet and a second buckling sheet. The first buckling sheet has at least a buckling hole and is connected to the first wire clip. The second buckling sheet has at least a second buckling hole and is connected to the second wire clip. The terminal is directly riveted on the signal region of the antenna through the first buckling sheet and directly riveted on the grounding region of the antenna through the second buckling sheet, and the coaxial wire and the antenna are combined as a whole through the terminal.

Description

Riveted terminal with buttonhole mechanism

The utility model relates to a riveted terminal, in particular to a riveted terminal with a buttonhole mechanism for directly combining a coaxial electric wire and an antenna.

Currently, mobile communication devices such as Notebook (NB), Mobile Phone, Tablet Personal Computer, and Personal Digital Assistant (PDA) are limited by space. Embedded Antenna is used, and with the trend of thin and light mobile communication devices, the shrinking of built-in antennas has become a trend.

The combination of existing antennas and coaxial wires in the industry can be roughly divided into two methods: welding or non-welding such as POGO pin connector or shrapnel connector. The following two methods are combined with commonly used built-in antennas. The antenna material is described separately for its combination with the coaxial wire:

The antenna P1 shown in Fig. 34 is a metal piece antenna (Stamped Metal Antennas), and the connection between the antenna P1 and the coaxial wire C is mainly mainly by joint welding, and the antenna P2 is printed as shown in Fig. 35. Printed Circuit Board Antennas (PCB Antennas), the antenna P2's joints are also welded by welding methods and coaxial wires.

The flexible printed circuit board antenna (FPC Antennas) is the antenna P3 shown in FIG. 36, and the antenna P3 is combined with the coaxial cable by the pin connector P31, and is displayed by the antenna P3 in FIG. The spring connector P32 is combined with the coaxial wire.

Due to the trend of thin and light mobile communication devices, the placement space of built-in antennas is severely limited. How can the combination of existing antennas and coaxial wires be improved, and the built-in type of mobile communication devices can be further reduced. The size of the antenna and the freedom of antenna placement in the limited space of the mobile communication device to meet the current market trend are the problems that the industry is currently trying to solve.

In addition, the antenna and the coaxial wire are combined by the welding method. Although the volume of the connector can be eliminated, the global environmental protection awareness is high, and in order to achieve the full lead-free requirement, the existing welding combination of the built-in antenna is bound to be gradually Instead, the development of lead-free methods and their products is a problem that the industry is currently trying to solve.

In view of this, the inventor has improved the terminal structure combined with the antenna, and provides a riveted terminal having a buttonhole mechanism for coupling between a coaxial wire and an antenna, and the technical section includes a clip. a unit, the clip unit has a first clip and a second clip, wherein the terminal is directly riveted to the center conductor of the coaxial cable by the first clip, and the second clip is directly One of the outer conductors of the coaxial wire is riveted integrally; a buckle unit having a first buckle and a second fastening piece, the first fastening piece having at least one first fastening hole and connected thereto The second clip has at least one second button hole and is connected to the second clip. The terminal is directly riveted to the signal area of the antenna by the first clip, and the second clip is used. Directly riveting to a grounding area of the antenna, the coaxial wire and the antenna are directly integrated by the terminal.

The first clip further includes a clip portion, and the first clip is connected to the first cleat by the clip portion, so that the distance between the bottom of the first clip opening and the first cleat is Greater than the distance between the second clip and the second cleat.

The clip unit further includes a third clip that is directly riveted to the outer insulator of one of the coaxial wires by the third clip.

The third clip is connected to the second cleat.

The signal area is provided with a first opening corresponding to the first button hole position, and a first buttonhole is disposed in the first button hole and the first opening hole, and the first buttonhole member is riveted to the signal area. It is tightly coupled to the first cleat.

The first buttonhole member is placed by one side of the first buttonhole and the first opening.

The first buttonhole member is one of a solid body or a hollow body.

The grounding area is provided with a second opening corresponding to the second buttonhole position, and a second buttonhole is disposed in the second buttonhole and the second opening, and the second buttonhole member is riveted to the grounding area. It is tightly coupled to the second cleat.

