TWM592178U - Straddle mount connector - Google Patents

Abstract

The present invention discloses a splint connector, which is a splint connector that improves the transmission quality of high-frequency signals by widening the solder legs. The splint connector of the present invention includes an insulating base and a plurality of first conductive Terminal, and a plurality of second conductive terminals, the splint connector of this creation is mainly by widening the hardware design of the soldering feet of the conductive terminals, effectively improving the transmission quality of high-frequency signals transmitted by the conductive terminals, and by The unblocked design between the two adjacent first differential signal terminals and the adjacent second differential signal terminals enables high-frequency signals to be directly transmitted, and indeed reduces energy consumption during high-frequency signal transmission, thereby improving high-frequency signals The main advantages of passing quality.

Description

Splint connector

This creation relates to a splint-type connector, especially a splint-type connector that improves the transmission quality of high-frequency signals by widening the solder legs.

Press, the general splint connector structure is designed to be used as a connecting element for electronic signals and power supply and its accessories. Its main function is to provide connections between various electronic devices or equipment to ensure that signals can be accurately transmitted and connected. In addition to the miniaturized design of the connector structure, it also pays more and more attention to the transmission speed and bandwidth. In contrast, the problems caused by the transmission of high-frequency signals are endless. With the miniaturization of the connector structure and the large transmission efficiency The number and distribution of the terminal groups have also increased and become denser; however, too close the distance between adjacent terminals may easily cause electromagnetic wave and crosstalk interference problems during high-frequency signal transmission. The future miniaturization of the connector structure is still in progress It will be carried out at a faster speed, which will make the signal interference problem of the connector structure itself more serious. For high-frequency connectors, among many problems of signal integrity, crosstalk interference is the most serious problem. The traditional The high-frequency connector includes an insulating body, a plurality of ground terminals installed in the upper and lower rows of terminals in the insulating body, and a grounding plate for connecting the grounding terminals in series, but the structure of the grounding plate is complicated and must be It must be assembled with a clamping piece made of insulating material before it can be further installed inside the insulating body through the clamping piece, and at the same time, the elastic arms of the grounding piece respectively contact the grounding terminal for series connection to form a common Ground.

In the grounding structure of the electrical connector in the prior art, the technical features of the above-mentioned general splint connector structure have been disclosed, which is provided on the side of the base of the insulating seat body with a docking portion with a plug-in space, and The other side of the base is provided with an accommodating groove of the mounting part on the two sides of the positioning body, and the terminal group inserted in the plurality of terminal grooves on the two side walls of the insertion space includes a plurality of conductive terminals and the conductive terminals at the base The upper and lower injection moldings are respectively inserted into the terminal blocks in the accommodating grooves, and the two sides of the positioning body of the mounting part are respectively combined with a grounding piece including a grounding surface with two pieces, and both of the pieces are outward The grounding spring piece with the overlapping part is bent and extended. Such a grounding piece can be connected in series at the grounding spring piece of the overlapping part to the grounding conductive terminal in the terminal group to form a common ground; however, the conductive terminal The body width is uniform, and the plurality of conductive terminals are an open space between each other. The signals transmitted by each of the plurality of conductive terminals will easily cause interference, which will cause the problem of weak transmission signals; therefore, how to effectively use innovative hardware Designing to reduce the energy consumption and improve the quality of the transmission of high-frequency signal transmission is still a problem that developers and relevant researchers of related industries such as high-frequency signal connector structures and other related industries need to continue to work hard to overcome and solve.

The reason is that the creators have improved and created a splint connector with the help of their rich professional knowledge and many years of practical experience. The purpose is to provide a widened solder foot to improve the height The splice connector of the transmission quality of the frequency signal is mainly designed by widening the hardware of the soldering feet of the conductive terminal to effectively improve the transmission quality of the high-frequency signal transmitted by the conductive terminal, and by the two adjacent first The unblocked design between the differential signal terminals and the adjacent second differential signal terminals enables high-frequency signals to be directly transmitted, and indeed achieves the main advantages of reducing energy consumption during high-frequency signal transmission, thereby improving the quality of high-frequency signal transmission, etc. By.

