JP2020040463A - Functional component mounting pedestal, functional component, functional component mounting system, and tire - Google Patents

Abstract

To provide a functional component mounting pedestal which is capable of reliably holding a functional component at a specified position, by using a fitting-in type structure, and to provide a functional component, a functional component mounting system, and a tire.SOLUTION: A functional component mounting pedestal 100 includes a base part 120, and an enclosing wall part 110. On an inside surface 111 of the enclosing wall part 110, engaging recesses 140 are formed in order to be engaged with engaging protrusions 211 disposed on a lateral face of a functional component 200. The engaging recess 140 includes: a first slit portion having a width corresponding to the engaging protrusion 211, and extending in a first direction orthogonal to a bottom face 121 of the base part 120; and a second slit portion extending in a second direction orthogonal to the first direction. Projecting parts that project in the first direction are disposed on the enclosing wall part 110, and the projecting parts lock the engaging protrusions 211 inserted to the second slit portion via the first slit portion, on a first slit portion side.SELECTED DRAWING: Figure 2

Description

  The present invention relates to a functional component mounting base for mounting a functional component on the inner surface of a tire, a functional component, a functional component mounting system, and a tire.

  BACKGROUND ART In a pneumatic tire mounted on a vehicle or the like (hereinafter, abbreviated as a tire as appropriate), a housing-like shape including a sensor for measuring a temperature, an internal pressure, an acceleration, and the like is provided on an inner surface of a tire such as an inner surface of a tread in contact with a road surface. Functional components may be mounted. Such a tire is provided with a functional component mounting base for mounting the functional component on the inner surface of the tire.

  For example, a tab (engaging projection) formed on the side surface of the functional component is aligned with a slot (engaging recess) formed on the functional component mounting base, and the functional component is fitted into the functional component mounting base. The structure is known (Patent Document 1).

  Another slot (referred to as a ring) extending in a direction orthogonal to the insertion direction communicates with the slot formed in the functional component mounting base. After inserting the functional component into the functional component mounting base, the functional component is removed. The rotation prevents the functional components from falling off.

JP-T 2005-532551

  The above-described fitting type structure does not require fastening parts such as bolts and nuts, and facilitates attachment and detachment of functional parts. In addition, the functional components can be effectively prevented from falling off.

  However, particularly in the case of tires of vehicles running on uneven terrain, such as construction vehicles, since large vibrations are transmitted to the tires, the functional components are rotated in the functional component mounting pedestal, and a specified mounting position (hereinafter referred to as a specified position) ).

  In particular, in recent years, an acceleration sensor is often included, and if the functional component deviates from a specified position, the direction detected by the acceleration sensor changes, and accurate acceleration cannot be measured.

  Therefore, the present invention has been made in view of such a situation, and a functional component mounting base, a functional component, and a functional component mounting system capable of securely holding a functional component at a predetermined position while using a fitting type structure. And tires.

  One embodiment of the present invention is a functional component mounting base (functional component mounting base 100) for mounting a functional component (functional component 200) on a tire inner surface (tire inner surface 30), which is an inner surface of the tire (pneumatic tire 10). A base portion (base portion 120) that comes into contact with the inner surface of the tire; and a surrounding wall portion (surrounding wall portion 110) that rises from the base portion and surrounds the side surface of the functional component, and contacts the side surface of the functional component. On the inner side surface (inner side surface 111) of the surrounding wall portion, an engaging concave portion (engaging concave portion 140) that engages with an engaging convex portion (engaging convex portion 211) provided on the side surface of the functional component is formed. The inner side surface has a circular shape in plan view of the functional component mounting pedestal, the engagement concave portion has a width corresponding to the engagement convex portion, and has a bottom surface (bottom surface 121) of the base portion. A first slit portion (first slit portion) extending in a first direction orthogonal to the first slit portion; 141), and a second slit portion (second slit portion 142) which is continuous with the bottom end portion (end portion 141a) of the first slit portion and extends in a second direction orthogonal to the first direction. The surrounding wall portion adjacent to the second slit portion is provided with a protruding portion (protruding portion 170) protruding in the first direction, and the protruding portion passes through the first slit portion. Then, the engagement protrusion inserted into the second slit portion is locked on the first slit portion side.

