JP2001351749A - Terminal part of coaxial type flat cable, and its manufacturing method - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide the terminal part of a coaxial type flat cable, capable of improving its reliability by preventing an external conductor from being ruptured in the connecting part of the external conductor to a ground bar, and to provide its manufacturing method. SOLUTION: A reinforcing body 30 for alleviating external force applied on the coaxial type flat cable 10 from the rear part of the connector 20 to the coaxial type flat cable 10.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a terminal portion of a coaxial flat cable used for transmitting a signal to a liquid crystal display of a personal computer at a high speed and a method of manufacturing the same, and more particularly to a connection portion between an external conductor and a ground bar. The present invention relates to a terminal portion of a coaxial flat cable having improved reliability by preventing disconnection of an external conductor and a method of manufacturing the same.

[0002]

2. Description of the Related Art In liquid crystal displays used in personal computers and other electronic devices, high-speed image signals are required in order to improve the number of pixels and hue. A formed coaxial cable is used.

In recent years, with the spread of notebook type personal computers, personal computers have been increasingly required to be smaller and lighter. Accordingly, coaxial cables for liquid crystal displays can be wired in a narrow space, and characteristic impedance is reduced. There is a demand for high-precision matching.

Conventionally, in order to meet such demands, it is necessary to reliably ground the outer conductors of a large number of coaxial cables and to connect the center conductor to a connector terminal or a board circuit having a predetermined pitch in a cable connection operation. It was very troublesome.

In order to carry out this connection work efficiently,
A plurality of coaxial cables are arranged at a predetermined pitch to form a flat cable, and collective connection is performed. However, as the coaxial cable itself becomes thinner, collective connection by flat cable reduces the strength of the connection portion. Such problems have become apparent.

Conventional flat cables which stabilize the strength of the connecting portion and can carry out the connecting operation efficiently are disclosed in, for example, JP-A-10-144145 and JP-A-Hei-1.
There is one disclosed in Japanese Patent Application Laid-Open No. 1-297133.

According to the flat cables disclosed in JP-A-10-144145 and JP-A-11-297133, the outer conductors are exposed by peeling the jackets of a plurality of coaxial cables arranged closely in parallel. , Fix the ground bar collectively with the exposed external conductors, peel off the external conductor at the terminal side from the ground bar to expose the insulator, and fix the exposed insulators collectively with plastic tape. In addition, a plurality of insulators fixed with a plastic tape are cut at the terminal side from the ground bar and shifted from the ground bar toward the terminal side to expose the center conductor at the terminal side of the ground bar. As a result, it becomes possible to expose a plurality of central conductors arranged in parallel at a predetermined pitch, and these exposed central conductors are connected to terminals of a connector or patterns on a circuit board.

According to this flat cable, the outer conductor and the ground bar are fixed by applying creamy solder to the outer periphery of the exposed outer conductor, sandwiching the outer conductor between the pair of ground bars from above and below, and keeping the ground bar at a predetermined temperature. And by integrating the ground bar and the external conductor with solder.

[0009]

However, Japanese Patent Application Laid-Open No.
According to the flat cables disclosed in JP-A-144145 and JP-A-11-297133, when the exposed external conductor and the ground bar are fixed, the solder penetrates also into the external conductor around the ground bar. There is a problem that the cable becomes hard. As a result, the following disadvantages occur. (1) When an external force such as tension or bending is applied to the flat cable, the external force acts on the ground bar fixing portion, so that the external conductor is disconnected. (2) When the connector provided at the terminal of the flat cable is inserted into and connected to the connector provided on the circuit board, the flat cable is folded back to the connector side of the circuit board to prevent disconnection between the connectors and for other reasons. In some cases, the outer conductor is disconnected because a bending force acts on the ground bar fixing portion.

