JP5780500B2 - Solar cell module mounting structure and mounting method thereof - Google Patents

Description

  INDUSTRIAL APPLICABILITY The present invention can be applied to various types of vertical (vertically stretched) exterior structures that are constructed on the roof of a building, can easily attach a solar cell module, is cost-effective, and has high mounting strength. The present invention relates to a battery module mounting structure and a mounting method thereof.

In recent years, combined with social and political conditions, the expectations for solar energy conversion modules are increasing, and the demand for mounting solar panels on the roof of existing structures and buildings has also increased. Yes.
In view of the above-mentioned request, as a structure for installing a solar cell on a vertical roof, for example, as shown in Patent Document 1, Patent Document 2, etc., fasteners such as bolts and nuts on a goby portion in a roof structure to be attached The structure which attaches a taking-out metal fitting is proposed.
Among these, in patent document 1, it is the structure which has arrange | positioned the solar cell module 101 so that it may straddle the several plate-shaped crosspiece member 101s spanned, and in patent document 2, it is a side in the side edge of the solar cell module 3. A frame (outer frame 3 a) provided with a saucer-like shallow groove portion is attached to the side, and the shallow groove portion of the frame is held from above by the holding portion 6 of the mounting bracket 2.

JP 2011-17175 A JP 2003-96986 A

However, in Patent Document 1, the male screw portion 10p erected on the take-out fitting (attachment member 1) is inserted into a hole provided in the crosspiece member 101s, and the solar cell module 101 is mounted on the crosspiece member 101s. Since the Z-shaped metal fitting 101h is attached and fixed to the edge in the mounted state, the installation work is troublesome and the workability is poor, and it is difficult to obtain a stable attachment strength. .
Moreover, in the said patent document 2, since the flame | frame (outer frame 3a) along the side edge of the solar cell module 3 is required, cost starts, and also the arrangement | positioning arrangement | positioning space | interval is adjoined between the adjacent solar cell modules 3 and 3. It was what I needed. Moreover, even if the holding portion 6 of the mounting bracket 2 is arranged in the shallow groove portion of the outer frame 3, there is a problem that the solar cell module 3 easily shifts. The nature was also bad.

  Therefore, the present invention can be applied to various types of vertical (vertically stretched) exterior structures to be constructed on the roof of a building, can easily attach a solar cell module, is cost-effective and has high attachment strength. An object of the present invention is to propose a solar cell module mounting structure and a mounting method thereof.

The present invention has been proposed in view of the above, and is a solar cell module in which a solar cell module is attached by an attachment member that is fixed to a carry-out stand that is taken upward from a roof surface in which a mountain-shaped portion and a valley-shaped portion are continuous. In the mounting structure, the mounting member is a molded body in which a protruding portion protruding to the surface side is provided on a support portion that supports the solar cell module, the fixing portion being fixed to the carry-out stand, and the solar cell module Fastening means for fastening a presser that presses the edge from above, a positioning part that positions the edge of the solar cell module across the fastening means, and a raised receiving part that receives the presser The fixing portion is provided on the left and right of the raised portion, the top portion of the raised portion is the raised receiving portion, and the male screw portion erected upward on the back side of the raised portion is the fastening means. Yes, the side of the raised part Serial a positioning portion, a mounting member fixed to the draw frame, along the respective positioning portions, respectively arranged solar cell modules, pressing at hold-downs to the edge of the adjacent solar cell modules arranged In addition, the present invention relates to a solar cell module mounting structure that is fastened and fixed by fastening means.

  Further, in the mounting structure according to the present invention, the carry-out stand is disposed across the fixed portion to which the mounting member is fixed and the convex portion formed by the molding portion of the exterior material that constitutes the roof surface. A grip portion, a clip portion provided between the grip portion and the fixed portion, and a tightening portion that presses the clip portion inward. A solar cell module mounting structure is also proposed in which the gripping part is attached and the fastening part is fastened to press the gripping part from the left and right to hold and fix the convex part in a pinched state.