  One aspect of the present invention is a functional component mounted on a tire inner surface that is an inner surface of a tire using a functional component mounting pedestal, wherein the functional component mounting pedestal has a base portion in contact with the tire inner surface, A surrounding wall portion that rises from the base portion and surrounds a side surface of the functional component, wherein an engaging concave portion is formed on an inner surface of the surrounding wall portion, and the engaging concave portion engages with the engaging concave portion. A first slit portion having a width corresponding to the engagement convex portion and extending in a first direction orthogonal to a bottom surface of the base portion; and a first slit portion connected to an end of the first slit portion on the bottom surface side, the first direction. A second slit portion extending in a second direction orthogonal to the second slit portion, and the surrounding wall portion in contact with the second slit portion is provided with a projection portion convex toward the first direction, and the functional component On the side surface, the engaging protrusion is provided. The engagement projection, via the first slit portion is inserted into the second slit portion is locked in the second slit portion side of the projecting portion.

  One aspect of the present invention is a functional component mounting base including a functional component mounting base for mounting a functional component on a tire inner surface that is an inner surface of the tire, and the functional component, wherein the functional component mounting base includes the tire A base portion that is in contact with an inner surface, and a surrounding wall portion that rises from the base portion and surrounds a side surface of the functional component; an inner surface of the surrounding wall portion includes an engagement protrusion provided on a side surface of the functional component. A first slit portion extending in a first direction orthogonal to a bottom surface of the base portion, the engagement concave portion having a width corresponding to the engagement convex portion; A second slit portion extending in a second direction orthogonal to the first direction and connected to an end of the first slit portion on the bottom surface side, wherein the surrounding wall portion adjacent to the second slit portion has , And convex toward the first direction. Projecting portion is provided that, the projection portion locking in said first slit portion side the engagement projection that is inserted through the second slit portion through the first slit portion.

  According to the functional component mounting base, the functional component, the functional component mounting system, and the tire described above, the functional component can be reliably held at the specified position while using the fitting type structure.

FIG. 1 is a cross-sectional view of the pneumatic tire 10 along the tire width direction and the tire radial direction. FIG. 2 is a single perspective view of the functional component mounting base 100 and the functional component 200 (before the functional component 200 is fitted into the functional component mounting base 100). FIG. 3 is a single perspective view of the functional component mounting base 100 and the functional component 200 (in a state where the functional component 200 is fitted into the functional component mounting base 100). FIG. 4 is a single perspective view of the functional component mounting pedestal 100. FIG. 5 is a plan view of the functional component mounting base 100 as a single unit. FIG. 6 is a partially enlarged view of the surrounding wall portion 110 including the engaging concave portion 140 formed in the functional component mounting base 100. FIG. 7 is a diagram schematically illustrating an engagement state between a projection 170 provided on the surrounding wall 110 and an engagement protrusion 211 provided on the functional component 200. FIG. 8 is a partially enlarged view of the surrounding wall 110 provided with the protrusion 170A according to the modification.

  Hereinafter, embodiments will be described with reference to the drawings. Note that the same functions and configurations are denoted by the same or similar reference numerals, and description thereof will be omitted as appropriate.

(1) Overall Schematic Configuration of Tire FIG. 1 is a cross-sectional view along a tire width direction and a tire radial direction of a pneumatic tire 10 according to the present embodiment.

  As shown in FIG. 1, the pneumatic tire 10 is used by being assembled to a rim hole 50. The space inside the pneumatic tire 10 assembled in the rim hole 50 is filled with a gas such as air.

  A functional component 200 is mounted on the back side of the tread 20 that contacts the road surface. Examples of the functional component 200 include a sensor that measures temperature, internal pressure, acceleration, and the like, and a wireless communication device (wireless device).

  The functional component 200 is attached to the inner surface of the pneumatic tire 10, specifically, to the tire inner surface 30 via the functional component mounting base 100. That is, the functional component mounting pedestal 100 is a pedestal for mounting the functional component 200 to the tire inner surface 30.

  The functional component mounting base 100 is made of an elastic body and has flexibility. The functional component mounting base 100 can be made of an elastomer material such as rubber, and preferably has an HS hardness of 30 to 80 degrees.

  The functional component mounting base 100 is fixed to the tire inner surface 30. The method of fixing the functional component mounting pedestal 100 to the tire inner surface 30 is not particularly limited. The separate functional component mounting pedestal 100 may be adhered with an adhesive, or may be integrally formed when the pneumatic tire 10 is vulcanized, if possible. In this manner, the pneumatic tire 10 is provided with the functional component mounting pedestal 100.

