JP5154614B2 - Glass run channel assembly - Google Patents

Description

  The present invention relates to a glass run channel assembly mounted on a window frame of a vehicle.

Generally, a window frame provided in a vehicle such as an automobile, particularly a window frame (also referred to as a door frame in this case) provided in a door panel main body such as a slide door, a front door, and a rear door, generally includes a glass run channel assembly (glass run, It is also equipped with a glass run channel, lanchan, guide member, etc.). A glass run channel assembly for such an application is a groove-constituting member (elongated molding member) having a substantially U-shaped cross section formed in a long shape, and is mounted in a groove formed in a window frame, Guides the raising and lowering of a glass window plate that moves up and down in a component (for example, a door panel). The glass run channel assembly is generally manufactured by performing extrusion molding or the like using an elastic polymer material such as rubber or a thermoplastic elastomer.
This type of glass run channel assembly corresponds to the shape of the window frame, and includes a plurality of glass run channels formed into a long shape by extrusion molding and at least two long glass run channels. It is comprised from the connection glass run channel arrange | positioned in the corner part of a window frame as a molded object to connect. Such connection glass run channels are generally formed by injection molding.
In this type of glass run channel assembly, there is a possibility that the glass window plate is displaced from a predetermined mounting position due to a stress acting when the glass window plate is moved up and down, and it is necessary to devise a technique for preventing the positional displacement. As one means for preventing such positional deviation, it is known that a projection for preventing movement is integrally provided at a corner portion of the window frame (that is, the connection glass run channel). By causing the protrusions to contact a part of the window frame constituent member, it is possible to regulate the movement (position shift) of the glass run channel assembly accompanying the up-and-down movement of the window frame.

  For example, in Patent Document 1, an insert member made of a harder material than the mold forming portion is disposed in a portion (mold forming portion) corresponding to a corner portion of a glass opening portion in the glass run channel assembly, and the insert member described above A glass run channel assembly characterized in that the surface of a portion corresponding to a protrusion is covered with a material constituting the mold part (that is, a relatively soft material), and a method for manufacturing the glass run channel assembly.

JP 2007-196909 A

However, the technique described in Patent Document 1 still has the following problems. That is,
(1). In the above technique, the insert member constituting the protrusion is arranged in advance in the mold, and the insert member is integrated by injecting the molten material constituting the mold forming portion into the mold. It is necessary to mold the mold part. For this reason, it is necessary to fix the hard insert member in the mold to be used, and therefore the structure of the mold to be used is complicated. In addition, since the insert member is present in the cavity, the flow of the molten resin is hindered, or the heat of the molten resin is taken away, and there is a possibility of causing a short shot in which the molten resin does not sufficiently spread into the cavity.
(2). In addition, when the insert member is not correctly disposed at a predetermined regular position in the mold having the complicated structure due to the problem (1) or when the insert member itself is not inserted into the mold, Alternatively, when the insert member is displaced due to the pressure of the injected resin, a defective product that cannot be repaired may be formed. Further, when the mold is closed in a state where the insert member is not properly arranged at a predetermined regular position, there is a possibility that the mold is damaged.
Furthermore, there is a large practical limitation that a material having heat resistance that does not deteriorate during the molding process when the molded part is injection molded must be used as the material of the insert member.

  Therefore, the present invention was created to solve the above problems (1) and (2), and the object thereof is to accurately and stably form the protrusion as the positional deviation preventing means at a predetermined position. It is to provide a glass run channel assembly that can be configured. Another object of the present invention is to provide a glass run product including such a glass run channel assembly.

In order to achieve the above object, the present invention provides a glass run channel assembly mounted on a window frame of a vehicle.
That is, the glass run channel assembly of the present invention is a glass run channel assembly mounted on a vehicle as described in claim 1.
The glass run channel assembly of the present invention includes a first long glass run channel having a predetermined length extruded from an elastic polymer material into a predetermined cross-sectional shape, and an extrusion molding from the elastic polymer material into a predetermined cross-sectional shape. A second long glass run channel having a predetermined length and a glass run channel injection-molded from an elastic polymer material, wherein the longitudinal ends of the first and second glass run channels are integrated with each other. Connection glass run channel to be connected.
The first and second glass run channels and the connection glass run channel are guided to the window frame when each glass run channel is installed in a groove formed at a predetermined position of the vehicle window frame. A base portion disposed at a position opposite to an end face of the lift window plate that is moved up and down, and the base portion having a predetermined crossing angle with the base portion from at least a vehicle inner end portion in the width direction of the base portion. A side wall portion integrally projecting from the portion toward the inner peripheral side, and a seal lip projecting from the protruding front end side of the side wall portion toward the base portion in a folded shape.
The base portion of the connection glass run channel is pre-molded from a material that is harder and more rigid than the elastic polymer material of the connection glass run channel, and a root portion disposed on the base portion, An engagement having a trunk protruding in a direction away from the trunk and formed to be engageable with an engagement provided in a groove of the window frame when the connection glass run channel is attached to the window frame. An insertion hole to which a member can be attached is formed.
A first locking portion that is displaced toward the central axis of the insertion hole when the side wall portion of the connection glass run channel is displaced in the width direction is formed on the inner wall that forms the periphery of the insertion hole. And the base portion of the connection glass run channel is configured such that when the connection glass run channel to which the engagement member is attached is mounted in a groove formed at a predetermined position of the window frame, the first locking portion is The trunk is configured to be pressed and locked to the trunk.

In the glass run channel assembly of the present invention having such a configuration, an insertion hole into which the engagement member can be inserted is formed in the base portion of the connection glass run channel, and an engagement member is formed in the inner wall constituting the periphery of the insertion hole. When the connecting glass run channel provided with the engaging member is mounted in a groove formed at a predetermined position of the window frame, the first locking portion is formed. The engaging portion presses the trunk portion of the engaging member to be engaged with the trunk portion.
Therefore, according to the glass run channel assembly of the present invention, unlike the conventional example described in Patent Document 1 in which the protrusions are required to be integrally formed by the injection molding method in the mold in which the insert member is inserted, The protrusion which is a misalignment prevention means can be formed by an easy operation of attaching a separately formed engagement member later. Further, since the engaging member only needs to be retrofitted to the connecting glass run channel main body (base portion), restrictions on materials and shapes constituting the engaging member are reduced.
Furthermore, when the connection glass run channel with the engagement member attached is attached to the window frame, the side wall portion of the connection glass run channel is in the width direction (the direction in which the angle formed between the base portion and the side wall portion decreases. The same applies hereinafter). Therefore, the first locking portion is displaced toward the central axis of the insertion hole, and the state where the first locking portion is locked to the engagement member (trunk portion) is maintained. Accordingly, it is possible to prevent the engaging member from being displaced in the direction in which the engaging member comes out of the connection glass run channel or to fall off during mounting.