The second buttonhole member is placed by one side of the second buttonhole and the second opening.

The second buttonhole member is one of a solid body or a hollow body.

The first fastening hole has a first opening, the first fastening hole is corresponding to the first opening, and the first fastening piece is correspondingly combined with the first opening. The first buckle is riveted to tightly bond the signal region to the first cleat.

The first buckle is hollow and has at least one first barrel.

The first buckle is provided with at least a regular groove at its end.

a second fastening hole is defined in the second fastening hole, the second fastening hole is disposed in the second fastening hole corresponding to the second fastening hole, and the second fastening piece is correspondingly combined with the second opening hole and riveted Breaking the second buckle tightly bonds the grounding area to the second cleat.

The second buckle is hollow and has at least one second barrel.

The second buckle is provided with at least a regular groove at its end.

The antenna is covered with a common riveting piece, and the first riveting piece and the second depressing hole are provided with a first common riveting hole and a second common riveting hole for the common riveting piece to be combined with the antenna Direct riveting is coupled to the terminal.

The first fastening hole and the second fastening hole respectively cover a common riveting piece, and each of the first fastening hole and the second fastening hole respectively has a first common riveting hole and a second common riveting hole for the The common rivet piece is directly riveted to the terminal together with the antenna.

The antenna is one of a metal piece antenna, a flexible printed circuit board antenna, or a printed circuit board antenna.

The first buttonhole and the second buttonhole are respectively disposed on the antenna, and the first button and the second button are directly riveted to the antenna.

The first cleat is coupled to a first web for automated feeding operations.

The second cleat is coupled to a second strip for automatic feeding operations.

A first bridging line is connected between the first cleat and the second cleat. The bridging unit is respectively provided with a first fold line at a position where the first cleat is in contact with the second cleat. And a second fold line.

The first buckle is connected to a first tape for automatic feeding operation, and the first tape is connected to the bridge unit, and the bridge unit is provided with a connecting fold line at the interface with the first tape.

The second buckle is connected to a second tape for automatic feeding operation, and the second tape is connected to the bridge unit, and the bridge unit is provided with a connecting fold line at the junction with the second tape.

The bridge unit extends with a lifting portion, and the ear portion is provided with an ear hole.

The foregoing technical means provided by the present invention have the following advantages over the prior art:

The terminal in the present invention can be used in a lead-free process because it is combined with a coaxial wire and is not a conventional welding method, thereby avoiding the lead or other heavy metal contamination caused by welding in the prior art, and does not adopt the welding method and the coaxial wire. The combination makes the material selection range free, as long as the metal material is available, and at the same time, the plating pollution problem can be eliminated.

In addition, if combined with the halogen-free coaxial wire for riveting and jointing, in combination with the antenna, it can be made into a lead-free and halogen-free environment-friendly antenna, in line with the current international environmental protection regulations such as EU RoHS. It replaces the pollution-based welding combination of the utensils.

The terminal of the present invention is improved by riveting the antenna and the coaxial wire directly by the buckle and the clip, and the existing antenna, the elastic connector and the related connector for combining with the coaxial wire can be omitted. In addition to reducing costs, the circuit board further achieves the effect of reducing the size of the built-in antenna in the mobile communication device.

The specific embodiments of the present invention will be further described by the following examples and the accompanying drawings.

Please refer to FIG. 1 and FIG. 2, which are schematic views showing the perspective view and the use of the first embodiment of the present invention. The terminal 100 of the present invention includes a clip unit and a clip unit, and the clip unit Connected to the cleat unit.

The buckle unit has a first buckle 11 and a second buckle 12. The clamp unit has a first clamp 21, a second clamp 22 and a third clamp 23.

The first cleat 11 has a single body and has a first fastening hole 111 through the first fastening hole 111. The first fastening piece 11 is connected to the first wire clamp 21 at one side of the body, and directly on the other side of the body. Connected to a first strip 31.

The second fastening piece 12 has a single body and has two second fastening holes 121 and 122 running through the second fastening piece 12 and the second wire clamp 23 . And indirectly connected to a second tape 32 through a wire clamp on one side thereof, the third wire clamp 23 is connected to the second tape 32 in the figure.

