JP7033360B1 - Stand for solar panels - Google Patents

Abstract

PROBLEM TO BE SOLVED: To secure sufficient strength against a load input to a solar panel. The present disclosure is a solar panel mount 10 that supports a solar panel 1, and is a support upper surface that is arranged above a support column 11 and an upper surface 11a of the support column 11 and is inclined along a panel tilting direction. A first support member 12 having a portion and fixed to the support column 11, and a first support member 12 arranged above the support column 11 and extending in the panel inclined direction along the support upper surface portion of the first support member 12 to the support upper surface portion. The central beam row member 13 fixed to the center beam row member 13 and the central beam row member 13 arranged on both sides in the width direction and fixed to the support upper surface portion of the first support member 12 to both sides in the width direction with respect to the first support member 12. A pair of second support members 14 that regulate the movement of the central beam row member 13 and a pair of second support members 14 that are arranged at positions separated from each other in the panel tilt direction and extend along the width direction in the panel tilt direction of the center beam row member 13. It is provided with a pair of girder members fixed to both ends. [Selection diagram] FIG. 8

Description

Application of Article 30, Paragraph 2 of the Patent Act On February 15, 3rd year of Reiwa, Shibui Steel Co., Ltd. conducted a durability confirmation test of the invention of the present application on the ship entering Urayasu City, Chiba Prefecture. ..

The present disclosure relates to a frame for a solar panel.

Patent Document 1 describes a frame that supports a solar panel. The gantry comprises a planar frame on which the solar panel is placed and a single support that extends upward from the ground surface to support the frame. The frame portion includes a plurality of girder members extending in the girder direction and a plurality of inter-beam members extending in the beam-to-beam direction substantially orthogonal to these girder members. The girder member and the beam member are arranged in a paddy shape. The support portion includes a cylindrical columnar column exposed on the ground surface and four canes extending upward from the column and connected to the frame portion. The upper end surface of the column is connected to the intersection of the girder member of the frame portion and the inter-beam member. The connection point between the column and the frame is located in the center of the frame. The upper ends of the four canes are connected to the four corners of the frame, and the lower ends of the canes are connected to an annular ring joint attached to the strut.

Japanese Unexamined Patent Publication No. 2014-084700

By the way, since a load is input to the solar panel due to wind, an earthquake, or the like, it is necessary to secure sufficient strength for the solar panel mount against the load input to the solar panel.

In the pedestal (solar panel pedestal) described in Patent Document 1, the upper end surface of the column is connected to the intersection of the girder member in the center of the frame portion and the inter-beam member. The load input to the panel cannot be efficiently transmitted to the column, and the member between the solar panel and the column (for example, the connecting part between the column and the frame) is deformed. It may not be possible to secure sufficient strength against the load input to.

Therefore, an object of the present disclosure is to provide a frame for a solar panel capable of ensuring sufficient strength against a load input to the solar panel.

In order to solve the above-mentioned problems, the first aspect of the present invention is a frame for a solar panel that supports a solar panel, which is arranged above the support and the upper surface of the support and along the first direction. A first support member having an inclined support upper surface portion and fixed to the support column, and extending in the first direction along the support upper surface portion of the first support member arranged above the support column. The support upper surface of the first support member is arranged on both sides of the first beam row member fixed to the support upper surface portion and the second direction intersecting the first direction of the first beam row member. A pair of second support members fixed to the portion and restricting the movement of the first beam row member to both sides in the second direction with respect to the first support member, and arranged at positions separated from each other in the first direction. A pair of girder members that extend along the second direction and are fixed to both ends of the first beam member in the first direction.

A second aspect of the present invention is the solar panel mount of the first aspect, which is bridged over the pair of girder members and fixed to the pair of girder members to provide the solar panel. A second beam row member to support is provided.

A third aspect of the present invention is the solar panel mount of the first aspect or the second aspect, wherein the pair of second support members are along the first beam row member. It extends in the first direction and is longer on both sides of the first support member than the support upper surface portion of the first support member.

A fourth aspect of the present invention is a solar panel mount according to any one of the first to third aspects, wherein the pair of girder members is formed along the extending direction of the column. It has an upright surface portion extending along the second direction in an upright state.

A fifth aspect of the present invention is a solar panel mount according to any one of the first to fourth aspects, wherein the lower end is supported by the support and the upper end is the pair of girders. A cane member that supports any of the girder members of the member is provided.