Furthermore, the present invention is a solar cell module mounting method in which a solar cell module is mounted by a mounting member that is fixed to a carry-out stand that is taken upward from a roof surface in which a mountain-shaped portion and a valley-shaped portion are continuous. Is a molded body provided with a raised portion protruding to the surface side on the support portion that supports the solar cell module, and includes a fixing portion that is fixed to the carry-out stand and a presser that holds the edge of the solar cell module from above. Fastening means for fastening, a positioning part for regulating the position of the edge of the solar cell module across the fastening means, and a ridge- shaped receiving part for receiving a pressing member, and fixed to the left and right of the raised part Is provided, the top of the raised portion is the raised receiving portion, the male screw portion standing upward on the back side of the raised portion is the fastening means, and the side surface of the raised portion is the a positioning portion, the roof A first step of fixing the take-out stand and a fixing member to the take-out stand, and a second step of disposing the solar cell module along each positioning portion of the fixed attachment member, And a third step of pressing and fixing the edge of the adjacent solar cell module arranged with a pressing tool and fastening and fixing with a fastening means. To do.

The mounting structure of the solar cell module according to the present invention is to stably attach the solar cell module by an attaching member having a take-out stand or fastening means and a positioning portion that is taken upward from the roof surface. The position can be easily regulated by the positioning portion and the workability is good. In addition, since the edge of the adjacent solar cell module is pressed by the pressing tool and fastened and fixed by the fastening means, high mounting strength can be obtained.
Furthermore, in the present invention, a solar battery module with various specifications does not require a special frame or the like as in Patent Document 2, and even a special frame can be used as it is. Moreover, the attachment member and presser to be used may be a piece material having a simple shape, and does not require a complicated or continuous material. Moreover, the arrangement | positioning space | interval required for the solar cell module adjacent to a flow direction may be a fastening means, for example, one volt | bolt, and can use an installation area effectively. Therefore, it can be constructed at a low cost and is generally (good) cost-effective.

The mounting member, because it has a Takashijo receiving portion receiving the retainer, it is possible to prevent even excessive tightening mounted rigidly at fastening means, without causing the deformation of the members, a stable attachment To be implemented.

  In addition, the take-out stand includes a fixed portion to which the attachment member is fixed, a grip portion disposed outside a convex portion formed of an exterior material constituting the roof surface, the grip portion, and the fixed portion. And a clamping part that presses the clamping part inward. The gripping part of the carrying stand is attached to the convex part of the roof surface, and the clamping part is tightened to tighten the clamping part. When pressing the part from the left and right to hold and fix the convex part in a pinched state, it is suitable for the specification in which the convex part is formed in the molding part of the exterior material constituting the roof surface, Can be stably attached, and as a result, the attachment member can be stably attached to the carrying stand. In addition, since the part that directly deforms due to tightening of the tightening part (pinching part) and the part that presses the convex part (gripping part) are separate, deformation due to excessive tightening, displacement of the mounting location, etc. are prevented. , Can be mounted stably.

  Further, in the solar cell module mounting method according to the present invention, the first step of fixing the takeout stand to the roof surface and fixing the attaching member to the takeout stand also follows each positioning portion of the fixed attaching member. In this way, the second step of arranging the solar cell modules and the third step of fixing the fasteners to the adjacent solar cell modules and fastening them with the fastening means can be easily carried out respectively. In addition, it has excellent workability and high practical value.

It is a disassembled perspective view which shows the state before attachment of each member which shows one Example (1st Example) of the attachment structure of the solar cell module of this invention. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a perspective view in which a part of a configuration is intentionally omitted in order to show a main part of an embodiment (first embodiment) of a solar cell module mounting structure of the present invention. (A) Cross-sectional view of the mounting structure of the first embodiment, (b) a side cross-sectional view with an enlarged view of the main part thereof, (c) an enlarged plan view of the mounting member used, an enlarged front view, an enlarged side view, (D) Enlarged plan view, enlarged front view, enlarged side view of used presser, (e) Enlarged front view and enlarged side view of used carry-out stand. (A) A sectional view showing another embodiment (second embodiment) of the mounting structure of the present invention, (b) a side sectional view thereof, (c) another embodiment of the mounting structure of the present invention (third embodiment) (A) A sectional view showing an example), (d) a side sectional view with an example of a method of forming an attachment member in the example, and (e) another example (fourth example) of the attachment structure of the present invention. (F) The sectional side view, (g) The sectional side view, (g) The sectional view which shows another Example (5th Example) of the attachment structure of this invention, (h) The sectional side view.

