KR101204421B1 - Supporting frame assembly of Building Integrated PV and using the solar cell window - Google Patents

Abstract

PURPOSE: A support frame assembly of a solar cell window for a building and a solar cell window for a building using the same are provided to facilitate the installation and maintenance works of wires. CONSTITUTION: A support frame assembly of a solar cell window for a building comprises multiple first support frames and multiple second support frames. The first support frames are vertically arranged at uniform intervals and support a window. The second support frames are horizontally arranged between the first support frames and support the window. One or more of the first support frames comprise a first frame body(310) and a first frame cover(330). The first frame cover is detachably coupled to the first frame body and has a wiring space(330A).

Description

Supporting frame assembly of building integrated solar cell window and supporting window assembly using the same {Supporting frame assembly of Building Integrated PV and using the solar cell window}

The present invention relates to a support frame assembly of a building-mounted solar cell window and a building-mounted solar cell window using the same, and more particularly, the wiring arrangement can be neatly and efficiently as well as easy to install and maintain. The present invention relates to a support frame assembly of a building-mounted solar cell window and a building-mounted solar cell window using the same.

Recently, the use of photovoltaic power generation facilities that can generate electricity using solar energy is becoming more and more common. The solar cell using such solar energy is attracting attention as a new alternative energy source of the future because it uses no solar and fossil fuels such as coal and petroleum, and is a pollution-free and infinite energy source. It is used to obtain the generated electric power of automobiles and the like.

In general, photovoltaic power generation is a technology that directly generates electricity using photovoltaic (PV). A solar cell is a semiconductor device that converts light energy into electrical energy by using a photoelectric effect, and is composed of two semiconductor thin films each having a positive (+) and a negative (-) polarity. ) Are connected in series / parallel to generate the voltage and current required by the user, and the user can use the power generated by the solar cell.

Unlike other alternative energy utilization technologies, such a photovoltaic power generation system has a simple system configuration, and efforts have recently been actively attempted to be applied to the construction field, which is called a building integrated photovoltaic system (BIPV).

The most representative one is to combine the existing building materials and solar cells to simultaneously exhibit the building materials and power generation functions. Building integrated photovoltaic power generation, or BIPV, is applying PV modules to building envelopes.

This building integration technology is a more aggressive technology to utilize existing building envelopes from the standpoint of protection of external stimuli and use them as a tool for energy generation. A double effect can be expected to reduce the cost of installation.

1 is a front view schematically showing a solar cell window of a building integrated photovoltaic system according to the prior art.

As shown in FIG. 1, the solar cell window 1 of the building integrated photovoltaic system according to the related art is electrically connected to a solar panel 2 having a plurality of solar cell cells 2A attached to the front thereof. And a terminal part 4 connected to a power supply object (not shown) by an electric wire 3 and a support frame 5 supporting an outer end of the solar cell panel 2.

In the conventional solar cell window 1, the solar energy condensed in the solar cell 2A is converted into electrical energy, and the converted electrical energy is applied to an externally provided power supply object through the terminal portion 4. .

However, the solar cell window of the building integrated photovoltaic power generation system according to the prior art configured as described above is wired to the inside of the support frame to connect the wires 3 connected to one side of the terminal portion to the power supply object. If a fault occurs in the wires that are wired, the maintenance work is difficult, which leads to a decrease in work efficiency and an increase in maintenance costs. In addition, when the wire is exposed to the outside, the maintenance work of the wire is easy, but aesthetic problems are caused by the wire exposed to the outside.

One aspect of the present invention is to provide a support frame assembly of a building-mounted solar cell window and a building-mounted solar cell window using the same, which not only can clean and efficiently make wiring arrangement but also facilitate installation and maintenance work of the wiring. .

The support frame assembly of a solar cell window according to an embodiment of the present invention is a building-mounted solar cell window of the building that supports the outer end of the solar panel having a terminal portion electrically connected to the solar cell and connected to the power supply object by a wire And a support frame assembly, wherein the support frame assembly horizontally intersects each other with a plurality of first support frames arranged in a vertical direction with a first spacing therebetween, and with a plurality of first support frames maintained with a second spacing. And a plurality of second support frames arranged in a direction, wherein at least one of the first support frames is coupled to the first frame body to form an appearance and detachably coupled to the first frame body to form a wire wiring space. It characterized in that it comprises a first frame cover to have.

