JP2006257748A - Wind resistant structure of roof end - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a wind resistant structure of a roof end capable of simply latching and fixing an end wall of a folded-plate roof material to each arabesque while satisfying a windproof specification. <P>SOLUTION: The arabesques 23 are respectively constituted of an arabesque body 24 consisting of an aluminum strip material and a holding body 25. The arabesque body 24 includes a base wall 29 clamped to a roof deck 2, a latching wall 30 projected to the outside of a roof, a vertical wall 31 held by the end face of the roof deck 2 and an engaging wall 32 projected to the outside of the vertical wall 31. A reversed wall 6a of the folded-plate roof material 5 bent and latched to the latching wall 30 is retained and fixed with inhibiting lift and separation with a thrust wall 37 of the holding body 25 engaged with the engaging wall 32 to satisfactorily display a wind resisting function. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to a wind-resistant structure at the end of a folding roof such as an eaves or a keraba, and more particularly to a wind-resistant structure in which an end wall of the folding roof material is bent and fixed to an arabesque fixed to a roof base.

  This type of wind-resistant structure is known, for example, from Patent Document 1. There, arabesque is fixed to the eaves edge of the roof base, and then the eaves edge of the folding roof material is bent and fixed to the hanging wall of arabesque. The arabesque is made of an aluminum strip, and an inverted L-shaped retaining wall projects from the upper outer surface. The eaves end of the folding roof material is bent downward along the inverted L-shaped retaining wall and further bent in a state of being inverted upward. In addition, the work of bending the eaves edge of the folding roof material is performed on-site in parallel with the roofing work. This kind of eaves-end structure with wind-resistant specifications is also disclosed in Patent Document 2. By the way, in the eaves end structure of a general specification, the eaves end of the folding roof material is simply bent in a reverse shape and fixed to a hanging wall that is projected in a horizontal shape. A similar wind-resistant structure is applied also to Keraba.

Japanese Patent No. 2715063 (paragraph number 0018, FIG. 1) Japanese Patent No. 2999720 (paragraph number 0018, FIG. 4)

  As described above, the eaves edge of the folding roof material is bent at two locations along the inverted L-shaped retaining wall, and the windproof eaves structure is stronger than the general eaves structure. It is possible to surely prevent the folding roof material from rising. However, since it is necessary to bend the edge of the eaves at two places, the work takes a lot of time and effort compared to the eaves end structure of a general specification. Furthermore, when the thickness of the folded roof material increases, it becomes difficult to bend the eaves edge appropriately, and the finished state tends to vary. If the bending process is insufficient, it may be a cause of accidents in which the folded roofing material is rolled up. In particular, when a rain gutter is disposed directly under the retaining wall, the rain gutter becomes a hindrance when the eaves edge is folded, so that the folding work takes a lot of time.

  An object of the present invention is to provide a wind-resistant structure of a roof end portion that can be easily hooked and fixed to an arabesque, while satisfying wind-resistant specifications. The object of the present invention is that the end wall of the folding roof material can be fastened and fixed to arabesque with less labor and quickly, and the finished state of the roof end is uniform and the roof end can exhibit high reliability. It is to provide a windproof structure.

  In the present invention, an arabesque 23 is fixed to the roof base 2, and the end wall of the folded roofing material 5 is bent and fixed in an inverted manner on the retaining wall 30 of the arabesque 23 protruding to the outer surface of the roof. Applicable to wind resistant structures. The arabesque 23 includes an arabesque body 24 fixed to the roof base 2 and a sandwiching body 25 engaged and mounted on the outer surface of the arabesque body 24. Therefore, the reversal wall 6a of the folding roofing material 5 bent and latched on the retaining wall 30 is pressed and fixed by the holding body 25 engaged with the arabesque body 24 so that it cannot be lifted off.

