JP5704045B2 - Container pad and cup holder - Google Patents

Description

  The present invention relates to a container laying pad and a cup holder that are mounted in, for example, a cup holder disposed in a vehicle interior.

  A cup holder is provided in the passenger compartment, and a container such as a plastic bottle can be accommodated in the cup holder. For example, Patent Document 1 discloses a configuration of a cup holder that allows a cap of a plastic bottle to be opened while the plastic bottle is accommodated.

  Specifically, the cup holder is provided with an outer member and an inner member, a spring is provided between the inner member and the outer member, and the inner member moves relative to the outer member in the vertical direction. It is possible. Further, the inner member has a mounting plate on which the plastic bottle is mounted, and a plurality of locking claws are formed in the circumferential direction on the edge of the mounting plate via an integral hinge.

  On the other hand, a protrusion is provided on the inner surface of the outer member, and when the outer member descends, the locking claw is pressed, and a slip prevention process is provided inside the outer member via the locking claw. The plastic bottle is held so as not to rotate by the cylindrical sheet. For this reason, the cap of a plastic bottle can be opened with one hand. In addition, Patent Documents 2 to 5 disclose inventions related to cup holders.

Japanese Patent Laying-Open No. 2005-047438 JP 2010-162928 A JP 07-315104 A Registered Utility Model No. 302434 JP 2010-025771 A

However, in this prior art, the number of parts is large and the configuration of the cup holder is complicated.
An object of the present invention is to obtain a container laying pad and a cup holder capable of opening a cap of a container such as a plastic bottle with one hand with a simple configuration in consideration of the above facts.

The container laying pad of the present invention according to claim 1 is formed of an elastic member, is capable of placing the container, and is a placement portion that is elastically deformed when a pressing force exceeding a preset load is applied, and the placement portion described above Provided on the back surface of the mounting portion, a space is provided below the mounting portion, the container is supported via the mounting portion, and when the pressing force is applied to the mounting portion, the elastic deformation occurs, and the mounting portion is interposed therebetween. wherein an annular rib for generating a reaction force against the pressing force, possess projections and projecting from the outer shape of the placing section in a plan view, wherein the rib is suspended from the outer edge of the mounting section Te, An outer peripheral rib positioned outside the outer periphery of the container placed on the mounting portion in plan view, and an outer edge of a bottom recess provided on the inner side of the outer peripheral rib and provided on the bottom of the container in plan view An inner peripheral rib provided on the inner side of the portion, and penetrates the inner peripheral rib. Holes are formed.

  In the container laying pad according to the first aspect of the present invention, the placing portion on which the container can be placed is formed of an elastic member, and a pressing force (a force for pressing the container from above) equal to or higher than a preset load. When it acts, the mounting portion is elastically deformed. Due to the elastic deformation of the mounting portion, a restoring force is generated by the mounting portion. That is, a reaction force against a pressing force that presses the container is generated at the contact portion with the container in the placement section.

  In addition, a rib is provided on the back surface of the mounting portion. By providing this rib, a space is formed below the placement portion, and the container is supported in a state where the placement portion is raised. When a pressing force greater than a preset load acts on the placement portion, the rib is elastically deformed, and a reaction force against the pressing force on the container is generated on the placement portion via the rib.

  The reaction force generated in the mounting portion in this way becomes a resistance force against the rotational force acting on the container. When the container is pressed from above, the tip of the rib C is in pressure contact with the contacted portion with which the tip of the rib is in contact. In other words, the container pad is prevented from slipping through the rib. On the other hand, as described above, when a pressing force exceeding a preset load is applied to the mounting portion, the mounting portion is elastically deformed, and a resistance force (reaction force) to the rotational force acting on the container is generated.

  For this reason, the container provided in the opening of the container is pressed in a state where the container is pressed from above, the mounting part is pressed with a pressing force equal to or higher than a preset load, and the mounting part and the rib are elastically deformed. When the container is rotated, the container is prevented from rotating by the resistance force generated through the mounting portion, and the cap is easily opened with one hand.

