JP2010280275A - Seal structure between component for vehicle - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a structure capable of more easily and stably sealing a clearance formed between separate parts for a vehicle different from each other. <P>SOLUTION: First and second plate-like ribs 23, 25 extending in parallel so as to be opposed to each other are integrally formed on a first part 12 for the vehicle, whereas a plate-like extension part 34 having plate-like inclination projection parts 36, 38 at distal end portions is integrally formed on a second part 14 for the vehicle. Further, the plate-like extension part 34 is press-fitted to a space between opposed surfaces of the first and second plate-like ribs 23, 25 to provide a closed space 40 only communicated with the clearance 16 such that the distal end portions of the plate-like inclination projection parts 36, 38 are slidably pressure-contacted with at least any one of the opposed surfaces of the first and second plate-like ribs 23, 25. Thereby, air-passing through the clearance 16 can be prevented. <P>COPYRIGHT: (C)2011,JPO&INPIT

Description

  The present invention relates to a seal structure between vehicle parts, and more particularly, to an improvement in a seal structure between vehicle parts for preventing air leakage through a gap formed between vehicle parts.

  In general, when assembling different vehicle parts close to each other on a vehicle such as an automobile, the vehicle parts come into contact with each other due to input vibration or the like while the vehicle is running, causing abnormal noise. In order to prevent the vehicle parts from being damaged or deformed, a predetermined gap, that is, a so-called design gap is formed between the vehicle parts adjacent to each other (for example, , See Patent Document 1 below). However, depending on the type of vehicle component, if such a gap as a design gap is provided between other adjacent vehicle components, various problems may occur.

  For example, as shown in FIG. 11, a shroud 102 that protects the radiator 100 and wind (air) that flows into the engine room from the front grille are disposed around and in front of the radiator 100 in the engine room of the automobile. And a wind guide plate 104 for guiding to the position are assembled so as to be close to each other. However, if a gap 106 as a design gap is provided between the shroud 102 and the air guide plate 104, the wind guided by the air guide plate 104 is applied as shown by arrows in FIG. It has been unavoidable that the cooling efficiency of the radiator 100 is reduced by that amount due to escape to the outside through the gap 106. Further, there has been a problem that the aerodynamic performance is lowered due to such a wind passage through the gap 106.

  Therefore, conventionally, in many cases, as shown in FIG. 12, a seal member 108 made of various cushion materials or the like fills the gap 106 in the gap 106 between the shroud 102 and the air guide plate 104. Was attached. However, such a sealing member 108 is usually adhered to each of the facing portions 110 and 112 of the shroud 102 and the air guide plate 104 facing each other with a gap 106 therebetween, or riveted. Or they are joined and fixed. For this reason, in order to fix the seal member 108, after the work of assembling the shroud 102 and the air guide plate 104 to the automobile, a work separate from the work must be performed.

  Further, for example, when the gap 106 has a relatively complicated shape, the fixing operation of the seal member 108 becomes not only more troublesome, but also the shroud 102 and the air guide plate 104 face each other. There is a possibility that the bonding force of the seal member 108 to the portions 110 and 112 may vary, and it may be difficult to ensure stable sealing performance. In addition, as shown by a two-dot chain line in FIG. 12, when the shroud 102 and the air guide plate 104 are relatively displaced in a direction away from each other due to input vibration or the like during driving of the automobile, the seal member 108 is moved to the shroud 102. And the air guide plate 104 (FIG. 12 shows a state where the air guide plate 104 is peeled off), and between the shroud 102 and the air guide plate 104 and the seal member 108. There was even a risk that a gap could occur, thereby causing a situation where the sealing performance was impaired.

JP 2007-55522 A

  Here, the present invention has been made in the background as described above, and the problem to be solved is to remove the wind through a gap formed between different vehicle parts. Can be reliably and stably prevented without a troublesome work, and therefore, a stable seal between the vehicle parts can be easily and sufficiently secured. To provide a structure.

  The present invention can be suitably implemented in various aspects listed below in order to solve the problems described above or the problems grasped from the description and drawings of the entire specification. Moreover, each aspect described below can be employed in any combination. The aspects or technical features of the present invention are not limited to those described below, and can be recognized based on the description of the entire specification and the inventive concept disclosed in the drawings. Should be understood.

(1) A seal structure between vehicle components for preventing air leakage through a gap formed between different first vehicle components and second vehicle components, A first plate-like rib and a second plate-like rib facing each other are formed by integral molding with respect to one vehicle component, while extending from the second vehicle component, A plate-like extension portion that protrudes between the opposing surfaces of the first plate-like rib and the second plate-like rib is formed by integral molding with respect to the second vehicle component; At least one of the first plate-like rib and the second plate-like rib from the tip portion of the plate-like extension portion under the state where the plate-like extension portion enters between the opposing surfaces A plate-like inclined protrusion projecting obliquely toward the side of the plate-shaped extension portion is formed by integral molding with respect to the plate-like extension portion; and The tip portion of the plate-like inclined protrusion of the plate-like extending portion is slidable with respect to at least one of the opposing surfaces of the first plate-like rib and the second plate-like rib. The plate-like extension portion is press-fitted between the opposing surfaces of the first plate-like rib and the second plate-like rib so as to press-contact in the state, and the first vehicle component and the first A closed space that connects the two vehicle components to each other and is surrounded by a wall portion including the first and second plate-like ribs and the plate-like extension portion, and communicates only with the gap. A structure for sealing between vehicle parts, characterized in that, by forming, a wind passage through the gap is prevented.

(2) A seal structure between vehicle components for preventing air leakage through a gap formed between different first vehicle components and second vehicle components, For one vehicle component, a connecting portion having a first plate rib and a second plate rib facing each other is formed by integral molding, while extending from the second vehicle component. The plate-like extension portion that protrudes between the opposing surfaces of the first plate-like rib and the second plate-like rib of the connecting portion at the tip portion thereof with respect to the second vehicle component. Formed by integral molding, and further, from the plate-like extension portion under the state where the plate-like extension portion enters between the opposing surfaces of the first plate-like rib and the second plate-like rib. A plate-like inclined protrusion projecting obliquely toward at least one of the first plate-like rib and the second plate-like rib; And forming a cover part covering at least one of the connecting part and the plate-like extension part, and forming a cover part on the tip side part of the extension part. The tip portion of the plate-like inclined protrusion of the plate-like extension portion is formed on the opposing surface of the first plate-like rib and the second plate-like rib of the connecting portion. The plate-like extension portion is press-fitted between the opposing surfaces of the first plate-like rib and the second plate-like rib so as to be pressed against at least one of them in a slidable state. The first vehicle component and the second vehicle component are connected to each other, and the closed space is surrounded by the connection portion and the plate-like extension portion and communicates only with the gap. By forming the gap between the vehicle parts, the wind passage through the gap is prevented. Le structure.