A sixth aspect of the present invention is the frame for the solar panel of the fifth aspect, which includes at least four of the cane members, and the upper end portion of each of the four cane members is the above-mentioned one. A region of one girder member of a pair in the second direction from the first beam member, and a region of the one girder member in the second direction from the first beam member. The area on the other side, the region on one side of the other girder member of the pair of girder members with respect to the first beam row member, and the region of the other girder row member with respect to the first beam row member. Supports the area on the other side.

According to the present disclosure, it is possible to secure a sufficient strength against the load input to the solar panel in the solar panel mount.

It is a front view of the frame for the solar panel which concerns on one Embodiment of this invention, and shows the state which supports the solar panel. It is a perspective view from the back side of the pedestal for a solar panel of FIG. It is a perspective view from the front side of the pedestal for a solar panel with the solar panel 1 removed. It is a side view of the frame for a solar panel of FIG. It is a front view of the frame for a solar panel of FIG. It is a top view of the stand for a solar panel. It is a perspective view which shows the support column and the 1st support member. It is a perspective view of the upper part of a column. FIG. 8 is a view of the upper part of the support column of FIG. 8 as viewed from above.

Hereinafter, an embodiment of the present invention will be described with reference to the drawings. In each figure, FR indicates the front side in the depth direction of the solar panel mount, UP indicates the upper side, and IN indicates the inside in the width direction. Further, in the following description, the front side in the depth direction means the low side of the solar panel, and the back side in the depth direction means the high side of the solar panel. Further, the width direction of the solar panel means the left-right direction when the solar panel is viewed from the front side.

FIG. 1 is a front view of a solar panel mount 10 according to an embodiment of the present invention, showing a state in which the solar panel 1 is supported. FIG. 2 is a perspective view from the back side of the solar panel mount 10 of FIG. FIG. 3 is a perspective view from the front side of the solar panel mount 10 with the solar panel 1 removed. FIG. 4 is a side view of the solar panel mount 10 of FIG. FIG. 5 is a front view of the solar panel mount 10 of FIG. FIG. 6 is a plan view of the solar panel mount 10. FIG. 7 is a perspective view showing the support column 11 and the first support member 12. FIG. 8 is a perspective view of the upper part of the support column 11. FIG. 9 is a view of the upper part of the support column of FIG. 8 as viewed from above.

As shown in FIGS. 1 and 2, the solar panel pedestal 10 according to the present embodiment is a pedestal for supporting the solar panel 1 used for photovoltaic power generation, and is installed on the ground surface 2. Used. The solar panel stand 10 supports the solar panel 1 from below with the front side of the solar panel 1 lowered (the back side raised). That is, the installed solar panel 1 has a low front side and a high back side, and is inclined with respect to the horizontal direction. In the following description, the solar panel stand 10 installed on the ground surface 2 will be described.

The solar panel mount 10 is designed in accordance with JIS C 8955 (2017), which is a design load calculation method for a support for a solar cell array established by the Japanese Industrial Standards. JIS C 8955 (2017) stipulates that the gantry should be designed on the assumption of four types of loads: fixed load, wind pressure load, snow load, and seismic load due to the mass of the solar cell array (solar panel 1). Has been done. In the following description, the “load” means a load of at least one of the above four types of loads.

As shown in FIGS. 1 to 6, the solar panel mount 10 includes a single support column 11 that stands up from the ground surface 2, a first support member 12 that is fixed to the support column 11, and a first support member. It is supported by the central beam row member (first beam row member) 13 supported from below by 12, a pair of left and right second support members 14 fixed to the first support member 12, and the central beam row member 13. A pair of upper and lower girder members 15, a pair of left and right beam members (second beam members) 16 supported by a pair of girder members 15, and four cane members 17 that support the upper and lower girder members 15. To prepare for. In the present invention, the "girder row member" means a member extending in the width direction, and the "beam row member" is a direction intersecting the width direction (in the present embodiment, the direction in which the solar panel 1 is inclined (in the present invention). It means a member extending in the panel tilting direction)) described later.

The column 11 is a column for supporting the solar panel 1 via other members described later other than the column 11 of the pedestal 10 for the solar panel, and stands up from the ground surface 2. In the present embodiment, the support column 11 is formed in a cylindrical shape having a rectangular cross section, extends linearly, and stands up from the ground surface 2 along the vertical direction. The support column 11 stands up in a state where each side surface thereof intersects with the depth direction and intersects with the width direction. The lower end of the column 11 is buried in the ground, and the upper end side of the column 11 projects upward from the ground surface 2. The upper surface 11a of the support column 11 is arranged substantially horizontally.

