JP2003328640A - Carrier plate for window regulator - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a carrier plate for facilitating mounting work of a glass and stabilizing the state of mounting for a long time, while enabling use of an ordinary glass. <P>SOLUTION: The carrier plate 10 comprises a main body 11, a pair of right and left clamps 13 opposing the main body, and a screw 12 for screwing a leg part 45 of each of the clamps to the main body 11. The main body 11 is provided with an engaging projection 18 engaging with an opening for mounting the glass, and each of the clamps 13 is provided with a glass receiver 53 intervened by a spring hinge 52 to engage with the lower end of the glass. A pair of right and left plate springs 54 extend from the lower part of the glass receiver 53 to be inclined to the lower right and the lower left, respectively, and an engaging element 55 for engaging the free end of each of the plate springs 54 is inserted into a slit 27 of the main body 11. The clamps 13 are urged upward by means of the plate springs 54, and are also urged forward to the side of the main body by means of the spring hinge 52. <P>COPYRIGHT: (C)2004,JPO

Description

Detailed Description of the Invention

[0001]

TECHNICAL FIELD The present invention relates to a carrier plate for a window regulator. More specifically, the present invention relates to a carrier plate for a cable type window regulator that raises and lowers a glass of a door window of an automobile.

[0002]

2. Description of the Related Art A cable type window regulator 100 shown in FIG. 7 is used as a device for raising and lowering a window glass of an automobile door. The window regulator 100 includes a guide rail 102 attached to a door panel 101, a carrier plate 103 slidably provided on the guide rail, and a carrier plate 103 for vertically moving the carrier plate 103 via cables 104 and 105. And a cable drive mechanism 106.

The window regulator 100 as described above
In the above, various methods are adopted for attaching the carrier plate 103 and the glass G. For example, in Japanese Patent Laid-Open No. 9-58540, a glass holder 1 made of a synthetic resin is attached to the lower end of the glass G as shown in FIGS. 8a and 8b.
10 is attached, and a method of screwing the carrier plate 103 to the glass G via the glass holder 110 is disclosed. As shown in FIG. 8 a, the glass holder 110 includes an engagement step portion 113 that engages with the lower end of the glass G.
And a cylindrical grommet portion 115 fitted in a mounting hole 114 penetrating the glass G.

A slit is formed at the tip of the grommet portion 115, and when the grommet portion 115 is penetrated through the mounting hole 114, it is bent while being bent inward. After the penetration, the screw 116 is screwed into the grommet portion 115, and the glass G
From falling out. As shown in FIG. 8B, the carrier plate 103 is formed with a horizontally long slot (playing hole) 117.

When the glass G is attached to the carrier plate 103, the glass is lowered from the upper side along the glass run attached to the window frame, and the glass G is locked to the root portion 115a of the grommet portion or the engagement step portion 113. To do.
Next, screw the screw 116 through the long hole 117 into the grommet part 1.
Temporarily tighten the female screw in 15 to hold the glass G loosely. Then, the glass G is raised and brought into contact with the window frame to position the vehicle in the front-rear direction. Then, the screws 116 are strongly tightened to integrate the carrier plate 103, the glass holder 110 and the glass G. At this time, since the tip of the grommet is open, the grommet portion 115 will not come off from the mounting hole 114 of the glass G.

This method has the advantage that the front-back position of the glass G can be set so that the sliding resistance between the glass G and the window frame is minimized. However, first, the glass G is inserted into the window frame, and the screw 116 is screwed into the grommet portion 115 while aligning the glass G with the carrier plate 103, and the work is complicated, and skill is required for adjustment. In order to solve this point, Japanese Unexamined Patent Application Publication No. 2001-180266 discloses a method shown in FIG.
A window regulator including a box-shaped carrier plate 120 as shown in a and a glass G having a protruding shape into which the lower end portion 121 can be inserted into the carrier plate 120 is proposed. The front surface of the carrier plate 120 is divided into a plurality of parallel slits 122 to form flexible tongue pieces 123 and 124. Of these tongue pieces, a mounting hole 125 formed at the lower end of the glass G is formed. The inner surface of the corresponding tongue piece 123 is provided with a protrusion 126 that fits into the mounting hole 125 as shown in FIG. 9b. The inner surface of the other tongue piece 124 is provided with a protrusion 127 that elastically contacts the glass surface, as shown in FIG. 9c.

