TWM472337U - Electrical connector and electronic apparatus using the same - Google Patents

Abstract

An electrical connector and an electronic apparatus using the same are introduced herein. The electrical connector includes first set leads, second set leads and an insulated housing which has a plurality of first set lead passages and second set lead passages for respectively disposing said first and second set leads therein. When an elastic contact section of the respective first set lead contacts with a complementary electrical connector, at least one elastic supporting section of the respective first set lead provides flexibility required for the elastic contact section so that the elastic contact section can limitedly and elastically move within the corresponding first set lead passage.

Description

Electrical connector and electronic device using the same

The present invention relates to an electrical connector and an electronic device using the same, and in particular to a terminal structure of an electrical connector having better contact elasticity.

At present, the universal serial bus (USB) signal transmission standard has been developed to USB 3.0. In addition to the USB 3.0 standard, the electrical connector can be electrically connected to a USB 3.0 docking electrical connector. Select to electrically connect another docking electrical connector that complies with the USB 1.0/2.0 standard for signal transmission in accordance with the USB 1.0/2.0 standard. In order to make this USB 3.0 electrical connector compatible with USB 3.0 and USB 1.0/2.0 standards, this USB 3.0 electrical connector has multiple sets of terminal structures, such as at least one set of terminals for transmitting USB 1.0/2.0 signals. And another set of terminals for transmitting USB 3.0 signals.

Some of the conventional USB 3.0 electrical connectors, such as Taiwanese patents M346198, M346941, M348358, M357776, M366783, M370859, M376015, M405081, 200945689, 201125228, 201112540, and US Pat. No. 7,972,151, US7,927,145, the main structure including a plurality of sets of terminal structures, An insulating body carrying the plurality of sets of terminal structures, and a metal shielding shell for covering the insulating body, since the insulating body itself is composed of a plurality of separate plastic parts, which need to be separately manufactured and then combined to The group terminal structure is layered and held in the combined insulating body; however, such a complicated and small-sized structure not only needs to be manufactured using a plurality of different molds, but also makes the total assembly tolerance in the assembly process large and difficult. , Lowering the yield of the product, resulting in higher manufacturing cost; secondly, each of the USB 3.0 terminals of the plurality of sets of terminal structures has a contact portion, and one surface of the contact portion is flat or fixed to the corresponding slot of the insulating body The wall of the road is such that contact elasticity cannot be provided. Thus, when the corresponding terminals of the pair of electrical connectors are inserted into the conventional USB 3.0 electrical connectors to press against the other opposite surface of the contact portion, since the structure of the terminal itself is lack of elastic force for buffering, it is easy to directly Impact or damage to the structure of the USB 3.0 terminal.

There are also some conventional USB 3.0 electrical connectors such as Taiwan Patent Nos. M329880, M329877, M359066, M366792, M379191, 200910693, and US Pat. No. 7,517,253, US 7,252,243, US Pat. No. 7,641,519, US 7,736,184, US 7,870,704, US 7,807,345, US 7,833,065, US 7,837,510, US 7,862,346, US 8002589, US 8052477, US 2010 /0322566, US2011/0143599, etc. discloses that although the complicated structure of the insulating body is slightly simplified, the contact portion of the USB 3.0 terminal carried by the insulating body is also flatly attached or fixed to the corresponding channel of the insulating body. On the wall, when the corresponding terminal of the docking electrical connector is inserted into the USB 3.0 electrical connector to electrically contact the other opposite surface of the contact portion, it is also easy to directly impact and damage the structure of the USB 3.0 terminal.

In order to solve the above problems of the prior art, an object of the present invention is to provide an electrical connector that not only simplifies the structure of the insulating body, but also reduces the manufacturing cost by reducing the number of molds used, and forms an elastic contact area for each terminal structure. And at least one elastic/fixed support region, the at least one elastic/fixed support region can provide better contact elasticity when the corresponding terminals of the pair of electrical connectors are electrically pressed against the elastic contact region, thereby avoiding damage to the terminal structure.

Another object of the present invention is to provide an electronic device using the above electrical connector to reduce manufacturing costs.

In order to achieve the above-described creative purpose, a preferred embodiment of the present invention provides an electrical connector for electrically connecting a pair of electrical connectors. Main structure of the electrical connector The method includes: a first group of terminals, a second group of terminals, an insulative body, and a positioning portion.

The first set of terminals includes a pair of first differential signal terminals and a pair of second differential signal terminals. The second set of terminals includes a pair of third differential signal terminals. Each of the first group of terminals and the second group of terminals has an elastic contact region, at least one elastic support region, at least one holding region and a solder fillet region. In the first set of terminals, the opposite sides of the elastic contact region extend outwardly to form at least one fin region, and in the first group of terminals, the at least one elastic support region is connected to the elastic contact region and At least one bend is formed where the elastic contact zone is joined.

The insulative housing has a base portion and a pair of connecting portions extending outwardly from the seat portion to an end, and a pair of connecting surfaces are formed on the mating portion to correspond to the connection of the electrical connector, and the insulating body is formed into several The first group of terminal channels and the second group of terminal channels are respectively configured to respectively configure the first group of terminals and the second group of terminals, and the first group of terminal channels and the second group of terminal channels extend to the insulating body a seat portion and an abutting portion, wherein the first group of terminal channels extend through the end of the abutting portion, and at least one inner side wall of the first group of terminal channels forms at least one stopper to correspond to the first group of terminals At least one wing area.