The first fastening piece 11 and the second fastening piece 12 are connected by a bridging unit 40. The bridging unit 40 extends with a first bridging piece 41 and a second bridging piece 42.

The bridging unit 40 is connected to the first cleat 11 with its first bridge piece 41, and a first fold line 411 is disposed at the first bridge piece 41 and the first cleat piece 11 , and the second bridge piece 42 is connected. Connected to the second cleat 12 and provided with a second fold line 421 at the junction of the two.

The first strip 31 and the second strip 32 are also connected by a bridging unit 40. One side of the bridging unit 40 is connected with the first strip 31, and a connecting fold line 431 is provided. The other side and the second strip 32 are provided. A connecting fold line 432 is provided at the junction.

The bridge unit 40 further has a lifting portion 44. The lifting portion 44 is located between the first bridge piece 41 and the second bridge piece 42. The ear portion 44 is provided with an ear hole 441.

The first strip 31 and the second strip 32 connected in the terminal 100 of the embodiment can be made into a terminal 100 having a double strip by a continuous pressing method, as shown in FIG. 3, for automatic feeding. End job.

In the case where the first cleat 11 and the second clasp 12 are integrally connected by the bridging unit 40 in FIG. 3, the terminal can be selected to be a terminal of the single strip (not shown in the drawing). ), can also be processed by continuous stamping.

Furthermore, between the first clasp 11 and the second clasp 12, the bridging unit 40 may be omitted as shown in FIGS. 4 and 5 to form a two-piece terminal, and each of the first strips connected thereto 31 or the second web 32 is continuously stamped.

In addition, the first fastening piece 11 and the second fastening piece 12 can also directly connect the first wire clamp 21, the second wire clamp 22 and the third wire clamp 23 by metal processing other than discontinuous stamping, and the first tape is omitted. 31. The second strip 32 and the bridging unit 40.

As shown in the figures 6 and 9, the terminal 100 in this embodiment is used to be coupled between an antenna F and a coaxial cable C. The antenna F is a flexible printed circuit board antenna (Flexible Printed Circuit Board Antennas, FPC Antennas).

The coaxial wire C in Fig. 6 includes a center conductor C1, an insulating layer, an outer conductor C2 and an outer insulator C3.

A first clamping portion 211 extends from the side of the first wire clamp 21 in the opposite direction of the opening, and is connected to the first body of the first fastening piece 11 by the clamping portion 211, so that the bottom of the first wire clamp 21 is opposite to the second wire. The clip 22 is located at a different plane from the third clip 23, and the distance between the bottom of the opening of the first clip 21 and the first cleat 11 is greater than that of the second clip 22 and the third clip 23 and the second buckle. The distance between the sheets 12.

In the first embodiment, the terminal 100 is directly riveted integrally with the center conductor C1 by the first wire clamp 21, and the second wire clamp 22 is directly riveted integrally with the outer conductor C2, and the third wire clamp 23 is directly connected to the outer insulator. C3 is riveted into one body, and the first wire clamp 21 is raised upward by the lifting portion 211, so that the first wire clamp 21 can maintain the same height as the center conductor C1 when riveting, as shown in FIGS. 11 and 12, Get better coaxiality while ensuring high frequency effects.

Since the terminal 100 is designed with a tape, that is, the first tape 31 and the second tape 32 in the first embodiment, the above-mentioned terminal operation can be started automatically after the coaxial wire C which has been stripped at the end is placed in the designated position. The pressure is pressed to improve the efficiency and precision of the terminal.

In the first embodiment, since the bonding method with the coaxial wire C is not a conventional welding method, the lead or other heavy metal contamination problem can be avoided, and the lead-free process is adopted, and the welding method is not used in combination with the coaxial wire C. The material selection range has a large degree of freedom, as long as the metal material is available, and at the same time, the plating contamination problem can be eliminated.

Furthermore, if it is combined with the halogen-free coaxial wire C for riveting and jointing, in combination with the antenna, it can be made into a lead-free and halogen-free environment-friendly antenna, which conforms to the current international environmental protection regulations such as EU RoHS. In order to replace the contaminated welding combination of the utensils.