As shown in FIGS. 7 and 8, the first support member 12 is a member for supporting the central beam row member 13 from below, and is formed by bending a flat plate-shaped member. The first support member 12 has a front plate portion 12a fixed to the front side surface 11b of the support column 11 and extending in the vertical direction along the front side surface 11b, and the back side surface 11c of the support column 11 (see FIG. 4). It integrally has a rear plate portion 12b fixed to and extending in the vertical direction along the inner surface 11c, and an upper plate portion 12c arranged above the upper surface 11a of the support column 11. The lower end side of the front plate portion 12a is fixed to the front surface 11b of the support column 11 (in this embodiment, fastened and fixed by bolts), and the upper end side of the front plate portion 12a projects upward from the upper surface 11a of the support column 11. .. Further, the lower end side of the rear plate portion 12b is fixed to the inner surface 11c of the column 11 (in this embodiment, fastened and fixed by bolts), and the upper end side of the rear plate portion 12b is above the upper surface 11a of the column 11. Protrude. The amount of protrusion of the front plate portion 12a and the rear plate portion 12b upward from the upper surface 11a of the support column 11 is longer in the rear plate portion 12b. The upper plate portion 12c connects the upper end edges of the front plate portion 12a and the rear plate portion 12b to each other. The upper plate portion 12c has a support upper surface portion 18 arranged above the upper surface portion 11a of the support column 11. The support upper surface portion 18 is inclined with respect to the horizontal direction along the inclination direction (first direction, hereinafter referred to as “panel inclination direction”) of the solar panel 1 so that the front side is low and the back side is high. The tilt angle of the support upper surface portion 18 with respect to the horizontal direction is set to substantially the same angle as the tilt angle of the solar panel 1 with respect to the horizontal direction. The panel tilting direction (first direction) is a direction intersecting with the width direction (second direction).

As shown in FIGS. 3 to 9, the central beam row member 13 is a member for supporting the upper and lower girder row members 15, and is formed in a cylindrical shape having a rectangular cross section and is linear along the panel inclination direction. Extend to. The central beam row member 13 is fixed to the support upper surface portion 18 in a state where the central portion 13a in the panel tilting direction is placed on the support upper surface portion 18 of the first support member 12. In the present embodiment, the central beam row member 13 is fixed to the support upper surface portion 18 via the left and right second support members 14 described later. The central portion 13a of the central beam row member 13 in the panel tilting direction is placed above the central portion of the support upper surface portion 18 of the first support member 12 in the width direction and extends in the panel tilting direction. That is, in the central beam row member 13, the central portion 13a in the panel tilting direction is arranged above the support column 11 and extends in the panel tilting direction along the support upper surface portion 18 of the first support member 12, with respect to the support upper surface portion 18. Is fixed. The central beam row member 13 is supported from below by the support upper surface portion 18 of the first support member 12. In the present embodiment, the central beam row member 13 is fixed to the support upper surface portion 18 via the left and right second support members 14, but the present invention is not limited to this, and the central beam row member 13 is used. It may be fixed directly to the support upper surface portion 18.

The left and right second support members 14 are members for restricting the movement of the central beam row member 13 with respect to the support upper surface portion 18 of the first support member 12 in the width direction (second direction), and in the present embodiment, they are members. , Is formed in an L-shaped cross section and extends linearly. The left and right second support members 14 are arranged on both sides of the central beam row member 13 in the width direction, are fixed to the support upper surface portion 18 of the first support member 12, and extend along the panel inclination direction. The left and right second support members 14 are fixed to the support upper surface portion 18 of the first support member 12 (in this embodiment, fastened and fixed by bolts) from the horizontal plate portion 14a and the inside of the horizontal plate portion 14a in the width direction. It has an upright vertical plate portion 14b integrally. The vertical plate portions 14b of the left and right second support members 14 extend in the panel inclined direction along the outer surfaces on both sides in the width direction of the central beam row member 13, and come into surface contact with the outer surfaces in the width direction of the central beam row member 13. It is fixed in this state (in this embodiment, it is fastened and fixed by bolts). The left and right second support members 14 are longer on both sides in the panel tilting direction than the support upper surface portion 18 of the first support member 12. That is, the left and right second support members 14 project from the support upper surface portion 18 of the first support member 12 to both sides in the panel tilting direction (see FIG. 8).

