JP2008141936A - Clamp - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a non-conductive clamp capable of tightly fitting a cable to a metal chassis. <P>SOLUTION: A cable 23 is placed on an upper surface 5a of a placement part 5, which is bent at a hinge part 4 so that the placement part 5 is almost parallel to a presser part 13, and a movable side projection 18 is engaged with a fixed side projection 10. Thus, a tip part 16a of a spring member 16 contacts the cable 23 and elastically deforms. The portion of the cable 23 which is out of the placement part 5 is pressurized with the tip part 16a under its elastic repulsive force, to pinch the cable 23 with a metal chassis 21. The cable 23, at the portion pressurized with the tip part 16a of the spring member 16, tightly contacts the metal chassis 21. Thus, noise elimination effect is improved thanks to capacitive coupling between the metal chassis 21 and the core wire of the cable 23. <P>COPYRIGHT: (C)2008,JPO&INPIT

Description

  The present invention belongs to the technical field of clamps for holding cables.

  Clamps for holding cables are used not only to determine the position of wiring, but also to reduce the noise of cables to the metal chassis using capacitive coupling (coupling) between the cables and the metal chassis. Sometimes.

  Since the noise countermeasure by this coupling becomes better as the distance between the cables and the metal chassis is shorter, a resin molded product imparted with conductivity by a metal press product, metal foil, plating, or the like may be used. However, these conductive clamps may cause a short circuit if dropped from the chassis, etc., so fixing methods such as adhesive tape fixing cannot be used, and are limited to mechanical fixing methods such as screwing. It was. Since such a mechanical fixing method requires a hole for a screw or the like, the installation location of the clamp must be determined in advance, and the use (installation) location is limited.

On the other hand, in the case of a non-conductive clamp, even if it is removed, it does not cause a short circuit, so a fixing method such as adhesive tape stopper can be adopted, and the flexibility of use (installation) location is high, and in the process after wiring There is an excellent point for noise countermeasures, such as being easy to add.
USP 4,221,352

  However, in the case of a non-conductive clamp, the cables are lifted from the metal chassis by the thickness of the base portion. Therefore, there has been a demand for a clamp that can bring cables close to (preferably in close contact with) the metal chassis.

The clamp according to claim 1 is:
Made of synthetic resin and at least the surface is not conductive,
A base portion that is provided with a mounting portion and is fixed to a member to be attached at the time of use, a movable portion that includes a pressing portion, a hinge portion that connects the base portion and the movable portion, and the pressing portion as the mounting portion described above. A restraining means for restraining the movable part with a posture to face each other, and
In a clamp that can hold cables between the pressing portion and the placement portion when the movable portion is restrained by the restraining means,
A pair of spring pieces extending along the longitudinal direction of the held cables from both side portions of the pressing portion;
In a state where the movable part is restrained by the restraining means without holding the cables between the pressing part and the placing part, the tip part contacts the member to which the base part is fixed,
In a state where the cables are held between the pressing portion and the placing portion and the movable portion is restrained by the restraining means, a portion of the held cables that is detached from the placing portion. A spring piece is provided to hold the cables with a member to which the base is fixed by pressing at the tip.

  The clamp is provided with a pair of spring pieces extending along the longitudinal direction of the cables held from both side portions of the pressing portion. In the state where the movable portion is restrained by restraining means without holding the cables between the pressing portion and the placing portion, the spring piece comes into contact with the member to which the base portion is fixed. At this time, the spring piece may be elastically deformed.

  On the other hand, in the state where the cables are held between the holding part and the placing part and the movable part is restrained by the restraining means, the spring piece is located at the tip part of the held part of the held cables. The cables are clamped by the member that is pressed and fixed to the base. That is, in the portion pressed by the tip of the spring piece, the cables are in close contact with a member (for example, a metal chassis) to which the base is fixed. Thereby, the noise removal effect by capacitive coupling (coupling) becomes favorable.

  In addition, this clamp is made of synthetic resin and at least the surface is not conductive, so even if it is removed from the mounting location, it will not cause a short circuit. The degree of freedom of the place is high, and it is easy to add in the process after wiring.