This window regulator has an advantage that the glass G can be inserted and attached in one motion. However, since the engaging force or the fixing force depends on the elasticity of the tongue pieces 123 and 124 without using screws, if the elasticity decreases due to long-term use or an unexpectedly large external force is applied to the glass G, the glass G There is a possibility that backlash may occur in the attachment to the carrier plate 120. Further, it is necessary to form a protrusion on the lower end 121 of the glass G.

The present invention makes it easy to attach glass,
A technical problem is to provide a carrier plate that can maintain a stable attached state for a long period of time and that can be attached to glass similar to the conventional one.

[0009]

A carrier plate according to the present invention comprises a body, a clamp attached to the body,
An engaging projection having a screw for fastening the lower part of the clamp to the main body, and engaging a mounting hole formed in glass on the surface of either one of the main body and the clamp facing the mating member. Is provided, and the other member is provided with a glass receiver for locking the lower end of the window glass (Claim 1). In such a carrier plate, it is preferable that the clamp is provided with a spring for urging the upper part of the clamp closer to the main body (claim 2). Further, it is preferable that the other member provided with the glass receiver is provided with a vertical play with respect to the one member and is elastically biased upward (claim 3).

Further, in the carrier plate of the present invention, it is preferable that the engaging projection is provided on the main body and the clamp is provided with a glass receiver (claim 4). In that case, it is more preferable that the glass receiver is connected to the other part of the clamp via a spring hinge, and the glass receiver is connected to the main body of the carrier plate. Further, it is more preferable that one end of a leaf spring extending obliquely downward is connected to the clamp, and the main body is provided with a slit that detachably receives the other end of the leaf spring (claim 6). Further, it is more preferable that the glass receiver is connected to another portion of the clamp via a spring hinge, and one end of the leaf spring is connected to a lower surface of the glass receiver (claim 7).

[0011]

In the carrier plate of the present invention, since the clamp is attached to the main body with the screw, the pressing state of the glass by the clamp can be adjusted by the tightening state of the screw. That is, the clamping force is weak when the screw is loosened. Tighten the screws to secure the glass in place. Therefore, the glass can be easily inserted into the gap between the clamp and the main body with the screw loosened. By temporarily holding the glass in the glass receiver in this state, the operator does not have to support the weight of the glass, or the weight is reduced. Since the screw can be attached to the clamp and the main body in advance, the troublesome work of inserting or screwing the screw into the attachment hole during the work is unnecessary.

When the engaging projection is inserted into the mounting hole of the glass with play and the carrier plate is moved up and down in the temporarily tightened state where the screws are not tightened, the front and rear ends of the glass come into sliding contact with the glass run channel of the window frame. If there is a gap (play) between the attachment hole of the glass and the engaging projection, the position of the glass is automatically adjusted within that range. Then, after the adjustment, by tightening the screw, the glass can be firmly sandwiched between the clamp and the main body. That is, the glass is fixed to the carrier plate not only by fitting the engagement protrusion and the glass mounting hole, but also by frictional force based on the clamping of the glass by the clamp and the main body.

In such a carrier plate, when a spring for urging the clamp so that its upper portion approaches the main body side is provided (claim 2), the clamp is urged by the spring even when the screw is loosened. Glass can be sandwiched between the body and the body. Therefore, it is easy to handle. If the carrier plate and the upper end of the main body are provided with an inclined surface or the upper surface of the engaging protrusion is provided with an inclined surface, the glass can be inserted while expanding both by simply inserting the glass into the gap between the clamp and the main body. can do. Further, even after the insertion, the glass is sandwiched between the clamp and the main body by the spring, and a stable temporarily fixed state can be obtained. At this time, if the engagement protrusion is tapered, the engagement protrusion is automatically and deeply inserted into the attachment hole of the glass, which facilitates the attachment work.

