JP5308987B2 - Fixing jig for solar cell module-integrated roof material and connecting structure of solar cell module-integrated roof material using this fixing jig - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an implement for fixing a solar cell module-integrated roof material, which prevents a solar cell module from falling out of a roof material body, even when a solar cell module is separated from the roof material body due to the deterioration of an adhesive and the like. <P>SOLUTION: This implement includes: a holding portion for an upper-side roof material, which comprises a third rising portion 3 rising from the back end of a rectangular horizontal portion 2, and a second holding portion 4 elongated forward perpendicularly from the upper end of the third rising portion; a first folded portion 5 which is folded back to a backside while forming a first bent portion 8 from the front end of the horizontal portion; and a holding portion for a lower-side roof material, which comprises a first rising portion 9 rising from the back end of the first folded portion, and a first holding portion 10 elongated backward from the upper end of the first rising portion. <P>COPYRIGHT: (C)2011,JPO&amp;INPIT

Description

The present invention provides a solar cell module which is installed at a connecting portion between an upper roof material and a lower roof material when the solar cell module-integrated roof material is connected to the eaves ridge while being connected. The present invention relates to a solar cell module-integrated roofing material fixing jig for preventing the roof material from falling due to peeling or the like, and a solar cell module-integrated roofing material connecting structure using the fixing jig.

In recent years, there has been a growing awareness of ecology that uses solar light, which is clean energy in consideration of the global environment, to reduce carbon dioxide (CO ₂ ) emissions. Moreover, the number of households that install solar cell modules that generate solar power on the roof of their homes and provide all systems such as cooking, hot water supply, and air conditioning with this electricity is increasing year by year.

As a method of installing the solar cell module on the roof, as shown in FIG.
The solar battery module 1 is attached to a mounting bracket 103 fixed to the roof via a roofing material 102.
The base material 109 that is a roofing material as shown in FIG.
A method of installing the solar cell module-integrated roofing material 108 on which the solar cell module 111 is integrally fixed via a fixing member 110, and installing the solar cell module-integrated roofing material 108 by rolling the roof; Furthermore, as shown in FIG. 15, the solar cell module 1 is formed on the surface.
For example, there is a method of using a tile 114 to which 13 is bonded and installing the tile 114 by rolling a roof.

JP 2007-186904 A JP 2006-328887 A Japanese Utility Model Publication No. 5-3430

However, the method of installing the solar cell module 101 while supporting the solar cell module 101 as shown in FIG. 13 with the mounting bracket 103 fixed to the roof 104 requires the pier 105 to be provided in a direction perpendicular to the gradient direction of the roof 104, and many Since the mounting bracket 103 must be fixed to the roof 104 with screws 106 or the like, a lot of time is required for the work.

Further, in the method of installing the roof by using the solar cell module-integrated roof material 108 as shown in FIG. 14, the solar cell module 111 is attached to the base material 109 via the fixing member 110. Since it is necessary to install the solar cell module-integrated roof material 108 on the roof 112, the work until the solar cell module is installed is complicated and requires a lot of time.

Further, as shown in FIG. 15, the method of installing the solar cell module 113 on the surface by using the tile 114 bonded with an adhesive only requires the work of covering the roof with the tile 114. Installation does not require much time, but the solar cell module 113 peels off from the roof tile 114 due to weather conditions such as the passage of time and rain and wind because the adhesive is likely to deteriorate,
There is a risk of falling from the tile 114 (roof 115).

Therefore, the present invention eliminates the above-described conventional drawbacks, and is a solar cell module-integrated roof material in which the solar cell module is fixed to the surface of the roof material body with an adhesive or the like. Even when the solar cell module is detached from the roof material main body due to deterioration or the like, the solar cell module-integrated roof material fixing jig that can be securely fixed to the roof material main body and the solar cell module using this fixing jig It aims at providing the connection structure of a body-type roof material.