When the first group of terminals and the second group of terminals are respectively disposed in the first group of terminal channels and the second group of terminal channels, at least one of the first group of terminals and the second group of terminals respectively The group terminal and the second group terminal are fixed in the first group of terminal channels and the second group of terminal channels of the insulative housing, and at least one elastic support region of the first group of terminals is located in the first group of terminal channels, and the The elastic contact regions of the first set of terminals and the elastic contact regions of the second set of terminals are all distributed on the mating faces of the abutting portions, wherein the elastic contact regions of the first set of terminals are disposed at a lower position than the elastic contact regions of the second set of terminals The distribution position is close to the end of the abutment.

When the elastic contact area of the first set of terminals of the electrical connector contacts the mating electrical connector, at least one elastic support region of the first set of terminals provides elasticity required for the elastic contact region of the first set of terminals, such that The elastic contact regions of the first set of terminals are elastically moved in the first set of terminal channels, but at least one of the stops of the first set of terminal channels is blocked The movement of at least one of the fin regions of the first set of terminals, thereby limiting the upward or downward elastic movement distance of the resilient contact regions of the first set of terminals. In the preferred embodiment, at least one of the first set of terminal channels includes an upper stop and a lower stop for blocking the at least one wing region in the first set of terminal channels. Moving upward, thereby limiting an upward elastic moving distance of the elastic contact region of the first set of terminals, and the lower stop for blocking downward movement of the at least one fin region, thereby restricting downward movement of the elastic contact region of the first group of terminals Flexible movement distance.

The positioning portion is disposed on the seat portion of the insulative housing, and the solder leg region of the first group of terminals and the solder leg region of the second group of terminals extend beyond the seat portion of the insulative housing and penetrate the positioning portion.

According to another embodiment of the present invention, the first set of terminals further includes a spring region extending from the elastic contact region and extending toward the abutting surface of the insulating body for contact The docking electrical connector.

In accordance with another embodiment of the present invention, the at least one bend of the first set of terminals is exposed beyond the end of the abutment of the insulative housing.

According to another embodiment of the present invention, the at least one elastic support region of the first set of terminals includes a first elastic support region and a second elastic support region, and the second elastic support region is pre-accepted Pressing and abutting against the groove wall of the first group of terminal channels, and the at least one bend includes a first bend and a second bend, wherein the first bend is formed on the first elastic support A junction between the region and the elastic contact region, and a second bend is formed at a junction between the second elastic support region and the elastic contact region.

According to another embodiment of the present invention, each of the terminals of the first set of terminals has an elastic contact area and at least one support area, and one of the at least one support area is fixed to the first a set of terminal channels, wherein the connection between the elastic contact region of the first set of terminals and the at least one support region forms at least one bend, such that the elastic contact region of the first set of terminals is associated with the elastic contact region and at least The joint of a support zone is elastically moved in the first set of terminal channels for the fulcrum. The first set of terminals The two opposite side edges of each elastic contact region extend outwardly to form at least one fin region, and at least one inner sidewall of each first group of terminal channels of the insulating body forms at least one stopper to correspond to at least one fin region . At least one stop of the first set of terminal channels is configured to limit movement of at least one of the fin regions of the first set of terminals toward a vertical direction when the first set of terminals is received in the corresponding first set of terminal channels, and further The upward or downward elastic moving distance of the elastic contact region of the first group of terminals is restricted, and the at least one stopper is further configured to restrict movement of the at least one supporting region of the first group of terminals toward a horizontal direction.

In accordance with another embodiment of the present invention, the first set of terminals having at least one support region includes a resilient region that is bent from the resilient contact region and extends toward the mating surface for contact A pair of electrical connectors.

According to another preferred embodiment of the present invention, there is provided an electronic device comprising the electrical connector of each of the above embodiments.

According to the electrical connector of the present invention and the electronic device using the same, the insulating body structure is simplified to reduce the number of molds used to reduce the manufacturing cost, and each of the terminal structures forms an elastic contact region and at least one elastic/fixed Support area. When the corresponding terminals of the pair of electrical connectors are electrically pressed against the elastic contact region, the at least one elastic/fixed support region can provide better contact elasticity to avoid damage to the terminal structure, and the simplified insulative body structure can be Not only is it easy to assemble, it also increases product yield and thus reduces manufacturing costs.

1,2,3,4,5,6,7,8‧‧‧ electrical connectors

10‧‧‧Shaded housing

12‧‧‧ accommodating space

14‧‧‧check

20‧‧‧Insulating body

22‧‧‧

24‧‧‧Docking Department

30‧‧‧First set of terminals

32‧‧‧First differential signal terminal

34‧‧‧Second differential signal terminal

36‧‧‧ Grounding signal terminal

40‧‧‧Second group terminal

42‧‧‧3rd differential signal terminal

44‧‧‧ Grounding signal terminal

46‧‧‧Power signal terminal

50‧‧‧ Positioning Department

52‧‧‧ jack

54‧‧‧ card block

222‧‧‧Depression

224‧‧‧ slots

240‧‧‧ docking

242‧‧‧First set of terminal channels

244‧‧‧Second group of terminal channels

246‧‧‧ front end

300,400‧‧‧elastic contact zone

302,402‧‧‧elastic support zone

304, 404, 406 ‧ ‧ holding area

306, 408‧‧‧ soldering foot area

302'‧‧‧First elastic support zone

303’‧‧‧Second elastic support zone

302’’‧‧‧Fixed support area

403‧‧‧First connection area

405‧‧‧Second connection area

2221‧‧‧Vertical wall

2223‧‧‧ horizontal wall

2422‧‧‧ slot wall

2461‧‧‧Upper block

2463‧‧‧ Lower stop

2465‧‧ s slit

3002‧‧‧wing area

3004‧‧‧Sheet area

3009, 3022, 3032‧‧‧ bend

D1, D2, D3, D4‧‧‧ elastic moving distance

Figure 1A is a perspective exploded view of the electrical connector in accordance with the first preferred embodiment of the present invention.