SUMMARY OF THE INVENTION Accordingly, an object of the present invention is to provide a coaxial flat cable terminal capable of preventing disconnection of the external conductor at a connection portion between the external conductor and the ground bar and improving reliability, and a method of manufacturing the same. It is.

[0011]

According to the present invention, in order to achieve the above object, a plurality of coaxial cables in which an insulator, an outer conductor, and a jacket are sequentially provided on the outer periphery of a center conductor are arranged in parallel. In the terminal portion of the coaxial flat cable formed as a single unit, the outer jackets of the plurality of coaxial cables are exposed by being peeled off at a predetermined distance from the terminal of the coaxial flat cable. The outer cover, the outer conductor, and the insulator of the plurality of coaxial cables are peeled off at the ground bar that collectively connects the outer conductors, the ground bar, and a terminal of the coaxial flat cable. A connector to which the central conductors exposed by the respective connectors are connected, and formed from the rear of the connector to the coaxial flat cable, There is provided a coaxial flat cable terminal section having a reinforcement to alleviate the external force to be added to serial coaxial flat cable.

According to the present invention, in order to achieve the above object, a plurality of coaxial cables in which an insulator, an outer conductor, and a jacket are sequentially provided on the outer periphery of a center conductor are arranged in parallel and integrated. In the method of manufacturing the terminal portion of the coaxial flat cable, the outer conductors are exposed by peeling the jackets of the plurality of coaxial cables at a position separated by a predetermined length from the terminal of the coaxial flat cable. Connecting a ground bar to the exposed outer conductor at a time, and peeling the outer jacket, the outer conductor, and the insulator of the plurality of coaxial cables at the end of the coaxial flat cable, thereby removing the center conductor. The ground bar and the exposed central conductor are connected to a connector, and the coaxial flat cable is connected from the rear of the connector to the coaxial flat cable. There is provided a method of manufacturing a coaxial flat cable terminal portion forming a reinforcement to alleviate the external force added to Ttokeburu.

[0013]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS A terminal portion of a coaxial flat cable according to the present invention and a method for manufacturing the same will be described below in detail with reference to the accompanying drawings.

FIGS. 1A, 1B and 2 show a terminal part of a coaxial flat cable according to a first embodiment of the present invention, wherein FIG. FIG. 2 shows the lower surface, and FIG. A terminal portion of the coaxial flat cable 10 is formed by arranging a predetermined number of coaxial cables in parallel and attaching a polyester adhesive tape 15 to one side of the coaxial cable. The connector 20 connected to the connector on the circuit board side is connected, and the connector 2
The structure has a structure in which a reinforcing body 30 is formed to reduce external force applied to the coaxial flat cable 10 from the rear part of the flat cable 10 to the coaxial flat cable 10.

The connector 20 is made of PBT resin or the like,
The coaxial cable 10 includes a connector main body 21 to which each coaxial cable of the coaxial flat cable 10 is connected, and a connector cover 22 that covers a connection portion between the connector main body 21 and the coaxial cable. This is, for example, the one manufactured by Hirose Electric Co., Ltd.
A 0 mm pitch connector can be applied.

The reinforcing member 30 is a coaxial flat cable 1
0 and a coaxial cable jacket (colored polyester tape winding), which will be described later, has good adhesion and a Shore A hardness at 23 ° C. of 90 A.
And the block field viscosity at 200 ° C. (AST
MD-3236-88) is 2.5 Pa. S, specific gravity (A
STM D-792) is 1.0, softening point (ASTM D-792)
-3461-85) is formed by heating and melting a polyamide-based hot melt resin into a liquid state and subjecting it to liquid pressureless molding. For example, the width is 18.5 mm and the thickness is 1.
8 mm, length 3.4 mm, thickness 0.47 mm for the connector 20 on the upper surface side, thickness 0 mm for the connector 20 on the lower surface side of the connector 20, 1.5 mm for the cable side, 1.5 mm for the cable side Thickness on the top side of
It has a size of 98 mm and a thickness of 0.48 mm on the lower surface side on the cable side. Here, the reason that the Shore A hardness of the polyamide-based hot melt resin is set to 90A is that if it is 90A or less, the reinforcing body 30 is too soft when formed, and the coaxial flat cable 10 And the ground bar 40 and the outer conductor 13
At 200 ° C.
Is 2.5 Pa. The reason for selecting S is to improve the flow so that the hot melt resin can reach all corners of the mold during liquid pressureless molding.
Further, the reason why the lower surface on the connector 20 side is flush with the surface of the connector 20 is that the thickness of this portion cannot be mechanically taken to connect the connector 20 to a connector provided on a circuit board such as a liquid crystal display. That's why.