According to a second aspect of the present invention, in the glass run channel assembly of the first aspect, the first locking portion is an end portion of an inner wall that forms the periphery of the insertion hole and is located on the inner peripheral side of the base portion. It is formed in the located edge part.
According to the glass run channel assembly of claim 2 configured as described above, when the side wall portion is displaced in the width direction, the displacement amount is the largest at the end portion of the inner wall located on the inner peripheral side of the base portion (that is, the inner periphery of the base portion). Since the width of the insertion hole is the narrowest at the end of the inner wall located on the side), the first locking portion is formed by forming the first locking portion at the end located on the inner peripheral side. The trunk portion of the engaging member can be more effectively held.

According to a third aspect of the present invention, in the glass run channel assembly according to the first or second aspect, the end portion of the inner wall constituting the periphery of the insertion hole and located on the outer peripheral side of the base portion has the above-described structure. When the side wall portion of the connecting glass run channel is displaced in the width direction, a second locking portion that locks to the distal end side of the trunk portion of the engaging member is formed.
According to the glass run channel assembly of claim 3 having such a configuration, since the second locking portion is formed at the end of the inner wall located on the outer peripheral side of the base portion, the second locking portion is engaged. Locks to the tip side of the trunk of the member. Thereby, when attaching the connection glass run channel to the window frame, the engagement member can be stably locked to the connection glass run channel.

According to a fourth aspect of the present invention, in the glass run channel assembly according to any one of the first to third aspects, the first locking portion is formed in a convex shape protruding toward the central axis of the insertion hole. It is characterized by that.
According to the glass run channel assembly of claim 4 having such a configuration, since the convex locking portion is formed in a direction intersecting with the direction in which the engagement member is inserted (the central axis direction of the insertion hole), the connection When the glass run channel is attached to the window frame, the engaging member (trunk) is favorably pressed by the first locking portion formed in a convex shape. Thereby, stability with respect to the connection glass run channel of an engaging member improves.

According to a fifth aspect of the present invention, in the glass run channel assembly according to the fourth aspect, a plurality of the first locking portions are formed and are formed at portions facing each other in the width direction of the inner wall constituting the periphery of the insertion hole. It is characterized by being.
According to the glass run channel assembly of claim 5 having such a configuration, when the connection glass run channel is mounted on the window frame, the plurality of first locking portions formed at the portions facing each other in the width direction approach each other. Since the engagement member (trunk portion) is clamped by the displacement, the stability of the engagement member with respect to the connection glass run channel is further improved.

A sixth aspect of the present invention is the glass run channel assembly according to any one of the first to fifth aspects, wherein the peripheral portion of the insertion hole of the base portion is an outer peripheral surface of the base portion (in a state of being attached to a window frame). It has a protrusion that protrudes in the outer peripheral direction from the surface facing the engagement portion (window frame constituent member). The protruding portion is formed so as to constitute a protruding portion engaged with the engaging portion together with a trunk portion of the engaging member inserted into the insertion hole.
In the glass run channel assembly of claim 6 having such a configuration, since the protrusion is formed on the base portion, the connection glass run channel to which the engagement member is attached is engaged with the protrusion when the window frame is mounted. The protrusion part which consists of a member can be easily engaged with the engaging part of a window frame. In addition, since the engaging member is covered with the protruding portion, even when the protruding portion is mounted on the engaging portion, the engaging member and the engaging portion are not in direct contact with each other, thereby preventing the generation of noise. be able to.

According to a seventh aspect of the present invention, in the glass run channel assembly according to the sixth aspect, the insertion hole is a through-hole penetrating the base portion and the protruding portion in the inner and outer peripheral directions.
According to the glass run channel assembly of claim 7 having such a configuration, since the insertion hole is penetrated, it is possible to confirm the presence or absence of the engaging member and the attachment state from the outer peripheral side of the base portion of the connection glass run channel. For this reason, an engaging member can be more reliably attached to an insertion hole.

According to an eighth aspect of the present invention, in the glass run channel assembly of the sixth aspect, the insertion hole is a non-through hole that opens toward the inner peripheral side of the base portion and is closed on the outer peripheral side of the projection portion. It is characterized by that.
According to the glass run channel assembly of claim 8 having such a configuration, since the insertion hole does not penetrate the outer peripheral side of the projection, the projection becomes difficult to deform, and deformation of the insertion hole itself can be suppressed.

The invention according to claim 9 is the glass run channel assembly according to any one of claims 1 to 8, wherein the inner peripheral surface of the base portion of the connection glass run channel (the surface facing the window plate when mounted on the window frame). The same shall apply hereinafter.) Is formed with a root support portion that supports the root portion of the engagement member when the trunk portion of the engagement member is inserted into and attached to the insertion hole. The root support portion is formed in a concave shape that recedes in the outer peripheral direction from the inner peripheral surface of the base portion of the connection glass run channel.
According to the glass run channel assembly of claim 9 having such a configuration, the base portion of the engaging member comes into contact with the base support portion formed in the concave shape, so that the positioning of the engaging member is facilitated. For this reason, the engaging member can be easily disposed and fixed at an accurate position. Furthermore, when the connection glass run channel with the engagement member attached is mounted on the window frame, the base portion sandwiches the base portion of the engagement member, thereby preventing the displacement and dropout of the engagement member more effectively. Can do.
Moreover, the deformation | transformation of a base part can be suppressed by arrange | positioning the base part formed from the material harder than a base part to the base support part used as the concave shape of the base part.

  Furthermore, to achieve the above object, a glass run product comprising any of the glass run channel assemblies disclosed herein is provided. That is, the glass run product of the present invention includes the glass run channel assembly according to any one of claims 1 to 9 and the engagement member as described in claim 10.

The invention according to claim 11 is the glass run product according to claim 10, wherein a locking recess for locking the first locking portion is formed in the trunk portion of the engaging member, and the connection glass run channel The first locking portion is locked to the locking recess in a state where the side wall portion is displaced in the width direction.
According to the glass run product of claim 11 having such a configuration, since the first locking portion can be firmly locked by the trunk portion of the engaging member, the stability of the engaging member with respect to the connection glass run channel is further improved. To do.