In the design of the present invention, the rivet terminal having the grommets mechanism is only required to be connected to at least one clip for directly riving with the center conductor C1 during the wire bonding, that is, the first in the first embodiment. The clip 21, the second cleat 12 only needs to be connected with at least one clip for directly riveting with the outer conductor C2, that is, the second clip 22 in the first embodiment.

The relative arrangement position between the clip and the cleat is not limited as long as the clip can be effectively spliced with the center conductor C1 and the outer conductor C2 of the coaxial wire C.

As shown in the figures 7 and 8, after the end of the coaxial cable C is finished, the first tape 31 and the second tape 32 of the terminal 100 are removed, and the lifting portion 44 of the bridge unit 40 is lifted. The ear hole 441 is positioned to position the rest of the terminal 100 on the antenna F.

As shown in the figures 9 and 10, the antenna F includes a signal area F11 and a grounding area F12, wherein the signal area F11 is corresponding to the first opening 111 of the first fastening piece 11 and has a first opening F111. A second opening F121, F122 is preset in the grounding area F12 corresponding to the second fastening holes 121 and 122 of the second fastening piece 12.

After the splicing operation is completed, the terminal 100 removes the tape and the first buttonhole 111 and the second buttonholes 121 and 122 are correspondingly positioned at the first opening F111 and the second opening F121, F122 by the ear portion 44.

Continuing, the first buttonhole 111 and the first opening F111 are positioned into the first buttonhole member 51, and the first buttonhole member 51 is riveted to tightly couple the signal region F11 with the first button segment 11 at the second button. The holes 121, 122 are aligned with the second openings F121, F122 into the second buttonhole member 52, and the second buttonhole member 52 is riveted to tightly bond the grounding region F12 with the second fastening piece 12, such as 11, 12, Figure 13 shows.

After riveting, the bridging unit 40 is separated from the second clasp 12 by the fold line structure characteristics of the first fold line 411 and the second fold line 421 as shown in FIG.

In order to avoid the influence of the high-frequency signal offset and other factors caused by the contact between the splicing joint and the other metal parts of the communication device, the squeezing joint portion may be attached with a Mylar sheet, an insulating adhesive paper or a buried injection to splicing the entire joint portion. Insulation isolation methods such as plastic are embedded to achieve the effect of protecting the splicing joints.

The grommets can be disposed by the button holes of the terminal 100 as shown in FIG. 11 or by the openings of the antenna F, that is, the first buttonhole member 51 and the second buttonhole member 52 can be connected to the terminal 100 and the antenna F. One side of the alignment is placed and riveted.

The first grommets 51 and the second grommets 52 may be hollow as shown in Figures 9 to 13 or may be solid grommets as long as they can be spliced and joined.

In this embodiment, in the case where the thickness of the antenna F is too thin or too soft, and the antenna F is damaged, the antenna F may be applied to the antenna F as shown in FIG. The riveting piece 60 is directly spliced and joined to the terminal 100. The material of the rivet sheet 60 can be made of an insulating material such as PET (polyethylene terephthalate) or phenolic resin.

The common rivet piece 60 is provided with a first common rivet 61 and a second common rivet 621, 622 corresponding to the first opening F111 and the second opening F121, F122 for riveting on the antenna F, and as shown in Figs. The first opening F111 and the second opening F121, F122 are respectively provided for the first buttonhole member 51 and the second buttonhole member 52 to be riveted, thereby increasing the thickness of the antenna F, avoiding damage to the antenna F and improving Riveting strength.

In this embodiment, the plurality of rivets 60 may also be a plurality of pieces (not shown), respectively corresponding to the first fastening holes 111 and the second fastening holes 121, 122, and corresponding to the first fastening holes 111 and The two fastening holes 121 and 122 are provided with a first common rivet 61 and a second common rivet 621, 622. Therefore, the number of the rivets 60, the order of the antenna F and the rivet 60, and the between the antenna F and the rivet 60 The relative position of the riveting is not limited as shown in the figure, as long as the thickness of the riveting joint can be effectively increased to increase the riveting strength.