FIG. 3 shows a cross section of the coaxial flat cable 10. The coaxial flat cable 10 has, for example, a thickness of 0.1 mm made of a fluororesin or the like on the outer periphery of a center conductor 11 formed by twisting seven copper alloy wires having a wire diameter of 0.03 mm.
06 mm insulator 12, outer conductor 13 formed by winding a copper-deposited polyester tape around the outer periphery of a horizontally wound shield formed of a copper alloy wire having a wire diameter of 0.03 mm with the copper-deposited surface inside, and a colored polyester tape wound The coaxial cables 16 having an outer diameter of 0.33 mm formed by sequentially applying the outer cover 14 are arranged in parallel at a predetermined number (number determined by an applied liquid crystal display or the like) 1.0 mm as described above. Polyester adhesive tape 1 on one side
5 is attached.

FIG. 4 shows a terminal portion of the coaxial flat cable 10 before the connector 20 is connected. The terminal portion of the coaxial flat cable 10 has a predetermined length (for example, about 15 m).
m) The polyester adhesive tape 15, the outer cover 14, and the copper-deposited polyester tape of the outer conductor 13 are collectively removed by a laser beam at a distant position, and the outer conductor 13 of the horizontally wound shield body that is exposed is cream-like. Is applied from above and below, for example, length 0.8 mm, thickness 0.15 m
A pair of ground bars 40 made of tin-plated phosphor bronze
The ground bar 40 is fixed to each of the external conductors 13 by soldering and heating.
Are connected collectively to a ground bar 40. When the coaxial flat cable 10 is connected to the connector 20, the outer conductor 13 is cut by bending the terminal side of the coaxial flat cable 10 up and down with the boundary on the terminal side of the ground bar 40 as a fulcrum from this state. Then, the outer conductor 13 is collectively removed to expose the insulated wire core, and an insulating film (not shown) is thermally fused to the insulated wire core, and then the laser beam is applied to the insulator 12 between the insulating film and the ground bar 40. The insulator 12 is removed to expose the center conductor 11.

FIG. 5 shows a connection structure between the connector 20 and the coaxial flat cable 10. The ground bar 40 is housed in the connector body 21 and the exposed central conductor 11 is
Are connected to a plurality of (in accordance with the number of center conductors 11) signal terminals 23 provided in parallel with the connector body 21, and one ground bar 40 is provided in parallel with the signal terminals 23. It is connected to a ground terminal (not shown).

FIG. 6 shows a terminal portion of the coaxial flat cable 10 before the reinforcing member 30 is formed.
A connector cover 22 is attached to the connection portion, and a connection portion between the center conductor 11 of the coaxial cable 16 and the signal terminal 23, a connection portion between the ground bar 40 and the ground terminal, and the ground bar 40.
Are built into the connector 20.

Hereinafter, a method of manufacturing the terminal portion of the coaxial flat cable according to the present invention will be described. First, the coaxial flat cable 10 is prepared, cut into a predetermined length, and a polyester adhesive tape 15 and a jacket 14 are separated from the terminal by a laser beam at a predetermined length (for example, about 15 mm).
And the copper-deposited polyester tape of the outer conductor 13 are collectively removed to expose the outer conductor 13 by the horizontal shield body.