  In FIG. 3, the arabesque body 24 includes a base wall 29 that is fastened to the upper surface of the roof base 2, a retaining wall 30 that continues to the base wall 29 and protrudes to the outer surface of the roof, and a vertical wall that is received by the end surface of the roof base 2. And an aluminum strip provided with 31. On the outer surface of the vertical wall 31 or the retaining wall 30, an engagement wall 32 for engaging and mounting the holding body 25 is projected. Thus, the reversal wall 6a of the folding roof material 5 is pressed and fixed so as not to be lifted and separated by the sandwiching body 25 engaged and mounted on the engagement wall 32.

  The sandwiching body 25 is formed of a hollow aluminum strip. In a state where a part of the sandwiching body 25 is engaged with the engaging wall 32, the inverted wall 6a of the folded roofing material 5 is provided on the upper surface of the sandwiching body 25. The pressing wall 37 can be pressed and fixed to the retaining wall 30.

  On the outer surface of the vertical wall 31 of the arabesque body 24 made of an aluminum strip, an engaging wall 32 that protrudes vertically from the retaining wall 30 is provided so as to be mounted between the retaining wall 30 and the engaging wall 32. Thus, the sandwiching body 25 for pressing and fixing the reverse wall 6a of the folded roof material 5 to the retaining wall 30 can be formed of an elastic material.

  On the outer surface of the vertical wall 31 of the arabesque body 24 made of an aluminum strip, an engaging wall 32 is provided so as to face the retaining wall 30 in the vertical direction, and the reversal wall 6a of the folding roof material 5 is disposed on the retaining wall 30. And the engaging wall 32, and can be pressed and fixed so as not to be lifted and separated by the sandwiching body 25 fitted and mounted.

  As shown in FIG. 4, the engagement wall 32 can be formed by notching a mounting opening 34 for fitting the sandwiching body 25 from the roof outer surface side of the engagement wall 32.

  In the present invention, an arabesque body 24 is constituted by an arabesque body 24 fixed to the roof base 2 and a sandwiching body 25 engaged with and attached to the outer surface of the arabesque body 24, and the latch wall 30 of the arabesque body 24 is bent and latched. Since the inverted wall 6a of the folded roofing material 5 is pressed and fixed so as not to be lifted off by the sandwiching body 25 engaged and mounted on the arabesque body 24, the main surface wall 6 of the folded roofing material 5 is 1 on the construction site. After bending and reversing only once, the clamping body 25 may be engaged and attached to the arabesque body 24, and a series of operations can be fastened and fixed with less effort. The finished state of the roof edge does not vary. Further, the reversal wall 6a is pressed and fixed by the sandwiching body 25 to surely prevent the reversal wall 6a from being lifted away from the retaining wall 30, so that the main surface wall 6 has only one bent portion. Satisfying wind resistance specification, the reliability of the roof edge structure is improved.

  A base wall 29 fastened to the roof base 2, a retaining wall 30 continuous to the base wall 29, a vertical wall 31 received by the end surface of the roof base 2, and projecting from the vertical wall 31 or the outer surface of the retaining wall 30. The arabesque body 24 is made of an aluminum strip provided with the engagement wall 32, and the reverse wall 6a of the stencil roofing material 5 is pressed and fixed so as not to be lifted by the sandwiching body 25 engaged and attached to the engagement wall 32. According to the structure, it is possible to eliminate variation in the relational dimension between the latching wall 30 that receives the reversal wall 6a and the engagement wall 32 to which the sandwiching body 25 is attached, so that the reversal wall 6a is always securely held by the sandwiching body 25. The windproof structure at the roof edge can be improved without being affected by the level of skill of the operator.