In addition, the first support frame may be detachably coupled to the first frame body to form a wire wiring space between the first frame body forming the exterior and the rear surface of the first frame body. It characterized in that it comprises a first frame cover of the open square pipe shape.

The first support frame may include a first support protrusion protruding forward from the first frame body in order to support the solar cell panel, and an inner space of the first frame body formed in the first frame body. It characterized in that it further comprises a first inner partition for partitioning and supporting a plurality of spaces.

In addition, both end portions of the rear surface of the first frame main body are each continuously provided with first fixing protrusions, and both side walls of the first frame cover are provided with first connecting protrusions detachably coupled to the first fixing protrusions, respectively. It is characterized by.

In addition, the rear surface and one side wall of the first frame body is characterized in that the first A wiring hole and the 1B wiring hole for allowing the wires in and out of the solar panel terminal unit is provided.

Looking at the support frame assembly of the solar cell window according to an embodiment of the present invention from another side, the building that supports the outer end of the solar panel having a terminal portion electrically connected to the solar cell and connected to the power supply object by wires A support frame assembly of a mounted solar cell window, wherein the support frame assembly includes a plurality of first support frames arranged in a vertical direction while maintaining a first gap, and a plurality of first support frames maintained by a second gap; And a plurality of second support frames arranged in a horizontal direction to intersect with each other, wherein at least one of the first support frames is detachably coupled to the first frame body to form an exterior, and to the first frame body. And a first frame cover to have a first wire wiring space, wherein the rear and one side walls of the first frame body Positive cells by a front panel of the terminal passing through the second ball and the wiring 1A 1B wiring ball doedoe the ball and the wiring 1A 1B wiring holes respectively provided to ensure that incoming and outgoing cables is characterized in that accommodated in the electrical wire wiring space.

Building-mounted solar cell window according to an embodiment of the present invention is a building-mounted solar cell window for converting the solar energy into electrical energy, and applying the converted electrical energy to the power supply object, a plurality of solar cells in front A solar cell panel to be attached, an electricity supply means for electrically connecting the solar cell, a terminal portion electrically connected to the electricity supply means, a power supply means supplied from the outside, and an electric wire, and an outer end portion of the solar panel And a support frame assembly having a wire wiring space for receiving wires connected to the terminal part, the support frame assembly comprising: a plurality of first support frames disposed in a vertical direction while maintaining a first interval; A plurality of second supports arranged in a horizontal direction to maintain a second interval and to cross each other with a plurality of first support frames At least one of the first support frames includes a first frame body forming an outer appearance, and a first frame cover detachably coupled to the first frame body to have a wire wiring space. It is characterized by.

In addition, the first support frame may be detachably coupled to the first frame main body, a first support protrusion protruding forward from the first frame main body to support the solar panel, and the first frame main body. And a first inner partition wall formed inside the first frame main body and partitioning and supporting the inner space of the first frame main body into a plurality of spaces.

Therefore, the supporting frame assembly of the building-mounted solar cell window according to the embodiment of the present invention and the building-mounted solar cell window using the same can not only cleanly and efficiently make the wiring arrangement through the wire wiring space that is selectively opened, It is easy to install and maintain.

1 is a front view schematically showing a solar cell window of a building integrated photovoltaic system according to the prior art.
Figure 2 is an exploded perspective view showing a building-mounted solar cell window according to an embodiment of the present invention.
FIG. 3 is an exploded view illustrating the solar panel shown in FIG. 2.
Figure 4 is a rear view showing a building-mounted solar cell window according to an embodiment of the present invention.
FIG. 5 is an enlarged perspective view of the first support frame of the building-mounted solar cell window illustrated in FIG. 2.
6 is a cross-sectional view showing a first support frame of the building-mounted solar cell window shown in FIG. 5.
FIG. 7 is an enlarged perspective view of the second support frame of the building-mounted solar cell window illustrated in FIG. 2.
FIG. 8 is a cross-sectional view illustrating a second support frame of the building-mounted solar cell window illustrated in FIG. 5.
9 is a view showing a state of use of the solar cell window according to an embodiment of the present invention.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings.

2 is an exploded perspective view showing a building-mounted solar cell window according to an embodiment of the present invention, Figure 3 is an exploded view showing the solar cell panel shown in FIG.