  By the way, for example, it is assumed that a container laying pad is laid on the bottom of the cup holder that houses the container. In the present invention, since the protrusion protruding from the outer shape of the mounting portion in plan view is provided, the protrusion is in close contact with the inner wall surface of the cup holder in a state where a container pad is laid on the bottom of the cup holder. In a state where the protrusion is in close contact (crimped) with the inner wall surface of the cup holder, the container-laying pad can have a sliding resistance between the protrusion and the inner wall surface of the cup holder.

  For this reason, drop-off of the container laying pad can be suppressed with the cup holder upside down. Thereby, the loss of the container laying pad at the time of physical distribution can be prevented. Moreover, when rotating the cap provided in the opening of the container, the rotation of the container laying pad can be suppressed by the sliding resistance obtained between the protrusion and the inner wall surface of the cup holder.

Further, the container Mattress pad of the present invention according to claim 1, the outer peripheral ribs from the outer edge of the mounting portion is suspended. An inner peripheral rib is provided inside the outer peripheral rib, and the container is supported by the inner peripheral rib and the outer peripheral rib. Further, in a plan view, an outer peripheral rib is provided outside the outer periphery of the container, and an inner peripheral rib is provided inside the outer edge portion of the bottom recess provided in the bottom of the container.

  Thereby, when the container is pressed from above, the area between the inner peripheral rib and the outer peripheral rib bends downward in the mounting portion, and the bottom recess of the container enters the area where the inner peripheral rib is provided, and the area. Surface contact. Further, in the mounting portion, the region where the outer peripheral rib is provided is in a state of being pushed up from the bottom surface outer edge portion of the container and is in surface contact with the bottom surface outer edge portion. In this way, the placement portion becomes uneven along the shape of the bottom surface of the container and comes into surface contact with the bottom surface of the container. For this reason, the contact area of the bottom face of the said container and a mounting part increases, and the reaction force with respect to the pressing force which acts on a mounting part can be increased.

Further, since the outer peripheral rib is suspended from the outer edge side of the mounting portion, the outer shape of the mounting portion is formed by the mounting portion and the outer peripheral rib in plan view. Therefore, the protrusion may be formed on the outer peripheral rib in addition to the placement portion.
Furthermore, in the container laid pad of the present invention according to claim 1, since a through hole is formed inside the inner peripheral rib, a finger is put into the through hole, and the inner peripheral rib is elastically deformed, A finger can be hooked on the inner edge of the through hole. Thereby, even if a container laying pad is inserted into the cup holder, the container laying pad can be easily taken out from the cup holder in a state where a finger is hooked on the inner edge of the through hole.

A container laying pad according to a second aspect of the present invention is the container laying pad according to the first aspect , wherein a plurality of the protrusions are provided.

  For example, when a container pad is laid on the bottom of the cup holder, when the cap provided on the opening of the container is rotated, the protrusion is in close contact with the inner wall surface of the cup holder. The rotation of the container laying pad can be suppressed by the sliding resistance obtained between them.

  Here, in the case where the protrusion is annular (formed continuously), when the adhesion between the protrusion and the inner wall surface of the cup holder increases, distortion occurs on the mounting portion side, and the outer edge side of the mounting portion. There is a possibility that the entire circumference falls down radially inward of the placement portion. In such a case, the reaction force from the inner wall surface of the cup holder becomes small. On the other hand, by providing a plurality of projections, even if the adhesion between the projections and the inner wall surface of the cup holder is increased and distortion occurs on the placement portion side, the distortion is provided on the outer edge side of the placement portion. It is absorbed by deformation of the part that is not made.

  Accordingly, by providing a plurality of protrusions, even if the adhesion force between the projection and the inner wall surface of the cup holder is increased, the adhesion force is substantially maintained. In other words, by providing a plurality of protrusions, it is possible to increase the resistance force obtained between the inner wall surface of the cup holder as compared to the case where the protrusions are annular. Thereby, rotation of the container laying pad in the cup holder can be further suppressed.