Next, cream-like solder is applied to the exposed outer conductor 13 and ground bar 40 is applied from above and below.
Then, the ground bar 40 is heated and the ground bar 40 is soldered and fixed to each external conductor 13. As a result, as shown in FIG.
0 are collectively connected.

When the ground bar 40 is fixed to the outer conductor 13, the boundary on the terminal side of the ground bar 40 is used as a fulcrum.
The terminal side of the coaxial flat cable 10 is bent up and down, the outer conductor 13 is cut, and the outer conductor 13 is collectively removed to expose the insulated core.

Thereafter, in order to hold the exposed insulated wires at a predetermined pitch, an insulating film (not shown) is heat-sealed to the insulated wires. Next, the insulating film and the ground bar 4
The insulator 12 is removed by laser light on the insulator 12 between 0 and the center conductor 11 is exposed.

Subsequently, a solder coat is applied to the exposed central conductor 11 as necessary, so that the ground bar 40 is accommodated in the connector main body 21 as shown in FIG. Signal terminal 23
The ground bar 40 is connected to the ground terminal.

When the connection between the connector body 21 and the coaxial flat cable 10 is completed, a connector cover 22 is attached to the connector body 21 to connect the central conductor 11 of the coaxial cable 16 to the signal terminal 23, the ground bar 40, and the like. The connection part of the ground terminal and the ground bar 40 are built in the connector 20.

Finally, the hot melt resin of the polyamide system is heated and melted into a liquid state, and then subjected to liquid pressureless molding.
The reinforcing body 30 is formed from the rear part of the connector 20 to the coaxial flat cable 10.

Here, the liquid pressureless molding will be described.
FIG. 7 shows a liquid pressureless molding system, in which a molding machine 72 having a mold 70 having the shape of the reinforcing body 30, a head portion 71 for injecting a resin into the mold 70, and a thermoplastic polyamide resin. A built-in tank portion 73, a hose portion 74 connecting the tank portion 73 and the head portion 71, and a polyamide resin in the tank portion 73 connected to the head portion 71 via the hose portion 74.
Supply section 75 for pressure feeding to tank section 73, hose section 7
4, and a heating unit for heating the head unit 71 to a predetermined temperature.

In order to form the reinforcing body 30 by liquid pressureless molding, first, the temperature of the tank 73 is set to, for example, 180 ° C.
And the temperature of the hose 74 and the temperature of the head 71 are set to the same temperature. And FIG.
The end of the coaxial flat cable 10 shown in FIG.
And a predetermined amount of the liquefied polyamide resin at an injection pressure of 0.03 to 0.15 Mpa and an injection time of 1 to 2 seconds is injected into the cavity of the mold 70. Then, after cooling for 5 to 10 seconds in the mold clamped state, the terminal portion of the coaxial flat cable 10 is taken out of the mold 70.

As the liquid pressureless molding system, for example, a Nordson molding system provided by Nordson Corporation (Japan corporation) of Nordson Corporation (USA) can be applied. Further, as a molding material to be used, for example, a cermet 867 of a polyamide resin provided by TRL (France) can be applied.

When the reinforcing member 30 is formed from the rear part of the connector 20 to the coaxial flat cable 10 by liquid pressureless molding in this way, the terminal part of the coaxial flat cable is completed and provided as a product.

FIG. 8 shows a state in which the terminal portion of the manufactured coaxial flat cable is connected to a circuit board such as a liquid crystal display, and the connector 20 and the connector 51 provided on the circuit board 50 are prevented from coming off due to external force. For reasons,
When the coaxial flat cable 10 is folded in the shape of a hairpin near the terminal, the connector 20 is connected to the connector 5.
Connected to 1.