2 and 3, the building-mounted solar cell window 10 according to the embodiment of the present invention supports the solar cell panel 100, the solar cell panel 100, but the wire wiring space that is selectively opened And a support frame assembly 200 having 330A, 430A.

The solar panel 100 is formed in a substantially rectangular plate shape, and a plurality of solar cell 110 is attached to the front surface, and serves to provide an installation space of the solar cell 110.

The solar panel 100 may be configured to have the same size and power generation capacity, or may have different sizes and power generation capacity according to the curtain wall elevation of the building. In this case, the size of the support frame assembly 200 to be described later may also be adjusted differently according to the size and power generation capacity of the solar cell panel 100.

The solar panel 100 may be a multilayer glass type solar panel 100, but is not limited thereto, and the G / G type solar panel 100 and the multilayer glass type solar panel 100 may be used. All are applicable.

The solar cell 110 constituting the solar panel 100 may be made of monocrystalline and polycrystalline silicon solar cells, amorphous silicon solar cells, and the like. The reference numeral 100 may include a thin film type amorphous module based solar cell module.

Thin film type Amorphous-based solar cell module is to replace the glass of the curtain wall of the solar panel 100 produced by using commercially available solar cells to provide power generation, light and view functions, Although it is less efficient than the crystalline plate-type module, it is a transparent and translucent module.

In addition, the solar cell panel 100 is provided with a power supply means 120, the terminal portion 130, the protective film 140, the light transmission window 150.

The power supply unit 120 is attached to the upper surface of the plurality of solar cells 110 in a predetermined pattern to connect the plurality of solar cells 110 in series, the front end is coupled to one side of the terminal portion 130 which will be described later terminal portion ( Electrically connected to a power supply object (not shown) provided outside through 130 to provide a movement path of electricity so that electricity generated from the solar cell 110 can be moved to the power supply object (not shown) Play a role.

It is preferable that a pattern formed of a material such as Sn + Pb + Ag, Sn + Ag, Sn + Ag + Gu is generally used as the energizing means 120. A plurality of solar cells 110 can be directly connected using a soldering iron. have.

In addition, the protective film 140 is attached to the front and rear surfaces of the solar cell 110 and the electricity supply means 120, and the light transmission window 150 on the upper portion of the protection film 140 attached to the electricity supply means 120. It is installed to protect the solar cell 110 and the electricity supply means 120 from external factors such as moisture, heat to improve the durability, the protective film 140 and the floodlight 150 is a solar cell 110 It is formed of a material with high transmittance so that the solar absorption efficiency of) is not lowered.

The terminal unit 130 is formed in a substantially box shape and is installed on one side of the solar cell panel 100, one side is electrically connected to the power supply unit 120, and the other side is a power supply object (not shown) and an electric wire 160. And the power supply means 120 and the power supply means are electrically connected to each other.

The support frame assembly 200 is coupled to an outer end of the solar panel 100 so that the solar panel 100 is easily installed in the installation target area, and at the same time, the wire wiring spaces 330A and 430A are selectively opened. The support frame assembly 200 will be described in detail with reference to FIGS. 4 to 8.

Figure 4 is a rear view showing a building-mounted solar cell window according to an embodiment of the present invention, Figure 5 is a perspective view showing an enlarged first support frame of the building-mounted solar cell window shown in Figure 2, Figure 6 5 is a cross-sectional view illustrating a first support frame of the building-mounted solar cell window shown in FIG. 5, and FIG. 7 is an enlarged perspective view of the second support frame of the building-mounted solar cell window shown in FIG. 2, and FIG. 8 is shown in FIG. 5. Is a cross-sectional view showing a second support frame of a building-mounted solar cell window.

4 to 8, the support frame assembly 200 according to the embodiment of the present invention includes a plurality of first support frames 300 such that the plurality of solar panels 100 can be coupled in a lattice shape. ) And the second support frames 400 are cross-assembled and assembled, and the wire wiring spaces 330A and 430A are selectively opened in the first support frames 300 and the second support frames 400. Equipped with.

The support frame assembly 200 maintains a gap as a frame for supporting the window 11 and maintains a gap as a frame for supporting the window 11 and a plurality of first support frames 300 arranged in a vertical direction. And a plurality of second support frames 400 disposed in a horizontal direction between the plurality of first support frames 300.