  According to the wind-resistant structure in which the sandwiching body 25 is formed of a hollow aluminum strip and the reversal wall 6a of the folded roofing material 5 is pressed and fixed to the retaining wall 30 by the pressing wall 37 on the upper surface of the sandwiching body 25, for example, Compared to the case where the sandwiching body 25 is press-molded, there is no variation in the finished dimensions of the sandwiching body 25, the construction quality of the roof end is further improved by that much, and the reliability of the wind-resistant structure is increased. In particular, when the arabesque body 24 is formed of an aluminum strip, the reversing wall 6a can be more securely pressed and fixed by assembling both 24 and 25 with high accuracy. The sandwich body 25 made of a hollow body has a high structural strength and is excellent in durability during long-term use.

  As shown in FIG. 5A, according to the wind resistant structure in which the reversal wall 6 a of the folded roof material 5 is pressed and fixed to the retaining wall 30 by the sandwiching body 25 formed of an elastic material, the reversal wall 6 a is sandwiched by the sandwiching body 25. Since it can be pressed and fixed in close contact with the retaining wall 30 by the spring force, the pinching body 25 attached to the arabesque body 24 and the reversing wall 6a can be swept away from rattling. Furthermore, the reversal wall 6a can always be pressed and fixed at an appropriate position by restricting the holding body 25 attached to the arabesque body 24 from floating along the engagement groove 36. Since the engaging wall 32 vertically opposite to the retaining wall 30 is projected and the holding body 25 is mounted between the retaining wall 30 and the engaging wall 32, the mounting port 34 is notched in the engaging wall 32. There is no need to form it, and the holding body 25 can be engaged and mounted in the engagement groove 36, so that it is possible to save the labor of processing the arabesque body 24 and to reduce the material cost.

  As shown in FIG. 5 (b), the holding body 25 is fitted between the engaging wall 30 and the engaging wall 32 that are vertically opposed to each other, and the reversing wall 6a cannot be lifted off by the pressing wall 37 on the upper surface. According to the wind-resistant structure that is pressed and fixed to the holding wall 25, the holding body 25 is always supported in a stable state by the engaging wall 30 and the engaging wall 32 that are vertically opposed to each other, so that the reversal wall 6 a is separated from the engaging wall 30. Can be reliably prevented.

  When the mounting opening 34 is notched in the engagement wall 32, the clamping body 25 is fitted from the roof outer surface side of the engagement wall 32, whereby the assembly work of the clamping body 25 can be performed quickly and with less effort. The construction efficiency of the roof edge with wind-resistant function can be greatly improved and the construction cost can be reduced.

(Example 1) FIG. 1 thru | or FIG. 4 shows the Example which applied this invention to the windproof structure of the eaves edge in a vertical thatched roof. 1 and 2, reference numeral 1 is a purlin made of section steel, 2 is a roof base, 3 is a waterproof sheet formed of asphalt roofing felt or rubber sheet, and the plate is folded in a state of covering the outer surface of the waterproof sheet 3. Raise the roofing material 5. The roof base 2 is made of, for example, a heat insulating board or a wooden board formed of glass wool board, and is fastened to the main house 1 with screws.

  The folded roof material 5 is formed by roll-forming a coated steel sheet having a predetermined width wound in a coil shape, and a foam heat insulating layer 10 is lined on the inner surface thereof. As shown in FIG. 2, the folded roof material 5 is formed by bulging obliquely upward arc walls 7 on the left and right ends of the flat main surface wall 6, and connecting the inverted V-shaped joints continuously to the upper ends of the arc walls 7. 8 is folded back. The foam heat insulation layer 10 is formed, for example, by attaching polyethylene foam to the inner surface side of the main surface wall 6.

  On the roof base 2, a hanging element 11 for rolling up the folded roofing material 5 is fastened and fixed at regular intervals. The hanging element 11 is made of a long continuous material in the eaves-ridge direction, and has a U-shaped housing portion 12 that opens upward, and an inverted V-shaped connecting portion that is bent and formed on the upper outer surface of the housing portion 12. 13 are integrally provided. By fastening the fastening wall 14 bulging and formed in the center of the bottom wall of the casing 12 with a screw 15 such as a tapping screw, the hanging element 11 can be fixed to the main building 1 via the roof base 2.