In order to achieve the above object, the invention according to claim 1 of the present application is a solar cell module-integrated roofing material fixing jig in which a solar cell module is fixed to the upper surface of a roofing material body by bonding or the like, and has a rectangular shape. A pressing portion of the upper roof material comprising a horizontal portion, a third standing portion that rises substantially vertically from the rear end of the horizontal portion, and a second pressing portion that extends forward from the upper end at a substantially right angle; A first folded portion that is folded back from the front end while forming a first folded portion from the front end of the first portion, a first standing portion that rises substantially perpendicularly from the rear end, and a first that extends rearward from the upper end at a substantially right angle. It is characterized by each having a pressing part of the lower roof material composed of the pressing part.

Further, in the invention according to claim 2 of the present application, when the first folded portion of the fixing jig according to claim 1 is divided in the length direction to form a plurality of partition portions, the first folded portion is not formed. In the partition part, a second folded part that is folded back to the surface side of the horizontal part while forming a second folded part at the same position as the first folded part, and a rear end of the second folded part, And a second upright portion that rises substantially vertically in front of the third upright portion.

Furthermore, in the invention according to claim 3 of the present application, when the first folded portion of the fixing jig according to claim 1 is divided in the length direction to form three partition portions, The second bent portion is folded back to the surface side of the horizontal portion while forming the second bent portion at substantially the same position as the first bent portion.
It is characterized by comprising a folded portion and a second upright portion that is a rear end of the second folded portion and rises substantially vertically in front of the third upright portion.

And in order to achieve said objective, the invention which concerns on Claim 4 of this application is the connection structure at the time of rolling a roof in the eaves-ridge direction with a solar cell module integrated roof material using the fixing jig of Claim 1. Then, a nail or the like is driven into the mounting portion of the upper edge locking portion of the roof material to fix the lower roof material to a field plate or the like, and the upper edge locking portion of the lower roof material is fixed to the upper roof material. When the roofing material is connected by being inserted into the lower side locking portion and locked, the fixing jig is inserted into the connecting gap formed between the lower roofing material and the upper roofing material. By inserting and installing the first bent portion, the solar cell module of the lower roof material on the lower surface of the first pressing portion, and the solar cell module of the upper roof material on the lower surface of the second pressing portion. It is characterized by having a configuration in which each is fixed.

Moreover, in order to achieve said objective, the invention which concerns on Claim 5 of this application is when using a fixing jig of Claim 2 or 3, and roofing a roof in the eaves-ridge direction with a solar cell module integrated roofing material. A solar cell module-integrated roof material connection structure, in which a nail or the like is driven into the attachment portion of the upper edge locking portion of the roof material to fix the lower roof material to a field plate or the like, and the lower roof material When the roof material is connected by inserting and locking the upper side locking portion into the lower side locking portion of the upper side roof material, it is formed between the lower side roof material and the upper side roof material. By inserting the first and second bent portions of the fixing jig into the connected connecting gap, the solar cell module of the lower roof material on the lower surface of the first pressing portion is connected to the second pressing portion. Fix the solar cell modules of the upper roof material on the lower surface of each Characterized in that it was formed.

Furthermore, in order to achieve the above-mentioned object, the invention according to claim 6 of the present application is a method of using a fixing jig according to claim 2 or 3 to wind the roof in the direction of the eaves with the roofing material integrated with a solar cell module. A solar cell module-integrated roof material connection structure, in which a nail or the like is driven into a mounting portion of an upper side locking portion of the roof material to fix the lower roof material to a base plate or the like, while the upper roof material The lower side locking portion is inserted into a gap formed by the horizontal portion and the third standing portion, and the second folded portion and the second standing portion of the fixing jig, and is integrated, and the upper side locking portion of the lower stage roof material The first and second bent portions of the fixing jig are respectively inserted into the gap formed by the surface in the vicinity and the upper side locking portion, and the first jig is engaged with the concave portion of the upper side locking portion to be installed. The solar cell module of the lower roof material on the lower surface of the holding part Le, characterized in that a structure for fixing each of the solar cell module of the upper side of the roofing material in the lower surface of the second pressing portion.