When the other member having the glass receiver is provided with a vertical play with respect to the one member and is elastically biased upward (claim 3), The lower end of the glass is urged upward by the glass receiver with the engaging projection inserted in the mounting hole. Therefore, even if there is vertical play between the mounting hole of the glass and the engaging projection, the lower end of the mounting hole abuts the upper end of the engaging projection due to the biasing force. ) Disappears and the position stabilizes. Further, while the glass is lowered by a force that overcomes the upward biasing force, the engaging projection is fitted into the mounting hole, so that a moderation feeling can be obtained at the time of fitting. In addition, in general, the tolerance of the inner diameter of the glass mounting hole and the tolerance of the outer diameter of the base of the engaging projection are determined so as not to overlap, so there is some play (play). . However, even if there is little play, it does not hinder the installation work.

Further, in the carrier plate of the present invention, when the engagement projection is provided on the main body and the clamp is provided with the glass receiver (claim 4), the engagement projection is once inserted into the glass mounting hole. With, the cable connected to the carrier plate can hold the weight of the glass firmly. When the glass receiver is connected to the other part of the clamp through the spring hinge and the glass receiver is connected to the main body (claim 5), the angle of the glass receiver is kept constant, so that the spring hinge clamps the clamp. It exerts a spring action that urges the carrier plate body side. Further, when the glass is locked in the glass receiver, the spring hinge elastically supports the glass upward, so that the work of inserting the engaging projection into the mounting hole becomes easy.

Further, in the clamp, one end of a leaf spring extending obliquely downward is connected, and the main body is provided with a slit for detachably receiving the other end of the leaf spring (claim 6). The spring acts as a spring for urging the clamp upward, and further as a spring for urging the clamp toward the main body by the restoring force of the twist. Therefore, the number of parts is small. In addition, the glass receiver is connected to the other part of the clamp via a spring hinge, and one end of the leaf spring is connected to the lower surface of the glass receiver (claim 7). The spring action is increased.

[0017]

BEST MODE FOR CARRYING OUT THE INVENTION Next, an embodiment of a carrier plate of the present invention will be described with reference to the drawings. FIG. 1 is a perspective view during assembly showing an embodiment of a carrier plate of the present invention, FIG. 2 is a front view of the carrier plate after assembly, and FIG. 3 is a rear view of a body different from the body of the carrier plate. 4 is a side view of a main part showing a procedure of assembling a clamp and mounting glass in the carrier plate of FIG. 1, FIG. 5 is a sectional view taken along line VV of FIG. 4, and FIG. 6 is a window regulator including the carrier plate of FIG. FIG.

The carrier plate 10 shown in FIG. 1 comprises a body 11 and a pair of left and right clamps 13 attached to the body by screws 12. The main body 11 is almost the same as a conventionally known carrier plate, and is, for example, one in which a horizontally elongated substantially rectangular metal plate 14 is partially injection-molded with synthetic resin portions of various shapes to be integrated. is there. The plate 14 is obtained by punching a thin steel plate into a predetermined shape with a press, forming a through hole for fixing a resin portion and a cut-and-raised portion, and molding a step portion for reinforcement. At the left and right ends on the front side (front side in FIG. 1) of the plate 14, glass holding portions 15 for sandwiching the glass with the clamp 13 are provided.