  Although the type of the pneumatic tire 10 is not particularly limited, it will be described as being mounted on a construction vehicle (such as an off-road dump truck) used in a large-scale civil engineering work site or a mining site of a mine. Of course, the pneumatic tire 10 may be mounted on a car such as a passenger car, a truck, a bus, or the like that travels on a normal pavement (ordinary road and highway).

(2) Schematic Structure of Functional Component Mounting Pedestal 100 and Functional Component 200 FIGS. 2 and 3 are unit perspective views of the functional component mounting pedestal 100 and functional component 200. Specifically, FIG. 2 shows a state before the functional component 200 is fitted into the functional component mounting base 100, and FIG. 3 shows a state in which the functional component 200 is fitted into the functional component mounting base 100.

  In the present embodiment, the functional component mounting base 300 and the functional component 200 constitute a functional component mounting system 300.

  As shown in FIGS. 2 and 3, the functional component mounting pedestal 100 has a surrounding wall 110 and a base 120.

  The surrounding wall 110 rises from the base 120 and surrounds the side surface of the functional component 200. Specifically, the surrounding wall 110 surrounds the main body 210 of the functional component 200.

  The surrounding wall 110 surrounds the side surface (the main body 210) of the functional component 200. An opening 130 is formed inside the surrounding wall 110 so as to accommodate the main body 210 of the functional component 200.

  On the inner side surface 111 of the surrounding wall portion 110, an engagement concave portion 140 that engages with the engagement convex portion 211 provided on the side surface of the functional component 200 is formed.

  The base 120 contacts the tire inner surface 30. The base 120 extends radially from the surrounding wall 110.

  The functional component 200 is fitted into the opening 130 of the functional component mounting base 100 (see the arrow in FIG. 2). The functional component 200 has a main body 210 and a grip 220. Specifically, main body 210 is fitted into opening 130.

  The main body 210 is a housing that houses a sensor that measures temperature, internal pressure, acceleration, and the like, and a wireless communication device (wireless device). The planar shape of the main body 210 is circular.

  The radial size of the main body 210 of the functional component 200 is slightly larger than the radial size of the surrounding wall 110 and the inner side surface 111, and the functional component 200 can be pushed into the functional component mounting base 100.

  A plurality of engaging projections 211 are provided on a side surface of the main body 210. As described above, the engagement protrusion 211 engages with the engagement recess 140.

  The engagement protrusion 211 is provided on the bottom surface side (not shown) of the functional component 200. Specifically, the engagement protrusion 211 is provided at the lower end of the side surface (the main body 210) of the functional component 200.

  The grip part 220 is continuous with the main body part 210 and is located above the main body part 210 (the side opposite to the fitting direction). The grip 220 is exposed from the surrounding wall 110 when the main body 210 is fitted into the opening 130. The grip 220 is larger than the radial size of the main body 210 and the radial size of the surrounding wall 110.

  The grip 220 is gripped by a worker or a tool (such as a spanner) when attaching or detaching the functional component 200. A plurality of anti-slip recesses 221 are formed on the side surface of the grip 220.

  In addition, a mark 222 indicating the tire rotation direction is formed on the upper surface of the grip part 220. Since the mark 222 is formed, the operator can easily recognize the mounting direction of the functional component 200 on the functional component mounting base 100 when attaching or detaching the functional component 200. As a result, the acceleration sensors housed in the main body 210 are arranged along the prescribed direction.

(3) Detailed Structure of Functional Component Mounting Pedestal 100 Next, the structure of the functional component mounting pedestal 100 will be described more specifically with reference to FIGS. FIG. 4 is a single perspective view of the functional component mounting pedestal 100. FIG. 5 is a plan view of the functional component mounting base 100 as a single unit. FIG. 6 is a partially enlarged view of the surrounding wall portion 110 including the engaging concave portion 140 formed in the functional component mounting base 100.

  The inner side surface 111 of the surrounding wall 110 has a circular shape in plan view of the functional component mounting pedestal 100.

  The base portion 120 radiating from the surrounding wall portion 110 also has a circular shape in plan view of the functional component mounting pedestal 100. However, the planar shape of the base 120 does not necessarily have to be circular.