According to the above-described terminal portion of the coaxial flat cable, the reinforcing member 30 is provided from the rear portion of the connector 20 to the coaxial flat cable 10, so that the connector 20
When the coaxial flat cable 10 is folded back and connected to the connector 51 of the circuit board 50 due to, for example, the external conductor 13 and the ground bar 4
No external force acts on the fixing portion of the ground bar 40, and the ground bar 40
Can be prevented from breaking the portion of the outer conductor 13 to which is attached. The reinforcing body 30 has a Shore A hardness of 90 A at 23 ° C. and a viscosity of 2.5 Pa.s at 200 ° C. Since it is composed of S polyamide hot melt resin, the integration of the coaxial flat cable 10 and the reinforcing member 30 is strengthened, and the relaxation of the external force related to the coaxial flat cable 10 is further improved. Disconnection of the connection portion of the ground bar 40 and the vicinity thereof can be prevented. Further, since the lower surface of the connector 20 is flush with the surface of the connector 20, no adverse effect occurs when the connector 20 is connected to a connector provided on a circuit board such as a liquid crystal display.

Further, according to the above-described method of manufacturing the end portion of the coaxial flat cable, the reinforcing member 30 is formed by heating and melting a polyamide-based hot melt resin into a liquid state and pressureless molding the liquid. , Reinforcement 30
Since no external force is applied to the fixed portion between the external conductor 13 and the ground bar 40 at the time of molding, damage to the fixed portion can be prevented.

9 and 10 show a terminal portion of a coaxial flat cable according to a second embodiment of the present invention. FIG. 9 shows an upper surface thereof, and FIG. 10 shows a side surface thereof. In these figures, the same parts as those in FIGS. 1 (a) and (b) to FIG. 8 are denoted by the same reference numerals and symbols, and duplicate description will be omitted.

The terminal of this coaxial flat cable is
The reinforcing body 90 formed from the rear portion of the connector 20 to the coaxial flat cable 10 is made of ABS, PBT, polycarbonate having a Shore A hardness of 90 A at 23 ° C.
It is constituted by a pair of cover bodies 91 and 92 which are sandwiched from above and below and engaged and integrated with the rear part of a separate connector 20 and a coaxial flat cable 10 which are formed in advance from a resin composition such as polyethylene or polypropylene.

FIG. 11A shows a cover body 91. The cover body 91 includes a flat portion 911, a pair of rising portions 912 formed on both sides of the flat portion 911, and a rising portion 912.
, A projection 914 formed at the tip of the projection 913, a connector fitting portion 915 and a cable holding portion 9 formed on the flat portion 911.
16 are provided.

FIG. 11B shows the cover body 92. The cover body 92 includes a flat portion 921, a pair of rising portions 922 formed on both sides of the flat portion 921, and a rising portion 922.
Formed on a part of the outer surface of the cover body 91,
14, a connector fitting portion 925 formed on the flat surface portion 921, and a cable holding portion 92.
6.

FIG. 12 shows a state in which the pair of cover members 91 and 92 are assembled. Connect the cover bodies 91 and 92 to the connector 20
Is applied as the reinforcing member 90 to the coaxial flat cable 10 to which the connector 92 is connected.
5, the coaxial flat cable 10 is aligned with the cable holding portion 926, and the engagement concave portion 924 is formed.
Then, the engaging protrusion 914 of the cover body 91 is engaged with the cover body 91 so that the cover body 91 and the cover body 92 are integrated. By this integration, the connector fitting portions 915 and 925 of the cover bodies 91 and 92 hold the connector 20 and the cable holding portions 916 and 926 hold the vicinity of the connector 20 of the coaxial flat cable 10. In addition to protecting the end of the coaxial flat cable 10 from external force applied to the external cable 10, the external force does not act on the fixed portion between the external conductor 13 and the ground bar 40, and the external conductor 13 is fixed to the portion where the ground bar 40 is fixed. Disconnection can be prevented.