The mounting structure of the solar cell module according to the present invention is such that the solar cell module is mounted by a take-out stand that is taken upward from a roof surface in which a mountain-like portion and a valley-like portion are continuous or an attachment member that is fixed to the take-out stand. .
Then, the mounting member is fixed to the carry-out stand, the solar cell modules are arranged along the positioning portions, the end edges of the adjacent adjacent solar cell modules are pressed by the pressing tool, and the fastening means Tightened and fixed with.
Below, (A) solar cell module, (B) carry-out stand, (C) attachment member, and (D) pressing tool which comprise this attachment structure are demonstrated in order.

(A) Solar cell module The solar cell module used in the present invention is a module having a frame in which a frame (frame) having a predetermined shape is integrally fixed to the periphery of the solar cell. It may be a frameless module that has been subjected to water and waterproof treatment, and does not limit the flow direction and the size in the direction orthogonal thereto.

(B) Carrying stand The carrying stand used in the present invention is not particularly limited as long as it is taken upward from the roof surface where the mountain-like portion and the valley-like portion are continuous, and any known one can be used. It can also be used with such a carry-out stand.
Specifically, the carrying stand may be a single member or a combination of a plurality of members, and the fixed portion to which the mounting portion to the roof surface and the fixing portion of the mounting member are fixed It is the structure which has.
The attachment portion may be a known attachment method such as screwing or fastening (Example). Further, the fixed portion is not particularly limited, but may be substantially flat as in the illustrated embodiment described later, and may also serve as a support (mounting) portion for the solar cell module (panel).
This take-out stand and the mounting member described later may be provided in any manner as long as a support (mounting) portion of the solar cell module (panel) is configured in the assembled state.
When the convex part is formed in the molded part of the exterior material that constitutes the roof surface, as shown in the illustrated embodiment described later, a grip part arranged across the convex part, and the grip part The structure provided with the clamping part provided between the said to-be-fixed parts, and the clamping part which presses this clamping part inside can be used conveniently. The take-out stand of this structure is attached to the convex part of the roof surface, and by clamping the tightening part, the grip part is pressed from the left and right to hold the convex part in a pinched state. And can be fixed.
And the carrying stand of the said structure is attached stably, and an attachment member can be stably attached to this take-out stand. In addition, since the part that directly deforms by clamping the clamp (pinching part) and the part that presses the convex part (gripping part) are separate, deformation due to excessive tightening and displacement of the mounting location are prevented. It is preferably used because it can be mounted stably.

(C) Mounting member The mounting member used in the present invention sandwiches the fixing means, a fixing portion for fixing to the take-out stand, a fastening means for fastening a pressing tool for pressing the edge of the solar cell module from above, and the fastening means. And a positioning part for regulating the position of the edge of the solar cell module. In addition, when there is no sufficient width (size, length) for supporting (mounting) the solar cell module (panel) on the fixed part of the carry-out stand, the mounting member may support it. . That is, the support (mounting) portion may be provided on the take-out member, or may be provided on the attachment member as shown in the illustrated embodiment described later.
For example, when the fixed portion of the carry-out stand has a flange shape as shown in the illustrated embodiment described later, the fixing portion may also have a flange shape, and the configuration is not particularly limited. . Moreover, it may be fixed by fastening with bolts and nuts as shown in the illustrated embodiment described later, or may be by other known assembly means. In the illustrated embodiment to be described later, the fixed portion also serves as a support (mounting) portion. However, the configuration is not necessarily limited thereto.
The fastening means is fastened in a state where a pressing tool, which will be described later, is pressed downward, and a male screw portion is erected upward as shown in the illustrated embodiment described later, and is screwed into the male screw portion. The structure which fastens a nut etc. provided with the internal thread part to perform may be sufficient, and the structure in particular is not limited.
The positioning portion is provided across the fastening means, and may be provided in at least one direction of the flow direction and the direction intersecting the flow direction for regulating the position of the edge of the solar cell module. In other words, this attachment member is attached in the flow direction or the direction intersecting the flow direction in order to regulate the position of the edge of the solar cell module on which the positioning portion is to be disposed. The positioning portion may be simply a standing piece shape or may be stepped (= side surface of a ridge receiving portion described later), and its configuration is not particularly limited.