The upper and lower girder row members 15 are members for supporting the left and right end beam row members 16, and in the present embodiment, they are formed in a U-shaped cross section and extend linearly. One of the upper and lower girder row members 15 is supported by the upper end portion of the central beam row member 13 and extends along the width direction, and the other is supported by the lower end portion of the central beam row member 13 and extends along the width direction. That is, the upper and lower girder members 15 are arranged at positions separated from each other in the panel tilting direction. In the present embodiment, the central portion of the upper and lower girder row members 15 in the width direction is fixedly supported by the four L-shaped connecting members 24 with respect to both ends of the central beam row member 13 in the panel tilting direction. .. The upper and lower girder members 15 are the upper plate portion 15a, the lower plate portion 15b located below the upper plate portion 15a, and one end edge (or the other end edge) of the upper plate portion 15a and the lower plate portion 15b in the depth direction. Each has a connecting plate portion 15c and extends along the width direction. The upper and lower girder members 15 are arranged so that the connecting plate portions 15c are located inside in the depth direction (so that they are back to back). The outer surface portion (upright surface portion) 19 of the connecting plate portion 15c of the upper and lower girder members 15 extends along the width direction in a state of standing upright along the vertical direction (extending direction of the column 11). That is, the upper and lower girder members 15 have an outer surface portion (upright surface portion) 19 extending along the width direction while standing upright along the extending direction of the column 11. The four L-shaped connecting members 24 are fixed to both side surfaces in the width direction of both ends of the central beam row member 13 in the panel tilt direction (in this embodiment, fastened and fixed by bolts), and the upper and lower girder row members are fixed. Each of the 15 connecting plate portions 15c is fixed to the outer surface portion 19 (in this embodiment, fastened and fixed by bolts). The outer surface portion 19 of the connecting plate portion 15c of the upper girder member 15 is the front surface portion in the depth direction, and the outer surface portion 19 of the connecting plate portion 15c of the lower girder member 15 is the inner surface portion in the depth direction. It is the face of.

The left and right beam row members 16 are members for supporting the solar panel 1, and are formed in a U-shaped cross section and extend linearly. The left and right beam row members 16 are arranged above the upper and lower girder row members 15 in a state where the opening sides having a U-shaped cross section face each other, and extend along the panel inclination direction. The left and right beam row members 16 connect the upper plate portion 16a, the lower plate portion 16b located below the upper plate portion 16a, and the outer edges of the upper plate portion 16a and the lower plate portion 16b in the width direction. Each has a connecting plate portion 16c and extends along the panel tilting direction. The outer surface portion 25 of the connecting plate portion 16c of the left and right beam row members 16 extends along the panel tilting direction in a state of standing upright along the vertical direction (extending direction of the column 11). The left and right beam row members 16 are arranged on one side (left side) and the other side (right side) in the width direction with respect to the central beam row member 13. The left and right beam row members 16 are bridged over the upper and lower girder row members 15 and fixed to the upper and lower girder row members 15. That is, the left and right beam row members 16 and the upper and lower girder row members 15 are combined in a grid shape. In the present embodiment, the left and right beam row members 16 are arranged at positions slightly separated upward from the upper and lower girder row members 15, and are fixed to the upper and lower girder row members 15 via four connecting members 20. The four connecting members 20 extend along the vertical direction and are arranged at the crossing portions of the members combined in a grid shape, and the lower end side is fixed to the girder member 15 (in this embodiment, fastened and fixed by bolts), and the upper end is fixed. The side is fixed to the outer surface portion 25 of the connecting plate portion 16c of the beam row member 16 (in this embodiment, it is fastened and fixed by bolts).