The upper end of the glass holding portion 15 has an inner surface side (see FIG. 1).
The taper surface 16 is formed so as to decrease toward the front side of the front surface, and the flat sandwiching surface 17 is provided subsequently to the taper surface 16. An engaging protrusion 18 that engages with a glass mounting hole is provided at the upper center of the sandwiching surface. This engaging projection 1
The upper surface 19 of 8 is also a tapered surface that decreases toward the tip. Further, the left and right side surfaces 20 are also tapered surfaces that become thinner toward the tip. The bottom surface is a cylindrical surface that fits into the glass mounting hole in the root portion 21 (see the first step S1 in FIG. 4).

From the left and right ends of the glass holding portion 15 downward,
A pair of left and right clamp support portions 25 extend and project forward. Each clamp support portion 25 has the sandwiching surface 17
And a supporting step portion 26 that is substantially perpendicular to and upward, and the supporting step portion 2
6 and a pressing piece 28 protruding forward from the sandwiching surface 17 so as to face each other via the slit 27. No synthetic resin is provided between the left and right clamp support portions 25, and the metal plate 14 is exposed in a substantially rectangular range. A vertically elongated hole 29 through which the screw 12 for stopping the clamp 13 is inserted is formed at the center of the exposed area. The elongated hole 29 is made to be vertically elongated because a vertical play is provided for fixing the clamp 13 and the main body 11 to each other.
This is to allow the screw 12 to be slanted as in the second step S2 of FIG.

Except for the glass holder 15, the structure of the main body 11 is almost the same as that of the conventional carrier plate. That is, slides 32 each having a groove 32a slidably fitted to the protrusion 31 of the guide rail 30 shown by an imaginary line are provided at the upper end and the lower end of the plate 14 on the back surface side. As shown in FIG. 3, each of the slides 32 includes an L-shaped guide piece 33 that wraps around one side edge of the guide rail 30 and is in sliding contact with the side edge and the back surface.
On the left side of those slides 32, the left and right glass holders 1
A known locking protrusion 34 for locking the end portion (nipple) of the cable is provided substantially at the center of the cable 5. It should be noted that FIG. 3 is a rear view of the main body 11 having a different hand, for easy correspondence with FIG. On the left side of the locking projection 34, a rubber damper 35 that is in contact with a stopper provided on the guide rail at the stroke end of ascending and descending is attached by a damper attaching portion 36. An L-shaped guide piece 37 that is in sliding contact with the other side edge of the guide rail 30 is provided on the left side of the damper mounting portion 36.

Returning to FIG. 1, in this embodiment, the clamp 13 is composed of a metal support plate 40 and a synthetic resin sandwiching piece 41 mounted on the top of the support plate 40. The upper portion of the support plate 40 is a rectangular mounting portion 42 for mounting the sandwiching piece 41. A rectangular locking hole 43 is formed in the center of the mounting portion 42. The lower portion of the support plate 40 is a leg portion 45 that is once bent inward and then bent downward. A screw insertion hole is formed at the center of the downwardly extending portion, and a nut 46 is fixed to the front side by welding. ing. The mounting portion 42 has an M projecting to the front side for increasing the strength.
A letter-shaped bead 47 is formed.

The sandwiching piece 41 has an inclined portion 50 at the upper end,
A flat pinch portion 51 following it, a spring hinge 52 continuous to the lower side thereof, a glass receiver 53 extending from the front end of the spring hinge to the front side, and a pair of left and right leaf springs 54 extending obliquely downward to the left and right from the lower surface of the glass receiver. And a plate-shaped locking piece 55 extending laterally from the free end of each leaf spring 54 (see FIG. 4). A fitting groove 56 that receives the upper end of the support plate 40 is formed on the lower surface of the inclined portion 50 on the back surface side. Further, a locking tongue piece 57 extends downward from the vicinity of the center on the back side (front side in FIG. 1) of the inclined portion 51. On the front surface of the lower end of the locking tongue 56, a claw 58 that engages with the inner edge of the locking hole 43 and serves as a retainer is projected, and the lower end of the claw portion abuts on the upper end of the support plate 40 to engage. It is a tapered surface to allow the tongue piece to escape. Such a sandwiching piece 41 can be integrally formed by injection molding of synthetic resin or the like.