According to the purpose of this creation, a splint connector is proposed, which includes an insulating base, a plurality of first conductive terminals, and a plurality of second conductive terminals; the insulating base system includes a first terminal slot and a corresponding A second terminal slot on one side of a terminal slot, and a card slot, the first terminal slot includes a plurality of first slots, and a plurality of first spacers separating the first slot, and the first The two terminal slots include a plurality of second slots, and a plurality of second spacers separating the second slots, the card slot is opened between the first terminal slot and the second terminal slot; the plurality of first slots The conductive terminals are correspondingly inserted into the first terminal slots, and each of the first conductive terminals is one of the first differential signal terminal or the first ground terminal, and the first ground terminals are arranged in pairs Between the two pairs of the first differential signal terminals, one end of each first conductive terminal is connected with a first widened portion, and the first width of the first widened portion is greater than the first The width of a conductive terminal; a plurality of second conductive terminals are correspondingly inserted in the second terminal slot, each second conductive terminal is one of the conductive terminals such as the second differential signal terminal or the second ground terminal, etc., arranged in pairs The second ground terminals are arranged between the two pairs of the second differential signal terminals, wherein each second conductive terminal includes a second widened portion, and the second widened portion The third width is greater than the width of the second conductive terminal; thereby, the width of the first and second widened portions is greater than the body width of the first and second conductive terminals to improve the transmission quality of the high-frequency signal.

In an embodiment of the present invention, the first top portion has a second wide distance; the second top portion has a fourth wide distance.

In an embodiment of the present invention, the card slot can further be inserted with a card.

In an embodiment of the present invention, the upper and lower ends of the card respectively have a first soldering area and a second soldering area, and the first soldering area and the second soldering area respectively press against the first of the first conductive terminal The widened portion and the second widened portion of the second conductive terminal.

In an embodiment of the present invention, the first widened portion may further include a first widened area and a second widened area adjacent to the first widened area.

In one embodiment of the present creation, the first width of the first widened area is equal to the second width of the second widened area.

In one embodiment of the invention, the first width of the first widened area is greater than the second width of the second widened area.

In one embodiment of the present creation, the first width of the first widened area is smaller than the second width of the second widened area.

In an embodiment of the present invention, one side of the first widened portion includes a first top, and the other side of the first widened portion includes a first welding portion and a first body portion.

In an embodiment of the present invention, the first soldering portion extends out of the insulating base and is fixed on a circuit board in a fixed manner.

In one embodiment of the present creation, the fixing method is one of surface adhesion or dual in-line package.

In an embodiment of the present invention, the two ends of the first body portion are respectively connected to the first widening portion and the first welding portion.

In an embodiment of the present invention, the second widened portion may further include a third widened area, and a fourth widened area adjacent to the third widened area.

In one embodiment of the present creation, the third width of the third widened area is equal to the fourth width of the fourth widened area.

In one embodiment of the present creation, the third width of the third widened area is greater than the fourth width of the fourth widened area.

In an embodiment of the present creation, the third width of the third widened area is smaller than the fourth width of the fourth widened area.

In an embodiment of the present invention, one side of the second widened portion includes a second top portion, and the other side of the second widened portion includes a second welding portion and a second body portion.

In one embodiment of the present creation, the second top part abuts the second terminal slot and abuts the second bearing plate.

In an embodiment of the present invention, the second soldering portion extends out of the insulating base and is fixed on a circuit board in a fixed manner.

In an embodiment of the present invention, the two ends of the second body portion are respectively connected to the second contact portion and the second welding portion.

In addition, according to the purpose of this creation, the author also proposes a splint connector, which includes an insulating base, a plurality of first conductive terminals, and a plurality of second conductive terminals; the insulating base system includes a first terminal slot , A second terminal slot corresponding to one side of the first terminal slot, and a card slot, the first terminal slot includes a plurality of first slots, a plurality of first spacers, a plurality of first A cut-off area and a plurality of first partition walls, wherein the first slot and the first cut-off area are separated by a first partition, and the first partition wall is connected to an inner portion of the first cut-off area, and The second terminal slot system includes a plurality of second slots, a plurality of second spacers, a plurality of second cutoff areas, and a plurality of second partition walls, wherein the second slot and the second cutoff area are formed by the first The two partitions are isolated, and the second partition wall corresponds to the first terminal slot and is connected to the other inner side of the second cut-off area, and the card slot is opened between the first terminal slot and the second terminal slot; A first conductive terminal is correspondingly inserted into the first terminal slot, each first conductive terminal is one of the first differential signal terminal or the first ground terminal and the like, and the two first differential signal terminals are adjacent Inserted in the first cut-off area, and the first ground terminal is correspondingly inserted in the first slot, the first ground terminals arranged in pairs are arranged in two pairs of the first differential signal terminals arranged in pairs Between, each of the first conductive terminals includes a first widened portion, the first width of the first widened portion is greater than the width of the first conductive terminal; a plurality of second conductive terminals are correspondingly inserted in In the second terminal slot, each second conductive terminal is one of the second differential signal terminal or the second ground terminal, etc. The two second differential signal terminals are correspondingly inserted in the second cut-off area, and the second ground The terminals are correspondingly inserted into the second slots, and the second ground terminals arranged in pairs are arranged between the two pairs of second differential signal terminals arranged in pairs, wherein each second conductive terminal comprises There is a second widened portion, the third width of the second widened portion is greater than the width of the second conductive terminal; thereby, through the design of two adjacent first differential signal terminals and second differential signal terminals, Effectively, the high-frequency signals can be directly transmitted without being blocked between the two, and the main advantages of reducing the energy consumption during high-frequency signal transmission and improving the quality of high-frequency signal transmission are indeed achieved.