The cup holder of the present invention described in claim 3 is provided with a storage portion for storing the container, and the protrusion provided on the container laying pad according to claim 1 or 2 is in close contact with the inner wall surface of the storage portion. doing.

In the cup holder of the present invention according to claim 3 , even if the cup holder is not provided with the container pad of the present invention, the protrusion of the container pad is in close contact with the inner wall surface of the cup holder accommodating portion. The effect same as the effect of Claim 1 or 2 can be acquired by mounting | wearing a container-laying pad in the said accommodating part.

  As described above, the container pad according to the first aspect of the present invention can open the cap of a container such as a plastic bottle placed on the container pad with one hand with a simple configuration. , Has an excellent effect.

Moreover, the container laying pad according to the first aspect of the present invention has an excellent effect that the resistance force against the rotational force acting on the container can be increased.
Furthermore, the container laying pad according to the present invention described in claim 1 has an excellent effect that it can be easily detached from the cup holder, for example.

The container-laying pad according to the present invention according to claim 2 has an excellent effect that the resistance force obtained between the inner wall surface of the cup holder can be increased as compared with the case where the protrusion is annular. .

The cup holder according to the third aspect of the present invention has an excellent effect that it is possible to prevent the container-laying pad from being lost during distribution.

(A) is a schematic sectional drawing which shows the state by which the container was mounted on the insole pad of the cup holder which concerns on this embodiment, (B) is a schematic sectional drawing which shows the state by which the container was pressed from upper direction It is. (A), (B) is sectional drawing to which the principal part was expanded corresponding to FIG. 1 (A), (B), respectively. The insole pad which concerns on this embodiment is shown, (A) is the perspective view seen from diagonally upward, (B) is the fragmentary sectional view by which a part of insole pad was cut | disconnected by the line which passes along a centerline.

  Hereinafter, an embodiment of an insole pad 10 as a container pad according to the present invention will be described with reference to FIGS. FIG. 1A shows a state where the container 16 is placed on the insole pad 10 of the cup holder 12 according to the present embodiment, and FIG. 1B shows the container 16 from above. The pressed state is shown.

  For example, as shown in FIG. 1 (A), a cup holder 12 is provided on the vehicle front side of a console box arranged at the center of a vehicle body floor (not shown). As an example, the cup holder 12 is provided with a substantially cylindrical storage portion 14 having an opening in the upper portion, and an insole pad 10 is mounted (laid) on the bottom of the storage portion 14.

(Insole pad configuration)
Here, the configuration of the insole pad 10 shown in FIGS. 3A and 3B will be described. 3A is a perspective view of the insole pad 10 as viewed obliquely from above, and FIG. 3B is a partial cross-sectional view in which a part of the insole pad 10 is cut along a line passing through the center line.

  The insole pad 10 has an annular shape (donut plate shape), and includes a placement portion 18, an outer peripheral rib 20, and an inner peripheral rib 22, and a through hole 42 is formed inside the inner peripheral rib 22. From the outer peripheral surface of the mounting portion 18, a plurality of (here, three at 120 ° intervals) substantially cylindrical protrusions 44 extend radially outward of the mounting portion 18 along the circumferential direction of the mounting portion 18. Projecting toward (projecting from the outer shape of the mounting portion 18 in plan view).

  A container 16 (see FIG. 1A) can be placed on the placement portion 18, and the placement portion 18 is formed of an elastomer having a smaller surface friction coefficient than natural rubber, for example. In this case, only the surface of the mounting portion 18 may be coated to reduce the surface friction coefficient.

  As shown in FIG. 1A, the outer diameter of the mounting portion 18 is set to be slightly smaller than the inner diameter of the accommodating portion 14 of the cup holder 12 and is larger than the outer periphery 16 </ b> A of the container 16. Is set to An annular outer peripheral rib 20 is suspended from the outer periphery of the mounting portion 18, and an annular inner peripheral rib 22 is concentrically located on the inner side of the outer peripheral rib 20 on the center side of the mounting portion 18. ing.