It is a vehicle outer side view which shows typically the front door and rear door of the left side of the motor vehicle with which the glass run channel assembly which concerns on one Embodiment was attached. It is a side view which shows typically the whole structure of the glass run channel assembly which concerns on one Embodiment. FIG. 3 is a cross-sectional view taken along line III-III in FIG. 1 and is a cross-sectional view schematically showing the structure of a glass run channel. FIG. 4 is a cross-sectional view taken along line IV-IV in FIG. 2, and is a cross-sectional view schematically showing a structure of a connection glass run channel. It is a perspective view showing typically the structure of the engaging member concerning one embodiment. It is a principal part enlarged view which shows the state which displaced the side wall part of the connection glass run channel which concerns on one Embodiment to the width direction. FIG. 7 is a partial cross-sectional view taken along line VII-VII in FIG. 6. It is a cross-sectional view which shows the state which attached the connection glass run channel which attached the engaging member which concerns on one Embodiment to the window frame. FIG. 9 is a transverse sectional view taken along line IX-IX in FIG. 8. It is sectional drawing which shows typically the structure and mounting state of the connection glass run channel which concern on other embodiment.

  Hereinafter, preferred embodiments of the present invention will be described. Note that matters other than those specifically mentioned in the present specification and necessary for the implementation of the present invention (for example, general matters relating to the production of glass run channels by extrusion molding) are based on the prior art. It can be grasped as a design item of the trader. The present invention can be carried out based on matters disclosed in the present specification and drawings and common general technical knowledge in the field.

Hereinafter, a preferred embodiment (first embodiment) of a glass run product (including a glass run channel assembly and an engaging member) of the present invention will be described in detail with reference to the drawings. FIG. 1 is a side view schematically showing a front door 6 and a rear door 6A attached to an automobile (vehicle) 1. In this figure, only the doors 6 and 6A attached to the left side surface of the automobile 1 are shown, but a door having a similar structure (that is, symmetrical) and a sealing device are also attached to the right side face of the automobile 1. In the following description, only glass run products to be attached to the front and rear doors 6 and 6A on the left side shown in the figure will be described, and descriptions of glass run products to be attached to the front door and rear door on the right side will be omitted. To do.
In the present invention, the front and rear refer to the front-rear direction of the vehicle, and the inner peripheral side (or inner peripheral direction) and outer peripheral side (or outer peripheral direction) are respectively the center direction of the window opening and the outer peripheral direction of the window plate ( The direction away from the center of the window opening). In addition, the upper and lower directions indicate the vertical direction in the direction of gravity, the right and left sides indicate the vehicle right side (driver's seat side) and the vehicle left side (passenger seat side), respectively, and the inside and outside of the vehicle approach the vehicle center. And the direction away from the center of the vehicle.

As shown in FIG. 1, the front door 6 according to the present embodiment includes a door outer panel 12 and a door inner panel 14 (see FIG. 9) constituting the door body 8, and a door frame formed above the door body 8. (Window frame) 22 is provided.
The door frame 22 is integrally joined to a center pillar side vertical side frame 61 arranged in the vertical direction along the center pillar 60 of the automobile 1 and an upper end of the center pillar side vertical side frame 61, and the front pillar 62 of the automobile 1 is joined. And an upper side frame 50 (including a horizontal frame 56 and an inclined frame 58) extending along the horizontal axis. A front pillar side vertical side frame 63 ("partition frame", "particular frame") extending in a substantially vertical direction (that is, a direction extending in parallel with the center pillar side vertical side frame 61) is provided at a portion slightly forward of the inclined frame 58 of the upper side frame 50. The front pillar side vertical frame 63 is attached to the upper end of the partition. Further, the front corner portion 16 is formed so that the front pillar side vertical side frame 63 and the inclined frame 58 intersect with each other at a predetermined intersection angle, and the center pillar side vertical side frame 61 and the horizontal frame 56 have a predetermined intersection angle. A rear corner portion 18 is formed so as to intersect with each other. Here, as shown in FIG. 9, the front corner portion 16 includes an end portion of the inclined frame 58 having the above-described configuration and a front pillar side vertical side frame 63 that intersects the inclined frame 58 at a predetermined intersection angle. ing. The front pillar side vertical frame 63 is made of a steel material having a substantially H-shaped cross section, and a portion 42 extending in the vehicle width direction forms the bottom wall portion 42 of the front pillar side vertical frame 63. To do. Further, the front pillar side vertical side frame 63 is fixed to the joining bracket 45 having an L-shaped cross section by spot welding or the like, and the joining bracket 45 is fastened and fixed to the door inner panel 14 by screws 46 or the like. Thereby, the front pillar side vertical side frame 63 can be fixed at a predetermined position.

As shown in FIG. 1, a glass run product 100 (described later) is placed at a predetermined position on the inner peripheral side of the door frame 22 (ie, the center pillar side vertical frame 61, the upper frame 50, and the front pillar side vertical frame 63). A groove 32 (see FIG. 3) in which the glass run channel assembly 105 (see FIG. 2) can be mounted is formed continuously. A glass run product 100 is mounted in the groove 32 following the shape of the groove 32 to constitute a window frame structure.
A window opening 70 is formed by the upper edge 10 of the door body, the center pillar side vertical frame 61, the upper frame 50, and the front pillar side vertical frame 63. A window plate 66 is mounted on the window opening 70 so as to be movable up and down. The window plate 66 is attached to a window plate lifting mechanism (not shown) provided inside the door body 8. When moving up and down (when moving in the directions of arrows X and Y in FIG. 1), the periphery of the window plate 66 is guided by the glass run product 100 (glass run channel assembly 105).

Similarly, the rear door 6A according to the present embodiment includes a door outer panel 12A and a door inner panel (not shown) of the door body 8A, and a door frame (window frame) 22A formed above the door body 8A. .
The door frame 22A has a center pillar side vertical side frame 61A and an upper side frame 50A joined integrally with the upper end of the center pillar side vertical side frame 61A. The upper side frame 50A has an inclined frame 58A that extends obliquely downward while being curved along the rear pillar 64 from the upper end of the center pillar side vertical side frame 61A. Further, the door frame 22 </ b> A has a rear pillar side vertical side frame 65. The glass run product 100 </ b> A is mounted on the door frame 22 </ b> A as in the case of the front door 6.