  The folded plate roof material 5 has the joint portions 8 on both the left and right sides elastically engaged with the connecting portions 13 of the hanger 11 from the lower surface side, and the caps 19 are resiliently engaged with the respective joined portions 8 so as to adjoin the folded plate roof. Connect materials 5 together. The upper surface opening of the hanging element 11 in the connected state is closed with a cap 19. The left-right width of the cap 19 is about 43 mm, while the left-right width of the folded roofing material 5 is about 375 mm, and the left-right width of the sandwiching body 25 described later is about 120 mm.

  The cap 19 integrally includes a pair of left and right leg pieces 20 that are elastically engaged with the outer surface of the bent portion of the joint portion 8 and an upper wall 21 that covers the opening surface of the hanging element 11 continuously from the upper ends of the leg pieces 20. It consists of a bent long material, and is formed of the same material as the folded roof material 5. At the lower ends of both leg pieces 20, a guide wall is formed that bends in an upwardly tapered shape.

  The arabesque 23 is fixed to the roof base 2 for the rain of the eaves on the folding roof, and the wall 30 on the eaves end side of the main wall 6 of the folded roofing material 5 is attached to the retaining wall 30 of the arabesque 23 protruding to the outer surface of the eaves. Is bent and fixed in an inverted manner. This inversion wall is indicated by reference numeral 6a.

  The arabesque 23 is composed of a long arabesque body 24 arranged along the eaves edge of the roof base 2 and a short clamp body 25 engaged and mounted on the outer surface of the arabesque body 24. 1 and 3, an arabesque body 24 includes a base wall 29 fastened to the upper surface of the roof base 2 with a screw 26, a retaining wall 30 that protrudes continuously from the front end of the base wall 29 to the eaves outer surface, and a base. A vertical wall 31 that protrudes downward from the front end of the wall 29 and is received by the eaves end surface of the roof base 2 and an engagement wall 32 that protrudes in the middle of the upper and lower sides of the outer surface of the vertical wall 31 are integrally provided. Made of long aluminum strip. A draining groove 33 having a U-shaped cross section is formed in a concave shape on the upper surface of the base end of the retaining wall 30. The base wall 29 and the retaining wall 30 divided by the draining groove 33 are provided on the same plane.

  The engagement wall 32 protrudes obliquely upward to form a V-shaped engagement groove 36 between the vertical wall 31 and the holding body 25 is fitted into the engagement groove 36. The sandwich body 25 can be inserted and loaded from the side end of the arabesque body 24. However, when the arabesque body 24 has a large left and right length, the sandwich body 25 is moved to the side end of the arabesque body 24 each time in order to incorporate the sandwich body 25. Therefore, it is necessary to slide the clamping body 25 fitted in the engagement groove 36 to the position of the folded plate roof material 5 that has been rolled up, which takes a lot of work to assemble. In order to save such trouble, as shown in FIG. 4, a part of the engaging wall 32 is cut out at a predetermined interval to form a mounting opening 34, and the clamping body 25 is connected to the eaves outer surface side of the engaging wall 32. The engagement groove 36 can be fitted and engaged.

  In FIG. 3, the clamping body 25 includes a pressing wall 37 that presses and holds the reversal wall 6 a that is folded back to the lower surface side of the retaining wall 30, a contact wall 38 that circumscribes the vertical wall 31, and both the walls 37 and 38. It is made of a hollow aluminum strip having a right-angled triangular cross section integrally provided with an inclined wall 39 that connects the end portions. A fitting portion 40 having a V-shaped cross section that fits into the previous engaging groove 36 is formed at a corner portion sandwiched between the contact wall 38 and the inclined wall 39 of the holding body 25, and contacts the pressing wall 37. A stepped portion 41 having an L-shaped cross section along the outer shape of the draining groove 33 is formed in a corner sandwiched between the walls 38.