  A plurality of engagement recesses 140 are formed on the inner side surface 111 of the surrounding wall 110. In the present embodiment, four engagement recesses 140 are formed on the inner side surface 111 of the surrounding wall 110. The number of the engagement recesses 140 is not limited to four, and may be, for example, three or five.

  In the present embodiment, the four engagement recesses 140 are formed at irregular intervals on the circumference of the surrounding wall 110.

  The main body 210 of the functional component 200 is also provided with four engaging projections 211 in accordance with the four engaging recesses 140. The positions of the four engaging projections 211 in the first direction (vertical direction) are all the same.

  The engagement recess 140 has a first slit portion 141 and a second slit portion 142. The first slit portion 141 extends in a first direction (longitudinal direction) orthogonal to the bottom surface 121 of the base portion. The second slit portion 142 extends in a second direction (lateral direction) orthogonal to the first direction.

  An engagement projection 211 provided on a side surface of the functional component 200 (the main body 210) is inserted into the first slit portion 141. The first slit portion 141 has a width corresponding to the engagement protrusion 211.

  Specifically, the first slit portion 141 has such a width that the engaging projection 211 can be inserted toward the bottom surface 121 of the base portion 120 and that there is no large play in the circumferential direction of the inner side surface 111. It is only necessary that the convex portion 211 has such a width that it can move while sliding inside the first slit portion 141 and the second slit portion 142.

  As shown in FIG. 6, the second slit portion 142 is continuous with the end 141a of the first slit portion 141 on the bottom surface 121 side. That is, the engagement recess 140 is formed in a substantially L-shape by the first slit portion 141 extending in the vertical direction and the second slit portion 142 extending in the horizontal direction.

  The end surface 142a (lower end surface) of the second slit portion 142 located on the bottom surface 121 side is formed at a position higher than the bottom surface 121 of the base portion 120.

  Further, the end surface 142b (upper end surface) of the second slit portion 142 located on the opposite side to the base portion 120 has an arc shape that conforms to the shape of the engaging projection 211 of the functional component 200, and is rounded. Note that a slight gap is formed between the end surface 142b and the engagement protrusion 211.

  Further, the width of the second slit portion 142 in the second direction (lateral direction) is substantially the same as the width of the engaging projection 211.

  The surrounding wall portion 110 adjacent to the second slit portion 142 is provided with a projection portion 170 that is convex in the first direction (vertical direction).

  The protruding portion 170 is provided adjacent to the first slit portion 141. That is, the protrusion 170 is provided at the boundary between the first slit portion 141 and the second slit portion 142.

  The protruding portion 170 protrudes from the surrounding wall portion 110 on the opposite side to the bottom surface 121 of the base portion 120. That is, the protruding portion 170 protrudes downward from the surrounding wall portion 110, specifically, toward the end surface 142a (lower end surface) of the second slit portion 142. Thus, the projection 170 is provided so as to cover a part of the second slit 142.

  Further, the protruding portion 170 has a tapered shape in a side view of the surrounding wall portion 110. Specifically, the width of the protruding portion 170 decreases as it approaches the end 171 on the convex side of the protruding portion 170.

  A gap is formed between the end portion 171 of the protruding portion 170 and the end surface 142a of the second slit portion 142 so that the engaging convex portion 211 can pass therethrough.

  FIG. 7 schematically shows a state of engagement between the projection 170 provided on the surrounding wall 110 and the engagement projection 211 provided on the functional component 200.

  As shown in FIG. 7, the engagement protrusion 211 is inserted into the second slit 142 via the first slit 141. Specifically, when the functional component 200 is pushed into the opening 130 of the functional component mounting pedestal 100 in accordance with the position of the first slit portion 141, the engagement convex portion 211 causes the first slit portion 141 to move through the first slit portion 141. Move in the direction (D1 in the figure), that is, in the vertical direction.

  When the engaging projection 211 is pushed down to the end 141a of the first slit portion 141 on the bottom surface 121 side, the functional component 200 is rotated in the second direction (D2 in the figure), and the engaging projection 211 is , In the second direction, that is, in the lateral direction.

  As a result, the engaging projection 211 gets over the projection 170 provided on the flexible surrounding wall 110 and is locked on the second slit 142 side of the projection 170. Specifically, the engaging projection 211 is locked by the projection 170 so as not to return to the first slit 141 side.