Since the fixing jig according to claims 1, 2 and 3 of the present application is simple in structure and has only one part as described above, the upper side roofing material and the lower side roofing material are connected to each other. It is easy and easy to install at the location. Moreover, since it can be formed by bending a single metal plate, it can be easily formed and can be manufactured at low cost.

On the other hand, since the connection structure of the solar cell module-integrated roof material according to claim 4 of the present application is configured as described above, the surface in the vicinity of the upper side locking portion of the lower roof material and the upper roof material By pressing the first bending portion of the fixing jig into the gap formed between the horizontal portion of the lower side locking portion of the lower side locking portion, the elastic restoring force of the material of the fixing jig using the first bending portion as a fulcrum The solar cell module can be fixed to the lower roof material by pressing the surface of the solar cell module of the lower roof material on the lower surface of the holding part, and the upper roof material on the upper surface of the horizontal part of the fixing jig. Since the lower side latching portion is urged upward, it prevents the lower roof material and the upper roof material from rattling, and further the upper roof material on the lower surface of the second pressing portion. Hold the surface of the solar cell module on the upper side roof It is possible to fix the solar cell module. Therefore, it is possible to prevent the solar cell module from being dropped from the roof material by a simple installation work of the fixing jig.

Moreover, since the connection structure of the solar cell module integrated roof material according to claim 5 of the present application is configured as described above, the surface in the vicinity of the upper side locking portion of the lower roof material and the upper roof material. In addition to the first bent portion, the second bent portion is used as a fulcrum by pushing the first and second bent portions of the fixing jig into the gap formed between the lower side locking portion and the horizontal portion. With the elastic restoring force of the material of the fixed fixture, the surface of the solar cell module of the lower roof material can be pressed on the lower surface of the first pressing portion to fix the solar cell module to the lower roof material, 2 Since the upper side of the upper roof material is biased upward on the upper surface of the folded portion, rattling of the lower roof material and the upper roof material is prevented, and 2 The sun of the roof material on the upper side on the lower surface of the holding part It is possible to fix the solar cell module on the upper side roofing pressing the surface of the pond module. Therefore, it is possible to prevent the solar cell module from being dropped from the roof material by a simple installation work of the fixing jig.

Moreover, since the connection structure of the solar cell module-integrated roofing material according to claim 6 of the present application is configured as described above, the lower side locking portion of the roof material on the upper stage side is connected to the horizontal portion and the second portion of the fixing jig. 3
By inserting into the gap formed by the rising part and the second rising part and the second folded part, the second folded part and the second raised part are locked with the lower side locking part of the upper roof material, and the upper stage side The roofing material and the fixing jig are integrated to prevent the fixing jig from being detached from the roofing material.

At the same time, the solar cell module is sandwiched from above and below by sandwiching the solar cell module from the upper and lower sides of the upper roof material by the horizontal portion of the fixing jig and the second pressing portion of the upper roof material pressing portion. Can be fixed to. Further, the first bent portion and the second bent portion of the fixing jig integrated with the upper roof material are formed in a gap formed by the surface near the upper edge locking portion of the lower roof material and the upper edge locking portion. By pushing and locking the first bent portion and the second bent portion of the fixing jig with the concave portion of the upper side locking portion, by the elastic restoring force in the downward direction of the material of the fixing jig with the first bent portion as a fulcrum The solar cell module can be fixed to the lower roof material by pressing the surface of the lower roof material solar cell module on the lower surface of the first pressing portion. Therefore, it can prevent that a solar cell module falls from a roofing material.