The mounting member may be provided with a ridge-shaped receiving portion that receives the pressing tool. This ridge-shaped receiving portion prevents overtightening of the fastening means, and therefore, stable attachment is performed without causing deformation of the member.
Moreover, as shown in the illustrated embodiment to be described later, the top of the raised portion protruding to the surface side can be used as the raised receiving portion, and the side surface can be used as the positioning portion.

(D) Presser The presser used in the present invention presses an edge of an adjacent solar cell module and is fastened and fixed by the fastening means. In the illustrated embodiment to be described later, the pressing tool has an inverted hat shape through which the male screw portion used as the fastening means passes, but is not particularly limited thereto.

The mounting structure of the solar cell module of the present invention constituted by these members is excellent in workability because the solar cell module can be easily positioned and positioned by the positioning portion of the mounting member. Moreover, since the end edges of the adjacent solar cell modules are clamped and fixed while being pressed by a pressing tool, high mounting strength can be obtained.
In addition, solar cell modules of various specifications can be used as they are, and a special frame can be used as it is without requiring a special frame. The attachment means, for example, one bolt is sufficient. The attachment member and the pressing tool may be piece materials. Therefore, the mounting structure of the present invention can be constructed at a low cost and is generally cost-effective (good).

Moreover, the installation construction method of the solar cell module of this invention includes the 1st-3rd process demonstrated below.
In the first step, the take-out stand is fixed to the roof surface and the attachment member is fixed to the take-out stand.
A 2nd process arrange | positions a solar cell module, respectively so that each positioning part of the fixed attachment member may be followed.
In the third step, the edge of the adjacent solar cell module disposed is pressed with a pressing tool and fixed with a fastening means.

In the first step, the attachment member is fixed to the carry-out stand so that each positioning portion of the attachment member is orthogonal to the flow direction in the attachment state.
As shown in the illustrated embodiment described later, the carrying stand has a substantially bilaterally symmetric configuration, while the mounting member is substantially symmetric in the flow direction so that the direction of weakness of the strength is the roof surface (= flow direction). ) And the solar cell module surface (= direction perpendicular to the flow direction) are desirably assembled.

In the second step, the solar cell modules are respectively arranged adjacent to each other in the flow direction so as to follow each positioning portion of the fixed attachment member.
As described above, the solar cell module may have any configuration and can be used as it is. Note that “along the positioning portion” means that the positioning portion and the edge of the solar cell module are basically brought into contact with each other, but it is important to secure an appropriate interval, May be slightly separated.

In the third step, the edge of the solar cell module adjacent to the arranged flow direction is pressed from above with a presser and is fastened and fixed by fastening means.
When the male screw part is erected upward as the fastening means as described above, the nut is attached and the presser is pressed downward by providing a hole through the male screw part in the presser. Can do.

Thus, each of the first to third steps can be easily carried out, and is excellent in workability as a whole and has high practical value.
Note that the roof surface on which the carrying stand of the present invention is installed has only to have a configuration in which the mountain-like portion and the valley-like portion are continuous as described above, and may be newly built or existing.

  The first embodiment of the mounting structure of the solar cell module 1 of the present invention shown in FIGS. 1 to 3 is provided with a carry stand 3 on the roof surface 2 where the mountain-shaped portion 2M and the valley-shaped portion 2V are continuous, The solar cell module 1 is attached to the carry-out stand 3 by the attachment member 4.

  The solar cell module 1 has a panel shape in which a frame (an edge frame in the left-right direction is denoted by 11a and an edge frame in the flow direction is denoted by 11b) is previously attached around the solar cell 10 (four sides). 11b has a U-shaped holding portion at the upper end and a hollow portion along the inner surface side of the solar cell 10, and the frames 11a and 11b are integrally fixed with screws (screws 12). ing.