The four cane members 17 are members for supporting the upper and lower girder members 15 from the support column 11 side, and extend linearly. The four cane members 17 extend diagonally upward from the lower end portion fixed to the support column 11 (fastened and fixed by bolts in this embodiment), and the upper end portion is fixed to the upper and lower girder members 15 (main). In the embodiment, it is fastened and fixed by bolts). As a result, the four cane members 17 support the upper and lower girder members 15 from below. The four cane members 17 have two cane members 17a and 17b that support the lower girder member 15 and two cane members 17c and 17d that support the upper girder member 15 symmetrically. Be placed. The lower ends of the two cane members 17a and 17b that support the lower girder member 15 are fixed to the column 11 via one connecting member 21a, and the two cane members 17c and 17d that support the upper girder member 15 The lower end of the is fixed to the support column 11 via one connecting member 21b. The connecting members 21a and 21b have substantially the same shape as each other, and the middle plate portion 22 fixed to the support column 11 and the left and right connecting members extending from both ends in the width direction of the middle plate portion 22 in a direction inclined with respect to the middle plate portion 22. It has an inclined plate portion 23 integrally. The middle plate portion 22 of the connecting member 21a on the front side is fixed at a position of the front surface 11b of the support column 11 separated downward from the upper end portion of the support column 11, and the left and right inclined plate portions 23 are outside in the width direction and It extends to the front side. The middle plate portion 22 of the connecting member 21b on the back side is fixed at a position of the surface 11c on the back side of the support column 11 that is separated downward from the upper end portion of the support column 11, and the left and right inclined plate portions 23 are outside in the width direction. And it extends to the back side. The connecting members 21a and 21b are arranged at substantially the same height as each other. The upper ends of the four cane members 17 are fixed to the outer regions of the upper and lower girder members 15 in the width direction from the left and right beam members 16 (outer ends in the width direction of the upper and lower girder members 15), respectively. To. That is, the upper end of each of the four cane members 17 is a region on one side of the upper girder member 15 in the width direction with respect to the central beam member 13, and the central beam member 13 of the upper girder member 15. The other area in the width direction, the area on one side of the lower girder member 15 in the width direction than the central beam member 13, and the lower girder member 15 than the central beam member 13. Supports the area on the other side in the width direction. As shown in FIG. 6, the inclination angle of the left and right inclined plate portions 23 with respect to the middle plate portion 22 is set so as to be substantially linear with the four cane members 17 in the top view.

Next, a method of installing the solar panel stand 10 will be described. When installing the pedestal 10 for a solar panel, first, the support column 11 is buried in a state of protruding upward from the ground surface 2 in the vertical direction. Next, the first support member 12 is fixed to the upper end of the support column 11. At this time, the first support member 12 is fixed to the support column 11 in a state where the support upper surface portion 18 of the upper plate portion 12c of the first support member 12 is inclined along the panel tilting direction. Next, the central beam row member 13 is fixed to the support upper surface portion 18 of the first support member 12 via the left and right second support members 14. Next, the upper and lower girder row members 15 are fixed to both ends of the central beam row member 13 in the panel tilting direction via the connecting member 24. At this time, the upper and lower girder members 15 are fixed to the central beam member 13 in a state where the outer surface portion 19 of the connecting plate portion 15c of the upper and lower girder members 15 stands upright along the vertical direction. Next, the four cane members 17 are fixed to the columns 11 and the upper and lower girder members 15. Next, the left and right beam row members 16 are fixed to the upper and lower girder row members 15 via the connecting member 20. Finally, the solar panel 1 is placed above the left and right beam row members 16 and fixed to the left and right beam row members 16.

In the solar panel mount 10 configured as described above, the support upper surface portion 18 of the first support member 12 that supports the central beam row member 13 from below is located above the upper surface 11a of the column 11. Therefore, the downward load input from the upper solar panel 1 side can be efficiently transmitted from the central beam row member 13 to the column 11.

Further, left and right second support members 14 are arranged on both sides of the central beam row member 13 in the width direction, and the left and right second support members 14 are fixed to the support upper surface portions 18 of the first support member 12. In this way, since the left and right second support members 14 reinforce the central beam row member 13 from both sides in the width direction, the rigidity of the connecting portion between the central beam row member 13 and the first support member 12 can be increased. Therefore, the load input from the solar panel 1 side to the central beam row member 13 can be efficiently transmitted to the column 11 via the first support member 12.

Further, the movement of the central beam row member 13 in the width direction with respect to the support upper surface portion 18 of the first support member 12 can be restricted by the left and right second support members 14. Therefore, the load in the width direction input from the solar panel 1 side to the central beam row member 13 can be efficiently transmitted to the column 11.

Further, the left and right second support members 14 are longer on both sides in the panel tilting direction than the support upper surface portion 18 of the first support member 12. Therefore, since the left and right second support members 14 can be extended long along the side surface of the central beam row member 13, the rotation of the central beam row member 13 with respect to the support column 11 can be suppressed. Therefore, the load in the rotation direction (rotation direction about the support column 11) input to the central beam row member 13 from the solar panel 1 side can be efficiently transmitted to the support column 11.