  The container 16 is supported by the outer peripheral rib 20 and the inner peripheral rib 22 via the mounting portion 18. The container 16 is a plastic bottle or a can with a cap 40 for beverages up to about 500 ml. Here, the outer peripheral rib 20 and the inner peripheral rib 22 are set to have substantially the same thickness here.

  As shown in FIG. 1A and FIG. 2A, the outer peripheral rib 20 is placed on the placement portion 18 in a state where the container 16 is placed at the center of the placement portion 18. It is set to be positioned on the outer side in the radial direction of the outer periphery 16A. Further, the inner peripheral rib 22 is set so as to be positioned on the radially inner side of the outer periphery 16 </ b> A of the container 16. In a container 16 such as a plastic bottle, a bottom surface recess 24 is generally formed at the bottom, but the inner peripheral rib 22 is set so as to be located inside the outer edge of the bottom surface recess 24. The shape of the bottom recess 24 is not particularly specified.

  A through hole 42 is formed inside the inner peripheral rib 22 so as to be smaller than the inner diameter of the inner peripheral rib 22. For this reason, a flange 46 formed by a dimensional difference from the inner peripheral wall of the inner peripheral rib 22 protrudes from the inner edge of the through hole 42 over the entire periphery of the inner peripheral rib 22.

(Insole pad action / effect)
As shown in FIGS. 1A and 2A, an outer peripheral rib 20 and an inner peripheral rib 22 are suspended from the back surface of the placement portion 18 of the insole pad 10. For this reason, a space 28 is provided below the placement portion 18, and the placement portion 18 is held in a raised state.

  In a state where the container 16 is placed on the placement unit 18, the placement unit 18 supports the container 16 while maintaining a substantially horizontal state. Here, the mounting portion 18 is formed of an elastomer having a smaller surface friction coefficient than natural rubber. For this reason, the container 16 mounted on the mounting unit 18 can be slid on the mounting unit 18 following the vibration of the vehicle when the vehicle travels. Thereby, the fall of the container 16 can be suppressed.

  The insole pad 10 is formed of an elastic member, and a space 28 is provided below the placement portion 18. For this reason, when the pressing force more than the preset load acts on the mounting part 18, the mounting part 18 will bend downward. Here, as shown in FIG. 2A, the insole pad 10 has the outer peripheral rib 20 disposed so as to be located outside the outer periphery 16A of the container 16, and is positioned inside the outer periphery 16A of the container 16. Inner circumferential ribs 22 are arranged.

  For this reason, when the container 16 is pressed from above, the distal end portions of the outer peripheral rib 20 and the inner peripheral rib 22 are pressed against the bottom surface (contacted portion) 14A of the accommodating portion 14 of the cup holder 12 with which they are in contact. It becomes a state. That is, the insole pad 10 is prevented from slipping through the outer peripheral rib 20 and the inner peripheral rib 22.

  By the way, since the bottom surface recessed part 24 is formed in the bottom part of the container 16, when the container 16 is pressed with the pressing force more than the preset load, as shown in FIG. Sinking downward, the mounting portion 18 is elastically deformed along the shape of the bottom surface of the container 16. And the convex part 30 and 32 are formed in the area | region in which the inner peripheral rib 22 or the outer peripheral rib 20 was provided, respectively, and the recessed part 34 is formed in the area | region between the outer peripheral rib 20 and the inner peripheral rib 22. FIG.

  Thus, as the container 16 sinks, the mounting portion 18 is formed with a recess 34, the bottom surface recess 24 of the container 16 is in surface contact with the projection 30, and the projection 32 is the bottom surface of the container 16. The bottom edge is brought into contact with the bottom edge so as to cover the bottom edge. The concave portion 34 of the placement portion 18 is in surface contact with the bottom surface other than the bottom surface concave portion 24 of the container 16.