  At the time of construction, the roof base 2, the waterproof sheet 3, the inverted L-shaped draining board 44, and the like are arranged according to a conventional method, and then the arabesque 23 is attached to the eaves edge of the roof base 2. Specifically, the base wall 29 of the arabesque body 24 is disposed on the roof base 2, and the base wall 29 is fastened to the main building 1 with screws 26 such as self-drilling screws and tapping screws. In this state, the folded roofing material 5 is rolled up, and the adjacent folded roofing materials 5 are fixed by the cap 19. Next, the eaves portion other than the main surface wall 6 of each folding roof material 5 is cut off, the remaining wall portion is bent along the retaining wall 30 using a bending tool, and the bent base end of the reversing wall 6a is latched. Secure to the wall 30. The eaves end of the cap 19 is closed with a makeup cap 45. Both caps 19 and 45 are fixed with blind rivets or the like.

  As shown in FIG. 4, the holding body 25 applied to the vertical wall 31 facing the mounting opening 34 is laterally slid to engage and engage with the engaging groove 36, so that the pressing wall 37 lifts the reversal wall 6 a away. Press and fix it impossible. The sandwiching body 25 is disposed corresponding to the center of the folded roofing material 5 in the width direction and the connecting portion between the adjacent folded roofing materials 5 and 5. If necessary, a part of the protruding end of the engaging wall 32 is plastically deformed or an adhesive is filled between the holding body 25 and the engaging groove 36 to fix the holding body 25 so that it cannot slide laterally. be able to. Thereafter, the folded roof material 5 is rolled up one after another, and the inverted wall 6a is pressed and fixed by the sandwiching body 25 fitted and engaged with the engaging groove 36. 1 and 4, reference numeral 46 is a rain gutter.

  As described above, according to the wind-resistant structure in which the reversal wall 6a latched on the retaining wall 30 is pressed and fixed by the sandwiching body 25, the main surface wall 6 is simply bent to the lower surface side of the retaining wall 30. The labor required for the folding work 6 can be saved remarkably. Even when the plate roof material 5 has a large thickness, the folding work can be performed without any problem. Further, since the folded reversal wall 6a is pressed and fixed by the sandwiching body 25, the reversal wall 6a can be reliably prevented from being lifted off from the retaining wall 30 even during strong winds, and the wind resistant specification can be satisfied. As a result, the labor required for a series of operations can be greatly reduced, and the rain closing processing of the eaves of the folded roofing material 5 can be performed quickly with less effort. Since the reversal wall 6a is pressed and fixed by the holding body 25 fitted and engaged with the engaging groove 36, there is no variation in the finished state of the eaves end, and there is an advantage that the construction quality can be improved and high reliability can be exhibited.

  Since the holding body 25 fitted and engaged with the engaging groove 36 is received by the retaining wall 30 through the reversing wall 6a, and is further held in a tilting manner by the engaging wall 32 and the bottom wall of the draining groove 33, Even when an external force that floats away from the retaining wall 30 acts on the reversal wall 6a, the reversal wall 6a can be fixed and held in a stable state, and a more stable wind-resistant function is exhibited compared to this type of conventional wind-resistant tip structure. To do. Since the reversal wall 6a sandwiched between the retaining wall 30 and the pressing wall 37 can slide in the eaves direction, for example, when the folded roofing material 5 is thermally expanded in summer, the reversal wall 6a is on the eaves side. There is also an advantage that it is possible to absorb the elongation deformation of the roofing material by sliding displacement.

(Modification) FIGS. 5A to 5D show a modification of the arabesque 23. In FIG. 5 (a), an engaging wall 32 is provided on the outer surface of the vertical wall 31 of the arabesque body 24 so as to face the retaining wall 30 in the vertical direction, and a retaining rib 48 is provided on the upper surface of the protruding end of the engaging wall 32. did. The sandwiching body 25 is formed in a continuous waveform using a strip-shaped spring material as a raw material, and the vertical dimension of the sandwiching body 25 in the free state is larger than the vertical spacing distance between the retaining wall 30 and the engaging wall 32. I did it. In addition, the same code | symbol was attached | subjected to the same member as said Example, and the description was abbreviate | omitted. The same applies to the following modifications.