Further, the upper and lower girder members 15 have an outer surface portion 19 of a connecting plate portion 15c extending along the width direction in a state of standing upright along the vertical direction (extending direction of the support column 11). Therefore, unlike the case where the outer surface portion 19 of the connecting plate portion 15c is inclined with respect to the vertical direction, the downward load input from the upper solar panel 1 side to the upper and lower girder members 15 is applied to the central beam. It can be efficiently transmitted to the support column 11 via the row member 13 and the like.

Further, the outer surface portion 25 of the connecting plate portion 16c of the left and right beam row members 16 extends along the panel tilting direction in a state of standing upright along the vertical direction (extending direction of the column 11). The outer surface portion 25 of the connecting plate portion 16c of the left and right beam row members 16 is connected to the outer surface portion 19 of the connecting plate portion 15c of the upper and lower girder row members 15 via a connecting member 20 extending in the vertical direction. .. Therefore, the downward load input to the left and right beam row members 16 from the upper solar panel 1 side can be efficiently transmitted to the upper and lower girder row members 15, so that the load from above can be more efficiently transmitted to the column 11. Can be transmitted to.

Further, since the four cane members 17 support the upper and lower girder members 15 from the column 11 side, the load from above input to the upper and lower girder members 15 can be transmitted to the columns 11.

Further, the upper end of each of the four cane members 17 is a region on one side of the upper girder member 15 in the width direction with respect to the central beam member 13, and the central beam member 13 of the upper girder member 15. The other area in the width direction, the area on one side of the lower girder member 15 in the width direction than the central beam member 13, and the lower girder member 15 than the central beam member 13. Supports the area on the other side in the width direction. In the present embodiment, the upper end portions of each of the four cane members 17 are fixed to the outer end portions on both sides in the width direction of the upper and lower girder members 15. Therefore, since the vicinity of the four corners of the left and right beam row members 16 and the upper and lower girder row members 15 combined in a grid shape can be supported by the four cane members 17, the left and right beams combined in a grid shape can be supported. The beam row member 16 and the upper and lower girder row members 15 can be supported in a well-balanced manner.

As described above, according to the present embodiment, the downward load input from the upper solar panel 1 side can be efficiently transmitted to the column 11, so that the strength is sufficient for the load input to the solar panel 1. Can be secured on the stand 10 for solar panels.

Further, the central beam row member 13 is fixed to the support column 11 via the first support member 12 and the left and right second support members 14. Therefore, when the upper and lower girder row members 15 are fixed to the central beam row member 13 at the time of installing the solar panel mount 10, the central beam row member 13 does not move, so that the upper and lower girder row members 15 are used as the central beam row member. Easy to fix to 13.

Further, when the upper and lower girder row members 15 are fixed to the central beam row member 13, the central beam row member 13 does not move. The upper and lower girder row members 15 can be easily fixed to the central beam row member 13 in a state of being adjusted to 90 degrees with respect to the center beam row member 13. Therefore, the upper and lower girder members 15 are easily fixed to the central beam member 13 in a state where the outer surface portions 19 of the upper and lower girder members 15 are erected along the vertical direction (extending direction of the columns 11). be able to.

In this embodiment, four cane members 17 that support the outer ends of the upper and lower girder members 15 on both sides in the width direction from below are provided, but the present invention is not limited to this, and at least the above four members are provided. It suffices to include the cane member 17.

Further, in the present embodiment, the support column 11 is formed in a cylindrical shape having a rectangular cross section, but the present invention is not limited to this, and may be, for example, a cylindrical shape or a solid rod-shaped body. You may.

Further, in the present embodiment, the first support member 12 is composed of a front plate portion 12a, a rear plate portion 12b, and an upper plate portion 12c, but the present invention is not limited to this, and for example, the front plate portion 12a and the front plate portion 12a. Instead of providing the rear plate portion 12b, side plate portions on both sides in the width direction that are bent from both sides in the width direction of the upper plate portion 12c and extend downward may be provided.

Further, in the present embodiment, the first support member 12 is formed by bending a flat plate-shaped member, but the present invention is not limited to this, and various shapes having at least the support upper surface portion 18 can be applied. can.