It is a front perspective view of the fixing jig which concerns on this invention. It is a back perspective view of the fixing jig. It is a left view of the fixing jig. It is the front perspective view which notched some fixing jigs concerning other examples of the present invention. It is a back perspective view of the fixing jig. It is a left view of the fixing jig. FIG. 6 is an explanatory view of laying work when the solar cell module-integrated roofing material is spread in the eaves ridge direction using the fixing jig according to the present invention. It is an installation work explanatory drawing at the time of rolling a solar cell module integrated roof material in the eaves-ridge direction using the fixing jig which concerns on the other Example of this invention. FIG. 3 is an enlarged partial view showing a state in which the fixing jig is attached to the solar cell module-integrated roofing material. FIG. 5 is an explanatory diagram of a laying operation when the solar cell module-integrated roofing material is rolled in the eaves ridge direction using the fixing jig. It is a top view of the state which covered the roof with the solar cell module integrated roof material. It is a perspective view of the solar cell module integrated roof material used for this invention. FIG. 6 is an enlarged partial cross-sectional view of a connecting portion where a roof is covered with a conventional solar cell module-integrated roofing material. FIG. 6 is a side view of a state in which the roof is covered with a conventional solar cell module-integrated roofing material. FIG. 6 is a cross-sectional view of a state in which the roof is covered with a conventional solar cell module-integrated roof material.

Hereinafter, the present invention will be described in detail with reference to the embodiments shown in FIGS. In the figure,
Reference numerals 1 and 1A are solar cell module-integrated roofing material fixing jigs according to the present invention, which are formed by bending a sheet of a substantially rectangular thin metal steel plate.

First is explained with reference to FIGS. 1 to 3 for fixing jig 1 according to claim 1, 2 in the horizontal rectangular horizontal section, the upper side thereafter the ends of the direction A ₂ (hereinafter referred to as "rear end") A pressing portion a1 for the roof material is formed. Specifically, the pressing portion a1 of the upper roof material has a third upright portion 3 that rises almost vertically from the rear end of the horizontal portion 2, and a front direction A ₁ that is substantially perpendicular to the upper end of the third upright portion 3. It is comprised from the 2nd holding | suppressing part 4 bent and formed.

Reference numeral 5 denotes a first folded portion, which is formed by bending the end portion of the horizontal portion 2 in the front direction A ₁ (hereinafter referred to as “front end”) at the angle of about 180 ° to the lower surface 6 side of the horizontal portion 2 with the first bent portion 8. It is a thing.
Specifically, the first folded portion 5 is formed on the lower surface 6 side of the horizontal portion 2 so as to be substantially parallel to the horizontal portion 2 with a predetermined distance from the lower surface 6. Then, the Part the first first standing portion 9 rises from the rear end of the folded portion 5 ho Isuzu vertically, and formed by bending backward A ₂ Nio Isuzu perpendicularly from the upper end of the first upright portion 9 1 A pressing portion a2 of the lower roof material is formed by the pressing portion 10.

As shown in FIGS. 4 to 6, the fixing jig 1 </ b> A according to the second and third aspects includes a second folded portion 11 in addition to the configuration of the fixing jig 1 according to the first aspect. This second folded portion 11
Among the three partition portions formed by dividing the first folded portion 5 in the length direction (left-right direction in the figure), the central partitioned portion where the first folded portions 5 and 5 are not formed is the first partition portion. 1 folding part 5
Is formed by folding back to the opposite side.

That is, the second folded portion 11 has an angle of about 180 ° toward the upper surface 12 side of the horizontal portion 2 at the front end of the central partition portion at the second bent portion 13 at the same position as the first bent portions 8 and 8. The upper surface 12 of the horizontal portion 2 is formed in a state substantially parallel to the horizontal portion 2 with a predetermined interval. In the figure, reference numeral 14 denotes a second upright portion which is formed at the rear end of the second folded portion 11 and rises substantially vertically.

4 to 6 divides the first folded portion 5 into three parts in the length direction of the horizontal portion 2, and the first folded portions 5 and 5 at the left and right partition portions are arranged in the center. The second folded portion 11 is formed in each of the partition portions, but the reverse, that is, the first folded portion 5 is formed in the central partition portion of the horizontal portion 2, and the second folded portions 11, 11 are formed in the partition portions on both ends. It is good also as a structure which formed.