  FIG. 2 schematically shows the entire glass run products 100 and 100A according to the present embodiment mounted in grooves formed at predetermined positions of the door frame 22 of the front door 6 and the door frame 22A of the rear door 6A. FIG. As shown in FIG. 1 and FIG. 2, the front door 6 has a slight difference in size depending on the shape of the front door 6 and the rear door 6A, that is, the shape of the front and rear door frames 22 and 22A. The glass run product 100 attached to the glass run product 100A and the glass run product 100A attached to the rear door 6A are substantially the same, and there is no difference in the configuration characterizing the present invention. Therefore, the following description will be given for the glass run product 100 for the front door 6 and the door frame 22, and the description for the glass run product 100A for the rear door 6A and the door frame 22A will be omitted.

As shown in FIG. 2, the glass run product 100 according to this embodiment includes a glass run channel assembly 105 and an engaging member 200.
First, the glass run channel assembly 105 constituting the glass run product 100 will be described. As shown in FIG. 2, the glass run channel assembly 105 according to this embodiment includes a long first glass run channel 110 mounted along the front pillar side vertical side frame 63, and the upper side frame 50. The long second glass run channel 120 to be attached to the door, the long third glass run channel 130 to be attached along the center pillar side vertical frame 61, and the door outer panel 12 to be provided separately. And a long fourth glass run channel 140 mounted along the body sash lower 19 (see FIG. 1).
Furthermore, the glass run channel assembly 105 according to the present embodiment includes a total of three connection glass run channels 150, 150A, in addition to the first to fourth long glass run channels 110, 120, 130, 140. 150B is provided. That is, the first and second glass run channels 110 and 120, the second and third glass run channels 120 and 130, and the third and fourth glass run channels 130 and 140 are opposed to each other in the longitudinal direction. Connection glass run channels 150, 150A and 150B are integrally connected to each other.

The first to fourth long glass run channels 110, 120, 130, and 140 are each formed in a predetermined cross-sectional shape from a predetermined elastic polymer material by extrusion molding. Preferred elastic polymer materials include elastic rubbers (typically composed mainly of ethylene-propylene-diene rubber (EPDM)), olefin-based thermoplastic elastomers (TPO), and styrene-based thermoplastic elastomers ( TPS) and the like.
On the other hand, each of the connection glass run channels 150, 150A, 150B is formed by performing injection molding (insert injection molding) using a predetermined elastic polymer material between the terminals of the adjacent glass run channels. It is formed to connect. Preferred elastic polymer materials include elastic rubber (typically a material mainly composed of EPDM rubber) that is cured by vulcanization, TPO, etc., which are injection-molded between the opposing ends of adjacent glass run channels. In this case, it is preferable that the elastic polymer material that forms the adjacent glass run channel is compatible and can be chemically bonded so that the terminal is preferably connected to the terminal.

  Next, the cross-sectional shape and attachment form of the long 1st-4th glass run channel which comprises the glass run channel assembly 105 which concerns on this embodiment are demonstrated easily. FIG. 3 is a cross-sectional view taken along the line III-III in FIG. 1, and configures the long second glass run channel 120 and the window frame 22 (here, the inclined frame 58) according to this embodiment based on this drawing. The cross-sectional structure at the part of the member will be described. Since the other long, first, third, and fourth glass run channels 110, 130, and 140 have substantially the same structure, duplicate descriptions are omitted.

As shown in FIG. 3, the inclined frame 58 (window frame 22) extends from the door outer panel 12 (see FIG. 1) and the door inner panel 14 (see FIG. 9) to the upper side of the vehicle. The outer door frame 23 and the vehicle inner door frame 24 are configured to be engaged with each other by being bent in a predetermined manner. Further, the stopper 25 having an L-shaped cross section as a window frame constituent member is joined to the vehicle interior door frame 24 by spot welding or the like.
In the inclined frame 58 having such a configuration, the groove 32 is formed by the vehicle outer side wall 28 formed by the vehicle outer side door frame 23 and the vehicle inner side wall 29 and the bottom wall 30 formed by the stopper 25. A protrusion 34 is formed on a part of the surface on the groove 32 side of the vehicle interior side wall 29 along the longitudinal direction.

On the other hand, as shown in FIG. 3, the glass run channel according to the present embodiment (here, the second glass run channel 120) has a substantially U-shaped constant shape formed into a long shape by extrusion molding of the polymer material. It has a cross-sectional shape. In addition, before installing in the groove | channel 32, as shown in FIG.
Further, the glass run channel 120 is guided by the door frame (window frame) 22 and is arranged at a position facing the end face of the elevating window plate 66 that moves up and down, and each of the width directions of the elevating portion 75. The vehicle interior side wall portion 80 and the vehicle exterior side wall portion 90 project integrally from the end of the base portion 75 toward the inner peripheral side at a predetermined crossing angle with the base portion 75. On the surface of the base portion 75, a low friction layer 79 having a static friction coefficient lower than that of the base portion 75 is continuously formed in the longitudinal direction. Thereby, even if the raising / lowering window board 66 repeatedly contacts the base part 75 (low friction layer 79), the position shift of the glass run channel 120 can be prevented.

Further, as shown in FIG. 3, the glass run channel 120 protrudes integrally from the protruding front end side of each of the vehicle inner side wall portion 80 and the vehicle outer side wall portion 90 toward the center side in the width direction of the base portion 75, and A vehicle interior seal lip 85 and a vehicle exterior seal lip 95 are provided which extend in a folded shape with a space between the side wall 80 and the vehicle exterior side wall 90 and can be brought into elastic contact with the side surface of the elevating window plate 66.
Further, in the glass run channel 120, the vehicle inner side engaging projection 82 and the vehicle inner side folding lip 84 are formed so as to protrude outward (vehicle inner side) from the vehicle inner side wall portion 80. Similarly, the vehicle outer side engagement protrusion 92 and the vehicle outer side folding lip 94 are formed so as to project outward (vehicle outer side) from the vehicle outer side wall portion 90. This prevents the glass run channel 120 from coming out of the groove 32 in a state where the glass run channel 120 is mounted in the groove 32 of the inclined frame 58 (window frame 22). The structure of the second glass run channel 120 (and other long first, third and fourth glass run channels 110, 130, 140) is not an essential part of the present invention. Further detailed description of the structure will be omitted.