  That is, the protrusion 170 locks the engagement protrusion 211 inserted through the second slit 142 via the first slit 141 on the first slit 141 side. Specifically, the projection 170 locks the engagement projection 211 inserted into the second slit 142 over the projection 170 on the first slit 141 side.

(4) Function / Effect According to the above-described embodiment, the following function / effect can be obtained. Specifically, in the functional component mounting system 300, the surrounding wall portion 110 adjacent to the second slit portion 142 is provided with a protruding portion 170 protruding in the first direction (vertical direction). The protruding portion 170 locks the engaging convex portion 211 of the functional component 200 inserted into the second slit portion 142 via the first slit portion 141 on the first slit portion 141 side.

  In other words, since the engaging projection 211 is locked by the projection 170, once the functional component 200 is once fitted into the functional component mounting base 100 and attached to the specified position, the movement of the functional component 200 is restricted. Thus, even if a large vibration is transmitted to the pneumatic tire 10, the functional component 200 does not deviate from the specified position, and the functional component 200 does not fall off the functional component mounting base 100.

  That is, according to the functional component mounting system 300, the functional component 200 can be reliably held at the specified position while using the fitting type structure.

  When removing the functional component 200 once attached to the functional component mounting pedestal 100, the main unit 210 may be pulled out from the opening 130 by using a tool such as a wrench to rotate the component in the opposite direction to the mounting direction.

  In the present embodiment, the protruding portion 170 is provided adjacent to the first slit portion 141. Therefore, the functional component 200 can be reliably held at the specified position while suppressing the movement amount (rotation amount) in the second direction (lateral direction).

  In the present embodiment, the protruding portion 170 is protruded from the surrounding wall portion 110 on the opposite side to the bottom surface 121 of the base portion 120. Further, the protruding portion 170 has a tapered shape in a side view of the surrounding wall portion 110.

  When the functional component 200 is mounted, the functional component 200 (the main body 210) is rotated while a force for pushing the functional component 200 into the opening 130 of the functional component mounting base 100 is applied. Easy to get over 170. Thereby, the ease of mounting the functional component 200 can be improved.

  In the present embodiment, the engaging projection 211 is provided on the bottom surface side of the functional component 200, and the end surface 142 a (lower end surface) of the second slit portion 142 located on the bottom surface 121 side is smaller than the bottom surface 121 of the base portion 120. Formed at a higher position.

  Therefore, when the functional component 200 (the main body 210) is pushed into the opening 130 of the functional component mounting base 100, a gap is formed between the bottom surface (not shown) of the main body 210 and the bottom surface 121 of the base 120. It is easy to secure, and it becomes easy to push the main body 210 to a deep position near the bottom surface 121. Accordingly, the engagement protrusion 211 can easily get over the projection 170, and the ease of mounting the functional component 200 can be improved.

  In the present embodiment, the positions of the four engaging protrusions 211 in the first direction (longitudinal direction) (that is, the positions of the engaging recesses 140) are all the same. Therefore, it is possible to enhance the ease of mounting the functional component 200.

  In the present embodiment, the grip 220 is larger than the radial size of the main body 210 of the functional component 200 and the radial size of the surrounding wall 110. For this reason, the grip part 220 can be easily gripped, and the detachability of the functional component 200 can be improved.

(5) Other Embodiments Although the contents of the present invention have been described in connection with the embodiments, the present invention is not limited to these descriptions, and various modifications and improvements are possible. It is obvious to the trader.

  For example, the position where the protruding portion 170 is provided may be changed as follows. FIG. 8 is a partially enlarged view of the surrounding wall 110 provided with the protrusion 170A according to the modification.

  In the above-described embodiment, the projection 170 is convex from the surrounding wall 110 on the opposite side to the bottom 121 of the base 120 (see FIG. 7). However, as in the projection 170A shown in FIG. It may be convex from the surrounding wall 110 on the 121 side.

  Further, the projection 170 does not necessarily have to be provided adjacent to the first slit portion 141. For example, the protruding portion 170 may be provided in an intermediate portion of the second slit portion 142 in the second direction (lateral direction) away from the first slit portion 141 as long as the engaging convex portion 211 can be locked. .