1B is a perspective assembled view of an insulative housing, a first set of terminals, and a second set of terminals of the electrical connector according to the first preferred embodiment of the present invention.

Fig. 1C is a front view showing the insulating body according to the combination of Fig. 1B.

Fig. 1D is a cross-sectional view showing the insulating body according to the line A1-A1' of Fig. 1C.

Figure 2 is a cross-sectional view showing the assembled insulative housing in accordance with a second preferred embodiment of the present invention.

Figure 3 is a cross-sectional view showing the assembled insulative housing in accordance with a third preferred embodiment of the present invention.

Figure 4 is a cross-sectional view showing the assembled insulative housing in accordance with a fourth preferred embodiment of the present invention.

Figure 5 is a cross-sectional view showing the assembled insulative housing in accordance with a fifth preferred embodiment of the present invention.

Figure 6 is a cross-sectional view showing the assembled insulative housing in accordance with a sixth preferred embodiment of the present invention.

Figure 7 is a cross-sectional view showing the assembled insulative housing in accordance with a seventh preferred embodiment of the present invention.

Figure 8 is a cross-sectional view showing the assembled insulative housing in accordance with an eighth preferred embodiment of the present invention.

Referring first to FIG. 1A, there is shown an electrical connector 1 according to a first preferred embodiment of the present invention which conforms to the USB 3.0 signal transmission standard and is used to electrically connect a pair of electrical connectors (not shown). The main structure of the electrical connector 1 includes a shielding housing 10, an insulative housing 20, a first set of terminals 30, a second set of terminals 40, and a positioning portion 50.

The shielding housing 10 is mainly composed of four wall surfaces, and a receiving space 12 is formed in the middle of the four wall surfaces for receiving the insulating body 20 therein. The left and right side wall faces of the four wall surfaces respectively form an inwardly trapped hook 14.

As shown in FIGS. 1A and 1B, in the present embodiment, the insulating body 20 is integrally formed by a plastic material forming unitary structure and includes a portion 22 and a pair of joints 24, wherein the seat portion A recessed portion 222 is formed in the lower portion of the 22 to receive the positioning portion 50, and a slot 224 is formed in the left and right sides of the housing portion 22 for locking with the hook 14 of the shielding shell 10 to Shaded housing 10 is fixed to the insulating body 20. The abutting portion 24 extends outward from the front of the seat portion 22 in a horizontal direction up to a front end 246, and a pair of joint faces 240 are formed on the abutting portion 24 to correspond to the connection of the electrical connector. The insulative housing 20 further defines a plurality of first set of terminal channels 242 and a plurality of second set of terminal channels 244 to respectively configure corresponding first set of terminals 30 and second set of terminals 40. The first set of terminal channels 242 extend from the abutting portion 24 of the insulative housing 20 to the seat portion 22 and expose the first set of terminal channels 242 under the abutting portion 24 and the seat portion 22 along the extending direction thereof. In the lower part, one end of the first set of terminal channels 242 extends forwardly through the front end 246 of the abutting portion 24, and the other opposite end thereof extends rearward, and the one of the recessed portions 222 of the seat portion 22 is further directed to the wall surface 2221. One of the horizontally facing wall faces 2223 extends through one of the recesses 222. The second set of terminal channels 244 extend from the upper surface of the abutting portion 24 of the insulative housing 20 to the upper surface of the seat portion 22 and expose the second group of terminal slots 244 to the abutting portion 24 along the extending direction thereof. Above the abutting surface 240 and above the seat 22, the second set of terminal channels 244 extend downwardly through the horizontal wall 2223 of the recess 222 of the seat 22. Referring to FIGS. 1A and 1C, each of the first set of terminal channels 242 forms two pairs of upper blocks 2461 along a vertical direction on two opposite inner sidewalls adjacent to the front end 246 of the abutting portion 24, respectively. The lower block 2463, and the space between each pair of the upper block 2461 and the lower block 2463 defines a slit 2465.

As shown in FIGS. 1A and 1C, the first set of terminals 30 is compatible with the USB 3.0 standard and is divided into a pair of first differential signal terminals 32, a pair of second differential signal terminals 34, and a ground signal terminal 36, and Each of the terminals 32, 34, 36 of the first set of terminals 30 has an elastic contact zone 300, an elastic support zone 302, a plurality of horizontal retaining zones 304 and a vertical solder fillet zone 306, wherein the elasticity The opposite sides of the contact zone 300 extend outwardly to form two fin regions 3002 for corresponding to the two pairs of upper and lower stops 2461, 2463 in the first set of terminal channels 242. Because the elastic support region 302 is connected to the elastic contact region 300 in the front and forms a plurality of bends 3022 (see FIG. 1D) when the elastic contact region 300 is connected, the elastic support region 302 is connected to the rear side. A plurality of retaining zones 304 whereby the mechanical structure formed between the resilient support zone 302 and the resilient contact zone 300 acts as a resilient cantilever that moves up and down. In other embodiments, the first set of terminals 30 further includes a spring region (not shown) punched upward from the elastic contact region 300 to form a bend between the elastic region and the elastic contact region 300, and the bend is formed. The shrapnel region extends beyond the mating face 240 of the insulative housing 20 but does not extend beyond the mating face 240, thereby providing higher contact flexibility when the electrical connector 1 is inserted.