The back side of the sandwiching portion 51 is flat so as to be in sliding contact with the front surface of the support member. A circular opening 59 is formed at the center of the sandwiching portion 51 to avoid interference with the engaging projection 18 of the main body 11. Further, guide members 60 having an L-shaped cross section are provided at the left and right ends on the back side of the sandwiching portion 51 so as to slidably receive the left and right edges of the mounting portion 42 of the support plate 40. As shown in FIG. 4, the spring hinge 52 has an arcuate cross section. The glass receiver 53 that is continuous with the spring hinge 52 is inclined obliquely upward in a natural state. Therefore, the locking piece 55 provided on the lower portion thereof via the leaf spring 54 is also directed obliquely upward. The dimensions of the support step 26 of the main body 11 and the slit 27 of the pressing piece 28 are made somewhat larger than the thickness of the locking piece 55, so that when the locking piece 55 is inserted into the slit 27, the vertical direction and the tilt direction. There will be some play in the area. However, no play is required.

Support plate 40 constructed as described above
The sandwiching piece 41 is assembled as follows. That is, first, the upper end of the support plate 40 is inserted from below the sandwiching piece 41 between the left and right guide pieces 60, and the mounting portion 42 is slid upward along the back surface of the sandwiching portion 51. The upper end of the mounting portion 42 once contacts the lower end of the locking tongue 57,
Since it abuts against the tapered surface, the locking tongue 57 escapes to the front side in FIG. 1 and allows the mounting portion 42 to rise. When it is slid further upward, the upper end of the mounting portion 42 is housed in the fitting groove 56. Then, the claw 58 of the locking tongue 57 enters the locking hole 43 and engages with the inner edge of the locking hole 43 to exert a retaining action. The state is shown in the assembled clamp 13 on the right side of FIG.

Next, the procedure for attaching the clamp 13 obtained as described above to the main body 11 will be described with reference to FIG. First, as shown in the first step S1 at the left end of FIG. 4, the clamp 13 is arranged so as to face the clamp support portion 27 of the main body 11, and the locking piece 55 of the clamp 13 is slit 2.
Insert in 7. Further, in this state, the screw 12 is inserted from the rear surface side of the main body 11 into the slot 29, and then screwed into the nut 46 to some extent (second step S2). Since the front end of the locking piece 55 is inclined upward in the natural state, in this state, the clamp 13 is inclined forward and the upper end is brought into contact with the front surface of the main body 11. At that time, the spring hinge 52 is expanded to some extent, and the elastic return force causes the upper end of the clamp 13 to elastically contact the main body 11. Further, since the leaf spring 54 is in a twisted state, the clamp 1 is also driven by the elastic return torque.
The elastic contact action of 3 is played. The clamp 13 is urged upward by the spring hinge 52 and the leaf spring 54.
Therefore, the opening 5 formed in the sandwiching portion 51 of the clamp 13
The engagement protrusion 18 is locked to the shaft 9. Clamp 1 by it
3 is stable and maintains that state.

Then, the lower end of the glass G is inserted into the gap between the tapered surface 16 of the glass holding portion 15 of the main body 11 and the inclined portion 50 of the clamp 13. At that time, from the plate 14 of the main body 11 to the leg portion 45 of the support plate 40 of the clamp 13.
Since there is a gap between the clamp 13 and the front surface of the clamp, the clamp 13 can rotate in the direction of arrow Q. When the lower end of the glass G hits the engagement protrusion 18 of the glass holding portion 15, the glass G is guided by the tapered upper surface 19 and is displaced to the front side, and the clamp 1
3 further rotates in the direction of arrow Q to allow insertion of glass G (third step S3). Finally, the lower end of the glass G rides on the glass receiver 53 (see FIG. 5), and the engaging protrusions 18 further enter into the mounting holes 61 formed in the glass G (see the third step S3). However, in this state, the positions of the engaging protrusion 18 and the mounting hole 61 are normally displaced, so
Only a part of the engaging protrusion 18 is inserted into the mounting hole 61, and the glass G and the carrier plate 10 are temporarily fixed.