  In the clamp according to claim 2, the cross-sectional shape of the spring piece along the longitudinal direction of the held cables is a concave arc shape on the mounting portion side, so that the tip end abuts on the cables. Sometimes, the pressing force due to the elastic deformation generated in the spring piece is efficiently concentrated on the tip. Therefore, the effect | action which closes cables with the member (for example, metal chassis) to which the base is fixed becomes more reliable.

  The arc shape referred to here is not limited to an arc. For example, an arc, an elliptical arc, a parabolic arc, or the like, or a combination of an arc, an elliptical arc, a parabolic arc, or the like may be used. Moreover, if it is arcuate as a whole, a part may be linear.

  The clamp according to claim 3 is the clamp according to claim 1 or 2, wherein the movable portion has a pair of holding portions which are opposed to each other with the pressing portion interposed therebetween, and one end connected to the hinge portion, and both ends of the clamp. A pair of twistable beams connected to each of the pair of holding portions and arranged in parallel to each other are provided, and the pair of spring pieces extend from each of the twistable beams.

  When the cables are held between the holding part and the mounting part, the movable part is restrained by the restraining means, and when the cables are pressed and clamped at the tip of the spring piece, the reaction force from the cables is spring-loaded. In the clamp according to claim 3, since the spring piece is extended from each of the twistable beams, the reaction force not only elastically deforms the spring piece but also a force for twisting the twistable beam. work. Thereby, the effect | action which presses cables with the front-end | tip part of a spring piece, and makes the cables contact the member (for example, metal chassis) to which the base is being fixed improves.

  The clamp according to claim 4, further comprising a central beam disposed between the pair of twistable beams and having both ends connected to the pair of holding portions, respectively. Therefore, the strength of the movable part provided with the twistable beam is improved.

  The clamp according to claim 5 is characterized in that, in the clamp according to claim 4, a film-like identification tag can be held in the gap between the pair of twistable beams and the central beam. It is possible to sandwich a film-like identification tag such as a paper or a plastic film on which is recorded in the gap between the twistable beam and the central beam.

  The clamp according to claim 6 defines the upper limit of torsional deformation of the twistable beam due to a reaction force when pressing the cables with the tip of the spring piece in the clamp according to claim 3, 4 or 5. Since the deformation restricting portion is provided, it is possible to prevent excessive twisting deformation of the twistable beam.

  The clamp according to claim 7 is the clamp according to any one of claims 1 to 6, wherein the movable portion is held by the restraining means without holding the cables between the pressing portion and the placing portion. In the restrained state, the pair of spring pieces do not come into contact with the base part, and the tip part comes into contact with the member to which the base part is fixed. This improves the effect of acting on the member and bringing it into close contact with a member (for example, a metal chassis) to which the base is fixed.

  The clamp according to claim 8 is the clamp according to any one of claims 1 to 6, wherein the base is provided with a plurality of legs that support the member in contact with the base when the base is fixed. Since the double-sided adhesive tape for fixing to the member is disposed between the plurality of legs, the base does not float by the thickness of the double-sided adhesive tape when the base is fixed. The distance between the mounting portion, that is, the held cables and the member to which the base portion is fixed does not increase.

Next, embodiments of the present invention will be described based on examples of the present invention. The present invention is not limited to the following examples and the like, and it goes without saying that the present invention can be implemented in various ways without departing from the gist of the present invention.
[Example 1]
The clamp 1 is a molded product of a synthetic resin (polyamide in this embodiment), and the entire surface as well as the surface is non-conductive.

As shown in FIG. 1, the clamp 1 includes a base portion 2, a movable portion 3, a hinge portion 4 that connects the base portion 2 and the movable portion 3, and the like.
The base portion 2 is provided with a placement portion 5. Although the mounting portion 5 has a plate shape, as shown in FIGS. 1H, 1J, and 1K, the upper surface 5a is convex and the lower surface 5b is flat, so-called kamaboko.

Wall portions 6 and 7 are connected to both ends of the mounting portion 5, and the hinge portion 4 is connected to one wall portion 7.
A U-shaped housing portion 8 is connected to the outside of the wall portion 6, and the wall portion 6 and the housing portion 8 form a housing hole 9. A fixed-side protrusion 10 is provided on the surface of the housing portion 8 facing the wall portion 6.