As shown in FIGS. 1A and 1B, the second group of terminals 40 is compatible with the USB 1.0/2.0 standard and is divided into a pair of third differential signal terminals 42, a ground signal terminal 44, and a power signal terminal 46, and the first Each of the terminals 42, 44, 46 of the two sets of terminals 40 has an elastic contact zone 400, an elastic support zone 402, a horizontal first connection zone 403, a plurality of vertical retention zones 404, 406, and a horizontal orientation. The second connection region 405 and a vertical solder fillet region 408. Because the elastic support region 402 is connected to the elastic contact region 400 in the front and the elastic support region 402 is connected to the plurality of retention regions 404 via the horizontal connection region 403, thereby elastic contact from the elastic support region 402. The structure between the zones 400 forms an elastic cantilever that can be moved up and down. In addition, from the holding area 404 via the second connecting area 405 and the holding area 406 to the solder fillet area 408, a "ㄇ"-shaped structure is formed to be placed above the seat portion 22.

As shown in FIGS. 1C and 1D, when the first set of terminals 30 are to be disposed in the first set of terminal channels 242, the first set of terminals 30 are from the front end 246 of the insulative housing 20 toward the insulative housing 20. Then, the first group of terminal channels 242 are inserted into the first group of terminal channels 242, and the first group of terminals 30 are fixed in the first group of terminal channels 242 below the insulative housing 20 to make the first group of terminals. The elastic support region 302 of the first set of terminals 30 is located on the abutting surface 240 of the abutting portion 24 and adjacent to the front end 246. In this embodiment, the elastic contact regions 300 of the first group of terminals 30 are received in the slits 2465 of the first group of terminal channels 242, and the tab regions 3002 on both sides of the elastic contact region 300 are in contact with the upper block. Below the block 2461, and from the elastic support zone 302 The elastic contact region 300 is formed as a cantilever structure, so that the two fin regions 3002 of the elastic contact region 300 are restricted to be elastically movable only to the slit between the two pairs of upper and lower stoppers 2461, 2463 of the first group of terminal channels 242. In 2465, the resilient contact zone 300 of the first set of terminals 30 does not extend beyond the mating face 240 of the abutment 24. At the same time, the lower surface of the first group of terminals 30 is exposed under the seat portion 22 and below the abutting portion 24 along the extending direction of the first group of terminal channels 242, and the solder leg region 306 is via the seat portion 22 The vertical portion 2221 of the recess 222 extends beyond the horizontal wall 2223.

As shown in FIGS. 1B and 1D, when the second group of terminals 40 are disposed in the second group of terminal channels 244, the second group of terminals 40 are above the abutting surface 240 of the insulative housing 20 and above the seat portion 22. Inserting the plurality of second group of terminal channels 244, and then inserting and fixing the plurality of vertical holding regions 404 and 406 of the second group of terminals 40 respectively to the front and rear of the seat 2 The set of the terminal channel 244 is such that the elastic contact area 400 of the second set of terminals 40 extends beyond the abutting surface 240 of the abutting portion 24, wherein the elastic contact area 300 of the first set of terminals 30 is distributed. The elastic contact regions 400 of the two sets of terminals 40 are distributed closer to the front end 246 of the abutting portion 24. At the same time, the upper surface of the second set of terminals 30 is exposed above the seat portion 22 and above the mating surface 240 along the extending direction of the second set of terminal channels 244, and the solder fillet region 408 extends downwardly through the seat. The horizontal portion 2223 of the recessed portion 222 of the portion 22 is outside.

As shown in FIGS. 1A and 1D, the positioning portion 50 is a plate-like structure and has a pair of latches 54 formed on both sides thereof for engaging in the recesses of the horizontal wall surface 2223 of the recessed portion 222 (not shown). The positioning portion 50 is disposed in the space formed by the recessed portion 222, and the plurality of insertion holes 52 are formed on the positioning portion 50 for the solder fillet region 306 and the second portion of the first set of terminals 30. The solder leg region 408 of the group terminal 40 is penetrated and positioned.

As shown in FIGS. 1A and 1D, when a docking electrical connector conforming to the USB 3.0 standard is inserted and electrically connected to the electrical connector 1, the corresponding terminal (not shown) of the USB 3.0 docking electrical connector is pressed against The bomb of the first set of terminals 30 in the mating face 240 The contact area 300, as in the elastic cantilever structure described above, the elastic support region 302 of the first set of terminals 30 provides the required elasticity on the right side of the elastic contact region 300 of the first set of terminals 30 to elastically contact the first set of terminals 30. Zone 300 can be resiliently moved into the first set of terminal channels 232. In the preferred embodiment, the upper block 2461 of the first set of terminal channels 242 is configured to block the flap region 3002 from moving upward in the first set of terminal channels 232, thereby limiting the first set of terminals 30. The upward elastic moving distance of the elastic contact zone 300, such as once the USB 3.0 docking electrical connector is removed from the electrical connector 1, the elastic contact zone 300 of the first set of terminals 30 does not protrude out of the docking surface due to the rebound of the pressure relief. The lower block 2463 can be used to block the flap region 3002 from moving downward, thereby limiting the downward elastic movement distance "D1" of the elastic contact region 300 of the first set of terminals 30, so once the USB 3.0 When the corresponding terminal of the docking electrical connector is inserted into the electrical connector 1 and is pressed against the elastic contact region 300 of the first group of terminals 30, the elastic contact region 300 of the first group of terminals 30 is not excessively pressurized. Damaged.

It should be noted that, as shown in FIGS. 1C and 1D, when the electrical connector 1 of the present invention is not electrically connected to any of the mating electrical connectors, since the elastic contact region 300 of the first set of terminals 30 is received in the first The slot 2465 of the set of terminal channels 242 is such that the resilient contact region 300 abuts below the upper block 2461 without extending beyond the mating face 240, so when a USB 2.0 compliant docking electrical connector is inserted When the second set of terminals 40 of the electrical connector 1 are electrically connected, the problem of the USB 2.0 compliant docking electrical connector not hitting the first set of terminals 30 occurs.