That is, in the support frame assembly 200 according to the embodiment of the present invention, the first support frames 300 are arranged side by side with a constant first interval in the horizontal direction, and the second support frames 400 are first The first supporting frames 300 and the second supporting frames 400 are fastened such as fixing bolts so that the first supporting frames 300 and the second supporting frames 400 are arranged side by side in a vertical direction so as to be fitted into the first intervals of the supporting frames 300. It may be fixed through the means 500 and may be made in a lattice shape as a whole.

Meanwhile, three first support frames 300 of the support frame assembly 200 according to an embodiment of the present invention may be disposed, and the first support frames 300 may be disposed at the leftmost side with respect to the rear of the window shown in FIG. 4. The 1A support frame 300A, which is disposed adjacent to the first A support frame 300A, is called the first B support frame 300B, and the rightmost one that is disposed adjacent to the first B support frame 300B on the right, is the first C It is called the support frame 300C.

At least one of the first A support frame 300A, the first B support frame 300B, and the first C support frame 300C includes a first wire wiring space 330A for neatly arranging the wires 160 exposed to the outside of the window. It may include a frame cover 330 detachably coupled to the frame body 310 to form a).

For convenience of description, the frame cover 330 for forming the first wire wiring space 330A will be described as being provided only in the first C support frame 300C disposed on the rightmost side of the first support frame 300.

The 1A and 1B support frames 300A and 300B may be made of a metal material such as aluminum, and the outer portion may have a substantially rectangular shape and the inside may be formed as a space part.

The first C support frame 300C includes a first frame main body 310 forming an appearance and a first support protrusion 320 protruding forward from the first frame body 310 to support the solar cell panel 100. And a first frame cover 330 detachably coupled to the first frame main body 310 to have a first wire wiring space 330A, and formed inside the first frame main body 310. It is configured to include a first inner partition 340 for partitioning and supporting the internal space of the one frame body 310 into a plurality of spaces.

The first frame body 310 may include a first rectangular frame 310 having a space therein. The first rectangular frame 310 is composed of a front surface 311, a rear surface 312, both side walls (313, 314) connecting the front surface 311 and the rear surface 312. Here, at least one wall surface 313 of both wall surfaces 313 and 314 of the first rectangular frame 310 is coupled to an opening 415 forming an open end of the second support frames 400 to be described later.

The front surface 311 of the first rectangular frame 310 may be provided with a gasket assembly 311A to which a gasket member made of a soft material such as rubber is coupled.

On the rear surface 312 and one side wall 313 of the first rectangular frame 310, the first A wiring hole 312A and the first B wiring hole (200A) to allow the wire 160 of the solar cell panel 100 to be drawn in and drawn out. 313A). The first A wiring hole 312A and the first B wiring hole 313A respectively allow the wires 160 connected to the terminal unit 130 of the solar cell panel 100 to be drawn out from the first square frame 310 or the first square frame 310. It is a structure for letting in at 310.

The first A wiring hole 312A and the first B wiring hole 313A are formed in plural along the vertical direction of the first rectangular frame 310 at a position corresponding to the second supporting frame 400.

The first support protrusion 320 is integrally formed on the front surface 311 of the first rectangular frame 310. The first support protrusion 320 is for supporting the outer end of the solar cell panel 100 and may be continuously formed along the vertical direction in a vertical direction at the center of the front surface 311 of the first rectangular frame 310. Can be.

First fixing protrusions 312B are continuously provided at both ends of the rear surface 312 of the first rectangular frame 310, respectively. The first fixing protrusions 312B are respectively provided at both ends of the rear surface 312 of the first rectangular frame 310, and the first frame cover 330 is detachably coupled to the first fixing protrusions 312B. .

The first frame cover 330 is coupled to the first rectangular frame 310 to form a first wire wiring space 330A, so that the first frame cover 330 is formed at the first A wiring hole 312A of the rear surface 312 of the first rectangular frame 310. Covers the wires 160 drawn out and wired to protect the wires 160 and to make the exterior look beautiful.

The first frame cover 330 may be formed in a square pipe shape having one side open, and provided on the rear surface 312 of the first rectangular frame 310 along a vertical direction to one side of both side walls 313 and 314. A first connecting protrusion 331 is detachably coupled to the first fixing protrusion 312B.