The position of the buttonholes of the first cleats 11 and the second clasps 12 may also be selected as shown in FIG. 17 or FIG. 18, as long as the first cleats 11 and the second clasps 12 have at least one buttonhole. It can be riveted to the antenna F.

The terminal 100 in the first embodiment can be directly riveted to the signal area F11 and the grounding area F12 of the antenna F by the first fastening piece 11 and the second fastening piece 12, and the existing antenna F can be omitted for combining with the coaxial wire. Needle, shrapnel connectors and their associated circuit boards, in addition to reducing costs, further reduce the built-in antenna volume in mobile communication devices and increase the freedom of antenna placement in the limited space of mobile communication devices. efficacy.

Referring to FIG. 19 and FIG. 20, there is shown a perspective view and a schematic exploded view of a second embodiment of the present invention. The terminal 100A of the second embodiment has the same main structure as that of the first embodiment, and has the same The first embodiment has the same functions, and the description thereof is omitted and labeled with the same elements.

The first embodiment is different from the first embodiment in that the first clip 21 of the terminal 100A is directly connected to the first cleat 11 , and the first clasp 111 on the first clasp 11 extends a first The buckles 111A and the second fastening holes 121A, 122A extend from the second fastening holes 121 and 122 of the second fastening piece 12.

The first buckle 111A and the second buckles 121A, 122A of the terminal 100A may be a hollow complete cylinder as shown in FIG. 21 or include two first cylinders 1111A as shown in FIGS. 22 and 23. And the second piece 1211A, 1221A or the four pieces of the first piece 1111A and the second piece 1211A, 1221A, or the first groove 111A and the second barrel 121A, 122A are provided with a through groove of the through barrel (not shown), and the first buckle 111A and the second buckles 121A, 122A may also be selected as a solid body structure (not shown).

The terminal 100A is the same as the first embodiment, and the first cleat 11 and the second cleat 12 have at least one buckle for riveting with the antenna F.

The terminal 100A is riveted integrally with the center conductor C1, the outer conductor C2, and the outer insulator C3 of the coaxial wire C, respectively, in the first wire clamp 21 and the third wire clamp 23, respectively, as in the first embodiment, and has the same embodiment as the first embodiment. The same effect.

As shown in Figure 24, the antenna F is a flexible printed circuit board antenna. The antenna F includes a signal area F11 and a grounding area F12. The signal area F11 is provided with a first opening corresponding to the first fastening hole 111. The holes F111 and the grounding area F12 are further provided with second openings F121 and F122 corresponding to the second fastening holes 121 and 122.

As shown in the figures 25 and 26, the first cleat 11 is correspondingly combined with the first reel 111A in the first opening F111, and the first reel 111A is riveted to connect the signal region F11 with the first clasp 11 The second fastening piece 12 is correspondingly combined with the second fastening holes 121A, 122A at the second opening F121, F122, and the second fastening tube 121A, 122A is riveted to connect the grounding area F12 and the second fastening piece. 12 tightly combined.

In the second embodiment, the thickness of the antenna F around the riveting portion thereof can be reduced, such as the outer ring portion F1221 of the second opening F122 shown in FIGS. 25 and 26, to avoid the height of the buckle after the riveting. The problem of being too high, and the shape of the button hole and the buckle of the terminal 100A is not limited to those shown in the figures 21 to 23, and as shown in Fig. 31, the shape only needs to be sufficient for riveting to make the buckle correspond. It can be combined with the antenna.

In the design of the present invention, the terminal structures of the first embodiment and the second embodiment can be applied to printed circuit board antennas (PCBs) and metal antennas in addition to flexible printed circuit board antennas. Stamped Metal Antennas).

Since the thickness of the printed circuit board antenna is large, the first embodiment can be applied to any printed circuit board antenna by using a longer grommets or increasing the overall length of the buckles in the second embodiment.

The terminal structure in the first embodiment is applied to the metal piece antenna M as shown in FIGS. 27 and 28, and the metal piece antenna M is corresponding to the first button hole 111 and the second button hole 121, 122 in the first embodiment. An opening M1 and a second opening M21, M22 are respectively provided with the first buttonhole 111 and the second buttonhole 121, 122 for the first buttonhole member 51 and the second buttonhole member 52 to be riveted.