Further, the number of divisions of the first folded portion 5 is not necessarily divided into three. If the solar cell module 18 can be firmly fixed to the roof materials 15 and 16 when the fixing jig 1A is installed, it is divided into four. It may be the above. Further, the division ratio does not need to be uniform, and the second folded portion 11 in the central section may be wider than the first folded portions 5 and 5 in the sections on both ends.

Next, using the fixing jig 1 (1A) having the above-described configuration, the roof material body 16 on the lower side when the roof is rolled in the eaves-ridge direction B with the solar cell module-integrated roof material 19 shown in FIG. A connecting structure of the solar cell module-integrated roof material 19 that can hold the solar cell module 18 from the upper surface thereof to the roof material body 15 on the upper stage side will be described with reference to FIGS.

The roof material bodies 15 and 16 of the solar cell module-integrated roof material 19 used here are shown in FIG.
As shown in FIG. 2, it is formed by bending a thin metal steel plate. Specifically, a lower side locking portion 21 is formed on the lower side of the horizontal rectangular roofing material bodies 15, 16 by being bent toward the back surface 20. The lower side locking portion 21 has a drooping portion 22 having a predetermined height formed by being bent at 90 ° on the back surface 20 side, and a horizontal portion 23 formed by folding back about 90 ° from the drooping portion 22 to the back surface 20 side. And is formed in a U-shaped cross section as a whole.

On the other hand, an upper side locking part 25 that is bent in an S shape on the surface 24 side and locked with the lower side locking part 21 is formed on the upper side of the roof material main bodies 15 and 16. On the top edge of
An attachment portion 26 for fixing the roofing material 19 to the roof is formed, and a narrow bent piece 28 is formed continuously from the attachment portion 26 and turned back toward the surface 24 side at an acute angle. Further, a substantially rectangular solar cell module 18 that is slightly smaller than the area of the surface 24 is fixed to the surface 24 side of the roof material bodies 15 and 16 via an adhesive (not shown). A module-integrated roof material 19 is formed.

When using the solar cell module-integrated roofing material 19 as shown in FIG. 11, when the roof is laid in the eave building direction B, first, as shown in FIG. 7 and FIG. Mounting part 26
A nail 29 or the like is driven into the roof, and the solar cell module-integrated roof material 19 on the lower stage side is fixed to the field board 30 or the like via a roofing material or the like (not shown).

Next, on the upper side locking part 25 of the lower solar cell module-integrated roofing material 19, the lower side locking part 21 of the upper solar cell module-integrated roofing material 19 connected to the upper side locking part 25 is placed. By sliding the solar cell module-integrated roofing material 19 on the side in the eave building direction B, the lower side locking portion 21 of the upper-stage solar cell module-integrated roofing material 19 is placed on the upper side locking portion 25 of the lower-stage roofing material 19. Insert and lock. At this time, a gap 31 is formed between the surface 24 in the vicinity of the upper edge locking portion 25 of the lower roof material 19 and the horizontal portion 23 of the lower edge locking portion 21 of the upper roof material 19.

Next, an operation of installing the fixing jig 1 (1A) in the gap 31 is performed. Specifically, when using the fixing jig 1 according to claim 1, as shown in FIG. 7, the first bent portion 8 of the fixing jig 1 is pushed into the gap 31, and the first upright portion 9 is in the lower stage. Solar cell module 1 of side roofing material 19
The first bent portion 8 is pushed into the gap 31 until it reaches an upper position in the eaves-ridge direction B with respect to the upper end surface 32 of 8. By installing in this way, the lower part locking part 21 of the upper roofing material 19 and the solar cell module 18 by the horizontal part 2 of the fixing jig 1 and the second pressing part 4 of the pressing part a1 of the upper roofing material 19. Is sandwiched from above and below, and the solar cell module 18 is fixed to the roof material body 19 of the upper roof material 19, specifically the roof material body 15 of the upper roof material 19.