(3) The plate-like inclined protrusion can be elastically deformed, and the inclination angle of the plate-like inclined protrusion with respect to the tip portion of the plate-like extending portion is variable based on the elastic deformation of the plate-like inclined protrusion. The sealing structure between the vehicle parts as described in the above aspect (1) or (2).

(4) Under the state in which the plate-like extension portion enters between the opposing surfaces of the first plate-like rib and the second plate-like rib, from the tip portion of the plate-like extension portion, The first projecting rib and the second projecting rib project in an inclined manner toward both sides of the first plate rib and the second plate rib in a direction opposite to the direction in which the plate-like extension part enters between the opposing surfaces. One plate-like inclined protrusion and a second plate-like inclined protrusion are formed by integral molding with respect to the plate-like extension part, and the first plate-like inclined protrusion and the second plate-like protrusion The seal structure between vehicle components according to the aspect (3), wherein the plate-like inclined protrusion is configured by an inclined protrusion.

(5) Under the state before the plate-like extension portion enters between the opposing surfaces of the first plate-like rib and the second plate-like rib, the first plate-like inclined protrusion portion The distance from the tip portion to the tip portion of the second plate-like inclined protrusion is set to be larger than the distance between the opposing surfaces of the first plate-like rib and the second plate-like rib. The first plate-like inclined projection and the second plate-like shape are formed by the penetration of the plate-like extension portion between the opposing surfaces of the first plate-like rib and the second plate-like rib. An inclined protrusion between the opposing surfaces, from the tip portion of the plate-like extension part, in a direction opposite to the direction in which the plate-like extension part enters between the opposing faces, The seal structure between the vehicle parts according to the aspect (4), wherein the plate-shaped rib and the second plate-shaped rib are elastically deformed and arranged so as to be inclined.

(6) The projecting direction of the plate-like extension portion between the opposing surfaces of the first plate-like rib and the second plate-like rib is the first vehicle component and the second vehicle. The structure for sealing between vehicle parts according to any one of the above aspects (1) to (5), wherein the direction is parallel to the assembly direction of at least one of the vehicle parts. .

  That is, according to the seal structure between the vehicle components according to the present invention, when the first vehicle component or the second vehicle component is assembled to the vehicle, the plate simply formed integrally with the second vehicle component. The gap between the first and second vehicle parts can be obtained by simply press-fitting the extending portion between the opposing surfaces of the first and second ribs integrally formed with the first vehicle part. Regardless of whether the shape is complicated or not, it is possible to more easily and surely seal by efficient work at the same time as assembling each vehicle component to the vehicle.

  Further, in the seal structure according to the present invention, the plate-like slope integrally formed with the plate-like extension portion under the press-fitted state of the plate-like extension portion between the opposing surfaces of the first and second ribs. The protrusion is slidably pressed against one of the opposing surfaces of the first and second ribs. Therefore, for example, in the main displacement direction of the relative displacement caused between the first vehicle component and the second vehicle component due to input vibration during traveling of the vehicle, the plate-like inclined projection If the plate-like extension portion is configured to be press-fitted between the opposing surfaces of each rib so that the portion is slid against the opposing surfaces of the first rib and the second rib, the first When relative displacement between the vehicle component and the second vehicle component is induced, the plate-like inclined protrusion slides against the opposing surfaces of the first rib and the second rib. Thereby, it is possible to effectively prevent or suppress the loss of the sealing performance of the gap between the vehicle parts.

  Further, in such a sealing structure, the tip portion of the plate-like inclined protrusion is in the first and second under the press-fitted state of the plate-like extension portion between the opposing surfaces of the first and second ribs. The ribs are slidably pressed against any one of the opposing surfaces of the ribs. Therefore, under the press-fitted state of the plate-like extension portion between the opposing surfaces of the first and second ribs, for example, the entire plate surfaces on both sides in the thickness direction of the plate-like extension portion are each rib. Compared to the case where it is slidably pressed against the opposite surface, the plate-like extension of the ribs between the opposite surfaces can be smoothly inserted with a smaller force. The sealing work of the gap between the first and second vehicle parts can be made easier.

  Therefore, according to the seal structure between the vehicle parts according to the present invention as described above, it is necessary to perform troublesome work for removing the wind through the gap formed between the first vehicle part and the second vehicle part. Therefore, it is possible to prevent more reliably and stably, and thus it is possible to easily and sufficiently ensure a stable sealing property between the vehicle parts. As a result, in the state where the first vehicle component and the second vehicle component are assembled to the vehicle while forming a sufficient design gap between them, it is caused by wind blow through the design gap. The occurrence of various problems can be prevented very easily and effectively.

  Further, in the seal structure between the vehicle parts according to the present invention, the opposing surface of the first rib under the press-fitted state of the plate-like extension portion between the opposing surfaces of the first and second ribs. In addition, a plate-like inclined protrusion, which is a portion that is pressed against the opposing surface of the second rib, protrudes from the tip portion of the plate-like extension portion. Therefore, for example, a portion where a portion pressed against the facing surface of the first rib or the facing surface of the second rib protrudes perpendicularly from the tip portion of the plate-like extension portion to the plate-like extension portion. Unlike the case where the plate-like extension part is not elastically deformable, for example, when the plate-like extension part is press-fitted between the opposing surfaces of the first and second ribs. The plate-like inclined protrusions that are in pressure contact with the opposing surface of the first rib and the opposing surface of the second rib are damaged due to a large load on the base end due to sliding resistance against the opposing surface of the ribs. Or deformation can be prevented as much as possible. Also by this, sufficient sealing performance can be ensured more stably between the vehicle components.

It is explanatory drawing which shows one Embodiment of the seal structure according to this invention, Comprising: The clearance gap formed between a shroud and a baffle plate is sealed, and the state which assembled these shrouds and a baffle plate to the motor vehicle is shown. ing. It is explanatory drawing which shows an example of the process implemented when implement | achieving the seal structure shown by FIG. FIG. 2 is a partially enlarged explanatory view of FIG. 1. It is a figure corresponding to the principal part of FIG. 1 which shows another embodiment of the seal structure according to this invention. It is explanatory drawing which shows an example different from what is shown by FIG. 1 of the plate-shaped extension part provided in a baffle plate in order to implement | achieve the seal structure according to this invention. It is a figure corresponding to the principal part of FIG. 1 which shows another embodiment of the seal structure according to this invention. It is a figure corresponding to the principal part of FIG. 1 which shows other embodiment of the seal structure according to this invention. It is a figure corresponding to the principal part of FIG. 1 which shows other embodiment of the seal structure according to this invention. It is a figure corresponding to the principal part of FIG. 1 which shows another embodiment of the seal structure according to this invention. It is a figure corresponding to the principal part of FIG. 1 which shows another embodiment of the seal structure according to this invention. It is explanatory drawing which shows the assembly | attachment state to the motor vehicle of the conventional shroud and a baffle plate, Comprising: These shrouds and a baffle plate are made into a motor vehicle, without sealing the clearance gap formed between a shroud and a baffle plate. The assembled state is shown. A state in which a gap formed between the shroud and the air guide plate is sealed by the conventional seal structure and the shroud and the air guide plate are assembled to the automobile is shown.