  Thus, according to the sandwiching body 25 formed of an elastic material, the main surface wall 6 of the folded roof material 5 is bent to form the reversal wall 6a, and then the sandwiching body 25 is connected to the retaining wall 30 and the engagement wall 32. In between, the reversal wall 6a can be pressed and fixed to the retaining wall 30 by the elasticity of the holding body 25 by being fitted while being elastically deformed. There is also an advantage that the holding body 25 can be fitted and engaged from the eaves outer surface side of the engagement wall 32 without providing the mounting port 34 in the previous embodiment. The sandwiching body 25 fitted into the arabesque body 24 does not move in the longitudinal direction of the engagement groove 36.

  In FIG. 5B, the engaging wall 32 and the retaining rib 48 similar to those in FIG. The sandwiching body 25 is formed of a solid material having a quadrangular cross section, and the reversing wall 6a can be pressed and fixed by the pressing wall 37 on the upper surface thereof by being fitted between the retaining wall 30 and the engaging wall 32. In this modification, a plurality of mounting openings 34 are provided along the longitudinal direction of the retaining rib 48. If necessary, the sandwiching body 25 can be formed of a hollow material having a square cross section.

  In FIG. 5 (c), the engaging wall 32 is integrally projected from the lower surface near the base end of the retaining wall 30, and the holding body 25 is fitted and engaged in the engaging groove 36 formed between the walls 30 and 32. Then, the reversal wall 6a was pressed and fixed. The sandwiching body 25 is formed of an inverted trapezoidal hollow material, and is mounted in the engaging groove 36 from a mounting port 34 (not shown) formed by cutting out the engaging wall 32. Thus, the engaging wall 32 can be formed at an arbitrary position from the vertical wall 31 to the retaining wall 30.

  In FIG. 5D, a pair of upper and lower engagement walls 32 are provided on the outer surface of the vertical wall 31, and an engagement groove 36 is formed between the engagement walls 32. Further, the sandwiching body 25 was formed in an inverted U-shaped cross section, and a T-shaped cross-section fitting portion 40 that was engaged with the previous engaging groove 36 was integrally formed at the base end of the lower wall.

(Example 2) FIG. 6: and FIG. 7 shows Example 2 of this invention regarding the arabesque 23. FIG. There, the backup material 51 is arranged on the surface of the roof base 2, and the folded roof material 5 is rolled up on the outer surface. The roof in the first embodiment is different in that the folded roof material 5 and the cap 19 that are rolled up are adjacent to each other. Therefore, as shown in FIG. 6, the latching wall 30 that continues to the base wall 29 protrudes above the base wall 29, and the vertical wall 31 that continues to the latching wall 30 and the second wall that continues to the base wall 29. The two vertical walls 52 are integrated with a pair of upper and lower bridge walls 53. Each bridge wall 53 has a drain hole. In FIG. 7, reference numeral 54 is a hollow packing that seals between the cap 19 and the folded roofing material 5. The upper wall 21 of the cap 19 is bent and fixed to the retaining wall 30 in the same manner as the main surface wall 6.

  Other than the above embodiment, the arabesque body 24 and the sandwiching body 25 do not have to be aluminum strips, and can be formed by press-molding a plate material. The reversal wall 6 a can be brought into contact with the entire lower surface of the retaining wall 30. The clamping body 25 may be formed of an elastic material such as a spring wire or rubber. If necessary, the sandwiching body 25 can be formed by assembling a spring or rubber in a plurality of locations of the hollow material in an inseparable manner. Further, a spring or rubber for holding and holding the sandwiching body 25 can be assembled to the arabesque body 24 side. The wind-resistant structure of the present invention can be widely applied even when the cross-sectional shape and the connecting structure of the folded roof material 5 are different. For example, the wind-resistant structure can be applied to a horizontal roof, if necessary, as well as an alternating rod type vertical roof. Of course, it can be applied to the wind-resistant structure of the roof edge in Keraba.