  Further, the protrusion 170 does not have to be tapered, and the width thereof becomes narrower as approaching the end 171 on the convex side of the protrusion 170. For example, the end portion 171 of the protruding portion 170 may have a gently curved arc shape.

  Although the embodiments of the present invention have been described above, it should not be understood that the description and drawings forming part of this disclosure limit the present invention. From this disclosure, various alternative embodiments, examples, and operation techniques will be apparent to those skilled in the art.

10 Pneumatic tires
20 tread
30 Tire inner surface
50 rim hall
100 Functional component mounting base
110 Surrounding wall
111 Inside
120 Base
121 bottom
130 opening
140 engagement recess
141 1st slit part
141a end
142 2nd slit part
142a, 142b end face
170, 170A protrusion
171 end
200 Functional parts
210 Main unit
211 Engagement protrusion
220 gripper
221 recess
222 mark
300 Functional component mounting system

Claims (8)

A functional component mounting base for mounting the functional component on the tire inner surface, which is the inner surface of the tire,
A base portion in contact with the tire inner surface,
An enclosing wall portion that rises from the base portion and surrounds a side surface of the functional component,
On the inner surface of the surrounding wall portion that is in contact with the side surface of the functional component, an engaging concave portion that engages with an engaging convex portion provided on the side surface of the functional component is formed.
The inner side surface is circular in a plan view of the functional component mounting pedestal,
The engagement recess,
A first slit portion having a width corresponding to the engagement convex portion and extending in a first direction orthogonal to a bottom surface of the base portion;
A second slit portion connected to an end of the first slit portion on the bottom surface side and extending in a second direction orthogonal to the first direction;
The surrounding wall portion adjacent to the second slit portion is provided with a projecting portion that is convex toward the first direction,
A functional component mounting pedestal for locking the engaging projection, which is inserted into the second slit portion via the first slit portion, on the first slit portion side.   The functional component mounting pedestal according to claim 1, wherein the protrusion is provided adjacent to the first slit.   The functional component mounting pedestal according to claim 1, wherein the projecting portion protrudes from the surrounding wall portion on a side opposite to the bottom surface side.   The functional component mounting pedestal according to any one of claims 1 to 3, wherein the projection portion is tapered in a side view of the surrounding wall portion. The engagement projection is provided on a bottom side of the functional component,
5. The functional component mounting base according to claim 1, wherein an end surface of the second slit portion located on the bottom surface side is formed at a position higher than the bottom surface. 6. A functional component attached to the tire inner surface, which is the inner surface of the tire, using the functional component mounting base,
The functional component mounting base,
A base portion in contact with the tire inner surface,
An enclosing wall portion that rises from the base portion and surrounds a side surface of the functional component,
An engagement recess is formed on an inner surface of the surrounding wall portion,
The engagement recess,
A first slit portion having a width corresponding to the engagement protrusion engaging with the engagement recess, and extending in a first direction orthogonal to a bottom surface of the base;
A second slit portion connected to an end of the first slit portion on the bottom surface side and extending in a second direction orthogonal to the first direction;
The surrounding wall portion adjacent to the second slit portion is provided with a projecting portion that is convex toward the first direction,
On the side surface of the functional component, the engaging projection is provided,
The functional component, wherein the engagement protrusion is inserted through the second slit portion via the first slit portion, and is locked on the second slit portion side with respect to the protrusion portion. A functional component mounting base for mounting a functional component on a tire inner surface that is an inner surface of the tire, and a functional component mounting system including the functional component,
The functional component mounting base,
A base portion in contact with the tire inner surface,
An enclosing wall portion that rises from the base portion and surrounds a side surface of the functional component,
On the inner surface of the surrounding wall portion, an engagement concave portion that engages with an engagement convex portion provided on the side surface of the functional component is formed,
The engagement recess,
A first slit portion having a width corresponding to the engagement convex portion and extending in a first direction orthogonal to a bottom surface of the base portion;
A second slit portion connected to an end of the first slit portion on the bottom surface side and extending in a second direction orthogonal to the first direction;
The surrounding wall portion adjacent to the second slit portion is provided with a projecting portion that is convex toward the first direction,
The functional component mounting system, wherein the protrusion locks the engaging protrusion inserted through the second slit via the first slit on the side of the first slit.   A tire comprising the functional component mounting pedestal according to any one of claims 1 to 5, or a functional component mounting system according to claim 7.

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