In an embodiment of the present invention, the first top portion has a second wide distance; the second top portion has a fourth wide distance.

In an embodiment of the present invention, the card slot can further be inserted with a card.

In an embodiment of the present invention, the upper and lower ends of the card respectively have a first soldering area and a second soldering area, and the first soldering area and the second soldering area respectively press against the first of the first conductive terminal The widened portion and the second widened portion of the second conductive terminal.

In an embodiment of the present invention, the first widened portion may further include a first widened area and a second widened area adjacent to the first widened area.

In one embodiment of the present creation, the first width of the first widened area is equal to the second width of the second widened area.

In one embodiment of the invention, the first width of the first widened area is greater than the second width of the second widened area.

In one embodiment of the present creation, the first width of the first widened area is smaller than the second width of the second widened area.

In an embodiment of the present invention, one side of the first widened portion includes a first top, and the other side of the first widened portion includes a first welding portion and a first body portion.

In an embodiment of the present invention, the first soldering portion extends out of the insulating base and is fixed on a circuit board in a fixed manner.

In one embodiment of the present creation, the fixing method is one of surface adhesion or dual in-line package.

In an embodiment of the present invention, the two ends of the first body portion are respectively connected to the first contact portion and the first welding portion.

In an embodiment of the present invention, the second widened portion may further include a third widened area, and a fourth widened area adjacent to the third widened area.

In one embodiment of the present creation, the third width of the third widened area is equal to the fourth width of the fourth widened area.

In one embodiment of the present creation, the third width of the third widened area is greater than the fourth width of the fourth widened area.

In an embodiment of the present creation, the third width of the third widened area is smaller than the fourth width of the fourth widened area.

In an embodiment of the present invention, one side of the second widened portion includes a second top portion, and the other side of the second widened portion includes a second welding portion and a second body portion.

In an embodiment of the present invention, the second soldering portion extends out of the insulating base and is fixed on a circuit board in a fixed manner.

In an embodiment of the present invention, the two ends of the second body portion are respectively connected to the second widening portion and the second welding portion.

In this way, the splint connector of the present invention is mainly designed to widen the hardware design of the soldering feet of the conductive terminals to effectively improve the transmission quality of the high-frequency signals transmitted by the conductive terminals. The unblocked design between the signal terminals and the adjacent second differential signal terminals enables high-frequency signals to be directly transmitted, and indeed achieves the main advantages of reducing energy consumption during high-frequency signal transmission, thereby improving the quality of high-frequency signal transmission.

In order to facilitate the examiner to understand the technical characteristics, content and advantages of this creation and the effects it can achieve, I hereby combine this creation with the drawings and explain in detail in the form of expressions of the embodiments, and the drawings used therein, which The main purpose is only for illustration and auxiliary instructions, and may not be the true proportion and precise configuration after the implementation of the creation, so it should not be interpreted and limited to the relationship between the proportion and configuration of the attached drawings, and the scope of the rights of the creation in the actual implementation. He Xianming.

First of all, please refer to Figures 1 to 5 together for a schematic view of the structural appearance, an exploded view of the overall structure, a side view of the overall structure, and a schematic diagram of the first conductive terminal of a preferred embodiment of the splint connector And a schematic diagram of the arrangement of the second wire terminals, wherein the splint connector of the present invention includes an insulating base (10), a plurality of first conductive terminals (20), and a plurality of second conductive terminals (30), of which the original The splint connector is mainly designed by widening the hardware at the soldering feet of the conductive terminals to effectively improve the transmission quality of the high-frequency signals transmitted by the conductive terminals, and by two adjacent first differential signal terminals (21) The unblocked design between the adjacent second differential signal terminal (31) allows high-frequency signals to be directly transmitted, and indeed achieves the main advantages of reducing energy consumption during high-frequency signal transmission, thereby improving the quality of high-frequency signal transmission, etc. .