In order to further enhance the integration of the cover members 91 and 92 or the integration of the cover members 91 and 92 with the connector 20 and the coaxial flat cable 10, an adhesive is applied to the inner surfaces of the cover members 91 and 92. May be applied and integrated.

Next, in order to confirm the effect of the terminal portion of the coaxial flat cable according to the first and second embodiments, a 14-core sample having the same configuration as that of the first embodiment was used as sample 1. The end portion of the coaxial flat cable having the same configuration as that of the second embodiment was used as a sample 2 and the end portion of the coaxial flat cable having the same structure as the second embodiment was used as a sample 2.
6 has no reinforcing member, that is, 1 has the same configuration as FIG.
Prepare the end of the 4-core coaxial flat cable,
The mechanical strength when an external force was applied to the coaxial flat cable was evaluated.

FIG. 13 shows a state of a cable bending test for evaluating the mechanical strength of the terminal portion of the coaxial flat cable.
0 (reinforcing body 90 in the case of sample 2, connector in the case of sample 3), the coaxial flat cable 10 is bent about 90 degrees to the left and right with the rear end as a fulcrum, and the bending of 90 degrees to the left and right is performed once and the bending is set to 1 Every five times, five times, ten times, and 300 times, the state of disconnection of the horizontally wound shield body of the coaxial flat cable 10 immediately below the rear end of the ground bar and the general appearance of the horizontally wound shield body were observed.

Table 1 shows the results.

[Table 1] As can be seen from the above results, the sample 1 having the same configuration as that of the first embodiment and the sample 2 having the same configuration as the second embodiment are the same as those of the outer conductor of the coaxial flat cable 10 and the ground bar. No damage due to mechanical strain such as tension and bending force applied to the coaxial flat cable is observed at and near the fixing portion of the flat cable. On the other hand, the sample 3 having no reinforcing member is damaged by mechanical strain and cannot be commercialized.

[0044]

As described above, according to the terminal portion of the coaxial flat cable of the present invention and the method of manufacturing the same, the external force applied to the coaxial flat cable from the rear portion of the connector to the plurality of coaxial flat cables is reduced. When the external force is applied to the coaxial flat cable, the external force does not act on the connection between the external conductor and the ground bar. Disconnection of the external conductor at the connection portion of the bar can be prevented. As a result, reliability can be improved.

[Brief description of the drawings]

1A and 1B show a terminal portion of a coaxial flat cable according to a first embodiment of the present invention, wherein FIG. 1A is a top view and FIG. 1B is a bottom view.

FIG. 2 is a side view showing a terminal portion of the coaxial flat cable according to the first embodiment.

FIG. 3 is a sectional view showing the coaxial flat cable according to the first embodiment.

FIG. 4 is an explanatory view showing a terminal portion of the coaxial flat cable before connection of the connector according to the first embodiment;

FIG. 5 is an explanatory diagram showing a connection structure between the connector and the coaxial flat cable according to the first embodiment.

FIG. 6 is an explanatory diagram showing a terminal portion of the coaxial flat cable before a reinforcing member is formed according to the first embodiment.

FIG. 7 is an explanatory view showing a liquid pressureless molding system according to the first embodiment.

FIG. 8 is an explanatory diagram showing a state in which a terminal portion of a coaxial flat cable is connected to a circuit board such as a liquid crystal display.

FIG. 9 is a top view showing a terminal portion of a coaxial flat cable according to a second embodiment of the present invention.

FIG. 10 is a side view showing a terminal portion of a coaxial flat cable according to a second embodiment of the present invention.

FIG. 11 is an explanatory view showing a cover according to a second embodiment.

FIG. 12 is an exploded view showing a state at the time of assembling the cover according to the second embodiment.