Next, the connection glass run channel 150 characterizing the glass run channel assembly 105 according to the present embodiment will be described in detail. The glass run channel assembly 105 according to the present embodiment includes a total of three connection glass run channels 150, 150A, and 150B. However, since the characteristic portions of the present invention are common, the first and the second are described below. The connection glass run channel 150 that integrally connects the terminals in the longitudinal direction of the two glass run channels 110 and 120 will be described with reference to the drawings.
In addition, in the cross-sectional shape of the connection glass run channel 150 according to the present embodiment, additional portions formed on the vehicle inner side wall portion 180 and the vehicle outer side wall portion 190 (the folded lips 84, 94, the seal lips 85, 95, etc.). Is substantially the same shape as that formed in the second long glass run channel 120 shown in FIG. 3, the same reference numerals are given to substantially the same members and mechanisms. In addition, the detailed description is omitted again.

  FIG. 4 is a cross-sectional view taken along line IV-IV in FIG. 2, and is a cross-sectional view of the connection glass run channel 150. As shown in FIG. 4, an insertion hole 160 to which an engagement member 200 described later can be attached is formed in the base portion 175 of the connection glass run channel 150. The peripheral portion of the insertion hole 160 of the base portion 175 has a protrusion 165 that protrudes from the outer peripheral surface of the base portion 175 in the outer peripheral direction. In the present embodiment, the insertion hole 160 is a through hole that penetrates the base portion 175 and the protruding portion 165 in the inner and outer peripheral directions. Here, the projecting portion 165 together with the trunk portion 205 of the engaging member 200 attached to the insertion hole 160, the engaging hole 40 as an engaging portion described later provided in the groove 32 of the window frame 22 (inclined frame 58). Is formed so as to constitute a projecting portion 167 that can be engaged with each other.

  An end portion of a lateral inner wall 177 (an inner wall formed along the longitudinal direction of the base portion 175), which is an inner wall constituting the periphery of the insertion hole 160, is an end portion located on the inner peripheral side of the base portion 175. The locking projections 170, 170 that are the first locking portions are formed at portions facing the base portion 175 in the width direction. The locking convex portion 170 is formed in a convex shape protruding toward the central axis Z of the insertion hole 160, and the inner side wall portion 180 and the outer side wall portion 190 of the connection glass run channel 150 are displaced in the width direction ( When the side wall portions 180 and 190 are displaced in a direction approaching each other), the side wall portions 180 and 190 are formed to be displaced toward the central axis Z of the insertion hole 160 (that is, the locking projections 170 and 170 approach each other). Yes. The shape of the locking projection 170 is formed such that the locking projection 170 fits into a locking recess 224 (to be described later) of the engaging member 200 and can press and lock the trunk 205. .

On the other hand, the end portion of the lateral inner wall 177, which is the inner wall that forms the periphery of the insertion hole 160, is located on the outer peripheral side of the base portion 175 (in the present embodiment, the end portion of the projection portion 165). Locking stepped portions 172 and 172, which are two locking portions, are formed at portions facing each other in the width direction of the base portion 175. The engaging stepped portion 172 is formed in a stepped shape (concave shape) that is recessed in a direction away from the central axis Z of the insertion hole 160, and extends in the width direction of the vehicle interior side wall portion 180 and the vehicle exterior side wall portion 190 of the connection glass run channel 150. The second locking protrusion 235, which will be described later, formed on the distal end side of the trunk portion 205 of the engaging member 200 is formed so that it can be locked.
Note that the locking projection 170 and the locking step 172 according to the present embodiment are continuously formed in a direction perpendicular to the central axis Z of the insertion hole 160 (that is, the base portion 175 of the lateral inner wall 177 is formed). May be formed continuously along the longitudinal direction)), or a plurality of locking projections and locking step portions may be formed at a plurality of portions facing in the width direction of the base portion 175, or You may form a latching convex part and a latching level | step-difference part in any one of the horizontal inner wall of a vehicle inner side and a vehicle outer side. Further, the step-shaped locking step 172 and the step-shaped locking step 172A are continuous with each other to form an annular step shape, but may not be continuous, and may have steps with different depths. It may be.

Further, when the trunk portion 205 of the engagement member 200 is inserted into the insertion hole 160 and attached to the inner peripheral surface of the base portion 175, the root support portion 168 that supports the root portion 210 of the engagement member 200. Is formed. The base support portion 168 is formed in a concave shape that recedes in the outer peripheral direction from the inner peripheral surface of the base portion 175, and is formed in a shape corresponding to the outer shape of the root portion 210, and at least one of the peripheral edges of the root portion 210. It is comprised so that it may contact | abut and support a part.
The shapes of the insertion hole 160 and the protrusion 165 are not particularly limited, and the cross-sectional shape may be a round hole, an ellipse, or the like in addition to a square shape.
As shown in FIG. 4 and FIG. 7, the periphery of the insertion hole 160 is cylindrically surrounded by a lateral inner wall 177 and a longitudinal inner wall 179, and the outer periphery of the lateral inner wall 177 and the longitudinal inner wall 179 from the outer surface of the base portion 175. The portion protruding to the side forms a protrusion 165.
The lateral inner wall 177 is formed in a plate shape along the longitudinal direction of the base portion 175 of the connection glass run channel 150. In this embodiment, the pair of lateral inner walls 177 and 177 are formed in the width direction (lateral direction) of the base portion 175. Are arranged at predetermined intervals.
Further, the vertical inner wall 179 is formed in a plate shape along the width direction of the base portion 175 of the connection glass run channel 150. In the present embodiment, the pair of vertical inner walls 179, 179 is the longitudinal direction (vertical direction of the base portion 175). ) At a predetermined interval.

Next, an engagement member 200 constituting the glass run product 100 according to the present embodiment and attached to (inserted into) the insertion hole will be described with reference to the drawings. FIG. 5 is a perspective view schematically showing the structure of the engaging member 200 according to the present embodiment.
The engaging member 200 according to the present embodiment is a member formed in advance separately from the connection glass run channel 150, and is a synthetic resin material that is harder and more rigid than the elastic polymer material forming the connection glass run channel 150, such as polyacetal. It is a molded product molded from an elastic polymer material such as (POM) or nylon (polyamide resin). The engaging member 200 may be a metal material press-molded product, cast product, forged product, or the like. Further, as shown in FIG. 5, the engaging member 200 has a flat plate-like base portion 210 and a trunk portion 205 that protrudes (rises) in a direction away from the base portion 210.
The flat plate-like main body part 212 of the base part 210 is formed in a size and a shape that can be fitted into the base support part 168, and on the side facing the base part 175 when attached to the connection glass run channel 150. A plurality of misalignment prevention protrusions 214 are formed on the surface. On the other hand, the trunk portion 205 is formed so as to be inserted into the insertion hole 160 and attached to the connection glass run channel 150, and is an engagement portion provided in the groove 32 of the window frame 22 (inclined frame 58). It is formed to be able to engage with the joint hole 40. In this embodiment, the protruding portion 167 including the trunk portion 205 and the protruding portion 165 is engaged with the engaging hole 40. In this case, since the trunk 205 is covered with the protrusion 165, the trunk 205 does not directly contact the periphery of the engagement hole 40 even when the protrusion 167 is engaged with the engagement hole 40. Generation of abnormal noise can be prevented. Further, when the protrusion 165 is not formed on the base portion 175, the trunk portion 205 can be formed so that the trunk portion 205 engages with the engagement hole 40.