Accordingly, the first frame cover 330 forms a first wire wiring space 330A between the first rectangular frame 310 so that a plurality of wires 160 are wired in the first wire wiring space 330A. By storing the wiring, not only can the wiring arrangement be neat and efficient, but also the first frame cover 330 is separated from the first square frame 310 to facilitate maintenance work of the wiring.

Meanwhile, although the first frame cover 330 is shown as having a length corresponding to the vertical length of the first rectangular frame 310 in the drawing, it is separated to correspond to the vertical length of the first rectangular frame 310. Of course, it can be produced.

A first inner partition 340 is provided in the first rectangular frame 310 to partition the internal space of the first rectangular frame 310 into a plurality of spaces to support the first rectangular frame 310.

The first inner partition 340 is formed of a first A inner partition 340A that is continuously elongated along a vertical direction of the first rectangular frame 310, one side wall surface of the first rectangular frame 310 and a first A inner partition ( The first B inner partition 340B is formed to have a curved shape to have a rounded surface among the 340A, and is continuously formed along the vertical direction of the first rectangular frame 310.

The first A inner partition 340A divides the internal space of the first rectangular frame 310 into a plurality of spaces and serves to support the first rectangular frame 310. The first A inner partition 340A may be formed in a flat shape to correspond to both side walls 313 and 314 of the first rectangular frame 310.

The first B inner partition 340B is formed by the wire 160 drawn from the first B wiring hole 313A of one side wall 313 of the first square frame 310, and the first side of the rear face 312 of the first square frame 310. It serves to guide the 1A wiring hole (312A) to be drawn out smoothly.

That is, since the first B inner partition 340B is open toward the first A wiring hole 312A and the first B wiring hole 313A, the rounded shape of the wire 160 drawn into the first B wiring hole 313A is curved. It hits the true surface, and it is led out to the 1A wiring hole 312A naturally. Therefore, the first B inner partition 340B facilitates wiring installation of the wires 160 passing through the first A wiring holes 312A and the first B wiring holes 313A.

The second support frames 400 are disposed vertically between the first A support frame 300A, the first B support frame 300B, and the first C support frame 300C.

For example, six second support frames 400 are provided in the first, second, and third support frames 300A, 300B, and 1C support frame 300C in the horizontal direction at the upper end, the center, and the lower end, respectively. In this case, the six second supporting frames 400 may have the same structure.

The second support frame 400 has a second support body 410 protruding forward from the second frame body 410 to support the solar panel 100 and the second frame body 410 forming the appearance ( 420, a second frame cover 430 rotatably coupled to an upper surface of the second frame main body 410 to have a second wire wiring space 430A, and an interior of the second frame main body 410. It is formed in the second frame body 410 is configured to include a second inner partition 440 for partitioning and supporting the plurality of spaces.

The second frame body 410 may include a second rectangular frame 410 having a space therein. The second rectangular frame 410 is composed of a front surface 411, a rear surface 412, an upper surface 413, a lower surface 414, both end openings (415, 416). Here, both open portions 415 and 416 of the second rectangular frame 410 are coupled to both side walls 313 and 314 of the first rectangular frame 310 in an open state.

The front surface 411 of the second rectangular frame 410 is provided with a second wiring hole 411A for introducing the wire 160 of the solar cell panel 100. The second wiring hole 411A is configured to allow the wire 160 connected to the terminal unit 130 of the solar cell panel 100 to be introduced into the second square frame 410.

That is, the wires 160 connected to the terminal unit 130 of the solar cell panel 100 are introduced into the second wiring holes 411A of the second rectangular frame 410 and then open one side of the second rectangular frame 410. Passing through the wall 313, the electric wire 160 is passed through the first B wiring hole 313A formed in one side wall 313 of the first rectangular frame 310 to be introduced into the first rectangular frame 310. The first wire wiring space 313A passes through the first wire wiring space 313A and is received in the first wire wiring space 330A formed on the rear surface 312 of the first rectangular frame 310.

The front surface 411 of the second rectangular frame 410 may be provided with a gasket assembly 411B to which a gasket member made of a soft material such as rubber is coupled.

The second support protrusion 420 is integrally formed on the front surface 411 of the second rectangular frame 410. The second support protrusion 420 is for supporting the outer end of the solar cell panel 100 and may be continuously formed along the horizontal direction in a flat shape at the center of the front surface 411 of the second rectangular frame 410. Can be.