FIG. 13 is an explanatory view showing a state of a cable bending test for evaluating the mechanical strength of a terminal portion of the coaxial flat cable.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 10 Coaxial flat cable 11 Center conductor 12 Insulator 13 Outer conductor 14 Jacket 15 Polyester adhesive tape 20 Connector 21 Connector body 22 Connector cover 23 Signal terminal 30 Reinforcement body 40 Ground bar 50 Circuit board 51 Connector 70 Die 71 Head part 72 Molding machine 73 Tank part 74 Hose part 75 Supply part 80 Holding plate 90 Reinforcement body 91, 92 Cover body 911 Flat part 912 Rise part 913 Projection part 914 Engagement projection piece 915 Connector fitting part 916 Cable holding part 921 Flat part 922 Stand-up part 924 Engagement concave part 925 Connector fitting part 926 Cable holding part

──────────────────────────────────────────────────続 き Continued on the front page (51) Int.Cl. ⁷ Identification symbol FI Theme coat ゛ (Reference) H01R 43/00 H01R 9/07 Z // H01R 107: 00 17/04 J 23/02 K (72) Invention Person Ichiro Onuki 1144 Higashi-Ushigaya, Sowa-cho, Sarushima-gun, Ibaraki Prefecture F-term in the Furukawa Plant of Hirakawa Hutech Co., Ltd. GA06 GA09 5E077 BB05 BB07 BB11 BB23 BB38 DD01 GG23 HH02 HH07 JJ05 JJ16 JJ17 JJ20

Claims (6)

[Claims] 1. A terminal portion of a coaxial flat cable in which a plurality of coaxial cables in which an insulator, an outer conductor, and a jacket are sequentially applied to the outer periphery of a center conductor are arranged in parallel and integrated, A ground bar for collectively connecting the outer conductors exposed by peeling the outer jackets of the plurality of coaxial cables at positions separated by a predetermined length from a terminal of the coaxial flat cable; and And a connector to which the outer conductor of the plurality of coaxial cables, the outer conductor, and the center conductor exposed by peeling off the insulator at the ends of the coaxial flat cable are respectively connected. The coaxial flat cable is formed from the rear portion of the connector to reduce external force applied to the coaxial flat cable. A terminal portion of a coaxial flat cable, comprising: 2. The shore A at 23 ° C.
The hardness is 90 A and the viscosity at 200 ° C. is 2.5 Pa. S
The terminal part of the coaxial flat cable according to claim 1, comprising a polyamide hot melt resin. 3. The terminal of a coaxial flat cable according to claim 1, wherein said reinforcing member is formed so as to be flush with one surface of said connector. 4. The shore A at 23 ° C.
It is made of a resin composition such as ABS, PBT, polycarbonate, polyethylene and polypropylene having a hardness of 90A,
2. The coaxial flat cable terminal according to claim 1, comprising a pair of covers that are engaged with and integrated with a rear portion of the connector and the coaxial cable from above and below. 5. A method for manufacturing a terminal portion of a coaxial flat cable in which a plurality of coaxial cables in which an insulator, an outer conductor, and a jacket are sequentially applied to the outer periphery of a center conductor are arranged in parallel and integrated. In the coaxial flat cable, at a position away from the terminal of the coaxial flat cable by a predetermined length, the outer jackets of the plurality of coaxial cables are peeled to expose the outer conductor, and a ground bar is provided on the exposed outer conductor. Collectively connect, at the end of the coaxial flat cable, peel off the jackets, the outer conductor, and the insulator of the plurality of coaxial cables to expose the center conductor, the ground bar, and the exposed The central conductor is connected to a connector, and external force applied to the coaxial flat cable from the rear of the connector to the coaxial flat cable is reduced. Method for producing a terminal portion of the coaxial flat cable and forming a that reinforcement. 6. The formation of the reinforcing body has a Shore A hardness at 23 ° C. of 90 A and a viscosity at 200 ° C. of 2.5 P
a. 6. The method for producing a terminal portion of a coaxial flat cable according to claim 5, wherein the heating and melting of the polyamide hot melt resin of S into a liquid state is performed by liquid pressureless molding.