The insulating base (10) includes a first terminal slot (11), a second terminal slot (12) corresponding to one side of the first terminal slot (11), and a card slot (13) ), the first terminal slot (11) includes a plurality of first slots (111), and a plurality of first spacers (112) separating the first slots (111), wherein the first The slot (111) provides corresponding insertion of the first conductive terminal (20), and the second terminal slot (12) includes a plurality of second slots (121), and a plurality of spaced apart second plugs The second spacer (122) of the slot (121), wherein the second slot (121) provides corresponding insertion of the second conductive terminal (30), and the card slot (13) is opened in the first terminal Between the slot (11) and the second terminal slot (12), please refer to FIG. 6 and FIG. 7 together, which is a schematic diagram of the card arrangement of a preferred embodiment of the creative splint connector (1) , And a schematic diagram of card arrangement (2), in which the card slot (13) can be inserted into a card (4), and the card (4) has a first welding area (41) and A second soldering area (42), and the first soldering area (41) and the second soldering area (42) respectively abut the first widened portion (23) of the first conductive terminal (20) and the The second widened portion (33) of the second conductive terminal (30), and the card (4) is clamped against the first conductive terminal (20) and the second conductive terminal (30), the first The first width (W1) of the widened portion (23) is greater than the width of the first conductive terminal (20), and the third width (W3) of the second widened portion (33) is greater than the second conductive terminal ( 30) The width.

Please also refer to FIG. 8 for a schematic view of the wire terminal arrangement of a preferred embodiment of the creative splice connector, wherein the first conductive terminals (20) are correspondingly inserted into the first terminal slots ( 11), and the first conductive terminals (20) are composed of a plurality of first differential signal terminals (21) or a plurality of first ground terminals (22), wherein the first ground terminals are provided in pairs (22) is arranged between two pairs of the first differential signal terminals (21) arranged in pairs, wherein the first differential signal terminals (21) can directly transmit high-frequency signals, and the first The ground terminal (22) can absorb or shield the noise and interference generated by the first differential signal terminals (21) when transmitting high-frequency signals. This is due to the same pair of the first differential signal terminals (21). The transmitted high-frequency signal has the same amplitude and opposite phase, so there is a problem of high-frequency interference between the two sets of the first differential signal terminals (21), if between the two sets of the first differential signal terminals (21) The first ground terminals (22) are provided to effectively absorb noise or interference generated by the first differential signal terminals (21); in addition, each of the first conductive terminals (20) includes a first A widened portion (23), a first top portion (24), a first welding portion (25), and a first body portion (26), wherein the first widened portion (23) has a first width Distance (W1), and the first top (24) has a second wide distance (W2), in an embodiment, the first wide distance (W1) of the first widened portion (23) is greater than the The second wide distance (W2) of the first top portion (24), wherein the first widened portion (23) can mainly improve the transmission quality of high frequency signals, and the first widened portion (23) includes a first A widened area (231) and a second widened area (232) adjacent to the first widened area (231), wherein the first widened area (231) has a first width (A) ), and the second widened area (232) has a second width (B), and the first width (A) is equal to the second width (B); In addition, the first top (24) is Abut the first terminal groove (11), and the first soldering portion (25) protrudes from the insulating base (10) and is fixed to the surface by one of a fixed method such as surface adhesion or double in-line package A circuit board (not shown in the figure); furthermore, the two ends of the first body part (26) are respectively connected to the first widening part (23) and the first welding part (25).

In addition, please refer to FIG. 9 and FIG. 10 together for the schematic diagram of the first lead terminal arrangement of the second preferred embodiment of the creative splint connector, and the first lead terminal arrangement of the third preferred embodiment Schematic diagram, wherein the first width (A) of the first widened area (231) is greater than the second width (B) of the second widened area (232) (as shown in FIG. 7), or the first The first width (A) of the wide area (231) is smaller than the second width (B) of the second widened area (232) (as shown in FIG. 8).

Please refer to FIG. 8 again, the second conductive terminals (30) are correspondingly inserted into the second terminal slots (12), and each of the second conductive terminals (30) is composed of a plurality of second differences The signal terminal (31) is composed of a plurality of second ground terminals (32), and the second ground terminals (32) arranged in pairs are arranged in two pairs of the second differential signal terminals (31) arranged in pairs ), wherein the second differential signal terminals (31) can directly transmit high-frequency signals, and the second ground terminals (32) can absorb or shield the second differential signal terminals (31) in transmission The noise and interference generated by the high-frequency signal are due to the same amplitude and opposite phase of the high-frequency signal transmitted by the same pair of second differential signal terminals (31), so two sets of these second differential signal terminals There is a problem of high-frequency interference between (31). If the second ground terminals (32) are provided between the two sets of the second differential signal terminals (31), the second differential signal terminals can be effectively absorbed (31) generated noise or interference; in addition, each of the second conductive terminals (30) includes a second widened portion (33), a second top portion (34), and a second soldered portion (35) ), and a second body portion (36), wherein the second widened portion (33) has a third wide distance (W3), and the second top portion (34) has a fourth wide distance (W4) ), in an embodiment, the third wide distance (W3) of the second widened portion (33) is greater than the fourth wide distance (W4) of the second top portion (34), wherein the second widened portion (33) Mainly can improve the transmission quality of high-frequency signals, and the second widened portion (33) includes a third widened area (331), and an adjacent to the third widened area (331) The fourth widened area (332), wherein the third widened area (331) has a third width (C), and the fourth widened area (332) has a fourth width (D), The third width (C) is equal to, greater than or less than the fourth width (D); in addition, the second top (34) abuts the second terminal groove (12), and the second welding portion ( 35) The insulating base (10) extends out and is fixed to the circuit board by one of the fixing methods such as surface adhesion or dual in-line package; furthermore, the second end of the second body part (36) The parts connect the second widened part (33) and the second welded part (35) respectively.