As shown in FIG. 3 (a), the roof surface 2 includes a face-plate portion 21 and rising portions 22 and 22 raised from both side edges on a base 6 arranged in the left-right direction. 20 (hereinafter simply referred to as an exterior material) is composed of a substantially gate-shaped lower holding member 7B and an upper holding member 7A having a standing piece 71 integrated with the bolt 7c on the lower holding member 7B. The holding member is laid adjacent to the left and right.
The exterior material 20 is a long material obtained by bending a metal plate, the substantially flat face plate portion 21 forms the valley-shaped portion 2V, and the upper half portion of the rising portion 22 raised from the left and right side edges is the A mountain-shaped portion 2M is formed. The rising portion 22 includes an inclined surface portion 221 having a substantially inclined surface located below and a substantially horizontal surface portion 222 having a gentler inclination than the inclined surface portion 221 located above, both of which support the back surface on the lower holding member 7B. Has been. Further, the substantially horizontal surface portion 222 is provided with a superposed portion (right side of the drawing) and a polymerized portion (left side of the drawing) which are raised substantially vertically, and superposed so as to sandwich the standing piece 71 of the upper holding member 7A. In this state, the convex portion 23 is formed by caulking in a substantially arc shape.

As shown in FIG. 3 (e), the carry-out stand 3 is a pair of left and right members, and includes a substantially flange-like fixed portion 31 to which the attachment member 4 is fixed, and a convex portion 23 of the roof surface 2. A substantially arc-shaped gripping portion 32 disposed on the left and right outer sides, a sandwiching portion 33 provided between the gripping portion 32 and the fixed portion 31, and a bolt and nut that presses the sandwiching portion 33 inward. The fastening portion 34 and the mounting surface portion 35 that extends along the substantially horizontal surface portion 222 of the roof surface 2 are provided. In the figure, reference numeral 311 denotes a hole provided in the fixed portion 31, and reference numeral 321 denotes a locking portion that clamps the base end of the convex portion 23 of the roof surface 2 from the left and right.
And the grip part 32 of this carrying-out stand 3 is attached to the outer side of the convex part 23 of the roof surface 2, and the said nut 23 is pressed from right and left by clamping | tightening the bolt nut 34, and the said convex part 23 is clamped-like. Can be held and fixed.

The attachment member 4 includes a fixing portion 41 for fixing to the carry-out stand 3, a fastening means 42 for fastening a presser 5 that presses an edge of the solar cell module 1 from above, and a clamp means 42 sandwiched between the fastening means 42. And a positioning portion 43 that regulates the position of the edge of the solar cell module 1 in the flow direction. The fixing portion 41 supports (places) the solar cell module (panel). Doubles as
As shown in FIG. 3 (c), the mounting member 4 of the illustrated embodiment has a molded body (= substantially flat support (mounting) provided with a raised portion 40 projecting to the surface side at a substantial center of a substantially rectangular raw material plate. And a ridge receiving portion 44 for receiving the presser 5 at the top of the bulging portion 40, and the side surface (= flow) of the bulging portion 40. The side face facing the direction) is the positioning portion 43, and the hexagon bolt 4d fixed upward on the back side is the fastening means 42. Fastening means 42 is completed by attaching nuts 4e to the hexagon bolts 4d and screwing them together. In the figure, reference numeral 411 denotes a hole formed in the fixing portion 41.
The flange-shaped fixing portion 41 of the mounting member 4 is superposed on the upper surface of the fixed portion 31 of the carry-out stand 3 so that the holes 411 and 311 communicate with each other, and the bolt 4b is inserted into the hole 311 from the back surface side. , 411, and the nut 4c can be attached and fixed from the surface side.

The presser 5 that holds the edge of the solar cell module 1 in the flow direction is fastened and fixed by the fastening means 42 of the mounting member 4.
The presser 5 in the illustrated embodiment is a molded body obtained by bending a substantially rectangular raw material plate material into a substantially U-shaped cross section as shown in FIG. Both ends in the direction were raised (rise portions 52, 52) and bent further outward to form substantially horizontal pressing portions 53, 53.