  The trunk portion 205 includes a columnar main body portion 207 of a size that can be inserted into the insertion hole 160 and a locking head portion 220 that protrudes from the tip of the columnar main body portion 207. When the engaging member 200 is attached to the connection glass run channel 150 on the base portion 210 side of the columnar main body portion 207, the end portion of the lateral inner wall 177 located on the inner peripheral side of the base portion 175 (that is, the lateral inner wall 177). A locking concave portion 224 that can be locked with the locking convex portion 170 formed on the inner peripheral side end portion) is formed. Further, a first locking ridge 230 that locks to the horizontal inner wall 177 among the inner walls that form the periphery of the insertion hole 160 is formed around the center of the protruding direction (rise direction) of the columnar main body 207. . The locking head 220 is set to be larger than the outer shape of the columnar main body 207, and is the end of the lateral inner wall 177 located on the outer peripheral side of the base portion 175 (that is, the outer peripheral side end of the lateral inner wall 177). A second locking protrusion 235 that is locked to the locking stepped portion 172 formed on the outer edge of the vertical inner wall 179 (see FIG. 7) located on the outer peripheral side of the base 175 (ie, the outer periphery of the vertical inner wall 179). And a second locking protrusion 235A that is locked to a locking step 172A (see FIG. 7) formed on the side end).

Next, the function (action and effect) of the connection glass run channel 150 when the connection glass run channel 150 to which the engagement member 200 is attached is mounted in the groove 32 formed at a predetermined position of the window frame 22 (inclined frame 58). ) Will be described in detail with reference to the drawings.
FIG. 6 is an enlarged view of a main part showing a state in which the side wall parts 180 and 190 of the connection glass run channel 150 are displaced in the width direction. 7 is a partial cross-sectional view taken along the line VII-VII in FIG.
The engaging member 200 is attached to a predetermined position of the connecting glass run channel 150 by inserting the trunk portion 205 into the insertion hole 160 and fitting the root portion 210 into the root support portion 168. At this time, the second locking protrusions 235 and 235 of the locking head 220 are locked to locking stepped portions 172 and 172 formed at the ends of the protruding portion 165. On the other hand, the locking projections 170, 170 of the connecting glass run channel 150 are in contact with the locking recesses 224, 224 of the engaging member 200, but are not fitted into the recesses 224, 224 and are locked to the trunk 205. It is in a state where it is not caught or is caught so as not to fall out.

When the connecting glass run channel 150 to which the engaging member 200 is attached is mounted in the groove 32 of the window frame 22, the vehicle inner side wall portion 180 and the vehicle outer side wall portion 190 are placed in the width direction of the base portion 175 (indicated by the arrow X1 in FIG. 6). Direction). When the side wall portions 180 and 190 are displaced in the width direction in this way, a force is exerted on the base portion 175 to curve the base portion 175 toward the outer peripheral side. As a result, the end of the lateral inner wall 177 constituting the periphery of the insertion hole 160 and the end of the lateral inner wall 177 positioned on the outer peripheral side of the base portion 175 (in this embodiment, the outer peripheral side end of the protrusion 165) is They are displaced in directions away from each other (in the direction of arrow X2 in FIG. 6) (that is, the locking step portions 172 and 172 are separated from each other). Further, the end of the lateral inner wall 177 (inner wall) constituting the periphery of the insertion hole 160 and the end of the lateral inner wall 177 positioned on the inner peripheral side of the base portion 175 (that is, the inner peripheral side end of the lateral inner wall 177) ) Are displaced in a direction approaching each other (direction of arrow X3 in FIG. 6). When the inner peripheral side end of the lateral inner wall 177 is displaced in a direction approaching each other, the locking projections 170, 170 formed in the part are also moved toward each other (direction toward the central axis Z of the insertion hole 160). Each of the locking projections 170, 170 is inserted into the locking recesses 224, 224 formed in the trunk 205 and pressed so as to sandwich the trunk 205 to be locked to the trunk 205. On the other hand, it is preferable that the second locking protrusions 235 and 235 maintain the locked state with the locking stepped portions 172 and 172 even if the base portion 175 is deformed as described above. The first locking protrusion 230 of the trunk 205 is in contact with and locked to the lateral inner wall 177 that forms the periphery of the insertion hole 160.
Further, the body portion 212 of the root portion 210 is sandwiched between the base portions 175, and the misalignment prevention protrusions 214 formed on the root portion 210 abut against the inner wall of the root support portion 168 (preferably one of the base portions 175). The position of the engaging member 200 is prevented from shifting (see FIG. 7).
As described above, when the connection glass run channel 150 is attached to the inclined frame 58, it is possible to prevent the engaging member 200 from being displaced in the direction of coming out of the connection glass run channel 150 or coming off. .

  As shown in FIG. 7, the end of the vertical inner wall 179 that is the inner wall that forms the periphery of the insertion hole 160, and the end located on the outer peripheral side of the base portion 175 (in this embodiment, the protrusion 165 At the end portion, it is preferable that locking stepped portions 172A and 172A, which are the second locking portions, are formed at portions facing each other in the longitudinal direction of the base portion 175. According to such a configuration, when the vehicle inner side wall portion 180 and the vehicle outer side wall portion 190 of the connecting glass run channel 150 are displaced in the width direction, the vertical inner walls 179 positioned on the outer peripheral side of the base portion 175 approach each other (see FIG. 7) (in the direction of arrow Y). As a result, the engaging stepped portions 172A and 172A formed at the outer peripheral side end of the vertical inner wall 179 are also displaced in a direction approaching each other (a direction toward the central axis Z of the insertion hole 160). For this reason, the second locking protrusions 235A and 235A can be reliably locked by the locking steps 172A and 172A, and the above-described problem can be prevented in the longitudinal direction of the base 175. An anti-collision ridge 169 that prevents the window plate 66 from colliding with the engaging member 200 is formed on the inner peripheral surface of the base portion 175 and in the vicinity of the root support portion 168.