  A leg portion 11 is provided at the corner portion so as to be connected to the wall portion 6 and the accommodating portion 8. Further, a leg portion 12 is also connected to the other wall portion 7. The bottom surfaces of the leg portions 11 and 12 are designed to be located on the same plane, and there are slight steps between the bottom surfaces of the leg portions 11 and 12 and the lower surface 5b of the placement portion 5. Therefore, when the leg portions 11 and 12 are placed on a plane, a slight gap is formed between the plane and the lower surface 5 b of the placement portion 5. The gap is used as a storage space for the double-sided adhesive tape when the clamp 1 is fixed to a metal chassis or the like using the double-sided adhesive tape.

  The movable part 3 includes a flat pressing part 13. Guide portions 14 and 15 are provided at both ends of the pressing portion 13, respectively, and are connected to the hinge portion 4 at one guide portion 14.

  A pair of spring pieces 16 are extended from both side portions of the pressing portion 13. As shown in FIG. 1 (i), the spring piece 16 has an arc shape in cross section. The tip end portion 16a has a smooth semicircular shape.

A U-shaped elastic piece 17 is connected to the other guide portion 15. The elastic piece 17 is provided with a movable projection 18.
The hinge portion 4 that connects the base portion 2 and the movable portion 3 is provided with a striped convex portion 19 at the center thereof. Thereby, both sides (the base 2 side and the movable part 3 side) of the ridge 19 are relatively thin. Therefore, if the hinge part 4 is bent so that the placing part 5 and the pressing part 13 face each other, the hinge part 4 is bent on both sides of the ridge part 19, and the hinge part 4 as a whole is U-shaped or U-shaped. Deform.

  When the placing portion 5 and the pressing portion 13 become substantially parallel by this bending, the U-shaped elastic piece 17 enters the accommodation hole 9 and the movable side protrusion 18 is locked to the fixed side protrusion 10. That is, the restraining means is configured by the accommodating portion 8 (particularly the fixed side protrusion 10) and the elastic piece 17 (particularly the movable side protrusion 18). Since the elastic piece 17 can be elastically deformed in the accommodation hole 9, the engagement between the movable side protrusion 18 and the fixed side protrusion 10 can be released by applying a force to the tip of the elastic piece 17 with a toe or the like.

  As shown in FIG. 2, the clamp 1 is fixed to a member (for example, a metal chassis 21 of an electronic device) as an attachment partner by a double-sided adhesive tape 20 attached to the lower surface 5b of the mounting portion 5. 2B and 2C, it is described that there is a gap between the bottom surfaces of the legs 11 and 12 and the metal chassis 21, but this is because the double-sided adhesive tape 20 is attached to the metal chassis 21. This is a pressing allowance for adhesion. The double-sided pressure-sensitive adhesive tape 20 that has been compressed by the pressure during the pressure-sensitive adhesive operation is restored when the pressure is released, so that this gap exists even after the pressure-sensitive adhesive. However, this gap is a minute gap, such as a cable or the like. There is no risk of entering.

  After the clamp 1 is attached to the surface of the metal chassis 21 as described above, the cable 23 is placed on the upper surface 5a of the placement portion 5. In the example shown in the figure, seven cables 23 are placed. However, the number of the cables 23 is not particularly limited as long as it falls between the wall portions 6 and 7, and may be only one. A flat cable may also be used.

  Then, when the movable part 3 is pinched with, for example, a finger and the hinge part 4 is bent so that the placing part 5 and the pressing part 13 face each other, the hinge part 4 is as shown in FIGS. 2 (c) and 2 (d). Deforms into a U-shape or a U-shape. Along with this bending, when the U-shaped elastic piece 17 enters the accommodation hole 9 and the mounting portion 5 and the pressing portion 13 become substantially parallel, the movable-side protrusion 18 is locked to the fixed-side protrusion 10. The state shown in FIG.

  In this way, when the movable side protrusion 18 is locked to the fixed side protrusion 10 by bending the hinge part 4 so that the mounting part 5 and the pressing part 13 are substantially parallel, the pressing part 13 and the mounting part 5 If there is no cable 23 in between, the tip end portion 16 a of the spring piece 16 contacts the surface of the metal chassis 21 at a position away from the base portion 2. Further, the spring piece 16 does not contact the base 2.

  However, if the cable 23 is placed on the upper surface 5a of the placement portion 5, the tip portion 16a of the spring piece 16 comes into contact with the cable 23 and elastically deforms. Therefore, the portion of the cable 23 that is detached from the placement portion 5 Is pressed by the tip end portion 16 a, and the cable 23 is held between the metal chassis 21.