At the same time, due to the elastic restoring force in the downward direction of the fixing jig 1, the first pressing part 10 constituting the pressing part a <b> 2 of the lower roof material 19 with the first bent part 8 as a fulcrum is the lower surface 33 on the lower side. The surface 34 of the solar cell module 18 of the roof material 19 is pressed, and the solar cell module 1
8 is fixed to the lower roof material 19, specifically, the roof material body 15 of the roof material 19. Therefore, when the fixing jig 1 can be installed by a simple operation, the solar cell module 18 can be fixed to the roof material bodies 15 and 16 by the installation of the fixing jig 1, and the roof material 19 of the solar cell module 18.
Can be prevented from falling off.

Further, the horizontal portion 23 of the upper roof material 19 is urged upward by the horizontal portion 2 upper surface 12 of the fixing jig 1, and at the same time, the upper surface of the horizontal portion 2 is lowered downward by the weight of the upper roof material 19. Since it is pushed back, the surface 24 of the lower roof material 19 and the first folded portion 5 are in close contact,
The horizontal portion 23 of the upper roof material 19 and the horizontal portion 2 of the fixing jig 1 are in close contact with each other. For this reason, it is possible to prevent the locking jig 1 from slipping out of the gap 31 due to the close contact, while preventing the rattling of the engaging portions of the upper roof material 19 and the lower roof material 19.

Even if the fixing jig 1 is slid down in the eave direction B ₁ , the first standing portion 9 abuts against the end surface of the solar cell module 18 of the lower roof material 19, so that the fixing jig 1
There is no worry that it will be detached from the roofing material 19. Here, even if the fixture 1 had slid down the eaves direction B _1, to stick a solar cell module 18 in the upper side of the roofing material 19, longer set the second pressing portion 4 It is desirable to keep it.

On the other hand, when the fixing jig 1A according to claims 2 and 3 of the present invention is used, the first bent portion 8 and the second bent portion 13 of the fixing jig 1A are placed in the gap 31 as shown in FIG. The first upright portion 9 is pushed in until it reaches the upper position in the eaves-building direction B with respect to the end surface 32 of the solar cell module 18 of the roof material 19 on the lower stage side.

By installing in this way, the second folded portion 11 moves upward with the second folded portion 13 as a fulcrum by the elastic restoring force of the fixing jig 1A, and the upper roof material 19 on the upper surface 35 of the second folded portion 11. The lower side locking portion 21 is urged upward. Thereby, the surface 34 of the solar cell module 18 of the upper roof material 19 is elastically pressed by the lower surface 36 of the second pressing portion 4 of the pressing portion a1 of the upper roof material 19 so that the solar cell module 18 is on the upper side. The roof material 19 of the roof material 19 is fixed. At the same time, the first pressing portion 10 of the pressing portion a2 of the lower roof material 19 is provided.
Presses the surface 34 of the solar cell module 18 of the lower roof material 19 with its lower surface 33 by the downward elastic restoring force, and fixes the solar cell module 18 to the lower roof material body 16.

Therefore, even when the fixing jig 1A is used, as described above, the fixing jig 1A can be installed on the connecting portion between the upper roof material 19 and the lower roof material 19 by a simple mounting operation. The solar cell module 18 of the roofing material 19 can be fixed by pressing it from the upper surface by installing the solar cell module 18. For example, when the solar cell module 18 is peeled off or damaged from the roofing material bodies 15, 16 due to deterioration of the adhesive or wind and rain. However, the roof material 19 of the solar cell module 18
Can be prevented from falling off.

In the above embodiment, as shown in FIGS. 7 and 8, the lower surface 36 of the second pressing portion 4, the surface 34 of the solar cell module 18 of the upper roof material 19, and the lower surface 33 of the first pressing portion 10 Although the surface 34 of the solar cell module 18 of the lower roof material 19 is always in contact with and pressed, the lower surface 33 of the first pressing portion 10 or the lower surface 36 of the second pressing portion 4 and the solar cell module 18. There may be a narrow gap between the surface 34 and the surface 34.

Moreover, as shown in FIG. 11, it is preferable to install two or more fixing jigs 1 (1A) in the lateral direction C for one roofing material 19. In this way, by installing a plurality in the lateral direction C, the lower side locking portion 21 of the upper roof material 19 can be supported horizontally while being urged upward, and the stable roof material 19 can be supported. And the solar cell module 18 can be fixed.