Then, the carrier plate 10 is vertically moved along the guide rail in the temporarily fixed state. in this case,
Since the glass G is sandwiched between the clamp 13 and the main body 11 and the engaging projection 18 is engaged with the mounting hole 61,
The glass G also moves up and down following the up and down movement of the carrier plate 10. Therefore, it is not necessary to support the glass G by hand. Then, the front and rear edges of the glass G are brought into sliding contact with the glass run channel or the like, and the glass G moves to a position where it is most settled, and the pressing force of the clamp 13 fits into the mounting hole 61 up to the base 21 of the engaging protrusion 18. Put in. In this state, the final tightening work is performed to firmly tighten the screw 12. Thereby, the glass G is firmly fixed to the carrier plate 10 at an appropriate position.

In the above mounting step, when the glass mounting hole 61 is in a fitted state in which there is almost no gap with the periphery of the base portion 21 of the engaging projection 18, the carrier plate 10 and the glass G are mutually fitted by the fitting. It is integrated so as not to shift. On the other hand, when there is a play between the base portion 21 of the engagement protrusion 18 and the mounting hole 61, an appropriate position is determined by the above position adjustment work. Especially when the mounting hole for the glass G is a long hole that is long in the front-rear direction of the vehicle, the glass G
Moves back and forth to settle in the proper position. Then, the glass G is integrated with the carrier plate 10 by the frictional force based on the tightening force of the clamp 13 by screwing.
Whether the engagement protrusion 18 and the mounting hole 61 are fitted with or without play, the screw 12 simply connects the main body 11 and the clamp 13, and the glass G
It is not necessary to insert it into the mounting hole 61 of. Further, even when the screw 12 is loose, the clamp 13 is acted by the spring so that the main body 1
Hold glass G between 1 and 1.

The carrier plate 10 described above is used, for example, in the window regulator 70 shown in FIG. The window regulator 70 includes a guide rail 30 attached to a door panel, a carrier plate 10 slidably provided on the guide rail, and locking projections of the carrier plate 10 at one end thereof (see reference numeral 34 in FIG. 3). And a cable drive mechanism 75 for circulating and driving the ascending cable 73 and the descending cable 74, which are locked to, and extend upward and downward. Guides 76, 76 for changing the directions of the cables 73, 74 are provided at the upper and lower ends of the guide rail 30, and the respective guides and the cable drive mechanism 75 are outer members for slidably guiding the cables (inner cables). They are connected by casings 77, 77. The cable drive mechanism 75 includes a drum 78 for winding both cables 73 and 74, and a motor M for rotationally driving the drum.
And a speed reducer 79.

The carrier plate 10 is fixed to the lower end of the glass G by the above-mentioned procedure, and when the drum of the cable drive mechanism 75 rotates in one direction, for example, the ascending cable 73 is wound and the descending cable 74 is sent out. Thereby, the loop of the cable circulates in the direction of arrow P1, the carrier plate 73 rises along the guide rail 71, and the glass G
Rises. When the drum rotates in the opposite direction, the loop of the cable circulates in the direction of arrow P2 and the carrier plate 73
Lowers to lower the glass G.

When the glass G is attached to the carrier plate 10 of such a motor-driven window regulator 70, the motor M is driven in the above-mentioned temporary fixing state and the carrier plate 10 is raised or lowered to facilitate the operation. The positioning operation of the glass G can be performed.