Then, the cable 23 is in close contact with the metal chassis 21 at the portion pressed by the tip 16 a of the spring piece 16. Thereby, the noise removal effect by the capacitive coupling (coupling) of the core wire of the cable 23 and the metal chassis 21 becomes favorable.

  Moreover, since the cross-sectional shape of the spring piece 16 along the longitudinal direction of the cable 23 is an arc shape having a concave on the mounting portion 5 side, it is caused by elastic deformation that occurs in the spring piece 16 when the tip end portion 16 a abuts the cable 23. The pressing force is efficiently concentrated on the tip portion 16a. Therefore, the action of bringing the cable 23 into close contact with the metal chassis 21 becomes more reliable.

  Moreover, since the double-sided adhesive tape 20 for fixing the base 2 to the metal chassis 21 is disposed between the legs 11 and 12 and is attached to the lower surface 5b of the mounting portion 5, the base 2 is attached to the metal chassis 21. When adhered, the base 2 does not float by the thickness of the double-sided adhesive tape 20, and the distance between the mounting portion 5, that is, the held cable 23 and the metal chassis 21 does not increase due to the use of the double-sided adhesive tape 20. .

Furthermore, since this clamp 1 is made of synthetic resin and is not conductive, even if it is removed from the mounting location, it does not cause a short circuit. Therefore, a fixing method that does not limit the installation location such as double-sided adhesive tape 20 is used. It can be adopted, has a high degree of freedom in use (installation) place, and can be easily added in the process after wiring.
[Example 2]
The clamp 31 is a molded product of a synthetic resin (polyamide in this embodiment), and the entire surface as well as the surface is non-conductive.

As shown in FIG. 3, the clamp 31 includes a base portion 32, a movable portion 33, a hinge portion 34 that connects the base portion 32 and the movable portion 33, and the like.
The base portion 32 is provided with a placement portion 35. As shown in FIGS. 3H, 3J, and 3K, the mounting portion 35 has a flat plate shape on both the upper surface 35a and the lower surface 35b, but the side edge of the upper surface 35a is rounded. . The lower surface 35b is used as an attachment surface of the double-sided adhesive tape when the clamp 31 is fixed to a metal chassis or the like using the double-sided adhesive tape.

Wall portions 36 and 37 are connected to both ends of the mounting portion 35, respectively, and the hinge portion 34 is connected to one wall portion 37.
A U-shaped storage portion 38 is connected to the outside of the wall portion 36, and a storage hole 39 is formed by the wall portion 36 and the storage portion 38. A fixed-side protrusion 40 is provided on the surface of the housing portion 38 that faces the wall portion 36.

  The movable portion 33 is provided with a pair of bar-shaped holding portions 44 and 45. These holding portions 44 and 45 are arranged in parallel to each other, and one holding portion 44 is connected to the hinge portion 34. In addition, a U-shaped elastic piece 47 is connected to the other holding portion 45. The elastic piece 47 is provided with a movable projection 48.

  Three beams 41 and 42 are connected to the holding portions 44 and 45 in a spanning manner. The central beam 41 is a central beam, the adjacent beams 42 are twistable beams, and the twistable beams 42 form a pair. A pressing portion 43 is formed by the central beam 41 and the twistable beam 42.

  Further, convex portions 41 a and 42 a as deformation restricting portions are provided on the back surfaces of the central beam 41 and the twistable beam 42. Furthermore, spring pieces 46 extend from the pair of twistable beams 42. As shown in FIG. 3I, the spring piece 46 has a circular arc cross-sectional shape. The tip 46a has a smooth semicircular shape.

  The hinge portion 34 that connects the base portion 32 and the movable portion 33 is provided with a striped ridge 49 at the center thereof. Thereby, both sides (the base 32 side and the movable part 33 side) of the ridge 49 are relatively thin. Therefore, if the hinge part 34 is bent so that the mounting part 35 and the pressing part 43 face each other, the bent part 49 is bent on both sides, and the hinge part 34 as a whole is U-shaped or U-shaped. Deform.