Next, the solar cell module integrated roofing material 19 using the fixing jig 1A having the above-described configuration.
FIG. 9 and FIG. 9 show another example of the connection structure of the solar cell module 18 of the lower roof material 19 and the upper roof material 19 when the roof is rolled in the eave building direction B. 10 will be described.

When the roof is laid in the eave building direction B using the roof material 19, the construction is performed in the same manner as in the above-described embodiment. That is, first, as shown in FIG. 10, the lower roof material 19 is attached to its mounting portion 2.
A nail 29 or the like is driven into 6 and fixed to a roof base plate 30 or the like via a roofing material (not shown).

On the other hand, as shown in FIG. 9, the lower side locking portion 21 of the upper roof material 19 includes the horizontal portion 2 and the third upright portion 3 of the fixing jig 1 </ b> A, and the second folded portion 11 and the second upright portion 14. The drooping portion 22 and the horizontal portion 23 of the lower side locking portion 21 are respectively inserted into the L-shaped gap 38 formed between the side end surfaces of the roof material 19. In this way, the lower side locking portion 21 and the solar cell module 18 of the upper roof material 19 are moved up and down by the horizontal portion 2 of the fixing jig 1A and the second pressing portion 4 of the pressing portion a1 of the upper roof material 19. The solar cell module 18 is fixed to the upper roof material 19. At the same time, since the second folded portion 11 and the second upright portion 14 are engaged with the lower side engaging portion 21 of the upper roof material 19, the upper roof material 19 and the fixing jig 1 </ b> A are always integrated, and the fixing jig 1A prevents detachment from the upper roof material 19.

And as shown in FIG. 10, the 1st of the fixing jig 1A united with the roof material 19 of the upper stage side is carried out.
The bent portion 8 and the second bent portion 13 are pushed into the gap 39 formed by the surface in the vicinity of the upper side locking portion 25 of the lower roof material 19 and the upper side locking portion 25, and the first upright portion 9 is on the lower side. The roof material 19 is pushed up to the upper position 32 in the eave building direction B from the upper end surface 32 of the solar cell module 18, and at the same time, the first bent portion 8 and the second bent portion 13 of the fixing jig 1 </ b> A are connected to the upper side locking portion 2.
5 is engaged with the recess 40.

By installing in this way, the first pressing portion 10 of the pressing portion a2 of the lower roof material of the fixing jig 1A is elastically restored downward with the first bent portion 18 as a fulcrum, and the lower surface 33 of the lower pressing portion 18 The surface 34 of the solar cell module 18 of the roof material 19 is pressed, and the solar cell module 18 is fixed to the lower roof material 19. Therefore, in this embodiment, the fixing jig 1 can be easily operated.
A can be installed, the solar cell module 18 can be fixed to the roofing material 19 by the installation, and the solar cell module 18 can be prevented from dropping from the roofing material 19.

Also in this embodiment, there may be a narrow gap between the lower surface 33 of the first pressing portion 10 or the lower surface of the second pressing portion 4 and the surface 34 of the solar cell module 18, as shown in FIG. In addition, it is preferable that two or more fixing jigs 1A are installed in the girder direction C per roofing material 19.

1, 1A Fixing jig 2 Horizontal part a1 Holding part of upper roof material a2 Holding part of lower roof material 3 Third standing part 4 Second pressing part 5 First folded part 6 Lower surface (horizontal part)
DESCRIPTION OF SYMBOLS 8 1st bending part 9 1st standing part 10 1st pressing part 11 2nd folding | turning part 12 Horizontal part 13 2nd bending part 14 2nd standing part 15,16 Roof material main body 18 Solar cell module 19 Solar cell module integrated roof Material 21 Lower side locking part 22 Hanging part 23 Lower side locking part 25 Upper side locking part 26 Mounting part 28 Bending piece 31 Gap 38 Gap 39 Gap 40 Recess