In the carrier plate 10 shown in FIG. 1 and the like, the engaging projection 18 is provided on the main body 11 side and the glass receiver 53 is provided on the clamp 13 side, but conversely, the glass receiver is provided on the main body 11 side via a spring hinge. It is also possible to provide an engaging protrusion on the clamp 13 side. Further, in the above-described embodiment, the clamp 13 is separately formed on the support plate 40 and the sandwiching piece 41, and is configured to be detachably mounted. However, similar to the main body 11 side, a synthetic resin portion is provided on the metal plate. It can also be insert-molded integrally. Further, the whole can be formed of synthetic resin.

Although the glass receiver 53 is connected by a spring hinge 52, it is connected by an ordinary pin joint or a resin hinge, and separately by a torsion coil spring or a compression coil spring, the tip of the clamp 13 is tilted toward the main body. It can also be configured to be biased. Alternatively, the sandwiching piece 41 and the glass receiver 53 may be connected so as to move vertically relative to each other, and the glass receiver may be biased upward by a separate spring.

[Brief description of drawings]

FIG. 1 is a perspective view during assembly showing an embodiment of a carrier plate of the present invention.

FIG. 2 is a front view of the carrier plate after assembly.

FIG. 3 is a rear view of a main body that is different from the main body of the carrier plate.

FIG. 4 is a side view of the essential parts showing the procedure for assembling the clamp and attaching the glass in the carrier plate of FIG.

5 is a sectional view taken along line VV of FIG.

FIG. 6 is a schematic rear view of a window regulator including the carrier plate of FIG.

FIG. 7 is a front view showing a conventional window regulator together with a door.

FIG. 8a is a sectional view of an essential part showing an example of a conventional carrier plate, and FIG. 8b is a front view of the essential part of the carrier plate.

9a is a perspective view showing another example of a conventional carrier plate, and FIGS. 9b and 9c are views of A of FIG. 9b, respectively.
It is a sectional view taken on the line A-A and a sectional view taken on the line BB.

[Explanation of symbols]

10 Carrier plate 11 body 12 screws 13 clamps 14 plates 15 Glass holder 16 Tapered surface 17 clamping surface 18 Engagement protrusion 19 upper surface 20 sides 21 Root 22 steps 23 Prism 25 Clamp support 26 Support step 27 slits 28 Holding piece 29 slot 30 guide rails 31 ridges 32 slides 32a groove 33 Guide piece 34 Locking protrusion 35 damper 36 Damper mounting part 37 Guide piece 40 Support plate 41 scissors 42 Mounting part 43 Locking hole 45 legs 46 nuts 47 beads 50 slope 51 Sandwich 52 spring hinge 53 glass receiver 54 leaf spring 55 Locking piece 56 Fitting groove 57 locking tongue 58 nails 59 opening 60 guide pieces 61 Mounting hole

Claims (7)

[Claims] 1. A main body, a clamp attached to the main body, and a screw for screwing a lower portion of the clamp to the main body, and faces a mating member of one of the main body and the clamp. A carrier plate in which an engaging protrusion that engages with a mounting hole formed in the glass is provided on the surface, and a glass receiver that engages the lower end of the window glass is provided in the other member. 2. The carrier plate according to claim 1, further comprising a spring for urging the clamp so that an upper portion of the clamp approaches the main body. 3. The other member provided with the glass receiver,
The carrier plate according to claim 1, wherein the carrier plate is provided with a vertical play with respect to the one member and is elastically biased upward. 4. The carrier plate according to claim 1, wherein the engaging protrusion is provided on the main body, and the clamp is provided with a glass receiver. 5. The carrier plate according to claim 4, wherein the glass receiver is connected to another portion of the clamp via a spring hinge, and the glass receiver is connected to a main body of the carrier plate. 6. The carrier plate according to claim 4, wherein one end of a leaf spring extending obliquely downward is connected to the clamp, and the main body is provided with a slit for detachably receiving the other end of the leaf spring. . 7. The carrier plate according to claim 6, wherein the glass receiver is connected to another portion of the clamp via a spring hinge, and one end of the leaf spring is connected to a lower surface of the glass receiver.