  When the mounting portion 35 and the pressing portion 43 become substantially parallel by this bending, the U-shaped elastic piece 47 enters the accommodation hole 39 and the movable side protrusion 48 is locked to the fixed side protrusion 40. In other words, the accommodating portion 38 (particularly the fixed-side protrusion 40) and the elastic piece 47 (particularly the movable-side protrusion 48) constitute a restraining means. Since the elastic piece 47 can be elastically deformed in the accommodation hole 39, the engagement between the movable protrusion 48 and the fixed protrusion 40 can be released by applying a force to the tip of the elastic piece 47 with a toe or the like.

The clamp 31 is fixed to a member to be attached (for example, a metal chassis of an electronic device) by the double-sided adhesive tape 20 attached to the lower surface 35b of the mounting portion 35.
After the clamp 31 is attached to the surface of a metal chassis or the like as described above, the cable 23 is placed on the upper surface 35a of the placement portion 35 as shown in FIG. In the illustrated example, eight cables 23 are placed, but this number is not particularly limited as long as it falls between the wall portions 36 and 37, and may be only one. A flat cable may also be used.

  Then, when the movable portion 33 is pinched with, for example, a finger and the hinge portion 34 is bent so that the placement portion 35 and the pressing portion 43 face each other, the hinge portion 34 is U-shaped or as shown in FIG. Deforms into a U-shape. Along with this bending, when the U-shaped elastic piece 47 enters the accommodation hole 39 and the mounting portion 35 and the pressing portion 43 become substantially parallel, the movable side protrusion 48 is locked to the fixed side protrusion 40 and is shown in FIG. The state shown in FIG.

  When the movable side protrusion 48 is locked to the fixed side protrusion 40 by bending the hinge part 34 so that the mounting part 35 and the pressing part 43 are substantially parallel to each other, the pressing part 43 and the mounting part 35 are If there is no cable 23 in between, the tip 46a of the spring piece 46 contacts the surface of a metal chassis or the like at a position away from the base 32.

However, if the cable 23 is placed on the upper surface 35a of the mounting portion 35, the tip 46a of the spring piece 46 comes into contact with the cable 23, so that the reaction force is not only elastically deforming the spring piece 46 but also possible. It also works as a force for twisting the twisted beam 42. Thereby, the effect | action which presses the cable 23 with the front-end | tip part 46a of the spring piece 46, and makes the cable 23 contact | adhere to a metal chassis etc. improves.
Thus, since the elastic deformation of the spring piece 46 and the torsional deformation of the twistable beam 42 occur, the force that presses the cable 23 and closely contacts the metal chassis or the like increases. Further, the elastic repulsion force of the spring piece 46 may be smaller than that of the spring piece 46 alone (when the twistable deformation of the twistable beam 42 does not occur). That is, the spring piece 46 can be made thinner by that amount.

  The torsional deformation of the twistable beam 42 is regulated by the convex portion 42a of the twistable beam 42 coming into contact with the convex portion 41a of the central beam 41, and no further torsional deformation occurs. That is, excessive twisting deformation of the twistable beam 42 is prevented. Further, since the convex portion 42a of the twistable beam 42 abuts on the convex portion 41a of the central beam 41 and the torsional deformation is restricted, and the central beam 41 supports the twistable beam 42, the position of the spring piece 46 and Since the posture is stabilized (not fluffy), the cable 23 is also stably brought into close contact with the metal chassis or the like.

  In this way, in the portion pressed by the tip 46a of the spring piece 46, the cable 23 is stably in close contact with the metal chassis or the like, and therefore, the capacitive coupling (coupling) between the core wire of the cable 23 and the metal chassis or the like. The noise removal effect by is improved.

  Moreover, since the cross-sectional shape of the spring piece 46 along the longitudinal direction of the cable 23 is an arc shape having a concave on the mounting portion 35 side, it is caused by elastic deformation that occurs in the spring piece 46 when the tip end portion 46 a abuts the cable 23. The pressing force is efficiently concentrated on the tip 46a. Therefore, the action of bringing the cable 23 into close contact with the metal chassis 21 becomes more reliable.

  Furthermore, since this clamp 31 is made of synthetic resin and is not conductive, it will not cause a short circuit even if it is dropped from the mounting location, so a fixing method that does not limit the installation location, such as double-sided adhesive tape fastening, is adopted. It is possible to use (installation) place freely, and it is easy to add in the process after wiring.