Next, please also refer to FIG. 11 to FIG. 13 for a schematic view of the structural appearance, a cross-sectional view of the appearance of the structure of the four preferred embodiments of the creative splint connector, and a schematic view of the arrangement of the wire terminals. The connector includes an insulating seat (10), a plurality of first conductive terminals (20), and a plurality of second conductive terminals (30), wherein the splint connector of the present invention is mainly by widening the conductive terminals The hardware design at the soldering feet effectively improves the transmission quality of the high-frequency signals transmitted by the conductive terminals. At the same time, between the two adjacent first differential signal terminals (21) and the adjacent second differential signal terminals (31) The blocked design enables high-frequency signals to be directly transmitted, and indeed achieves the main advantages of reducing energy consumption during high-frequency signal transmission, thereby improving the quality of high-frequency signal transmission.

The insulating base (10) includes a first terminal slot (11), a second terminal slot (12) corresponding to one side of the first terminal slot (11), and a card slot (13) ), the first terminal slot (11) includes a plurality of first slots (111), a plurality of first spacers (112), a plurality of first cut-off areas (113), and a plurality of first partition walls (114), wherein the first slot (111) and the first cut-off area (113) are isolated by the first spacer (112), and the first partition wall (114) is connected to the first An inner portion of a cut-off area (113), and the second terminal slot (12) includes a plurality of second slots (121), a plurality of second spacers (122), and a plurality of second cut-off areas ( 123), and a plurality of second partition walls (124), wherein the second slot (121) and the second cut-off area (123) are separated by the second partition (122), and the second partition The wall (124) corresponds to the first terminal slot (11) and is connected to the other inner side of the second cut-off area (123), and the card slot (13) is opened in the first terminal slot (11) Between the second terminal slot (12), the card slot (13) can be used for inserting a card (4), and the card (4) has a first welding area on the upper and lower ends ( 41) and a second soldering area (42), and the first soldering area (41) and the second soldering area (42) respectively abut against the first widened portion (23) of the first conductive terminal (20) ) And the second widened portion (33) of the second conductive terminal (30), and the card (4) is clamped against the first conductive terminal (20) and the second conductive terminal (30).

The first conductive terminals (20) are correspondingly inserted into the first terminal groove (11), and the first conductive terminals (20) are composed of a plurality of first differential signal terminals (21) or a plurality of A ground terminal (22), wherein the first ground terminals (22) arranged in pairs are arranged between two pairs of the first differential signal terminals (21) arranged in pairs, wherein the first A differential signal terminal (21) can directly transmit high-frequency signals, and the first ground terminals (22) can absorb or shield the noise generated by the first differential signal terminals (21) when transmitting high-frequency signals Signal and interference, this is because the high-frequency signals transmitted by the same pair of first differential signal terminals (21) have the same amplitude and opposite phase, so there is a high level between the two sets of the first differential signal terminals (21) Frequency interference problem, if the first ground terminals (22) are provided between the two sets of the first differential signal terminals (21), the noise generated by the first differential signal terminals (21) can be effectively absorbed Or interference; in addition, each of the first conductive terminals (20) includes a first widened portion (23), a first top portion (24), a first welding portion (25), and a first body portion (26), wherein the first widened portion (23) has a first wide distance (W1), and the first top (24) has a second wide distance (W2), and the first widened The first wide distance (W1) of the portion (23) is larger than the second wide distance (W2) of the first top portion (24), wherein the first widened portion (23) can mainly improve the transmission quality of high frequency signals And the first widened portion (23) includes a first widened area (231) and a second widened area (232) adjacent to the first widened area (231), wherein the first A widened area (231) has a first width (A), and the second widened area (232) has a second width (B), and the first width (A) is equal to the second Width (B); In addition, the first top (24) abuts the first terminal groove (11), and the first soldering portion (25) extends out of the insulating base (10), and a surface One of the fixing methods such as adhesive or dual in-line package is fixed on a circuit board (not shown in the figure); moreover, the two ends of the first body part (26) are respectively connected to the first widening part ( 23) The first welding part (25).