  Hereinafter, in order to clarify the present invention more specifically, embodiments of the present invention will be described in detail with reference to the drawings.

  First, FIG. 1 shows an embodiment of a seal structure between vehicle parts according to the present invention. In FIG. 1, reference numeral 10 denotes a radiator installed in an engine room of an automobile. Around the radiator 10, a shroud 12, which is a resin-made rectangular frame and is a first vehicle component, is provided. It is fixed to a radiator support (not shown). The shroud 12 has a width (a dimension in the vertical direction in FIG. 1) and a height (a dimension in a direction perpendicular to the paper surface in FIG. 1) larger than the width and the height of the radiator 10 by a predetermined dimension. The radiator 10 is disposed so as to extend in the front-rear direction of the automobile while surrounding the radiator 10.

  In addition, a wind guide plate 14 as a second vehicle component is fixed to a bumper reinforcement or the like (not shown) on the front side (left side in FIG. 1) of the automobile from the radiator 10 so as to extend in the longitudinal direction of the automobile. It is arranged to extend. The wind guide plate 14 is made of a resin-made rectangular frame that can be elastically deformed, and has a width (a dimension in the vertical direction in FIG. 1) and a height (a dimension in a direction perpendicular to the paper surface in FIG. 1). The width and height of the shroud 12 are the same as each other. The air guide plate 14 is inserted into the engine room from the front to the rear of the automobile and is fixed to the bumper reinforcement (see FIG. 2). In the following, for the sake of convenience, the front-rear direction of the automobile (the left-right direction in FIG. 1) is simply referred to as the front-rear direction.

  The shroud 12 and the air guide plate 14 fixed in the engine room as described above are arranged such that the former front end portion and the latter rear end portion are close to each other in the front-rear direction. A gap 16 as a design gap is formed between the front end portion of the shroud 12 and the rear end portion of the air guide plate 14.

  Thus, the wind flowing into the engine room from the front grill (not shown) is guided to the front surface of the radiator 10 by the air guide plate 14, and the wind guided to the front surface of the radiator 10 is sent to the shroud 12. Thus, it is further guided toward the rear side. Further, the relative displacement between the shroud 12 and the wind guide plate 14 due to input vibration or the like during driving of the automobile is absorbed by the gap 16 formed between the shroud 12 and the wind guide plate 14, and the shroud 12 Contact between the front end portion and the rear end portion of the air guide plate 14 is prevented. The gap 16 opens toward the inner side of the rectangular frame-shaped air guide plate 14 in a direction perpendicular to the wind flow direction in the air guide plate 14. And here, such a gap 16 is formed between the front end portion of the shroud 12 and the rear end portion of the air guide plate 14 by a seal portion 18 having a special structure not seen in the past. It is designed to be sealed.

  More specifically, at the front end portion of the shroud 12, an outer flange that protrudes outward at a predetermined height and continuously extends in the circumferential direction at a portion that is biased rearward by a predetermined dimension from the front end edge thereof. The part 20 is formed by integral molding. And the site | part ahead of the formation site | part of the outer flange part 20 in the front-end part of this shroud 12 is made into the 1st cylindrical rib 22 which has a rectangular cylindrical form.

  Moreover, the 2nd cylindrical rib 24 protrudes at the protrusion front-end | tip part of the outer flange part 20 by integral molding. The second cylindrical rib 24 has a rectangular cylindrical shape that protrudes forward at the protruding tip portion of the outer flange portion 20 and continuously extends in the circumferential direction of the protruding tip portion. The projecting height from the outer flange portion 20 of the second cylindrical rib 24 is approximately the same as the height of the first cylindrical rib 22.

  In other words, the first cylindrical rib 22 and the second cylindrical rib 24 are coaxially arranged at the front end portion of the shroud 12. The first cylindrical ribs 22 have four rectangular plate-like first plate-like ribs 23 (only three are shown in FIG. 1) so as to exhibit a rectangular cylindrical shape extending in the front-rear direction. , Are combined together. The rear peripheral edge of the gap 16 is formed at the tip of the first cylindrical rib 22. On the other hand, the second cylindrical rib 24 is a rectangular plate-like second plate-shaped rib 25 having substantially the same length in the front-rear direction as the first plate-shaped rib 23 and having a larger width than the first plate-shaped rib 23. 4 (only three are shown in FIG. 1) are integrally combined so as to exhibit a rectangular cylindrical shape extending in the front-rear direction.

  Thus, at the front end of the shroud 12, the first cylindrical rib 22 and the second cylindrical rib 24 extend coaxially in parallel with the latter positioned on the outside, and with respect to the front-rear direction. They are opposed to each other at a certain distance from each other in a perpendicular direction. Thereby, the 1st opposing which the outer side surface of each 1st plate-shaped rib 23 of the 1st cylindrical rib 22 respectively opposes the inner side surface of each 2nd plate-shaped rib 25 of the 2nd cylindrical rib 24, respectively. On the other hand, the inner side surface of each second plate-like rib 25 is a second opposing surface 28 that faces the outer side surface of each first plate-like rib 23. Further, between the first opposing surface 26 of each of the first plate-like ribs 23 and the second opposing surface 28 of each of the second plate-like ribs 25, an annular shape that opens forward and extends in the circumferential direction. A space 29 is formed so as to surround the front end portion of the shroud 12 from the outside.

  And such a 1st cylindrical rib 22 and the 2nd cylindrical rib 24 are in each rear end part (the rear end part of each 1st plate-shaped rib 23, and each 2nd plate-shaped rib 25). Are connected together via an outer flange portion 20 formed integrally with the shroud 12. Thus, the first cylindrical rib 22 and the second cylindrical rib 24 are integrally formed with the front end portion of the shroud 12.