Next, the connection glass run channel 150 attached with the engagement member 200 according to the present embodiment is mounted in the groove 32 formed at a predetermined position of the window frame 22 (inclined frame 58) while referring to the drawings. This will be described in detail.
FIG. 8 is a cross-sectional view illustrating a state in which the connection glass run channel 150 to which the engagement member 200 according to the embodiment is attached is attached to the inclined frame 58. FIG. 9 is a cross-sectional view taken along line IX-IX in FIG.
As shown in FIGS. 8 and 9, an engagement hole 40 as an engagement portion is formed in a portion corresponding to the protrusion 167 of the stopper 25 which is a window frame constituent member. The engagement hole 40 has a size that allows the protrusion 167 to be inserted (penetrated).
As shown in FIG. 8, in a state where the protruding portion 167 is inserted into the engagement hole 40 and the connection glass run channel 150 to which the engagement member 200 is attached is attached to the inclined frame 58 (window frame 22), the locking protrusion The portion 170 fits into the locking recess 224 of the trunk 205 and is locked to the trunk 205, and the second locking protrusion 235 of the engaging member 200 is locked to the locking step 172. In addition, the deformation of the base portion 175 is suppressed by disposing the base portion 210 made of a material harder than the base portion 175 to the base support portion 168 having the concave shape of the base portion 175 as in the present embodiment. be able to. For this reason, it is possible to prevent the displacement of the engaging member 200 from the connection glass run channel 150 and the falling off. In the engaging member 200 according to the present embodiment, the second locking protrusion 235 is formed on the trunk 205, but even if the trunk does not have such a protrusion 235, the locking protrusion Since 170 is fitted and held in the locking recess 224, the stability of the engaging member 200 with respect to the connection glass run channel is ensured.

In addition, as shown in FIG. 9, the connecting glass run channel 150 mounted on the inclined frame 58 extends in the longitudinal direction along the inclined frame 58 (particularly the direction in which the horizontal frame 56 or the center pillar side vertical side frame 61 is present). When a force to move (displace) is applied, the outer wall surface of the projecting portion 167, that is, the outer wall surface of the projecting portion 165 in this embodiment, abuts on the peripheral edge of the engagement hole 40. Since the projecting portion 167 has mechanical strength reinforced by the trunk portion 205 of the engaging member 200 fixed in the insertion hole 160, the movement of the connecting glass run channel 150 is restricted by the contact, and the position in the longitudinal direction is determined. Misalignment can be prevented. Here, although the intersecting angle θ between the rising direction of the protruding portion 165 and the stopper 25 of the present embodiment is perpendicular, the rising direction of the protruding portion 165 is determined so that the intersecting angle θ becomes an acute angle (that is, insertion) It is preferable to determine the direction in which the holes 160 are formed. By making the crossing angle θ an acute angle, it is possible to prevent the connecting glass run channel 150 from dropping from the stopper 25 during use.
In FIG. 9, reference numeral 112 denotes a base portion of the first glass run channel, reference numeral 114 denotes an inner side wall portion of the first glass run channel, and reference numeral 122 denotes a base portion of the second glass run channel. Reference numeral 124 denotes a vehicle inner side wall portion of the second glass run channel.

As described above, when the connection glass run channel 150 to which the engagement member 200 according to the present embodiment is attached is fitted into the groove 32 formed in the window frame 22 (inclined frame 58), the engaging projections 170, 170 are engaged. In order to pinch the trunk portion 205 of the combined member 200, the engaging member 200 is retracted to the inner peripheral side (displaced in the direction of coming out from the direction inserted into the insertion hole 160) or dropped from the connecting glass run channel 150. It can be prevented in advance.
Further, in the connection glass run channel 150 according to the present embodiment having such a configuration in which the engaging member 200 is attached, the separate member formed in advance as the hard engaging member 200 is used. Unlike the case in which the protrusions are integrally formed by injection molding in a mold having an insert member inserted therein as in the example, the machine can be easily operated by mounting the engaging member 200 at a predetermined position of the connecting glass run channel 150. The projecting portion 167 having excellent mechanical strength can be formed. And since the engagement member 200 should just be retrofitted to the base part 175 which comprises the main body of the connection glass run channel 150, the restrictions of the material and shape which comprise this engagement member 200 can also be reduced.

The shape of the protrusion is not limited to that of the above embodiment. For example, a modification example described below is given. FIG. 10 is a cross-sectional view schematically showing the structure and mounting state of the connection glass run channel 350 according to the second embodiment.
As shown in FIG. 10, an insertion hole 360 to which the engaging member 200 can be attached is formed in the base portion 375 of the connection glass run channel 350. The peripheral edge portion of the insertion hole 360 of the base portion 375 has a protrusion 365 that protrudes from the outer peripheral surface of the base portion 375 toward the outer peripheral direction. In the present embodiment, the insertion hole 360 is a non-through hole that opens toward the inner peripheral side of the base portion 375 and closes the outer peripheral side of the protruding portion 365. The projecting portion 365 is formed so as to constitute a projecting portion 367 that can be engaged with the engaging hole 40 of the window frame 22 (the inclined frame 58) together with the trunk portion 205 of the engaging member 200 attached to the insertion hole 360. .
With this configuration, in addition to the same effects as in the case of the first embodiment, the insertion hole 360 does not penetrate, so that the protrusion 365 is difficult to deform and the deformation of the insertion hole 360 can be suppressed. Furthermore, since the insertion hole 360 does not penetrate the protrusion 365, it is possible to prevent water droplets from entering the groove of the connection glass run channel 350 from the periphery of the engagement member 200.

As mentioned above, although the specific example of this invention was demonstrated in detail, referring drawings, these are only illustrations and do not limit a claim. The technology described in the claims includes various modifications and changes of the specific examples illustrated above.
For example, in each of the above embodiments, the engaging member 200 is attached to the connection glass run channel 150 formed between the first glass run channel 110 and the second glass run channel 120. It may be attached to the run channel. In addition, it is not always necessary to provide protrusions or engagement members on all the connection glass run channels, and a reinforcing member can be attached by forming a required number of protrusions at a required portion.
Further, the above embodiment is mounted on a sash door frame (window frame) made of a sash (that is, a long material obtained by bending a band steel plate into a predetermined cross-sectional shape by a cold roll forming method, for example, the shape shown in FIG. 3). However, the application is not limited to such a sash door. For example, the portion corresponding to the window opening of the door panel is punched out by pressing, and the remaining portion is integrated with the door panel. The present invention can also be suitably applied to a press door frame (window frame) that forms a door frame.