Referring to FIG. 2, there is shown an electrical connector 2 according to a second preferred embodiment of the present invention, which differs from the electrical connector 1 of the first preferred embodiment in that: a second preferred embodiment Each terminal of the first set of terminals 30 of the electrical connector 2 has an elastic contact zone 300, a first elastic support zone 302', a second elastic support zone 303', and a plurality of horizontally holding zones 304. And a vertical solder fillet area 306. Because the first elastic support region 302' is connected to the elastic contact region 300 in the front and the plurality of bends 3022 are formed at the elastic connection region 300, the first elastic branch The plurality of retaining regions 304 are connected to the rear of the retaining region 302 ′, and the elastic contact region 300 is connected to the second elastic supporting region 303 ′ and the plurality of bends 3032 are formed at the joint of the elastic contact region 300 . At least one of the bends 3032 is exposed to the front end 246 of the abutting portion 24 of the insulative housing 20, and in addition to the first elastic support region 302' providing the elasticity required for the right side of the elastic contact region 300, because of the second elasticity The lower end of the support region 303 ′ is preloaded and abuts against the wall surface of the groove wall 2422 of the first group of terminal channels 242 , and the second elastic support region 303 ′ can also be the elastic contact region The left side of the 300 provides an elastic force, whereby the mechanical structure formed between the first elastic support region 302' and the elastic contact region 300 to the second elastic support region 303' is like forming a simple supported beam that can move up and down, and the deflection thereof will be The foregoing first embodiment is smaller and less prone to deformation, which also allows the two sides of the elastic contact region 300 of the first group of terminals 30 to be more smoothly and elastically moved in the first group of terminal channels 242. In addition, as shown in FIG. 2, the first set of terminal channels 242 of the electrical connector 2 of the second preferred embodiment penetrates through the recessed portion 222 of the insulative housing 20 and below the first set of terminal slots 242 to form the slot wall 2422. The design is also different from the first preferred embodiment in that the first set of terminals 30 of the electrical connector 2 of the second preferred embodiment can be directly from the rear end of the insulative housing 20 (relative to the front end 246), i.e., from the recess. The portion 222 is inserted into the vertical wall surface 2221 and disposed in the first set of terminal channels 242. As for other parts and components, since they are the same as the foregoing first embodiment, the opposite sides of the elastic contact zone 300 including the first set of terminals 20 are also outwardly extended to form two wing regions (not shown) and interposed therebetween. A pair of upper and lower stops 2461, 2463 of a set of terminal channels 242 are not repeated here.

Referring to FIG. 3, there is shown an electrical connector 3 according to a third preferred embodiment of the present invention, which is different from the electrical connector 2 of the second preferred embodiment in that: third preferred The first set of terminals 30 of the embodiment further includes punching a spring area 3004 upwardly from the elastic contact area 300 to form a bend 3009 between the spring area 3004 and the elastic contact area 300, and the spring area is formed. The 3004 extends toward the mating surface 240 of the insulative housing 20 but does not extend beyond the mating surface 240, thereby expanding The elastic movement distance D2 (ie, D2>D1) provides higher contact elasticity when the electrical connector 3 is inserted.

Please refer to FIG. 4, which shows an electrical connector 4 according to a fourth preferred embodiment of the present invention, which is different from the electrical connector 1 of the first preferred embodiment in that: a fourth preferred embodiment Each terminal of the first set of terminals 30 of the electrical connector 4 has an elastic contact zone 300, an elastic support zone 302, a plurality of horizontal retention zones 304 and a vertical solder fillet zone 306. The elastic support region 302 is connected to the elastic contact region 300 in the front and is connected to the elastic contact region 300 to form a plurality of bends 3022, and at least one of the bends 3022 is exposed to the abutting portion 24 of the insulating body 20. The front end portion 246, the elastic support region 302 is connected to the plurality of holding regions 304, and the elastic contact region 300 abuts on the first group of terminal channels 242 by using wing regions (not shown) on both sides thereof. Stop (not shown). In other embodiments, the resilient contact region 300 can also be pre-stressed to the upper stop of the first set of terminal channels 242 by the tab region. The mechanical structure formed between the elastic support region 302 and the elastic contact region 300 is like forming an elastic cantilever that can move up and down. As for other parts and components, since they are the same as the foregoing first embodiment, they will not be described here.

Please refer to FIG. 5, which shows an electrical connector 5 according to a fifth preferred embodiment of the present invention, which is different from the electrical connector 4 of the fourth preferred embodiment in that: a fifth preferred embodiment The design of the first group of terminal channels 242 of the electrical connector 5 through the recess 222 of the insulative housing 20 and the formation of the slot wall 2422 under the first set of terminal channels 242 is different from that of the fourth preferred embodiment, so that the fifth comparison is made. The first set of terminals 30 of the electrical connector 5 of the preferred embodiment can be directly inserted into the first set of terminal channels 242 from the vertical wall 2221 of the recess 222 of the insulative housing 20. As for other parts and components, since they are the same as the foregoing fourth embodiment, they will not be described again.

Referring to FIG. 6, there is shown an electrical connector 6 according to a sixth preferred embodiment of the present invention, which is different from the electrical connector 5 of the fifth preferred embodiment in that: The first set of terminals 30 of the embodiment further includes punching a spring area 3004 upward from the elastic contact area 300, so that the spring area 3004 and the elastic contact area A bend 3009 is formed at the joint between the 300, and the elastic piece 3004 extends toward the abutting surface 240 of the insulating body 20 but does not extend beyond the abutting surface 240, thereby increasing the elastic moving distance D2 (ie, D2). >D1), providing higher contact elasticity when the electrical connector 6 is inserted.