It is a vertical side view which shows the wind-resistant structure of a roof edge part. It is a vertical front view which shows a roof structure. It is an exploded sectional view of a component of a wind-proof structure. It is a perspective view of a wind-resistant structure. It is a vertical side view which shows the modification (a)-(d) of a wind-resistant structure. It is a vertical side view of the wind-resistant structure of Example 2. It is a vertical front view which shows the roof structure of Example 2. FIG.

Explanation of symbols

2 Roof base 5 Origami roofing material 6a Reversal wall 23 of the engraving roofing material Arabesque 24 Arabesque main body 25 Holding pair 30 Hanging wall 31 Vertical wall 32 Engagement wall 37 Pressing wall

Claims (6)

The arabesque (23) is fixed to the roof base (2), and the end wall surface of the folding roof material (5) is bent and fixed in an inverted manner on the retaining wall (30) of the arabesque (23) protruding to the outer surface of the roof. A windproof structure at the edge of the roof,
The arabesque (23) is composed of an arabesque body (24) fixed to the roof base (2) and a sandwiching body (25) engaged and mounted on the outer surface of the arabesque body (24).
The reversal wall (6a) of the folding roofing material (5) bent and latched on the retaining wall (30) is pressed and fixed so as not to be lifted and separated by the sandwiching body (25) engaged with the arabesque body (24). A wind-resistant structure at the edge of the roof. An arabesque body (24) includes a base wall (29) fastened to the upper surface of the roof base (2), a retaining wall (30) projecting to the outer surface of the roof continuously to the base wall (29), and a roof base ( 2) It consists of an aluminum strip provided with a vertical wall (31) received at the end face of
An engaging wall (32) for engaging and mounting the clamping body (25) is provided on the outer surface of the vertical wall (31) or the retaining wall (30),
The roof end portion according to claim 1, wherein the reversal wall (6a) of the folded roofing material (5) is pressed and fixed so as not to be lifted off by a sandwiching body (25) engaged and fitted to the engagement wall (32). Wind resistant structure.   In the state in which the sandwiching body (25) is formed of a hollow aluminum strip and a part of the sandwiching body (25) is engaged and mounted on the engagement wall (32), the inverted wall of the stencil roofing material (5) The wind resistant structure of the roof end part according to claim 1 or 2, wherein (6a) is pressed and fixed to the retaining wall (30) by a pressing wall (37) provided on the upper surface of the sandwiching body (25). On the outer surface of the vertical wall (31) of the arabesque body (24) made of aluminum strip, an engaging wall (32) is provided so as to be opposed to the retaining wall (30) vertically.
A sandwiching body (25) which is mounted between the retaining wall (30) and the engaging wall (32) and presses and fixes the inverted wall (6a) of the folding roof material (5) to the retaining wall (30). The wind resistant structure of the roof end portion according to claim 1 or 2, wherein is formed of an elastic material. On the outer surface of the vertical wall (31) of the arabesque body (24) made of aluminum strip, an engaging wall (32) is provided so as to be opposed to the retaining wall (30) vertically.
The reversal wall (6a) of the folded roofing material (5) is pressed and fixed so as not to be lifted off by a clamping body (25) fitted and fitted between the retaining wall (30) and the engagement wall (32). The wind-resistant structure of the roof edge part of Claim 1 or 2.   The mounting wall (34) for fitting the clamping body (25) into the engaging wall (32) from the roof outer surface side of the engaging wall (32) is cut out and formed in the engaging wall (32). Wind resistant structure at the roof edge of the house.

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