  On the other hand, a cylindrical extension 30 is formed at the rear end of the air guide plate 14 by integral molding. The cylindrical extending portion 30 extends outward from the rear end edge of the air guide plate 14 having a rectangular cylindrical shape by a predetermined length (projects at a predetermined height), and continues in the circumferential direction. The flange-like extension part 32 that extends and the four edge parts on the extension tip side of the flange-like extension part 32 extend rearward by a predetermined length (project at a predetermined height). 4) The plate-like extending portions 34 (only three are shown in FIG. 1) are integrally formed, and as a whole, a rectangular tubular shape is exhibited.

  In such a cylindrical extension portion 30, the extension length (projection height) of the flange-like extension portion 32 from the air guide plate 14 is a predetermined dimension than the projection height of the outer flange portion 20 from the shroud 12. Further, the extension length (projection height) of each plate-like extension portion 34 from the flange-like extension portion 32 is larger than the width of the gap 16 and the width of the gap 16 It is made smaller by a predetermined dimension than the total dimension with the height of one cylindrical rib 22 (first plate-like rib 23) and second cylindrical rib 24 (second plate-like rib 25). Further, the thickness of each plate-like extension 34 is made sufficiently smaller than the distance between the first opposing surface 26 of the first cylindrical rib 22 and the second opposing surface 28 of the second cylindrical rib 24. ing. Each plate-like extension portion 34 of the cylindrical extension portion 30 covers the gap 16 and extends to the front end portion side of the shroud 12 beyond the gap 16. And the front end side part of this cylindrical extension part 34 is in the said annular space 29 formed between the 1st cylindrical rib 22 and the 2nd cylindrical rib 24 in the front-end part of the shroud 12, It's It rushes through the front opening. As is clear from this, in the present embodiment, a cover portion is constituted by the base side portion of each plate-like extension portion 34 and the flange-like extension portion 32.

  Further, an inner plate-like inclined protrusion 36 as a first plate-like inclined protrusion and a second plate-like inclined protrusion at the tip portion of each plate-like extending portion 34 that has entered the annular space 29. The outer plate-like inclined protrusions 38 are integrally formed with each other.

  The inner plate-like inclined protrusions 36 are cylindrically extended from the front end portions of the respective plate-like extension portions 34 toward the front direction opposite to the direction in which the respective plate-like extension portions 34 enter the annular space 29. It has an inclined plate shape that is inclined and protrudes to the inside of the protruding portion 30, and has substantially the same length as each plate-like extending portion 34. On the other hand, the outer plate-like inclined projections 38 are formed from the tip portions of the respective plate-like extension portions 34 toward the front side opposite to the direction in which each plate-like extension portion 34 enters the annular space 29. The plate-like extending portion 30 is inclined to the outside and has a protruding inclined plate shape and has substantially the same length as each plate-like extending portion 34. Further, both the inner and outer plate-like inclined protrusions 36 and 38 are sufficiently thinner than the respective plate-like extending portions 34, thereby being easily elastically deformable. In such inner and outer plate-like inclined projections 36 and 38, an inclination angle with respect to the tip portion of each plate-like extending portion 34 (inner plate-like inclined projection 36 and 38) is based on the elastic deformation. Α and β can be easily changed. Angles formed by the respective plate-like extending portions 34 and angles formed by the outer plate-shaped inclined protrusions 38 and the respective plate-like extending portions 34).

  In the present embodiment, as shown in FIG. 2, the tip side portion of each plate-like extension portion 34 of the cylindrical extension portion 30 is between the first cylindrical rib 22 and the second cylindrical rib 24. The inner plate-like inclined protrusions 36 and the outer plate-like inclined protrusions 38 are directed from the tip end portions of the respective plate-like extending portions 34 toward the inside and outside thereof. , And projecting at an angle substantially perpendicular to each plate-like extension 34. In addition, the distance L from the tip of the inner plate-shaped inclined protrusion 36 to the tip of the outer plate-shaped inclined protrusion 38 is the first facing surface 26 of the first cylindrical rib 22 (first plate-shaped rib 23). The distance from the second opposing surface 28 of the second cylindrical rib 24 (second plate-like rib 25) is set to be a predetermined dimension larger than M. Therefore, as indicated by a two-dot chain line in FIG. 2, each plate-like extending portion 34 integrally including the inner plate-like inclined protrusion 36 and the outer plate-like inclined protrusion 38 is formed by the first cylindrical rib. The inner plate-like inclined protrusions 36 and the outer plate-like inclined protrusions 38 are formed in the annular shape of each plate-like extension portion 34 when being inserted into the annular space 29 between the second cylindrical rib 24 and the second cylindrical rib 24. It is elastically deformed so as to incline in the direction opposite to the direction of entry into the space 29.

  Thus, in the present embodiment, as shown in FIG. 1, each plate-like extension portion 34 is press-fitted into the annular space 29 between the first cylindrical rib 22 and the second cylindrical rib 24. In addition, under such a press-fitted state, the tip portion of the inner plate-shaped inclined protrusion 36 can slide with respect to the first facing surface 26 of each first plate-shaped rib 23 in the first cylindrical rib 22. On the other hand, the tip portion of the outer plate-shaped inclined protrusion 38 is slidably pressed against the second opposing surface 28 of each second plate-shaped rib 25 in the second cylindrical rib 24. Yes. Thereby, the shroud 12 and the wind guide plate 14 are mutually connected. At the same time, the opening to the front side of the annular space 29 is closed by the inner and outer plate-like inclined protrusions 36 and 38. Then, on the outer side of the front end portion of the shroud 12, the flange-like extension portion 32 of the cylindrical extension portion 30, each plate-like extension portion 34, each inner plate-like inclined protrusion 36, and each first plate-like shape. A closed space 40 surrounded by a wall portion composed of the tip of the rib 23 is formed so as to communicate only with the gap 16 formed between the air guide plate 14 and the shroud 12. As is clear from these facts, the first cylindrical rib 22, the second cylindrical rib 24, and the outer flange portion 20 constitute a connecting portion here.

  As described above, in the present embodiment, the seal portion 18 is formed by the first and second cylindrical ribs 22 and 24 and the cylindrical extension portion 30 between the shroud 12 and the air guide plate 14. Therefore, even if the wind guided toward the radiator 10 by the air guide plate 14 enters the gap 16, the outside air flow through the gap 16 is prevented, and the air guide plate 14. And the shroud 12 can be secured.