Referring to FIG. 7, there is shown an electrical connector 7 according to a seventh preferred embodiment of the present invention, which is different from the electrical connector 1 of the first preferred embodiment in that: seventh preferred Each of the terminals of the first set of terminals 30 of the embodiment has an elastic contact zone 300 and a fixed support zone 302 ′′, wherein the fixed support zone 302 ′′ and the holding zone 304 are nearly orthogonally connected, and the fixed support zone 302'' is also in close orthogonal connection with the elastic contact zone 300, and at least one bend 3022 is formed at an orthogonal connection of the elastic contact zone 300 and the fixed support zone 302", and the at least one bend 3022 abuts The block 2463 is below the first set of terminal channels 242. When a pair of electrical connectors are electrically connected to the electrical connector 7 to press against the elastic contact region 300 of the first set of terminals 30, the resilient contact region 300 utilizes its connection with the fixed support region 302" The portion (ie, the bend 3022) is elastically moved in the first group of terminal channels 242 by a specific distance D3 as a pivot point. However, the fin regions (not shown) on both sides of the elastic contact region 300 of the first group of terminals 30 are constrained between the lower stops 2461, 2463 of the first group of terminal channels 242, and the upper and lower stops 2461, 2463 are limited. The movement of the fin regions of the first group of terminals 30 in a vertical direction, that is, the upper and lower elastic movement distances D3 of the elastic contact regions 300 of the first group of terminals 30 are restricted, and the lower block 2463 simultaneously limits the first group of terminals 30. The fixed support zone 302'' moves toward a horizontal direction.

Referring to FIG. 8, there is shown an electrical connector 8 according to an eighth preferred embodiment of the present invention, which is different from the electrical connector 7 of the seventh preferred embodiment in that: the eighth preferred The first set of terminals 30 of the embodiment further includes punching a spring area 3004 upwardly from the elastic contact area 300 to form a bend 3009 between the spring area 3004 and the elastic contact area 300, and the spring area is formed. The 3004 extends toward the mating surface 240 of the insulative housing 20 but does not extend beyond the mating surface 240, thereby increasing the elastic moving distance D4 (ie, D4>D3), which can be provided when the electrical connector 6 is inserted. Higher contact elasticity.

According to another preferred embodiment of the present invention, an electronic device such as a notebook computer, a tablet computer, a mobile phone, a digital camera, a portable storage device, and the like are provided, and the electrical connectors 1 and 2 of the above embodiments are installed. , 3, 4, 5, 6, 7, and 8.

In addition, a ninth preferred embodiment of the present invention provides a method of assembling an electrical connector. For ease of understanding, please refer to the electrical connector 1 of the first embodiment of FIGS. 1A to 1D, the assembly method includes The following steps: loading the first set of terminals 30 from the front end 246 of the insulative housing 20 into the plurality of first set of terminal slots 242 along the direction of the rearward direction, and then holding the area 304 of the first set of terminals 30 The first group of terminal slots 30 are fixed in the first group of terminal channels 242, and the elastic support regions 302 of the first group of terminals 30 are located in the first group of terminal channels 242, and the first group of terminals 30 are in elastic contact. The location of zone 300 is distributed on abutting face 240 of the docking portion 24 adjacent to the front end 246. At this time, the elastic contact region 300 of the first group of terminals 30 is received in the slit 2465 of the first group of terminal channels 242 and the two wing regions 3002 of the elastic contact region 300 are interposed between the upper and lower stops 2461, 2463 ( If the blade region 3002 abuts the lower portion of the upper block 2461, and the mechanical structure from the elastic support region 302 to the elastic contact region 300 is like forming a cantilever beam structure, the elastic support region 302 provides the right side of the elastic contact region 300. Therefore, the two flap regions 3002 of the elastic contact region 300 are restricted to be elastically movable only in the slit 2465 between the two pairs of upper and lower stoppers 2461, 2463 of the first group of terminal channels 242, so that the first group The elastic contact region 300 of the terminal 30 does not extend beyond the abutting surface 240 of the abutting portion 24, and the leg region 306 extends through the vertical wall surface 2221 of the recess portion 222 of the seat portion 22 through the horizontal wall surface. In addition to 2223, a plurality of second sets of terminal channels 244 of the insulative housing 20 are mounted from above the mating face 240 of the insulative housing 20 and above the seat 22 in a direction from top to bottom. And then the plurality of vertical holding regions 404 of the second set of terminals 40 406 are inserted and fixed to the two vertical front and rear of the seat portion to the second set of terminals in the channel 244, so that the resilient contact area and the second set of terminals 40 of the 400 projects In addition to the abutting surface 240 of the abutting portion 24, the distribution position of the elastic contact region 300 of the first group of terminals 30 is closer to the front end portion 246 of the abutting portion 24 than the position of the elastic contact region 400 of the second group of terminals 40 ( As shown in Figure 1B). At this time, the upper surface of the second set of terminals 30 is exposed above the seat portion 22 and above the mating surface 240 along the extending direction of the second set of terminal channels 244, and the solder fillet region 408 extends downwardly through the The horizontal portion of the recessed portion 222 of the seat portion 22 is outside the wall surface 2223; one of the opposite sides of the positioning portion 50 is engaged with the latching block 54 on both sides of the horizontal wall surface 2223 of the recessed portion 222 below the insulative housing 20 In the hole (not shown), the positioning portion 50 is installed in the space formed by the recess portion 222. At this time, the plurality of insertion holes 52 of the positioning portion 50 are for the solder fillet region 306 of the first group of terminals 30. And the soldering leg region 408 of the second set of terminals 40 is penetrated and positioned; and the insulating body 20 is received in the receiving space 12 of the shielding shell 10, and the hooks 14 of the sidewall surfaces of the shielding shell 10 are utilized. The slot 224 of the left and right sides of the seat portion 22 of the insulative housing 20 is correspondingly locked, and the shielding housing 10 is sleeved on the insulative housing 20.