1 Automobile (vehicle)
6 Front door 6A Rear door 8, 8A Door body 10 Door body upper edge 12, 12A Door outer panel 14 Door inner panel 16 Front corner 18 Rear corner 19 Sash lower 22, 22A Door frame (window frame)
23 Vehicle exterior door frame 24 Vehicle interior door frame 25 Stopper 28 Vehicle exterior side wall 29 Vehicle interior side wall 30 Bottom wall 32 Groove 34 Projection portion 40 Engagement hole 42 Bottom wall portion 45 Connection fitting 46 Screw 50, 50A Upper side frame 56 Horizontal frame 58 , 58A Inclined frame 60 Center pillar 61, 61A Center pillar side vertical frame 62 Front pillar 63 Front pillar side vertical frame 64 Rear pillar 65 Rear pillar side vertical frame 66 Window plate 70 Window opening 75 Base 79 Low friction layer 80 Inner side wall 82 Car inner side locking projection 84 Car inner side folding lip 85 Car inner side sealing lip 90 Car outer side side wall portion 92 Car outer side locking lip 94 Car outer side folding lip 95 Car outer side sealing lip 100, 100A Glass run product 105 Glass Run channel assembly 110 First glass run channel 112 First glass run channel base Bottom 114 First glass run channel interior side wall portion 120 Second glass run channel 122 Second glass run channel base portion 124 Second glass run channel interior side wall portion 130 Third glass run channel 140 Fourth glass run channel 150, 150A, 150B Connection glass run channel 160 Insertion hole (through hole)
165 Protruding portion 167 Protruding portion 168 Root support portion 169 Collision preventing protrusion 170 Locking convex portion (first locking portion)
172, 172A Locking step part (second locking part)
175 Base part 177 Horizontal inner wall 179 Vertical inner wall 180 Car inner side wall part 190 Car outer side wall part 200 Engaging member 205 Trunk part 207 Columnar body part 210 Root part 212 Flat part main part 214 of root part Misalignment prevention protrusion 220 Locking head 224 Locking recess 230 First locking protrusion 235, 235A Second locking protrusion 350 Connecting glass run channel 360 Insertion hole 365 Projection 367 Projection 375 Base

Claims (11)

A glass run channel assembly mounted on a vehicle,
A first long glass run channel of a predetermined length extruded from an elastic polymer material into a predetermined cross-sectional shape;
A second long glass run channel of a predetermined length extruded from an elastic polymer material into a predetermined cross-sectional shape;
A glass run channel injection-molded from an elastic polymer material comprising a connecting glass run channel that integrally connects the longitudinal ends of the first and second glass run channels;
The first and second glass run channels and the connection glass run channel are guided by the window frame when each glass run channel is installed in a groove formed at a predetermined position of the window frame of the vehicle. A base portion disposed at a position facing the end face of the lifting window plate that moves up and down;
A side wall portion integrally projecting from the base portion toward the inner peripheral side at a predetermined crossing angle with the base portion from at least a vehicle inner end in the width direction of the base portion;
A seal lip that protrudes toward the base portion in a folded shape from the protruding front end side of the side wall portion;
In the base of the connection glass run channel,
The connection glass run channel is preliminarily molded from a material that is harder and more rigid than the elastic polymer material, and includes a root portion disposed on the base portion and a trunk portion protruding in a direction away from the root portion. When the glass run channel is attached to the window frame, an insertion hole is formed to which an engaging member having a trunk portion that can be engaged with an engaging portion provided in a groove of the window frame can be attached. And
A first locking portion that is displaced toward the central axis of the insertion hole when the side wall portion of the connection glass run channel is displaced in the width direction is formed on the inner wall that forms the periphery of the insertion hole. And
When the base portion of the connection glass run channel is mounted in a groove formed at a predetermined position of the window frame, the first locking portion is attached to the trunk portion. The glass run channel assembly is configured to be pressed and locked to the trunk portion.   The said 1st latching | locking part is an edge part of the inner wall which comprises the circumference | surroundings of the said insertion hole, Comprising: The edge part located in the inner peripheral side of the said base part is characterized by the above-mentioned. The glass run channel assembly as described.   When the side wall portion of the connection glass run channel is displaced in the width direction at the end portion of the inner wall constituting the periphery of the insertion hole and positioned on the outer peripheral side of the base portion, the engagement member 3. The glass run channel assembly according to claim 1, wherein a second locking portion that is locked to a distal end side of the trunk portion is formed. 4.   4. The glass run channel assembly according to claim 1, wherein the first locking portion is formed in a convex shape protruding toward a central axis of the insertion hole. 5.   5. The glass run channel assembly according to claim 4, wherein a plurality of the first locking portions are formed, and are formed at portions facing each other in the width direction of the inner wall constituting the periphery of the insertion hole. The peripheral portion of the insertion hole of the base portion has a protrusion protruding from the outer peripheral surface of the base portion toward the outer peripheral direction,
6. The projecting portion is formed so as to constitute a protruding portion engaged with the engaging portion together with a trunk portion of the engaging member inserted into the insertion hole. The glass run channel assembly according to any one of the above.   The glass run channel assembly according to claim 6, wherein the insertion hole is a through-hole penetrating the base portion and the protrusion portion in an inner and outer peripheral direction.   The glass run channel assembly according to claim 6, wherein the insertion hole is a non-through hole that opens toward an inner peripheral side of the base portion and is closed on an outer peripheral side of the projection portion. On the inner peripheral side surface of the base portion of the connection glass run channel, a root support portion is formed that supports the root portion of the engagement member when the trunk portion of the engagement member is inserted and attached to the insertion hole. And
The glass run according to any one of claims 1 to 8, wherein the root support portion is formed in a concave shape that recedes in the outer peripheral direction from the inner peripheral surface of the base portion of the connection glass run channel. Channel assembly.   A glass run product comprising the glass run channel assembly according to claim 1 and the engagement member. A locking recess for locking the first locking portion is formed in the trunk portion of the engaging member,
The glass run product according to claim 10, wherein the first locking portion is locked to the locking recess in a state where the side wall portion of the connection glass run channel is displaced in the width direction.

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