The second conductive terminals (30) are correspondingly inserted into the second terminal slot (12), each of the second conductive terminals (30) is composed of a plurality of second differential signal terminals (31) and a plurality of second The ground terminals (32) are composed of the second ground terminals (32) arranged in pairs are arranged between two pairs of the second differential signal terminals (31) arranged in pairs, wherein the second differentials The signal terminal (31) can directly transmit high-frequency signals, and the second ground terminals (32) can absorb or shield the noise and noise generated by the second differential signal terminals (31) when transmitting high-frequency signals. Interference, this is because the high-frequency signals transmitted by the same pair of second differential signal terminals (31) have the same amplitude and opposite phase, so there is high-frequency interference between the two sets of second differential signal terminals (31) Problem, if the second ground terminals (32) are provided between the two sets of the second differential signal terminals (31), the noise or interference generated by the second differential signal terminals (31) can be effectively absorbed In addition, each of the second conductive terminals (30) includes a second widened portion (33), a second top portion (34), a second welding portion (35), and a second body portion (36) ), wherein the second widened portion (33) has a third wide distance (W3), and the second top (34) has a fourth wide distance (W4), and the second widened portion ( 33) The third wide distance (W3) is larger than the fourth wide distance (W4) of the second top (34), wherein the second widened portion (33) is mainly to improve the transmission quality of high frequency signals, and The second widened portion (33) includes a third widened area (331) and a fourth widened area (332) adjacent to the third widened area (331), wherein the third widened area (332) The wide area (331) has a third width (C), and the fourth widened area (332) has a fourth width (D), and the third width (C) is equal to, greater than, or less than the Fourth width (D); in addition, the second top portion (34) abuts the second terminal groove (12), and the second soldering portion (35) extends out of the insulating base (10), and One of the fixing methods such as surface adhesion or dual in-line package is fixed on the circuit board; furthermore, the two ends of the second body part (36) are respectively connected to the second widening part (33) and the The second welding part (35).

It can be seen from the above implementation description that this creation has the following advantages compared with existing technologies and products:

1. The splint connector of this creation is mainly by widening the hardware design of the soldering feet of the conductive terminals to effectively improve the transmission quality of the high-frequency signals transmitted by the conductive terminals, and at the same time by the two adjacent first differential signals The unblocked design between the terminals and the adjacent second differential signal terminals enables direct transmission of high-frequency signals, and indeed achieves the main advantages of reducing energy consumption during high-frequency signal transmission, thereby improving the quality of high-frequency signal transmission.

In summary, the splint connector of this creation can indeed achieve the expected use effect through the embodiments disclosed above, and this creation has not been disclosed before the application, and has fully complied with the provisions of the Patent Law and Claim. I filed an application for a new type of patent in accordance with the law, and pleaded for the review and granted the patent.

However, the illustrations and descriptions disclosed above are only preferred embodiments of this creation, and are not intended to limit the scope of protection of this creation; most people who are familiar with this skill, according to the characteristic scope of this creation, do other things Equivalent changes or modifications should be regarded as not departing from the scope of this creative design.

(1): splint connector (10): Insulation seat (11): First terminal slot (111): First slot (112): The first spacer (113): The first cut-off area (114): The first partition (12): Second terminal slot (121): Second slot (122): Second spacer (123): Second cutoff area (124): Second partition (13): Card slot (20): The first conductive terminal (21): The first differential signal terminal (22): First ground terminal (23): First widening section (231): The first widened area (232): Second widened area (24): First top (25): The first welding part (26): The first body part (30): Second conductive terminal (31): Second differential signal terminal (32): Second ground terminal (33): Second widening section (331): Third widened area (332): Fourth widened area (34): Second top (35): Second welding part (36): Second body part (4): Card (41): First welding area (42): Second welding area (A): First width (B): Second width (C): third width (D): fourth width (W1): The first wide distance (W2): Second wide distance (W3): Third wide distance (W4): Fourth wide distance

Figure 1: Schematic diagram of the structure of a preferred embodiment of the creative splint connector. Figure 2: An exploded view of the overall structure of a preferred embodiment of the creative splint connector. Figure 3: Side view of the overall structure of a preferred embodiment of the creative splint connector. Figure 4: Schematic diagram of the first lead terminal arrangement of a preferred embodiment of the creative splint connector. Fig. 5: Schematic diagram of the arrangement of the second wire terminal of a preferred embodiment of the creative splint connector. Fig. 6: Schematic diagram of the card arrangement of a preferred embodiment of the creative splint connector (1). Figure 7: Schematic diagram of the card arrangement of a preferred embodiment of the creative splint connector (2). Fig. 8: Schematic diagram of wire terminal arrangement of a preferred embodiment of the creative splint connector. Figure 9: Schematic diagram of the first lead terminal arrangement of the second preferred embodiment of the creative splint connector. Figure 10: Schematic diagram of the first lead terminal arrangement of the three preferred embodiments of the creative splint connector. Figure 11: Schematic diagram of the structure of the four preferred embodiments of the creative splint connector. Figure 12: A cross-sectional view of the structure and appearance of four preferred embodiments of the creative splint connector. Fig. 13: Schematic diagram of the wire terminal arrangement of the four preferred embodiments of the creative splint connector.