  In the present embodiment in which such a seal portion 18 is provided, the tip portions of the inner and outer plate-like inclined protrusions 36 and 38 integrally formed with each plate-like extension portion 34 of the cylindrical extension portion 30 are as follows. The first cylindrical rib 22 is slidable in a state where it is in pressure contact with the first opposing surface 26 of the second cylindrical rib 22 and the second opposing surface 28 of the second cylindrical rib 24. Therefore, for example, the wind guide plate 14 and the shroud 12 are relatively displaced in the front-rear direction due to input vibration during driving of the automobile, and the wind guide plate 14 and the shroud 12 are indicated by a two-dot chain line in FIG. Are spaced apart from each other in the front-rear direction, the tip portions of the inner and outer plate-like inclined projections 36, 38 are located on the first opposing surface 26 of the first cylindrical rib 22 and the second cylindrical rib 24. It is slid in a pressure contact state with the second facing surface 28. Therefore, the sealing performance of the gap 16 is prevented from being impaired by the relative displacement between the air guide plate 14 and the shroud 12 in the front-rear direction.

  Further, when the wind guide plate 14 and the shroud 12 are relatively displaced in the left-right direction (vehicle width direction) or the up-down direction due to input vibration during driving of the automobile, the inner plate-shaped inclined protrusion 36 and the outer plate-shaped inclined protrusion 38 is elastically deformed.

  Specifically, for example, as shown by a one-dot chain line in FIG. 3, when the shroud 12 is relatively displaced leftward (downward in FIG. 3) with respect to the air guide plate 14, the right side of the shroud 12 (see FIG. 3). 3, the second plate-like rib 25 located on the upper side) approaches the plate-like extension portion 34 located on the right side (upper side in FIG. 3) of the air guide plate 14, and thus the plate-like extension. The outer plate-shaped inclined protrusion 38 integrally formed with the protruding portion 34 is elastically deformed so as to reduce the inclination angle β with respect to the plate-shaped extending portion 34. On the other hand, the first plate-like rib 23 located on the right side of the shroud 12 is separated from the plate-like extension portion 34 located on the right side of the air guide plate 14. The integrally formed inner plate-like inclined protrusion 36 is elastically deformed so as to increase the inclination angle α with respect to the plate-like extending portion 34. Therefore, even when the shroud 12 is relatively displaced leftward with respect to the air guide plate 14, the inner plate-shaped inclined protrusion 36 is pressed against the first plate-shaped rib 23, and the outer plate-shaped inclined protrusion 38 is Any pressure contact state with respect to the second plate-like rib 25 can be sufficiently maintained. Therefore, the sealing performance of the gap 16 is not impaired by such relative displacement.

  Similarly, when the air guide plate 14 and the shroud 12 are relatively displaced in the right direction or the up-down direction, the inner plate-like inclined protrusions 36 and the outer plate-like inclined protrusions 38 with respect to the plate-like extension portion 34. Inclination angles: The inner plate-like inclined protrusions 36 and the outer plate-like inclined protrusions 38 are elastically deformed so that the sizes of α and β change, and the inner and outer plate-like inclined protrusions 36 and 38 are elastically deformed. The pressure contact state with respect to the first and second plate-like ribs 23 and 25 is maintained. Thus, it is possible to advantageously prevent the sealing performance of the gap 16 from being impaired due to the relative displacement of the air guide plate 14 and the shroud 12 in the right direction or the vertical direction.

  Therefore, according to the seal structure of the present embodiment as described above, the air guide plate 14 is sufficiently exerted as a design gap in the gap 16 formed between the air guide plate 14 and the shroud 12. And the shroud 12 can be stably secured. As a result, the amount of air guided into the air guide plate 14 toward the radiator 10 is effectively increased without causing various problems due to the contact between the air guide plate 14 and the shroud 12. Therefore, the cooling efficiency of the radiator 10 can be increased very advantageously.

  Moreover, in this embodiment, the cylindrical extension part 30 which comprises the seal part 18, 1st and 2nd cylindrical ribs 22 and 24, and the outer flange part 20 are with respect to the baffle plate 14 and the shroud 12. Each of the plate-like extension portions 34 of the cylindrical extension portion 30 is formed between the first and second opposing surfaces 26, 28 of the first and second cylindrical ribs 22, 24, respectively. The seal portion 18 is formed by a simple operation simply by press-fitting. Moreover, the press-fitting direction of each plate-like extension portion 34 is the same as the direction in which the air guide plate 14 is assembled to the automobile. Therefore, the gap 16 can be sealed only by performing a simple press-fitting operation at the same time that the shroud 12 and the air guide plate 14 are assembled to the automobile. Accordingly, in addition to the work of assembling the shroud 12 and the air guide plate 14 to the automobile, the necessity of performing a special work for sealing the gap 16 formed between them is advantageously eliminated, and such a sealing work. Simplification and efficiency can be effectively achieved.

  Furthermore, in this embodiment, each plate-like extension is achieved by press-fitting each plate-like extension portion 34 between the first and second opposing surfaces 26, 28 of each first and second cylindrical ribs 22, 24. Only the tip portions of the outer and inner plate-like inclined protrusions 36 and 38 formed integrally with the portion 34 are slidably pressed against the first and second opposing surfaces 26 and 28. Therefore, for example, compared with the case where the entire plate surface of each plate-like extension portion 34 is slidably pressed against the first and second opposed surfaces 26 and 28, the first and second opposed surfaces are opposed to each other. The sliding resistance generated when the plate-like extension portions 34 are press-fitted between the surfaces 26 and 28 can be advantageously reduced. Also by this, simplification and efficiency improvement of the sealing operation of the gap 16 can be advantageously realized.

  In the present embodiment, the inner plate is in a state before press-fitting each plate-like extension portion 34 between the first and second opposing surfaces 26, 28 of each first and second plate-like ribs 23, 25. The distance L from the tip of the inclined slope 36 to the tip of the outer plate-like slope 38 is set to be a predetermined dimension larger than the distance M between the first and second opposing surfaces 26 and 28, and By press-fitting the plate-like extension portion 34 between the first and second opposing surfaces 26, 28, the inner and outer plate-like inclined projections 36, 38 are elastically deformed so as to incline, and the first and second opposing surfaces The surfaces 26 and 28 are pressed against each other. Accordingly, the inner and outer plate-like inclined protrusions 36 and 38 are connected to the first and second opposing surfaces 26, 38 under the press-fitted state of the plate-like extension portion 34 between the first and second opposing surfaces 26, 28. 28 can be reliably pressed with a sufficient pressing amount. As a result, the sealing performance of the gap 16 can be ensured more sufficiently and stably.

  In addition, in the present embodiment, regardless of the shape of the gap 16, each plate-like extension portion 34 of the cylindrical extension portion 30 is replaced with each of the first and second cylindrical ribs 22, 24. The gap 16 is sealed by press-fitting between the two opposing surfaces 26 and 28. Therefore, even if the shape of the gap 16 is complicated, it can be advantageously eliminated that the sealing performance deteriorates or becomes unstable.