A part of the upper surface 413 of the second rectangular frame 410 is opened by being cut away, and the second frame cover 430 is rotatable on the upper surface 413 of the second rectangular frame 410 thus opened. Are combined. The upper surface 413 of the second rectangular frame 410 is provided with a hinge shaft 413A which protrudes in the horizontal direction. In addition, the upper surface 413 of the second rectangular frame 410 is provided with a locking jaw 413B to face the hinge axis 413A.

The second frame cover 430 is coupled to the second rectangular frame 410 to form a second wire wiring space 430A so that the second wiring hole 411A of the front surface 411 of the second rectangular frame 410 is formed. Covers the wires 160 that are inserted and wired to protect the wires 160 and make the exterior look beautiful.

The second frame cover 430 may be formed in a flat plate as a whole. One end of the flat second frame cover 430 protrudes up and down to form a concave arc-shaped rotation guide groove 431 to be coupled to the hinge axis 413A of the second rectangular frame 410 A protrusion 432 is provided.

The other end of the flat second frame cover 430 is provided with a second B protrusion 433 which is elastically deformable in order to be fixed to the latching jaw 413B of the second square frame 410.

 Accordingly, the flat second frame cover 430 forms a second wire wiring space 430A between the second rectangular frame 410 and a plurality of wires wired in the second wire wiring space 430A. By allowing the 160 to be accommodated, not only can the wiring arrangement be neat and efficient, but also the second frame cover 430 is opened to the second square frame 410 to facilitate maintenance work of the wiring.

The second rectangular frame 410 is provided with a second inner partition 440 partitioning the internal space of the second rectangular frame 410 into a plurality of spaces and supporting the second rectangular frame 410.

The second inner partition 440 is formed in a flat shape to correspond to the front surface 411 and the rear surface 412 of the second rectangular frame 410 and continuously formed along the horizontal direction of the second rectangular frame 410. It is.

The second inner partition 440 serves to support the inner space of the second rectangular frame 410 by dividing the inner space of the second rectangular frame 410 into a plurality of spaces. If the wires 160 accommodated in the inner space of the second rectangular frame 410 are accommodated at too deep, the wiring work may be compensated for. Therefore, the second inner partition 440 may be provided at an appropriate height to facilitate the wiring operation of the wires 160 accommodated in the second rectangular frame 410.

Next, look at the wiring installation operation of the building-mounted solar cell window according to an embodiment of the present invention.

First, a plurality of solar panel 100 is attached to the window 11 formed by the support frame assembly 200 according to an embodiment of the present invention, wherein the terminal portion 130 of the plurality of solar panel 100 Attach the solar panel 100 so that the wires 16 of the lower side.

Then, the wires 16 of the terminal portion 130 of the plurality of solar cell panels 100 are introduced into the second wiring holes 411A of the second support frame 400 arranged in the horizontal direction, respectively. That is, the wires 16 of the terminal portions 130 of the four solar cell panels 100 are respectively introduced into the second wiring holes 411A provided in the second support frame 400 positioned below. It is to be accommodated in the second wire wiring space 430A of the openable second support frame 400.

A portion of the wires 16 respectively received in the plurality of second wire wiring spaces 430A is connected to another solar cell panel 100 adjacent to each other through an opening 416, and the wires 16 are connected to each other. After collecting the rest of the other openings 415 into the first B wiring hole 313A of one side wall surface 313 of the first C support frame 300C disposed on the right.

Here, the wires 16 in the process of inserting the wires 16 collected in the other opening portion 415 of the second support frame 400 into the first B wiring hole 313A of the first C support frame 300C. It hits the rounded 1B inner partition 340B of the 1C support frame 300C and is drawn out to the 1A wiring hole 312A naturally, and thus the wires 16 are selectively drawn out as the 1A wiring hole 312A. The first wire wiring space 330A may be opened.

Accordingly, the wiring installation may be neatly performed through the first support frame 300C having the first open wiring space 330A selectively formed therein and the second support frame 400 having the second wire wiring space 430A formed therein. Not only that, but also the maintenance work of the wiring is easier.