(1): splint connector

(10): Insulation seat

(11): First terminal slot

(20): The first conductive terminal

(30): Second conductive terminal

(112): The first spacer

Claims (36)

A splint connector, at least including: An insulating base (10) includes a first terminal slot (11), a second terminal slot (12) corresponding to one side of the first terminal slot (11), and a card slot ( 13), the first terminal slot (11) includes a plurality of first slots (111), and a plurality of first spacers (112) separating the first slots (111), and the first The two terminal slots (12) include a plurality of second slots (121), and a plurality of second spacers (122) separating the second slots (121), the card slot (13) is Opened between the first terminal slot (11) and the second terminal slot (12); A plurality of first conductive terminals (20) are correspondingly inserted into the first terminal slot (11), the first conductive terminals (20) are composed of a plurality of first differential signal terminals (21) and a plurality of first The ground terminals (22) are composed of the first ground terminals (22) arranged in pairs are arranged between two pairs of the first differential signal terminals (21) arranged in pairs, each of the first The conductive terminal (20) includes a first widened portion (23) whose first width (W1) is greater than the width of the first conductive terminal (20); and A plurality of second conductive terminals (30) are correspondingly inserted into the second terminal slot (12), the second conductive terminals (30) are composed of a plurality of second differential signal terminals (31) and a plurality of second The ground terminals (32) are composed of the second ground terminals (32) arranged in pairs are arranged between two pairs of second differential signal terminals (31) arranged in pairs, each of the second The conductive terminal (30) includes a second widened portion (33), and the third wide distance (W3) of the second widened portion (33) is greater than the width of the second conductive terminal (30). The splice connector as described in item 1 of the patent application, wherein the card slot (13) is further inserted with a card (4). The splice connector as described in item 2 of the patent application, wherein the upper and lower ends of the card (4) respectively have a first welding area (41) and a second welding area (42), and the first The soldering area (41) and the second soldering area (42) respectively abut the first widening portion (23) of the first conductive terminal (20) and the second addition of the second conductive terminal (30) Wide part (33). The splice connector as described in item 1 of the patent application scope, wherein the first widened portion (23) further includes a first widened area (231), and a first widened area (231) The adjacent second widened area (232). The splice connector as described in item 4 of the patent application, wherein the first width (A) of the first widened area (231) is equal to the second width (B) of the second widened area (232) . The splice connector as described in item 4 of the patent application scope, wherein the first width (A) of the first widened area (231) is greater than the second width (B) of the second widened area (232) . The splice connector as described in item 4 of the patent application scope, wherein the first width (A) of the first widened area (231) is smaller than the second width (B) of the second widened area (232) . The splice connector as described in item 1 of the patent application scope, wherein one side of the first widened portion (23) includes a first top portion (24), and the first widened portion (23) The other side portion includes a first welding portion (25) and a first body portion (26). The splice connector as described in item 8 of the patent application, wherein the first soldering portion (25) extends out of the insulating base (10) and is fixed on a circuit board in a fixed manner. The splice connector as described in item 9 of the patent application scope, wherein the fixing method is one of surface adhesion or dual in-line package. The splice connector as described in item 8 of the patent application scope, wherein the two ends of the first body portion (26) are respectively connected to the first widening portion (23) and the first welding portion (25). The splice connector as described in item 1 of the patent application scope, wherein the second widened portion (33) further includes a third widened area (331), and a third widened area (331) The adjacent fourth widened area (332). The splice connector as described in item 12 of the patent application scope, wherein the third width (C) of the third widened area (331) is equal to the fourth width (D) of the fourth widened area (332) . The splice connector as described in item 12 of the patent application scope, wherein the third width (C) of the third widened area (331) is greater than the fourth width (D) of the fourth widened area (332) . The splice connector as described in item 12 of the patent application scope, wherein the third width (C) of the third widened area (331) is smaller than the fourth width (D) of the fourth widened area (332) . The splice connector as described in item 1 of the patent application scope, wherein one side of the second widened portion (33) includes a second top portion (34), and the second widened portion (33) The other side portion includes a second welding portion (35) and a second body portion (36). The splice connector as described in item 16 of the patent application scope, wherein the second soldering portion (35) extends out of the insulating base (10) and is fixed on a circuit board in a fixed manner. The splice connector as described in item 16 of the patent application scope, wherein the two ends of the second body portion (36) are respectively connected to the second widening portion (33) and the second welding portion (35). A splint connector, at least including: An insulating base (10) includes a first terminal slot (11), a second terminal slot (12) corresponding to one side of the first terminal slot (11), and a card slot ( 13), the first terminal slot (11) includes a plurality of first slots (111), a plurality of first spacers (112), a plurality of first cut-off areas (113), and a plurality of first partitions A wall (114), wherein the first slot (111) and the