Further, in the present embodiment, the central beam row member 13 is formed in a cylindrical shape having a rectangular cross section, but the present invention is not limited to this, and may be, for example, a cylindrical shape or a solid rod shape. It may be a body.

Further, in the present embodiment, the left and right second support members 14 are formed in an L-shaped cross section, but the present invention is not limited to this, and the second support members 14 are fixed to the first support member 12 and are connected to the central beam row. Various shapes can be applied as long as the movement of the member 13 in the width direction can be regulated.

Further, in the present embodiment, the upper and lower girder members 15 are formed in a U-shaped cross section, but the present invention is not limited to this, and the columns 11 stand up along the extending direction (vertical direction in the present embodiment). As long as it has an outer surface portion (upright surface portion) 19 extending along the width direction in the state, it may have another shape. For example, the upper and lower girder members 15 may be formed in a cylindrical shape having a rectangular cross section having an upright surface portion extending along the width direction in a state of standing upright along the extension direction of the support column 11, or the upright surface portion. It may be formed into a solid cross-sectional rectangular shape having.

Further, in the present embodiment, the left and right beam row members 16 are formed in a U-shaped cross section, but the present invention is not limited to this, and various shapes such as a cylindrical shape having a rectangular cross section, a cylindrical shape, and a solid rod shape are formed. Can be applied.

Although the present invention has been described above based on the above-described embodiment, the present invention is not limited to the contents of the above-described embodiment, and can be appropriately modified without departing from the present invention. That is, it goes without saying that all other embodiments, examples, operational techniques, and the like made by those skilled in the art based on this embodiment are included in the scope of the present invention.

1: Solar panel 10: Solar panel mount 11: Support 11a: Top surface of the support 12: First support member 13: Central beam row member (first beam row member)
14: 1 pair of second support members 15: 1 pair of girder row members 16: 1 pair of beam row members (second beam row members)
17: Four cane members 18: Support upper surface portion 19: Outer surface portion (upright surface portion) of the girder member

Claims (6)

It is a stand for solar panels that supports solar panels,
With stanchions
A first support member which is arranged above the upper surface of the support column and has a support upper surface portion which is inclined along the first direction and is fixed to the support column.
A first beam row member arranged above the support column, extending in the first direction along the support upper surface portion of the first support member, and fixed to the support upper surface portion.
The first beam row member is arranged on both sides of the second direction intersecting with the first direction, is fixed to the support upper surface portion of the first support member, and is fixed to both sides of the second direction with respect to the first support member. A pair of second support members that regulate the movement of the first beam row member,
A pair of girder members arranged at positions separated from each other in the first direction, extending along the second direction, and fixed to both ends of the first beam member in the first direction .
The pair of second support members extend in the first direction along the first beam row member and are longer on both sides of the first support member than the support upper surface portion of the first support member.
A stand for solar panels that features this. It is a stand for solar panels that supports solar panels,
With stanchions
A first support member which is arranged above the upper surface of the support column and has a support upper surface portion which is inclined along the first direction and is fixed to the support column.
A first beam row member arranged above the support column, extending in the first direction along the support upper surface portion of the first support member, and fixed to the support upper surface portion.
The first beam row member is arranged on both sides of the second direction intersecting with the first direction, is fixed to the support upper surface portion of the first support member, and is fixed to both sides of the second direction with respect to the first support member. A pair of second support members that regulate the movement of the first beam row member,
A pair of girder members arranged at positions separated from each other in the first direction, extending along the second direction, and fixed to both ends of the first beam member in the first direction.
The pair of girder members are pedestals for solar panels, characterized in that they have an upright surface portion extending along the second direction in a state of being upright along the extending direction of the columns . The pair of second support members extend in the first direction along the first beam row member, and are longer than the support upper surface portion of the first support member on both sides in the first direction. The solar panel mount according to claim 2. Claims 1 to 3 include a second beam row member that is bridged over the pair of girder row members and fixed to the pair of girder row members to support the solar panel. The frame for the solar panel according to any one of the items. 6. Stand for solar panels. With at least four of the cane members
The upper end of each of the four cane members is a region of one of the pair of girder members on one side of the first beam member in the second direction and the one girder. A region of the member on the other side of the first beam row member in the second direction, and a region of the other girder row member of the pair of girder row members on the one side of the first beam row member. The frame for a solar panel according to claim 5, wherein the other girder member supports a region on the other side of the first beam member.

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