Further, a tenth preferred embodiment of the present invention provides a method of assembling an electrical connector. For the sake of understanding, please refer to the electrical connector 2 of the second preferred embodiment of FIG. 2. The assembly method of the tenth preferred embodiment is different from the above-described ninth preferred embodiment in the following steps: In the backward direction, the first set of terminals 30 are inserted and disposed from the rear end of the insulative housing 20, that is, the vertical portion of the recess 222 toward the wall surface 2221 (relative to the front end 246). In the first set of terminal channels 242, the holding area 304 of the first set of terminals 30 is fixed in the first set of terminal channels 242 below the insulative housing 20, and the elastic contact area of the first set of terminals 30 The position of 300 is distributed on the mating face 240 of the docking portion 24 adjacent to the front end 246. At this time, the elastic contact region 300 of the first group of terminals 30 is received in the slit 2465 of the first group of terminal channels 242 and the two wing regions (not shown) of the elastic contact region 300 are interposed between the first group of terminal channels. Between the upper and lower stops 2461, 2463 in 242, At least one bend 3032 formed at the junction between the middle elastic contact zone 300 and the second elastic support zone 303' is exposed to the front end 246 of the abutting portion 24 of the insulative housing 20, and in addition to the first elastic support zone 302' The lower end of the second elastic support region 303' is preloaded and abuts against the groove wall 2422 of the first set of terminal channels 242. On the wall surface, it is also possible to provide an elastic force to the left side of the elastic contact region 300, whereby the mechanical structure formed between the first elastic support region 302' and the elastic contact region 300 to the second elastic support region 303' is formed. A simple beam that can be moved up and down, which enables the two sides of the elastic contact region 300 of the first group of terminals 30 to be more smoothly and elastically moved in the first group of terminal channels 242. As for the other steps, since they are the same as the foregoing ninth embodiment, they will not be described again.

In addition, an eleventh preferred embodiment of the present invention provides a method of assembling an electrical connector. For ease of understanding, please refer to the electrical connector 4 of the fourth preferred embodiment of FIG. The assembly method of the preferred embodiment is different from the above-described ninth preferred embodiment in the following steps: after the first group of terminals 30 are loaded into the plurality of first group of terminal channels 242, the elastic support region 302 and the elastic contact region At least one bend 3022 formed at the junction of 300 is exposed to the front end 246 of the insulative housing 20 and provides the desired elasticity to the left of the resilient contact region 300. As for the other steps, since they are the same as the foregoing ninth embodiment, they will not be described again.

In addition, according to a twelfth preferred embodiment of the present invention, a method of assembling an electrical connector is provided. For ease of understanding, please refer to the electrical connector 5 of the fifth preferred embodiment of FIG. The assembly method of the second preferred embodiment is different from the eleventh preferred embodiment described above in that the first group of terminals 30 are removed from the rear end of the insulative housing 20, that is, recessed, in a direction from the rear to the front. Where the portion 222 is perpendicular to the wall surface 2221, the first set of terminals 30 are respectively inserted and disposed in the first set of terminal channels 242. As for the other steps, since they are the same as the foregoing eleventh embodiment, they will not be described again here.

Further, according to a thirteenth preferred embodiment of the present invention, a method of assembling an electrical connector is provided. For the sake of understanding, please refer to the electrical connectors 7, 8 of the seventh and eighth embodiments of FIGS. 7-8. The assembly method of the thirteenth preferred embodiment is different from the above-described ninth preferred embodiment in the following points. Step: when the first set of terminals 30 are assembled to the first set of terminal channels 242, the fixed support area 302'' is fixedly abutted against the lower surface of the first set of terminal channels by a stop 2463 to form A fixed support region is formed by using a fixed support region 302'' and an elastic joint region 300 of the first set of terminals 30, such as a bend 3022, to form a pivot point to make the first set of terminals 30 elastic. The contact zone 300 can be resiliently moved into the first set of terminal channels 242. As for the other steps, since they are the same as the foregoing ninth embodiment, they will not be described again.

In summary, the electrical connector of the present invention and the electronic device using the same not only simplify the structure of the insulating body to reduce the number of molds used, but also reduce the manufacturing cost, and each of the terminal structures forms an elastic contact area and at least An elastic/fixed support area. When the corresponding terminals of the pair of electrical connectors electrically contact the elastic contact region, the at least one elastic/fixed support region can provide better contact elasticity to avoid damage to the terminal structure; and the assembly method of the electrical connector according to the present invention By the above simplified insulating body structure, not only is it easy to assemble, but also the product yield can be improved, thereby reducing the manufacturing cost.

Although the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the present invention, and those skilled in the art can make various changes without departing from the spirit and scope of the present invention. Retouching, therefore, the scope of protection of this creation is subject to the definition of the scope of the patent application attached.