  On the other hand, a protrusion 44 protrudes radially outward from the outer peripheral surface of the mounting portion 18, and the protrusion 44 is in close contact with the inner wall surface 14 </ b> B of the housing portion 14. For this reason, when the mounting portion 18 is elastically deformed by the pressing of the container 16 to form the convex portion 32, the convex portion 32 has a reaction force N from the inner wall surface 14 </ b> B of the accommodating portion 14 via the protrusion 44. Will occur. For this reason, the lower end portion side of the outer peripheral rib 20 is pushed outward and brought into contact with the inner wall (contacted portion) 14B of the accommodating portion 14 and is pressed against the bottom surface (contacted portion) 14A. For this reason, when the pressing force of the container 16 increases, the amount by which the convex portion 32 moves up also increases.

  As described above, the mounting portion 18 is elastically deformed to come into surface contact with the bottom surface of the container 16 including the bottom surface recess 24, and at that time, the mounting portion 18 contacts the bottom surface of the container 16 with the container 16. A reaction force against the pressing force is generated. This reaction force becomes a resistance force to the rotational force that attempts to rotate the container 16.

  Specifically, since the bottom surface of the container 16 is in surface contact with the concave portion 34 of the placement portion 18, the reaction force in the direction opposite to the pressing force (in the direction of arrow A) that presses the container 16 in the concave portion 34. (Arrow B) occurs. Further, since the bottom surface concave portion 24 of the container 16 is in surface contact with the convex portion 30 of the mounting portion 18 and the boundary portion 36 between the convex portion 30 and the concave portion 34 via the inner peripheral rib 22, A reaction force (arrow C) is generated that is directed obliquely outward and upward against the pressing force (arrow A direction) that presses the container 16. Further, since the outer peripheral edge of the bottom surface of the container 16 is in surface contact with the boundary portion 38 between the convex portion 32 and the concave portion 34 of the mounting portion 18 via the outer peripheral rib 20, the container 16 is pressed at the boundary portion 38. A reaction force (in the direction of arrow D) is generated which is directed obliquely upward on the inside with respect to the pressing force (in the direction of arrow A).

  Thus, by pressing the container 16 from above and elastically deforming the mounting portion 18, the generated reaction force (arrows B, C, D) becomes a resistance force against the rotational force acting on the container 16. Further, by providing the outer peripheral rib 20 and the inner peripheral rib 22 on the mounting portion 18, the reaction force generated in the mounting portion 18 increases due to the elastic deformation of the outer peripheral rib 20 and the inner peripheral rib 22. The resistance force against the acting rotational force can be further increased.

  As shown in FIG. 1B, generally, when the cap 40 provided at the opening of the container 16 is rotated in the opening direction, the container 16 is rotated in the opening direction via the cap 40. Force (arrow E direction) acts. However, in the present embodiment, when the container 16 is rotated while pressing the container 16 from above with a pressing force (in the direction of arrow A) greater than a preset load, the rotational force acting on the container 16 is reduced. Resistance (in the direction of arrow F) is generated. For this reason, rotation of the container 16 is suppressed, and the cap 40 is easily opened with one hand.

  Here, the container 16 is pressed from above, the mounting portion 18 is elastically deformed, and the outer peripheral rib 20 of the insole pad 10 comes into contact with the inner wall surface 14B of the housing portion 14, so that the inner wall 14B of the housing portion 14 is interposed. The reaction force in the direction of arrow D can be increased. However, this reaction force can also be obtained by increasing the thickness of the outer peripheral rib 20 and increasing the contact force with the bottom surface (contacted portion) 14A of the accommodating portion 14.

  By the way, in this embodiment, as shown in FIG. 3A, a plurality of protrusions 44 protrude from the outer peripheral surface of the mounting portion 18 along the circumferential direction of the mounting portion 18. For this reason, the projection 44 is set so as to be in close contact (crimped) with the inner wall surface 14B of the housing portion 14 in a state where the insole pad 10 is mounted in the housing portion 14. Thereby, position shift of the insole pad 10 can be prevented, and dropping of the insole pad 10 can be suppressed in a state where the top and bottom of the cup holder 12 are reversed. That is, it is possible to prevent the insole pad 10 from being lost during distribution.