As described above, the support frame assembly of the building-mounted solar cell window according to the embodiment of the present invention and the building-mounted solar cell window using the same can not only cleanly and efficiently make wiring arrangement through the wire wiring space that is selectively opened. Rather, it is understood that the basic technical idea is to facilitate the installation and maintenance of wiring. Therefore, many modifications may be made by those skilled in the art without departing from the scope and spirit of the present invention.

10 ... building-mounted solar cell window 100 ... solar panel
160 ... Wire 200 ... Support Frame Assembly
300 ... First support frame 330 ... First frame cover
330A ... 1st wiring space 400 ... 2nd support frame
430 ... 2nd frame cover 430A ... 1st wiring space

Claims (8)

It includes a support frame assembly of the building-mounted solar cell windows for supporting the outer end of the solar panel having a terminal portion electrically connected to the solar cell and connected to the electric power supply object,
The support frame assembly includes a plurality of first support frames arranged in a vertical direction while maintaining a first interval, and a plurality of first support frames arranged in a horizontal direction so as to intersect with the plurality of first support frames while maintaining a second interval. 2 supporting frames,
At least one of the first support frame includes a first frame body forming an appearance, and a first frame cover detachably coupled to the first frame body to have a first wire wiring space,
The first support frame is a square having one side open to be detachably coupled to the first frame body to form a wire wiring space between the rectangular first frame body and the rear surface of the first frame body. A first frame cover having a pipe shape and a first inner partition wall formed inside the first frame body to partition and support the internal space of the first frame body into a plurality of spaces;
The first inner partition wall has a first A inner partition wall continuously formed along the vertical direction of the first frame body, and a rounded surface between one side wall surface of the first frame body and the first A inner partition wall. It includes a first B inner partition formed in a curved shape continuously formed along the vertical direction of the first frame body,
On the rear surface and one side wall of the first frame main body, the first A wiring hole and the first B wiring hole for allowing the wires of the solar panel terminal unit to be drawn in and drawn out are provided, respectively.
The first B inner partition wall is opened toward the first A wiring hole and the first B wiring hole and guides the wire drawn into the first B wiring hole to be drawn out to the first A wiring hole by hitting a rounded surface having a curved shape. Support frame assembly for solar cell windows. delete The method of claim 1,
The first support frame,
The support frame assembly of the solar cell window, characterized in that it further comprises a first support protrusion protruding forward from the first frame body to support the solar cell panel. The method of claim 1,
On both ends of the rear surface of the first frame main body, first fixing projections are continuously provided, respectively,
Both side walls of the first frame cover, the support frame assembly of the solar cell window, characterized in that each of the first fixing projections detachably coupled to the first fixing projections are provided. delete delete In the building-mounted solar cell window that converts solar energy into electrical energy and applies the converted electrical energy to the power supply object,
A solar panel to which a plurality of solar cells are attached to the front,
Energizing means for electrically connecting the solar cell;
A terminal portion electrically connected to the energizing means and connected to a power supply means and an electric wire supplied from the outside;
A support frame assembly supporting an outer end of the solar cell panel, the support frame assembly having a wire wiring space for receiving a wire connected to the terminal part;
The support frame assembly,
A plurality of first support frames arranged in a vertical direction while maintaining a first interval, and a plurality of second support frames arranged in a horizontal direction so as to intersect with the plurality of first support frames while maintaining a second interval; ,
At least one of the first support frame may include a first frame main body forming an appearance, a first frame cover detachably coupled to the first frame main body to have a wire wiring space, and the first frame main body. A first inner partition wall formed therein to partition and support the inner space of the first frame body into a plurality of spaces,
The first inner partition wall has a first A inner partition wall continuously formed along the vertical direction of the first frame body, and a rounded surface between one side wall surface of the first frame body and the first A inner partition wall. It includes a first B inner partition formed in a curved shape continuously formed along the vertical direction of the first frame body,
On the rear surface and one side wall of the first frame main body, the first A wiring hole and the first B wiring hole for allowing the wires of the solar panel terminal unit to be drawn in and drawn out are provided, respectively.
The first B inner partition wall is opened toward the first A wiring hole and the first B wiring hole and guides the wire drawn into the first A wiring hole to be drawn out to the first A wiring hole by hitting a rounded surface having a curved shape. Building-mounted solar cell windows. The method of claim 7, wherein
The first support frame,
The building-mounted solar cell window of claim 1, further comprising a rectangular first frame body and a first support protrusion protruding forward from the first frame body to support the solar cell panel.

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