1‧‧‧Electrical connector

10‧‧‧Shaded housing

12‧‧‧ accommodating space

14‧‧‧check

20‧‧‧Insulating body

22‧‧‧

24‧‧‧Docking Department

30‧‧‧First set of terminals

32‧‧‧First differential signal terminal

34‧‧‧Second differential signal terminal

36‧‧‧ Grounding signal terminal

40‧‧‧Second group terminal

42‧‧‧3rd differential signal terminal

44‧‧‧ Grounding signal terminal

46‧‧‧Power signal terminal

50‧‧‧ Positioning Department

52‧‧‧ jack

54‧‧‧ card block

222‧‧‧Depression

224‧‧‧ slots

240‧‧‧ docking

242‧‧‧First set of terminal channels

244‧‧‧Second group of terminal channels

246‧‧‧ front end

300,400‧‧‧elastic contact zone

302,402‧‧‧elastic support zone

304, 404, 406 ‧ ‧ holding area

306, 408‧‧‧ soldering foot area

403‧‧‧First connection area

405‧‧‧Second connection area

2221‧‧‧Vertical wall

2223‧‧‧ horizontal wall

3002‧‧‧wing area

3022‧‧‧Bend

Claims (15)

An electrical connector comprising: a first set of terminals having a pair of first differential signal terminals and a pair of second differential signal terminals; and a second set of terminals having a pair of third differential signal terminals, said first Each of the group terminal and the second group of terminals has an elastic contact zone and at least one elastic support zone is coupled to the elastic contact zone; and an insulative body having a portion and a pair of extensions extending outward from the seat Forming a pair of junctions on the mating portion, and forming a plurality of first group of terminal channels and a plurality of second group of terminal channels to respectively configure the first group of terminals and the second group of terminals The elastic contact regions of the first set of terminals and the elastic contact regions of the second set of terminals are distributed on the mating faces of the mating portions, wherein the elastic contact regions of the first set of terminals are elastically moved in the first set of terminal slots . The electrical connector of claim 1, further comprising a positioning portion disposed on the seat portion, and the first group of terminals and the second group of terminals each having at least one holding region and a soldering leg region, The at least one holding area is configured to fix the first set of terminals and the second set of terminals respectively to the first set of terminal channels and the second set of terminal channels of the insulative housing, and the solder leg area extends to the insulative housing Outside the seat and through the positioning portion. The electrical connector of claim 1, wherein the first set of terminal channels and the second set of terminal channels extend to the seat and the abutting portion of the insulative housing, and the first set of terminal channels It runs through the end of the docking portion. The electrical connector of claim 1, wherein at least one elastic support region of the first set of terminals is located in the first set of terminal slots when the first set of terminal channels are configured with the first set of terminals And at least one elastic support region is connected to the elastic contact region to form at least one bend. The electrical connector of claim 4, wherein the first set of terminals comprises a spring area, and the elastic contact area is bent and docked toward the insulating body. The surface extends for contacting the docking electrical connector. The electrical connector of claim 4, wherein the at least one bend is exposed outside the end of the abutment of the insulative housing. The electrical connector of claim 4, wherein the at least one elastic support region of the first set of terminals comprises a first elastic support region and a second elastic support region, the second elastic support region being pre- Pressing and abutting against the wall of the first set of terminal channels, and the at least one bend includes a first bend and a second bend formed on the first set of terminals A joint between the first elastic support region and the elastic contact region, and a second bend formed at a joint between the second elastic support region of the first set of terminals and the elastic contact region. The electrical connector of claim 1, wherein one of the elastic contact regions of the first set of terminals extends outwardly to form at least one fin region, and each first group of the insulative housing At least one inner side wall of the terminal channel forms at least one stop to correspond to at least one of the wing regions, and when the first set of terminals is received in the corresponding first set of terminal channels, the at least one corresponding to the first set of terminal channels The stop is configured to block movement of at least one of the fin regions of the first set of terminals, thereby limiting an upward or downward elastic movement distance of the elastic contact region of the first set of terminals. The electrical connector of claim 8, wherein the at least one stop comprises an upper stop and a lower stop, the upper stop for blocking the at least one wing region in the first set of terminal slots Moving upward, thereby limiting an upward elastic moving distance of the elastic contact region of the first set of terminals, and the lower stop for blocking downward movement of the at least one fin region, thereby restricting downward movement of the elastic contact region of the first group of terminals Flexible movement distance. An electrical connector comprising: a first set of terminals having a pair of first differential signal terminals and a pair of second differential signal terminals; and a second set of terminals having a pair of third differential signal terminals, said first Each of the group terminal and the second group of terminals has an elastic contact zone and at least one support zone connection The elastic contact region has an integral portion and a pair of connecting portions extending outward from the seat portion to an end, and a pair of connecting surfaces are formed on the butting portion, and the insulating body forms a plurality of first groups The first channel and the second group of terminals are respectively disposed on the terminal channel and the second group of terminal channels, so that the elastic contact area of the first group of terminals and the elastic contact area of the second group of terminals are distributed in the interface The elastic contact area of the first group of terminals is elastically moved in the first group of terminal channels with the connection between the elastic contact area and the at least one support area as a fulcrum. The electrical connector of claim 10, wherein when the first group of terminal channels are configured with the first group of terminals, the elastic contact area of the first group of terminals is located in the first group of terminal channels and the At least one bend is formed at the junction with the at least one support zone. The electrical connector of claim 10, wherein one of the at least one support region of the first set of terminals is fixed in the first set of terminal channels. The electrical connector of claim 10, wherein the first set of terminals includes a resilient region that is bent from the resilient contact region and extends toward the mating surface for contacting a pair of electrical connectors . The electrical connector of claim 10, wherein one of the elastic contact regions of the first set of terminals extends outwardly to form at least one fin region, and each first group of the insulative housing At least one inner side wall of the terminal channel forms at least one stop to correspond to at least one of the wing regions, and when the first set of terminals is received in the corresponding first set of terminal channels, the at least one corresponding to the first set of terminal channels The stopper is configured to limit movement of at least one of the fin regions of the first group of terminals toward a vertical direction, thereby limiting an upward or downward elastic movement distance of the elastic contact region of the first group of terminals, and the at least one stopper is further configured to limit At least one support area of the first set of terminals moves toward a horizontal direction. An electronic device comprising an electrical connector as described in claim 1 or 10.