  Further, when the cap 40 provided in the opening of the container 16 is rotated, the rotation of the insole pad 10 is suppressed by the sliding resistance obtained between the protrusion 44 and the inner wall surface 14B of the accommodating portion 14 of the cup holder 12. Can do. Here, although not shown, when an annular protrusion is provided on the outer peripheral surface of the mounting portion 18, distortion occurs on the mounting portion 18 side when the adhesion between the protrusion and the inner wall surface 14 </ b> B of the accommodating portion 14 increases. There is a possibility that the entire circumference on the outer edge side of the placement portion 18 falls down toward the inside in the radial direction of the placement portion 18. In such a case, the reaction force from the inner wall surface 14B of the accommodating part 14 will become small. On the other hand, as shown in FIG. 3A, by making a plurality of protrusions 44 protrude from the outer peripheral surface of the mounting portion 18, the adhesion between the protrusion 44 and the inner wall surface 14B of the housing portion 14 is increased. Even if distortion occurs on the side of the portion 18, the distortion is absorbed by deformation of a portion where the protrusion 44 is not provided on the outer edge side of the placement portion 18.

  Therefore, even if the adhesion force between the projection 44 and the inner wall surface 14B of the housing portion 14 is increased by projecting the plurality of projections 44 from the outer peripheral surface of the mounting portion 18, the adhesion force is substantially maintained. In other words, by causing a plurality of protrusions 44 to protrude from the outer peripheral surface of the mounting portion 18, the resistance force obtained between the inner wall surface 14 </ b> B of the housing portion 14 can be increased compared to the case where the protrusions are annular. it can. Thereby, rotation of the insole pad 10 in the accommodating part 14 can further be suppressed. Needless to say, an annular protrusion may be provided on the outer peripheral surface of the mounting portion 18.

  Further, as shown in FIG. 3B, a through hole 42 is provided in the center portion of the insole pad 10 so that a finger can be inserted. A finger can be hooked on the inner edge of the through hole 42 in a state where the finger is inserted into the through hole 42 and the inner peripheral rib 22 is elastically deformed. For this reason, even if the insole pad 10 is mounted in the accommodating part 14 of the cup holder 12, the accommodating part 14 of the cup holder 12 can be obtained by lifting the insole pad 10 while hooking a finger on the inner edge of the through hole 42. Can remove the insole pad 10.

  In the present embodiment, a flange 46 is provided at the inner edge of the through hole 42. For this reason, in a state where the finger is inserted into the through hole 42, the finger can be hooked on the flange 46, and the insole pad 10 can be taken out from the accommodating portion 14 of the cup holder 12 more easily. The flange 46 may not be provided over the entire circumference of the inner edge portion of the through hole 42. The flange 46 is not always necessary.

  Further, here, the above-described effects can be obtained by mounting the insole pad 10 in the accommodating portion 14 of the cup holder 12 even for the existing cup holder 12 in which the insole pad 10 is not provided. it can.

(Supplementary explanation of this embodiment)
In FIG. 2B, the mounting portion 18 is elastically deformed so that the convex portion 30 of the mounting portion 18 is in surface contact with the substantially entire surface of the bottom surface concave portion 24 of the container 16. The amount of elastic deformation of the mounting portion 18 varies depending on the height. For this reason, it is preferable to set the height of the inner peripheral rib 22 to such a length that the convex portion 30 of the mounting portion 18 can come into surface contact with the substantially entire surface of the bottom surface concave portion 24 of the container 16. However, it is needless to say that the portion where the convex portion 30 of the mounting portion 18 is in surface contact with the bottom surface concave portion 24 of the container 16 may be a part.