The solar cell module mounting structure of the present invention constituted by these members is constructed by the procedures of the first to third steps shown below.
Prior to the following steps, the carrying stand 3 is attached and fixed to the convex portion 23 of the roof surface 2 from the left and right. Specifically, the substantially symmetrical members are integrated back to back, but the grip portion 32 is attached so as to hold the convex portion 23, and the attachment surface portion 35 and the fixed portion 31 are substantially horizontal. The clamping part 33 is fastened and fixed by a fastening part 34, which is a bolt and nut, and the base end of the convex part 23 is fixed by the locking part 321 from the left and right.

First, in a 1st process, the attachment member 4 is fixed with respect to the said carrying stand 3 so that each positioning part 43 may be orthogonal to a flow direction. Specifically, the fixing portion 41 of the mounting member 4 is placed in a superposed manner on the fixed portion 31 of the carry-out stand 3, the bolt 4b is inserted into the holes 311 and 411 from the back side, and the 4c is attached from the front side and fixed. can do.
Next, in the second step, the solar cell modules 1, 1 are arranged on the support (mounting) portion 45 so as to follow the positioning portions 43 of the fixed attachment member 4. As a result, as shown in an enlarged view in FIG. 3B, the positioning portion 43 and the edge of the solar cell module 1 (frame 11b) may be arranged in a slightly separated state.
In the third step, the end edges (frames 11b and 11b) of the solar cell modules 1 and 1 adjacent to the arranged flow direction are pressed from above by the pressing portions 53 and 53 of the pressing tool 5 and fastening means. The nut 4e is fastened and fixed to the hexagon bolt 4d that is 42.

The mounting structure of the solar cell module 1 of the present invention thus constructed is excellent in workability because the solar cell module 1 can be easily positioned and positioned by the positioning portion 43 of the mounting member 4. Yes. And since the edge (frame 11b, 11b) of the solar cell module 1 and 1 adjacent to a flow direction is clamped and fixed in the state pressed with the pressing tool 5, high attachment intensity | strength is obtained.
Moreover, the solar cell module 1 of various specifications can be used as it is without using a special frame or the like. Moreover, since the above-mentioned special frame is not used, the arrangement | positioning space | interval required for the solar cell modules 1 and 1 adjacent to a flow direction should just be the fastening means 42, for example, one volt | bolt. Further, the attachment member 4 and the pressing member 5 may be piece materials. Therefore, the mounting structure of the present invention can be constructed at a low cost, and is generally cost-effective.

The second embodiment shown in FIGS. 4 (a) and 4 (b) is almost the same as that of the first embodiment with respect to the solar cell module 1, roof surface 2, take-out fitting 3 ′, and presser 5 other than the mounting member 4II. The same is true for the take-out fitting 3 'except that the recessed portion 312 is provided in the approximate center of the fixed portion 31, and these members are denoted by the same reference numerals in the drawings. Description is omitted.
The mounting member 4II of the second embodiment is provided with a short raising and lowering piece 43ii facing the flow direction in the vicinity of the middle of the substantially rectangular raw material plate, and the cutting and raising piece 43ii corresponds to a positioning portion. Similar to the positioning portion 43 in the first embodiment, it plays a role of regulating the position of the edge of the solar cell module 1 in the flow direction. The fastening means of the mounting member 4II is a flat head bolt 4d 'integrally fixed by welding or the like as the fastening means 42ii. Fastening means 42ii is completed by attaching nut 4e to this flat bolt 4d 'and screwing it.

The third embodiment shown in FIGS. 4C and 4D is exactly the same as the first embodiment with respect to the solar cell module 1 other than the mounting member 4III, the roof surface 2, the takeout fitting 3, and the presser 5. Therefore, about these members, the same code | symbol is attached | subjected to drawing and description is abbreviate | omitted.
The mounting member 4III of the third embodiment is provided with a ridge 40 'having a groove 401 open upward at the approximate center of a substantially rectangular raw material plate, and its end (hatched portion in the figure) is cut off. The side surface 402 corresponds to a positioning portion, and plays the role of regulating the position of the edge of the solar cell module 1 in the flow direction, like the positioning portion 43 in the first embodiment. Further, a hexagon bolt 4d, which is a fastening means, is attached to the groove 401 of the ridge 40 'and is also fixed to the groove 401 by tightening the nut 4e.