  By the way, in said 1st embodiment, the inner side plate-shaped inclination protrusion part 36 and the outer side plate-like inclination protrusion part 38 are integrally molded with respect to the front-end | tip part of each plate-like extension part 34 of the cylindrical extension part 30. FIG. However, only one of the inner and outer plate-like inclined protrusions 36 and 38 may be integrally formed at the tip portion of each plate-like extension portion 34. For example, as shown in FIG. 4, there is no problem even if only the inner plate-like inclined protrusion 36 is integrally formed with the tip portion of each plate-like extending portion 34. In this case, the distal end portion of the inner plate-shaped inclined protrusion 36 is slidably pressed against the first facing surface 26 of the first plate-shaped rib 23, and The outer side surface is slidably pressed against the second opposing surface 28 of the second plate-like rib 25. Thereby, the gap 16 is configured to be sealed. Although not shown in the drawing, it is of course possible to integrally form only the outer plate-like inclined protrusions 38 with respect to the tip portions of the respective plate-like extending portions 34.

  In the first embodiment, the entire inner plate-like inclined protrusion 36 and the outer plate-like inclined protrusion 38 are thinner than the respective plate-like extending portions 34, so that they can be easily elastically deformed. It was said. However, even when the entire inner and outer plate-like inclined protrusions 36 and 38 have the same thickness as the plate-like extending portions 34, for example, as shown in FIG. By forming a notch 42 at the base end portion on the plate-like extension portion 34 side of the slanted protrusions 36, 38, only the base end portion is made thin, and the inner and outer plate-like slant protrusions 36, 38 can be easily formed. It can also be made elastically deformable.

  Next, FIG. 6 shows another embodiment in which the structure of the seal portion 18 is different from that of the first embodiment. In addition, regarding the embodiment shown in FIG. 6 and some other embodiments shown in FIGS. 7 to 10 which will be described later, members having the same structure as the embodiment shown in FIG. With respect to the portions, the same reference numerals as those in FIG.

  In other words, in the present embodiment, the first flange plate 44 protrudes toward the outer side of the shroud 12 having a rectangular cylindrical shape and continuously extends in the circumferential direction at the front edge of the shroud 12. It has a shape and is integrally molded. In addition, a cylindrical connecting portion 46 is formed integrally with the distal end portion of the first plate-like rib 44 so as to protrude forward in the form of a rectangular cylindrical body. The cylindrical connecting portion 46 has a protruding height larger than the width of the gap 16, covers the gap 16, and extends forward beyond the gap 16. Further, a second plate-like rib 48 protrudes toward the inner side of the shroud 12 and continuously extends in the circumferential direction, and is integrally formed at the distal end portion of the cylindrical connecting portion 46. Has been. The second plate-like rib 48 has a projection height smaller than the projection height of the first plate-like rib 44 from the shroud 12, and is a predetermined distance in the front-rear direction with respect to the first plate-like rib 44. Are arranged opposite to each other. The opposing surface of the first plate-like rib 44 to the second plate-like rib 48 is a first opposing surface 50, while the second plate-like rib 48 is opposed to the first plate-like rib 44. The facing surface is a second facing surface 52. As is apparent from these, in the present embodiment, the first plate-like rib 44, the cylindrical connecting portion 46, and the second plate-like rib 48 constitute a connecting portion, and the The cover part is comprised in the whole of such a connection part.

  On the other hand, at the rear end edge of the air guide plate 14, a plate-like extension portion 54 having an outer flange shape that protrudes toward the outside of the air guide plate 14 having a rectangular cylindrical shape and continuously extends in the circumferential direction. Are integrally formed. The plate-like extension portion 54 has a height that is a predetermined dimension lower than the height of the first and second plate-like ribs 44 and 48 provided in the shroud 12. Further, the first plate-like inclined protrusion 56 and the second plate-like inclined protrusion 58 have a thinner wall thickness than the plate-like extending portion 54 at the tip portion of the plate-like extending portion 54. Each is integrally molded in a state where it can be easily elastically deformed.

  And the plate-like extension part 54 provided in the air guide plate 14 is press-fitted between the first opposing surface 50 of the first plate-like rib 44 and the second opposing surface 52 of the second plate-like rib 48. is doing. Further, under such a press-fitted state, the first plate-like inclined protrusions 56 provided at the tip portion of the plate-like extension portion 54 are moved from the tip portion of the plate-like extension portion 54 to the first and second portions. Of the first plate-like ribs 44 in the direction opposite to the direction in which the plate-like extension portion 54 enters between the plate-like ribs 44, 48 (inward direction of the air guide plate 14 having a rectangular cylindrical shape). Inclined and protruded toward the facing surface 50, the tip portion of the first plate-like inclined protrusion 56 is slidably pressed against the first facing surface 50. On the other hand, the second plate-like inclined projection 58 is defined as the direction in which the plate-like extension portion 54 enters from the tip portion of the plate-like extension portion 54 between the first and second plate-like ribs 44 and 48. In the opposite direction, the second plate-like rib 48 is inclined and protrudes toward the second opposing surface 52, and the tip portion of the second plate-like inclined protrusion 58 is located at the second opposing surface 52. Are slidably pressed against each other.

  Thus, the shroud 12 and the air guide plate 14 are connected to each other, and the first plate-like rib 44, the plate-like extension portion 54, and the plate-like extension portion are provided outside the front end portion of the shroud 12. The closed space 40 surrounded by the wall portion formed of the first plate-like inclined protrusion 56 provided at the tip portion of the 54 is only in the gap 16 formed between the air guide plate 14 and the shroud 12. It is formed in communication. As a result, a seal portion 18 is formed between the shroud 12 and the air guide plate 14, so that even if the wind guided toward the radiator 10 by the air guide plate 14 enters the gap 16. This prevents the air from passing through the gap 16 to the outside, and the sealing performance between the air guide plate 14 and the shroud 12 can be ensured.

  In the present embodiment having such a structure, the direction in which the plate-like extension portion 54 enters between the opposed surfaces of the first plate-like rib 44 and the second plate-like rib 48 is the first one. Although different from the embodiment, the seal portion 18 has a basic structure substantially similar to the seal portion 18 in the first embodiment. Therefore, also in this embodiment, the same operations and effects as those of the first embodiment can be enjoyed effectively.