The terminal structure in the second embodiment is applied to the metal piece antenna M as shown in FIG. 29, and the first buckle piece 11 is correspondingly combined with the first opening hole M1 by the first buckle piece 111A, and the first buckle is riveted. 111A is tightly coupled with the first cleat 11, and the second clasp 12 is correspondingly combined with the second clasps 121A, 122A at the second openings M21, M22, and riveting the second clasps 121A, 122A to The second cleat 12 is tightly coupled.

As shown in the 30th and 31st drawings, the second fastening holes 121 and 122 of the second fastening piece 12 in the second embodiment are preset to be semicircular and only partially extended with a curved second. The barrels 1211A and 1221A are for shortening the required length of the second fastening piece 12. The first opening M1 and the second opening M21, M22 are also preset to be semi-circular, and are also tightly coupled to the metal piece by riveting. Antenna M, this structure is also suitable for flexible printed circuit board antennas and printed circuit board antennas.

In the second implementation, the buttonhole on the buckle and the opening on the antenna are not limited to those shown in the figure, and can be riveted and tightly coupled.

As shown in FIG. 32, the metal piece antenna M' is punched out of the metal piece antenna M' itself corresponding to the first button hole 111 and the second button hole 121, 122 in the first embodiment by virtue of its metal malleable property. The first buttonhole M1' and the second buttonholes M21', M22' are used to rive the first fastening piece 11 and the second fastening hole 12 with the metal piece antenna M' as shown in FIG.

The above is only the preferred embodiment of the present invention, and thus is not intended to limit the scope of the present invention. Therefore, the simple modifications and equivalent structural changes that are made by using the description and the drawings of the present invention should be included in the same manner. Within the scope of the patent of the present invention.

100, 100A. . . Terminal

11. . . First clasp

111. . . First buttonhole

111A. . . First buckle

12. . . Second clasp

121, 122. . . Second buttonhole

121A, 122A. . . Second buckle

twenty one. . . First clamp

211. . . Lifting part

twenty two. . . Second clamp

twenty three. . . Third line clamp

31. . . First tape

32. . . Second tape

40. . . Bridging unit

41. . . First bridge

411. . . First fold line

42. . . Second bridge

421. . . Second fold line

431, 432. . . Connecting polyline

44. . . Tear

441. . . Tear hole

51. . . First buttonhole

52. . . Second buttonhole

60. . . Total riveting

61. . . First common riveting hole

621, 622. . . Second common riveting hole

F. . . antenna

F11. . . Signal area

F111. . . First opening

F12. . . Grounding area

F121, F122. . . Second opening

C. . . Coaxial wire

C1. . . Center conductor

C2. . . External conductor

C3. . . Outer insulator

M, M'. . . Metal piece antenna

M1, M1'. . . First opening

M21, M22, M21', M22'. . . Second opening

P1, P2, P3. . . antenna

P31. . . Pin connector

P32. . . Shrapnel connector

Figure 1 is a perspective view showing a first embodiment of the present invention;

Figure 2 is a schematic exploded view showing the use of the first embodiment of the present invention;

Figure 3 is a perspective view showing the double tape terminal of the first embodiment of the present invention;

Figure 4 is a perspective view showing another two-piece terminal of the first embodiment of the present invention (1);

Figure 5 is a perspective view showing another two-piece terminal of the first embodiment of the present invention (2);

Figure 6 is a perspective view showing the tipping operation in the first embodiment of the present invention;

Figure 7 is a perspective view showing the position of the first embodiment of the present invention;

Figure 8 is a perspective view showing the removal of the bridge unit in the first embodiment of the present invention;

Figure 9 is a perspective view showing the positioning of the antenna in the first embodiment of the present invention;

Figure 10 is a perspective view showing the first embodiment of the present invention riveted with an antenna;

Figure 11 is a cross-sectional view showing the position of the buttonhole in the first embodiment of the present invention;