  2A and 2B, the insole pad 10 supports the load of the container 16 by the outer peripheral rib 20 and the inner peripheral rib 22, and also the cap 40 of the container 16 (FIG. B) (see Fig. 5), the outer peripheral rib 20 and the inner peripheral rib 22 are elastically deformed to obtain a resistance force (arrow F direction) against the rotational force (arrow E direction) acting on the container 16; Is needed. For this reason, although the hardness of the insole pad 10 also changes depending on the thickness of the outer peripheral rib 20 and the inner peripheral rib 22, the supporting force for supporting the load of the container 16 and the outer peripheral rib 20 and the inner peripheral rib 22 are elastically deformed. In consideration of the pressing force required for the padding, the insole pad 10 preferably has a hardness of about 60 to 80 degrees.

  Furthermore, in this embodiment, although the accommodating part 14 of the cup holder 12 was made into the substantially cylindrical shape, the accommodating part may be a substantially prismatic shape. Here, since the insole pad 10 only needs to be mountable in the accommodating portion 14, it is not always necessary to match the shape of the accommodating portion. However, if the accommodating portion is square, the insole pad is also rectangular. Is preferred. Although not shown, when the insole pad is formed in a square shape, the outer peripheral rib may be formed in a square tube shape along the outer shape of the insole pad, or may be formed in a cylindrical shape.

  In the present embodiment, the outer peripheral rib 20 and the inner peripheral rib 22 provided on the back side of the insole pad 10 are formed in an annular shape, but the outer peripheral rib 20 and the inner peripheral rib 22 do not necessarily have to be formed continuously. A notch may be formed in the middle. Moreover, although the outer peripheral rib 20 and the inner peripheral rib 22 are provided on the back surface side of the insole pad 10, it is not always necessary to provide both, and only the outer peripheral rib 20 may be provided. In this case, the outer peripheral rib 20 may be suspended from the inner side of the outer peripheral surface of the mounting portion 18.

  Further, a plurality of protrusions 44 are provided here, but one may be provided, and the shape of the protrusions 44 is not limited to a substantially cylindrical shape. For example, although not shown, a convex rib formed along the circumferential direction of the outer peripheral surface of the mounting portion 18 may be used, and this convex rib may be the entire circumference of the outer peripheral surface of the mounting portion 18. May be provided. Further, ribs may be formed along the axial direction of the mounting portion 18 so as to extend from the outer peripheral surface of the mounting portion 18 to the outer peripheral surface of the outer peripheral rib 20. In this case, a contact area increases between the inner wall surface 14B of the accommodating part 14 of the cup holder 12, and a sliding resistance can be increased more.

  Further, the insole pad 10 can be used when the cap 40 of the container 16 is opened with one hand in a state of being placed on a table other than in the cup holder 12.

10 Insole pad (container pad)
12 Cup holder 14 Housing part 16 Container 18 Placement part 20 Outer peripheral rib (rib)
22 Inner rib (rib)
24 Bottom recess 42 Through hole 44 Projection

Claims (3)

A mounting portion that is formed of an elastic member, is capable of mounting the container, and is elastically deformed when a pressing force greater than a preset load is applied;
Provided on the back surface of the mounting unit, a space is provided below the mounting unit, the container is supported via the mounting unit, and elastically deforms when the pressing force acts on the mounting unit. An annular rib that generates a reaction force against the pressing force through the mounting portion;
A projection protruding from the outer shape of the mounting portion in plan view,
I have a,
The rib
An outer peripheral rib that hangs down from the outer edge side of the placement unit and is located outside the outer periphery of the container placed in the placement unit in plan view;
An inner circumferential rib provided on the inner side of the outer peripheral portion of the bottom recess provided in the bottom of the container, in plan view, provided on the inner side of the outer peripheral rib;
Comprising
A container laying pad in which a through hole is formed inside the inner peripheral rib . The container laying pad according to claim 1, wherein a plurality of the protrusions are provided. Accommodating portion the container is housed is provided, wherein the cup holder protrusions are in close contact provided in the container laid pad according to claim 1 or 2 on the inner wall surface of the receiving portion.