  Next, FIG. 7 shows another embodiment in which the structure of the seal portion 18 is further different from the first and second embodiments. In the present embodiment, as in the first embodiment, there are four rectangular plate-like first plate-like ribs 23 at the front end of the shroud 12 (only two are shown in FIG. 7). And the second cylindrical rib 24 consisting of four rectangular plate-like second plate ribs 25 (only two are shown in FIG. 7) are coaxial. It is integrally molded so that it may be located in. A cylindrical extension 30 is integrally formed at the rear edge of the air guide plate 14. The cylindrical extension 30 includes a flange-like extension 32 having an outer flange shape, and a plate-like rectangular plate-like extension 34 extending integrally rearward from the flange-like extension 32. 4 (only two are shown in FIG. 7).

  Further, here, the shroud-side plate-like inclined protrusions 60 that protrude toward the inside of the second cylindrical rib 24 toward the front are provided at the tip portions of the respective second plate-like ribs 25. The plate-like ribs 25 have substantially the same thickness and are integrally formed. Further, at the tip portion of each plate-like extension portion 34 of the cylindrical extension portion 30, the wind guide plate-side plate-like inclined protrusion 62 that protrudes inward toward the inside of the cylindrical extension portion 30 toward the rear. However, it has the thickness substantially the same as each plate-shaped extension part 34, and is integrally molded.

  And each plate-like extension part 34 of the cylindrical extension part 30 provided in the wind guide plate 14 is the second opposing face 26 of the first plate-like rib 23 and the second plate-like rib 25. It is press-fitted between the facing surface 28. Further, under such a press-fitted state, the air guide plate side plate-like inclined protrusion 62 provided at the tip portion of each plate-like extension portion 34 is slidable on the first facing surface 26 at the tip portion. It is pressed. On the other hand, the shroud-side plate-like inclined protrusion 60 is slidably pressed against the outer side surface of each plate-like extension portion 34 at the tip portion.

  Thus, the shroud 12 and the air guide plate 14 are connected to each other, and the first plate-like rib 23, the cylindrical extension 30, and the cylindrical extension are provided outside the front end of the shroud 12. The closed space 40 surrounded by the wall portion formed by the wind guide plate side plate-like inclined protrusions 62 provided at the tip portion of each plate-like extension portion 34 of the portion 30 is formed between the wind guide plate 14 and the shroud 12. It is formed in communication only with the gap 16 formed therebetween. As a result, a seal portion 18 is formed between the shroud 12 and the air guide plate 14, so that even if the wind guided toward the radiator 10 by the air guide plate 14 enters the gap 16. This prevents the air from passing through the gap 16 to the outside, and the sealing performance between the air guide plate 14 and the shroud 12 can be ensured.

  Further, in this embodiment, when the air guide plate 14 and the shroud 12 are relatively displaced in the front-rear direction, the air guide plate-side plate-like inclined protrusion 62 provided at the tip portion of each plate-like extension portion 34. However, the shroud side plate-like inclined protrusions 60 slide with respect to the first opposing surface 26 with respect to the outer side surfaces of the respective plate-like extension portions 34, so that the air guide plate 14 and the shroud 12 are A reduction in the sealing performance of the gap 16 due to the relative displacement in the front-rear direction can be advantageously prevented. Furthermore, when the air guide plate 14 and the shroud 12 are relatively displaced in the left-right direction and the up-down direction, for example, the first and second plate-like ribs 23 and 25 are deformed and the plate-like extension portion 34. The relative deformation of the air guide plate 14 and the shroud 12 can be advantageously prevented from lowering the sealing performance of the gap 16 due to the relative displacement of the air guide plate 14 and the shroud 12 in the horizontal and vertical directions. To get.

  Therefore, even in the present embodiment having such a structure, the same operations and effects as those of the first and second embodiments can be enjoyed effectively.

  In the present embodiment, the shroud-side plate-like inclined protrusions 60 have substantially the same thickness as the second plate-like ribs 25, and the air guide plate-side plate-like inclined protrusions 62 have the respective plate-like extensions. The portion 34 has substantially the same thickness. Therefore, unlike the first and second embodiments, the shroud side plate-like inclined protrusions 60 and the air guide plate side plate-like inclined protrusions 62 are not easily elastically deformed. However, when each plate-like extension part 34 is press-fitted between each first plate-like rib 23 and each second plate-like rib 25, the first plate-like rib 23 and the wind guide plate side plate The frictional resistance generated between the plate-like inclined projection 62 and the frictional resistance generated between the plate-like extension portion 34 and the shroud-side plate-like inclined projection 60 are shroud-side and baffle plate-side plate-like inclined projections. 60 and 62 are allowed to act in a direction parallel to the extending direction.

  Therefore, for example, the shroud-side plate-like inclined protrusions 60 and the baffle plate-side plate-like inclined protrusions 62 that are not easily elastically deformed protrude from the second plate-like ribs 25 and the respective plate-like extending portions 34 in the right-angle direction. Unlike the case where they are integrally formed as described above, when each plate-like extension portion 34 is press-fitted between each first plate-like rib 23 and each second plate-like rib 25, the shroud The side plate-like inclined protrusions 60 and the air guide plate-side plate-like inclined protrusions 62 are damaged or deformed by the frictional resistance generated between the plate-like extension portions 34 and the first plate-like ribs 23. Can be prevented in advance. Also by this, the sealing performance of the gap 16 can be secured stably.

  By the way, in the third embodiment shown in FIG. 7, the wind guide plate side plate-like inclined protrusion 62 is integrally formed at the tip portion of each plate-like extension portion 34 of the cylindrical extension portion 30. The shroud-side plate-like inclined protrusions 60 are integrally formed at the tip portions of the respective second plate-like ribs 25. However, as shown in FIG. 8, the shroud-side plate-like inclined protrusions 60 can be omitted. . In this case, with respect to the first opposing surface 26 of each first plate-like rib 23 under the press-fitted state of each plate-like extension portion 34 between the first and second plate-like ribs 23, 25. In addition, while the tip portion of the wind guide plate side plate-like inclined protrusion 62 is slidably pressed, each plate-like extension portion 34 is opposed to the second facing surface 28 of each second plate-like rib 25. The outer side surface is slidably pressed.

  Even when such a structure is employed, the seal portion 18 that forms the closed space 40 that communicates only with the gap 16 formed between the air guide plate 14 and the shroud 12 is provided. Therefore, the same operation / effect as the operation / effect achieved in the third embodiment can be enjoyed effectively.