Figure 12 is a cross-sectional view showing the rivet brooch in the first embodiment of the present invention;

Figure 13 is a perspective view showing the rivet broken eye piece in the first embodiment of the present invention;

Figure 14 is a perspective view showing a first embodiment of the present invention covered with a common rivet;

Figure 15 is a perspective view showing the first embodiment of the present invention together with the rivet;

Figure 16 is a cross-sectional view showing the embodiment of Figure 15;

Figure 17 is a perspective view showing the position of another buttonhole according to the first embodiment of the present invention (1);

Figure 18 is a perspective view showing another position of the buttonhole of the first embodiment of the present invention (2);

Figure 19 is a perspective view showing a second embodiment of the present invention;

Figure 20 is a schematic exploded view showing the use of the second embodiment of the present invention;

Figure 21 is a perspective view showing the buckle of the second embodiment of the present invention;

Figure 22 is a perspective view showing the structure of another buckle of the second embodiment of the present invention (1);

Figure 23 is a perspective view showing the structure of another buckle of the second embodiment of the present invention (2);

Figure 24 is a perspective view showing the positioning movement in the second embodiment of the present invention;

Figure 25 is a perspective view showing the positioning of the antenna in the second embodiment of the present invention;

Figure 26 is a perspective view showing the second embodiment of the present invention riveted with an antenna;

Figure 27 is an exploded view showing the first embodiment of the present invention incorporated in a metal piece antenna;

Figure 28 is a perspective view showing the first embodiment of the present invention incorporated in a metal piece antenna;

Figure 29 is a perspective view showing the second embodiment of the present invention incorporated in a metal piece antenna;

Figure 30 is an exploded view showing another embodiment of the second embodiment of the present invention incorporated in a metal piece antenna;

Figure 31 is a perspective view of another embodiment of the second embodiment of the present invention incorporated in a metal piece antenna;

Figure 32 is an exploded view showing another embodiment of the first embodiment of the present invention incorporated in a metal piece antenna;

Figure 33 is a perspective view showing the shackle of the buttonhole in the embodiment of Figure 32;

Figure 34 is a perspective view showing the combination of a conventional metal piece antenna and a coaxial wire;

Figure 35 is a perspective view showing the combination of a conventional circuit board antenna and a coaxial cable;

Figure 36 is a perspective view showing the combination of a conventional flexible circuit board antenna and a coaxial cable (1);

Figure 37 is a perspective view showing the combination of a conventional flexible circuit board antenna and a coaxial cable (2).

100. . . Terminal

11. . . First clasp

111. . . First buttonhole

12. . . Second clasp

121, 122. . . Second buttonhole

twenty one. . . First clamp

211. . . Lifting part

twenty two. . . Second clamp

twenty three. . . Third line clamp

31. . . First tape

32. . . Second tape

40. . . Bridging unit

41. . . First bridge

411. . . First fold line

42. . . Second bridge

421. . . Second fold line

431, 432. . . Connecting polyline

44. . . Tear

441. . . Tear hole

Claims (26)