  The fourth embodiment shown in FIGS. 4 (e) and 4 (f) is almost the same as the second embodiment except that the fastening means in the mounting member 4IV is composed of a long hexagonal bolt 4d "and a nut 4e. Since the cut-and-raised piece 43iv is the same as the cut-and-raised piece 43ii, the same reference numerals are given to the drawings and description thereof is omitted.

  In the fifth embodiment shown in FIGS. 4G and 4H, the attachment member 4V is formed by integrating a substantially rectangular flat plate material and a substantially U-shaped molding material, and the flat plate material is supported (mounted). Except that the two standing pieces of the substantially U-shaped material form the positioning portions 43v and 43v, and the fastening means includes the long hexagon bolt 4d "and the nut 4e. Since the second embodiment is almost the same as the second embodiment, the same reference numerals are given to the drawings and the description thereof is omitted.

DESCRIPTION OF SYMBOLS 1 Solar cell module 10 Solar cell 11a, 11b (edge) frame 12 Screw 2 Roof surface 2M Mountain-shaped part 2V Valley-shaped part 20 Exterior material 21 Face plate part 22 Standing part 23 Convex part 3 Carry-out stand 31 Fixed part 311 Hole 32 Grasping part 321 Locking part 33 Clamping part 34 Tightening part (bolt nut)
35 mounting surface portion 4 mounting member 40 raised portion 41 fixing portion 411 hole 42 fastening means 43 positioning portion 45 support (mounting) portion 4b bolt 4c nut 4d hexagonal nut 4e nut 5 presser 51 bottom portion 52 rising portion 53 presser Part

Claims (3)

A solar cell module mounting structure in which a solar cell module is mounted by a mounting member that is fixed to a carry-out stand that is taken upward from a roof surface in which a mountain-shaped portion and a valley-shaped portion are continuous,
The mounting member is a molded body in which a protruding portion protruding to the surface side is provided on a support portion that supports the solar cell module, and a fixing portion that is fixed to the carry-out stand and an edge of the solar cell module are pressed from above. has a fastening means for fastening the retainer, and a positioning portion for positional regulation of the edge of the solar cell module across the該締fastening means, and a Takashijo receiving portion receiving a retainer, the left and right of the raised portion The fixed portion is provided, the top of the raised portion is the raised receiving portion, the male screw portion that is erected upward on the back side of the raised portion is the fastening means, and the raised portion of the raised portion The side surface is the positioning part,
The mounting member is fixed to the take-out stand, and the solar cell modules are arranged along the positioning portions, respectively, and the edges of the adjacent solar cell modules arranged are pressed by a pressing tool and fastened by the fastening means. A solar cell module mounting structure characterized by being fastened and fixed. The take-out stand includes a fixed portion to which the mounting member is fixed, a grip portion disposed on the outer side of the convex portion formed of the exterior material constituting the roof surface, and a space between the grip portion and the fixed portion. And a clamping part that presses the clamping part inward,
The gripping part of the carrying stand is attached to the convex part of the roof surface, and the clamping part is tightened to press the gripping part from the left and right to hold and fix the convex part in a pinched state. The solar cell module mounting structure according to claim 1 . A solar cell module mounting method for mounting a solar cell module with a mounting member that is fixed to a carry-out stand that is taken upward from a roof surface where a mountain-shaped portion and a valley-shaped portion are continuous,
The mounting member is a molded body in which a protruding portion protruding to the surface side is provided on a support portion that supports the solar cell module, and a fixing portion that is fixed to the carry-out stand and an edge of the solar cell module are pressed from above. A fastening means for fastening the presser; a positioning part for restricting the position of the edge of the solar cell module across the fastening means; and a ridge receiving part for receiving the presser; The fixed portion is provided, the top of the raised portion is the raised receiving portion, the male screw portion that is erected upward on the back side of the raised portion is the fastening means, and the raised portion of the raised portion The side surface is the positioning part,
A first step of fixing the take-out stand to the roof surface and fixing an attachment member to the take-out stand;
A second step of disposing the solar cell modules along the positioning portions of the fixed attachment members,
A third step of pressing the edge of the adjacent solar cell module disposed with a presser and tightening and fixing with a fastening means;
The installation construction method of the solar cell module characterized by including .

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