Claims (6)

A solar cell module-integrated roof material fixing jig in which a solar cell module is fixed to an upper surface of a roof material main body by bonding or the like, and a third horizontal portion that rises vertically from a rectangular horizontal portion and a rear end of the horizontal portion. The upper portion of the upper roof material comprising the upright portion and the second holding portion extending forward from the upper end thereof at a substantially right angle, and the first folded portion formed from the front end of the horizontal portion and folded back to the back side. It is provided with a pressing part for the lower roof material, which is composed of one folding part, a first standing part that rises substantially vertically from the rear end thereof, and a first pressing part that extends rearward at a substantially right angle from the upper end thereof. A solar cell module integrated roof material fixing jig. When the first folded portion of the fixing jig according to claim 1 is divided in the length direction to form a plurality of divided portions, the first folded portion and the first folded portion are formed in a divided portion where the first folded portion is not formed. A second folded portion that is folded back to the surface side of the horizontal portion while forming a second folded portion at the same position, and is substantially perpendicular to the rear end of the second folded portion and in front of the third upright portion The second to stand up
The solar cell module-integrated roofing material fixing jig according to claim 1, further comprising standing parts. When the first folded portion of the fixing jig according to claim 1 is divided in the length direction to form three divided portions, the second folded portion is located at the same position as the first bent portion in the central divided portion. A second folded portion that is folded back to the surface side of the horizontal portion while forming a folded portion; and a second raised portion that is a rear end of the second folded portion and rises substantially vertically in front of the third raised portion. The solar cell module-integrated roofing material fixing jig according to claim 1, comprising: It is a connection structure when the roof is rolled in the eaves ridge direction with the solar cell module-integrated roof material using the fixing jig according to claim 1, and a nail or the like is driven into an attachment portion of the upper side locking portion of the roof material. When the roof material is connected to the lower roof material by fixing the lower roof material to the base plate, etc., and inserting and locking the upper edge locking portion of the lower roof material into the lower edge locking portion of the upper roof material. In addition, the lower surface of the first pressing portion is installed by pressing the first bent portion into the connecting gap formed between the lower roof material and the upper roof material. And connecting the solar cell module-integrated roofing material to the lower roofing material solar cell module and fixing the upper roofing solar cell module to the lower surface of the second pressing portion. Construction. A connecting structure of solar cell module-integrated roof materials when the roof is rolled in the eaves-and-ridge direction with the solar cell module-integrated roof material using the fixing jig according to claim 2, A nail or the like is driven into the mounting portion of the upper part to fix the lower roof material to the base plate, etc., and the upper edge locking portion of the lower roof material is inserted into the lower edge locking portion of the upper roof material. When the roof material is connected by stopping, the first and second bent portions of the fixing jig are respectively pushed into the connection gap formed between the lower roof material and the upper roof material. The solar cell module of the lower roof material is fixed on the lower surface of the first pressing portion, and the solar cell module of the upper roof material is fixed on the lower surface of the second pressing portion. The solar cell module according to claim 2 or 3, wherein The connection structure of the Le and roof material. A connecting structure of solar cell module-integrated roof materials when the roof is rolled in the eaves-and-ridge direction with the solar cell module-integrated roof material using the fixing jig according to claim 2, Nail or the like is driven into the mounting portion of the portion to fix the lower roof material to the base plate or the like, while the lower edge locking portion of the upper roof material is connected to the horizontal portion, the third upright portion, and the second of the fixing jig. The first fixing jig is inserted into the gap formed by the folded portion and the second upright portion and integrated into the gap formed by the surface near the upper side locking portion of the lower roof material and the upper side locking portion. And the second bent portion are pressed into each other and are installed to be engaged with the concave portion of the upper side locking portion, thereby lowering the solar cell module of the lower roof material on the lower surface of the first pressing portion. Solar cell module of the roof material on the upper side on the lower surface of the section Connection structure of the solar cell module and roof member according to claim 2 or 3, wherein it has a structure for fixing the Lumpur respectively.

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