A riveted terminal having a buttonhole mechanism for coupling between a coaxial wire and an antenna, the terminal comprising:
a clip unit having a first clip and a second clip for the terminal to be riveted integrally with a center conductor of the coaxial wire by the first clip, by the second line The clip is directly riveted to one of the outer conductors of the coaxial wire;
a fastening unit having a first fastening piece and a second fastening piece, the first fastening piece having at least one first fastening hole and connected to the first wire clamp, the second fastening piece having at least a second fastening hole is connected to the second cable clamp, and the terminal is directly riveted to a signal area of the antenna by the first fastening piece, and the second fastening piece is directly riveted to a grounding area of the antenna, so that the second fastening hole is directly riveted to the grounding area of the antenna. The coaxial wire and the antenna are directly integrated by the terminal. The rivet terminal having the buttonhole mechanism of the first aspect of the invention, wherein the first wire clamp further comprises a lifting portion, wherein the first wire clamp is connected to the first fastening piece by the clamping portion, so that The distance between the bottom of the first clip opening and the first cleat is greater than the distance between the second clip and the second cleat. The rivet terminal having the buttonhole mechanism of claim 1, wherein the clip unit further comprises a third clip, the terminal being directly riveted integrally with an outer insulator of the coaxial wire by the third clip. A riveted terminal having a buttonhole mechanism according to claim 3, wherein the third clip is connected to the second cleat. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the signal area is provided with a first opening corresponding to the first button hole position, and the first button hole and the first opening are disposed The first grommets are riveted and the first grommets are tightly coupled to the first cleat. The riveted terminal having the buttonhole mechanism of claim 5, wherein the first buttonhole member is placed by one side of the first buttonhole and the first opening. A riveted terminal having a buttonhole mechanism according to claim 5, wherein the first buttonhole member is one of a solid body or a hollow body. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the grounding area is provided with a second opening corresponding to the second button hole, and the second button hole and the second opening are respectively disposed. a second grommets, and riveting the second grommets to tightly bond the grounding region to the second cleat. The rivet terminal having the grommets mechanism according to claim 8 , wherein the second grommets are placed by one side of the second fastening hole and the second opening. A riveted terminal having a buttonhole mechanism according to claim 8 wherein the second buttonhole member is one of a solid body or a hollow body. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the first buttonhole extends a first buckle, and the signal area is provided with a first opening corresponding to the first buttonhole position, the first buckle The first button is correspondingly combined with the first opening, and the first buckle is riveted to tightly couple the signal region with the first fastening piece. A riveted terminal having a buttonhole mechanism according to claim 11, wherein the first buckle is hollow and has at least one first barrel. A riveted terminal having a buttonhole mechanism according to claim 11 wherein the first buckle is provided with at least a regular groove at its end. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the second buttonhole extends a second buckle, and the grounding area is provided with a second opening corresponding to the second buttonhole position, the second buckle The second buckle is correspondingly combined with the second opening, and the second fastening tube is riveted to tightly bond the grounding region to the second fastening piece. The riveted terminal having the buttonhole mechanism of claim 14, wherein the second buckle is hollow and has at least one second barrel. A riveted terminal having a buttonhole mechanism as claimed in claim 14, wherein the second buckle is provided with at least a regular groove at its end. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the antenna is covered with a common rivet, and the common rivet corresponds to the first fastening hole and the second fastening hole, and a first common rivet hole and a A second rivet is provided for the common rivet to be directly riveted to the terminal together with the antenna. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the first buttonhole and the second buttonhole are respectively covered with a rivet piece, and each of the first button hole and the second button hole is disposed There is a first common rivet hole and a second common rivet hole for the common rivet piece and the antenna to be directly riveted and coupled to the terminal. The riveted terminal having the buttonhole mechanism in the first application of the patent scope, wherein the antenna is a Stamped Metal Antennas, a Flexible Printed Circuit Board Antennas (FPC Antennas) or a printed circuit board antenna ( Printed Circuit Board Antennas, PCB Antennas). The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the antenna has a first buttonhole and a second buttonhole respectively corresponding to the first buttonhole and the second buttonhole, and the first button and the second buttonhole are respectively The second cleat is directly riveted to the antenna. The riveted terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the first cleat is connected to a first strip for automatic feeding operation. The riveted terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the second cleat is connected to a second strip for automatic feeding operation. The rivet terminal having the buttonhole mechanism in the first aspect of the patent application, wherein the first buckle and the second buckle are connected by a bridge unit, and the bridge unit is respectively connected to the first buckle A first fold line and a second fold line are respectively disposed at the junction with the second buckle. The rivet terminal having the buttonhole mechanism of claim 23, wherein the first buckle is connected to a first tape for automatic feeding operation, and the first tape is connected to the bridge unit, The bridging unit is provided with a connecting fold line at the junction with the first strip. The rivet terminal having the buttonhole mechanism according to claim 23, wherein the second buckle is connected to a second tape for automatic feeding operation, and the second tape is connected to the bridge unit, The bridging unit is provided with a connecting fold line at the junction with the second strip. A rivet terminal having a grommets mechanism according to claim 23 or 24 or 25, wherein the bridge unit extends with a lifting portion, and the ear portion is provided with an ear hole.