first cut-off area (113) are isolated by the first partition (112), and the first partition (114) is connected to the wall An inner portion of the first cut-off area (113), and the second terminal slot (12) includes a plurality of second slots (121), a plurality of second spacers (122), and a plurality of second cut-off areas (123), and a plurality of second partition walls (124), wherein the second slot (121) and the second cut-off area (123) are separated by the second partition (122), and the second The partition wall (124) corresponds to the first terminal slot (11) and is connected to the other inner part of the second cut-off area (123), and the card slot (13) is opened in the first terminal slot (11) ) And the second terminal slot (12); A plurality of first conductive terminals (20) are correspondingly inserted into the first terminal slot (11), the first conductive terminals (20) are composed of a plurality of first differential signal terminals (21) and a plurality of first The ground terminal (22) is composed of two first differential signal terminals (21) adjacently inserted in the first cut-off area (113), and the first ground terminal (22) correspondingly inserted in the first Slot (111), the first ground terminals (22) arranged in pairs are arranged between two pairs of first differential signal terminals (21) arranged in pairs, each of the first conductive terminals (20) includes a first widened portion (23), the first wide distance (W1) of the first widened portion (23) is greater than the width of the first conductive terminal (20); and A plurality of second conductive terminals (30) are correspondingly inserted into the second terminal slot (12), the second conductive terminals (30) are composed of a plurality of second differential signal terminals (31) and a plurality of second The ground terminal (32) is composed of two second differential signal terminals (31) correspondingly inserted in the second cut-off area (123), and the second ground terminal (32) correspondingly inserted in the second plug The slot (121), the second ground terminals (32) arranged in pairs are arranged between two pairs of second differential signal terminals (31) arranged in pairs, each of the second conductive terminals ( 30) includes a second widened portion (33), the third wide distance (W3) of the second widened portion (33) is greater than the width of the second conductive terminal (30). A splice connector as described in item 19 of the patent application scope, wherein the card slot (13) is further inserted with a card (4). The splice connector as described in item 20 of the patent application scope, wherein the upper and lower ends of the card (4) respectively have a first welding area (41) and a second welding area (42), and the first The soldering area (41) and the second soldering area (42) respectively abut the first widening portion (23) of the first conductive terminal (20) and the second addition of the second conductive terminal (30) Wide part (33). The splice connector as described in item 19 of the patent application scope, wherein the first widened portion (23) further includes a first widened area (231), and a first widened area (231) The adjacent second widened area (232). The splice connector as described in item 22 of the patent application scope, wherein the first width (A) of the first widened area (231) is equal to the second width (B) of the second widened area (232) . The splice connector as described in item 22 of the patent application scope, wherein the first width (A) of the first widened area (231) is greater than the second width (B) of the second widened area (232) . The splice connector as described in item 22 of the patent application scope, wherein the first width (A) of the first widened area (231) is smaller than the second width (B) of the second widened area (232) . The splice connector as described in item 19 of the patent application scope, wherein one side of the first widened portion (23) includes a first top portion (24), and the first widened portion (23) The other side portion includes a first welding portion (25) and a first body portion (26). The splice connector as described in item 26 of the patent application scope, wherein the first soldering portion (25) extends out of the insulating base (10) and is fixed on a circuit board in a fixed manner. The splice connector as described in item 27 of the patent application scope, wherein the fixing method is one of surface adhesion or dual in-line package. The splice connector as described in item 26 of the patent application scope, wherein the two ends of the first body portion (26) are respectively connected to the first widening portion (23) and the first welding portion (25). The splice connector as described in Item 19 of the patent application scope, wherein the second widened portion (33) further includes a third widened area (331), and a third widened area (331) The adjacent fourth widened area (332). The splice connector as described in item 30 of the patent application scope, wherein the third width (C) of the third widened area (331) is equal to the fourth width (D) of the fourth widened area (332) . The splice connector as described in item 30 of the patent application scope, wherein the third width (C) of the third widened area (331) is greater than the fourth width (D) of the fourth widened area (332) . The splice connector as described in item 30 of the patent application scope, wherein the third width (C) of the third widened area (331) is smaller than the fourth width (D) of the fourth widened area (332) . The splice connector as described in item 19 of the patent application scope, wherein one side of the second widened portion (33) includes a second top portion (34), and the second widened portion (33) The other side portion includes a second welding portion (35) and a second body portion (36). The splice connector as described in item 34 of the patent application range, wherein the second soldering portion (35) extends out of the insulating base (10) and is fixed on a circuit board in a fixed manner. The splice connector as described in item 34 of the patent application scope, wherein the two ends of the second body portion (36) are respectively connected to the second widening portion (33) and the second welding portion (35).

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