  In addition, since it is possible to sandwich a film-like identification tag such as a paper or a plastic film in which a model number is recorded in the gap between the pair of twistable beams 42 and the central beam 41, if used as such The model number can be clearly displayed.

(A) Rear view, (b) Plan view, (c) Front view, (d) Bottom view, (e) Left side view, (f) Right side view, (g) A-A Sectional view, (h) BB sectional view, (i) CC sectional view, (j) Upper left perspective view, (k) Upper right perspective view, (l) Lower left perspective view, (m) Lower right perspective view. (A) Top view of use condition of Example 1, (b) Front view, (c) Right side view, (d) Perspective view. (A) Rear view, (b) Plan view, (c) Front view, (d) Bottom view, (e) Left side view, (f) Right side view, (g) A-A Sectional view, (h) BB sectional view, (i) CC sectional view, (j) Upper left perspective view, (k) Upper right perspective view, (l) Lower left perspective view, (m) Lower right perspective view. (A) Plan view, (b) Front view, (c) Bottom view, (d) Right side view, (e) Rear view, (f) AA sectional view, (g) Upper left perspective view, (h) upper right perspective view, (i) lower left perspective view, (j) lower right perspective view.

Explanation of symbols

1 ... Clamp,
2 ... Base,
3 ... movable part,
4 ... hinge part,
5: Placement part,
11, 12 ... legs,
13 ... holding part,
16: Spring piece,
16a ... tip,
18 ... movable side protrusion,
19 ... ridge,
20 ... Double-sided adhesive tape,
21 ... Metal chassis,
23: Cable.
31 ... Clamp,
32 ... Base,
33 ... movable part,
34 ... hinge part,
35 ... placement part,
41 ... Center beam,
41a ... convex part (deformation restricting part),
42 ... twistable beam,
42a ... convex part (deformation restricting part),
43 ... holding part,
44, 45 ... holding part,
46 .. spring piece,
46a ... tip,
48 ... movable side projection,
49 ... ridge part.

Claims (8)

Made of synthetic resin and at least the surface is not conductive,
A base portion that is provided with a mounting portion and is fixed to a member to be attached at the time of use, a movable portion that includes a pressing portion, a hinge portion that connects the base portion and the movable portion, and the pressing portion as the mounting portion described above. A restraining means for restraining the movable part with a posture to face each other, and
In a clamp that can hold cables between the pressing portion and the placement portion when the movable portion is restrained by the restraining means,
A pair of spring pieces extending along the longitudinal direction of the held cables from both side portions of the pressing portion;
In a state where the movable part is restrained by the restraining means without holding the cables between the pressing part and the placing part, the tip part contacts the member to which the base part is fixed,
In a state in which the cables are held between the pressing portion and the placing portion and the movable portion is restrained by the restraining means, a portion of the held cables that is detached from the placing portion. A clamp comprising a spring piece for pressing the cable with a member to which the base is fixed by pressing the cable with the tip. The clamp of claim 1,
The clamp characterized by the cross-sectional shape along the longitudinal direction of the said cables held | maintained of the said spring piece is an arc shape with the said mounting part side concave. The clamp according to claim 1 or 2,
In the movable part,
A pair of holding parts that are opposed to each other with one of the pressing parts interposed therebetween;
A pair of twistable beams, both ends of which are connected to each of the pair of holding portions and arranged in parallel with each other;
The pair of spring pieces are extended from each of the twistable beams. The clamp according to claim 3,
A clamp comprising a central beam disposed between the pair of twistable beams and having both ends connected to the pair of holding portions. The clamp according to claim 4, wherein
A clamp characterized in that a film-like identification tag can be held in a gap between the pair of twistable beams and the central beam. The clamp according to claim 3, 4 or 5,
A clamp provided with a deformation restricting portion for defining an upper limit of torsional deformation of the twistable beam due to a reaction force when the cables are pressed by a tip portion of the spring piece. In the clamp according to any one of claims 1 to 6,
In a state where the movable portion is restrained by the restraining means without holding the cables between the pressing portion and the placing portion, the pair of spring pieces does not contact the base portion and the tip. The part contacts the member to which the base is fixed. In the clamp according to any one of claims 1 to 6,
The base is provided with a plurality of legs that support and support the member when the base is fixed,
The clamp characterized by the double-sided adhesive tape for fixing the said base to the said member being distribute | arranged between these leg parts.

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