  Further, even when both the shroud side plate-like inclined protrusions 60 and the air guide plate side plate-like inclined protrusions 62 are provided, the respective tips of the second plate-like ribs 25 and the respective plate-like extending portions 34 are provided. The inclination and the protruding direction of each plate-like inclined protrusion 60, 62 from the part are not limited to those shown in the third embodiment. For example, as shown in FIG. 9, the shroud-side plate-like inclined protrusions 60 are inclined toward the inner side of the second cylindrical rib 24 toward the rear at the tip portion of each second plate-like rib 25. While providing so that it may protrude, the baffle plate side plate-shaped inclined protrusion 62 is arranged in the front-end | tip part of each plate-shaped extension part 34 of the cylindrical extension part 30 inside the cylindrical extension part 30 toward the front. It can also be formed so as to protrude at an angle.

  Even in this embodiment, the same actions and effects as those of the third embodiment can be enjoyed effectively. Further, in the present embodiment, in particular, each plate-like extension portion 34 is connected to each first plate-like rib 23 and each of the first plate-like ribs 23 from the inclination direction of the shroud side and the baffle plate side plate-like inclined protrusions 60 and 62. It can be press-fitted more smoothly between the second plate-like ribs 25.

  Further, as shown in FIG. 10, the shroud-side plate-like inclined protrusions 60 are inclined to the outside of the second cylindrical rib 24 toward the front at the tip portion of each first plate-like rib 23. While providing so that it may protrude, the baffle plate side plate-shaped inclined protrusion 62 is arranged in the front-end | tip part of each plate-shaped extension part 34 of the cylindrical extension part 30, and the outer side of the cylindrical extension part 30 toward back. You may form so that it may incline and protrude. In this case, the tip portion of the shroud-side plate-like inclined protrusion 60 is slidably pressed against the inner side surface of each plate-like extension portion 34 of the cylindrical extension portion 30, and the wind guide plate side plate Each of the plate-like extending portions 34 is slidably pressed against the second facing surface 28 of the second plate-like rib 25 so that the tip portion of each of the inclined inclined portions 62 is in contact with each of the first It will be press-fitted between the opposing surfaces of the plate-like ribs 23 and the respective second plate-like ribs 25.

  Even in the present embodiment having such a structure, the same operations and effects as those of the third and fourth embodiments can be enjoyed effectively.

  The specific configuration of the present invention has been described in detail above. However, this is merely an example, and the present invention is not limited by the above description.

  For example, the distance between the opposing surfaces of the first plate-like ribs 23, 44 and the second plate-like ribs 25, 48, the amount of press-fitting of the plate-like extending portions 34, 54 that are press-fitted between these opposing surfaces, etc. Can be appropriately changed.

  In addition, the first and second plate-like ribs 23, 44, 25, 48 may be provided on the air guide plate 14, while the plate-like extending portions 34, 54 may be provided on the shroud 12.

  Further, it is desirable that the plate-like inclined protrusion is elastically deformable, but this is not an essential matter.

  Further, the first vehicle component and the second vehicle component are not limited to those made of the illustrated resin, and may be made of any material, for example, made of metal. There is no problem.

  Furthermore, in the said embodiment, although the wind which flows in into an engine room was guide | induced to the back side of a motor vehicle by the baffle plate 14 and the shroud 12, it replaced with the shroud 12 and the radiator 10 is used, for example. The radiator support that supports the vehicle may be configured to guide the wind flowing into the engine room together with the air guide plate 14 to the rear side of the automobile. In this case, a gap 16 is formed between the air guide plate 14 and the radiator support, and a seal portion 18 that seals the gap 16 is formed between the air guide plate 14 and the radiator support. It becomes.

  In addition, the present invention is not limited to the seal structure between the air guide plate and the shroud, and the first vehicle component and the second vehicle are different from each other such as a seal structure between the fender liner and the fender. Of course, the present invention can be advantageously applied to any sealing structure between vehicle parts for preventing air from passing through a gap formed between the vehicle parts.

  In addition, although not enumerated one by one, the present invention can be carried out in a mode to which various changes, modifications, improvements, etc. are added based on the knowledge of those skilled in the art. It goes without saying that all are included in the scope of the present invention without departing from the spirit of the present invention.

DESCRIPTION OF SYMBOLS 10 Radiator 12 Shroud 14 Air guide plate 16 Gap 18 Seal part 22 1st cylindrical rib 23,44 1st plate-shaped rib 24 2nd cylindrical rib 25,48 2nd plate-shaped rib 26,50 1st opposing surface 28, 52 Second facing surface 30 Cylindrical extension 34, 54 Plate extension 36 Inner inclined protrusion 38 Outer inclined protrusion 40 Closed space 56 First plate inclined protrusion 58 Second plate inclination Projection 60 Shroud-side plate-like inclined projection 62 Wind guide plate-side plate-like inclined projection

Claims (3)

A seal structure between vehicle parts for preventing air leakage through a gap formed between different first vehicle parts and second vehicle parts,
A first plate-like rib and a second plate-like rib that are opposed to each other are formed by integral molding with respect to the first vehicle component, while extending from the second vehicle component and its tip In the part, a plate-like extension portion that projects between the opposing surfaces of the first plate-like rib and the second plate-like rib is formed by integral molding with respect to the second vehicle component, Further, at least one of the first plate-like rib and the second plate-like rib from the plate-like extension portion under the state where the plate-like extension portion enters between the opposing surfaces. A plate-like inclined protrusion that protrudes inclined toward the side is formed by integral molding with respect to the tip side portion of the plate-like extension part,
And the front-end | tip site | part of the said plate-shaped inclination protrusion part of this plate-shaped extension part is with respect to at least any one of the mutually opposing surfaces of said 1st plate-shaped rib and said 2nd plate-shaped rib. The plate-like extension portion is press-fitted between the opposing surfaces of the first plate-like rib and the second plate-like rib so as to be pressed in a slidable state. The component and the second vehicle component are connected to each other and communicated only with the gap surrounded by a wall portion including the first and second plate-like ribs and the plate-like extension portion. A structure for sealing between vehicle parts, wherein a closed space is formed to prevent air from passing through the gap.   The plate-like inclined protrusion is elastically deformable, and the inclination angle of the plate-like inclined protrusion with respect to the tip portion of the plate-like extending portion is variable based on the elastic deformation of the plate-like inclined protrusion. The seal structure between the vehicle components according to claim 1. Under the state in which the plate-like extension portion enters between the opposing surfaces of the first plate-like rib and the second plate-like rib, from the tip portion of the plate-like extension portion, between the opposing surfaces A first plate that inclines and protrudes on both sides of the first plate-like rib and the second plate-like rib in a direction opposite to the direction in which the plate-like extension part enters. The first plate-like inclined protrusion and the second plate-like inclined protrusion are formed integrally with the plate-like extension portion, and the first plate-like inclined protrusion and the second plate-like inclined protrusion. The seal structure between the vehicle components according to claim 2, wherein the plate-like inclined protrusion is configured.

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