A ready-made container for storing solar cell panel networks that can be deployed, folded and transported

Abstract

To provide a prefabricated solar cell panel network storage container that can be deployed, folded and transported. [Solution] A foldable solar cell panel network 20 is stored within a storage container, characterized in that the solar cell panel network 20 comprises a first solar cell panel set 21 and a second solar cell panel set 22 connected to each other at their upper end positions by one or more rotating folding and fixing portions 50, which fold the first solar cell panel set 21 and the second solar cell panel set 22 and engage each other in an upright position, and also open the first solar cell panel set 21 and the second solar cell panel set 22 from each other, together forming a rotation angle for use.

Description

[Technical field]

[0001] The present invention relates to the engineering field of a prefabricated solar cell panel network containment container that can be deployed, folded and transported. [Background technology]

[0002] Generally, it is known in the prior art that a power generation system from solar energy is to install solar cell panels on the ground or roof. This is not suitable for small-scale power use because it uses a large area, and when changing the location, it requires removal work for changing the location, and it takes a lot of time to remove, transport, and reinstall. Up to now, the market has begun to have power generation using clean solar energy as a power source, which is portable and has a ready-made installation type. However, it has the disadvantage that it requires manpower to install the support structure of the solar cell panel, and when it is ready to use, the user needs to store the support structure of the solar cell panel and put it into a container, which requires force, and when the panel is unfolded, it takes time to adjust the height to suit the installation location because the installation location is not flat and the area may be limited depending on the location.

[0003] Therefore, a new type of ready-installed portable clean power source from solar energy has been devised. It has two sizes, 12ft and 20ft, which can be selected according to the intended use location, and is characterized by using an engine power source to carry the panel along the frame rail arranged to assist when spreading the panel, and a labor-saving device (WINCH) power source to carry the wire when storing the panel. When the remote is pressed, when storing, the labor-saving device (WINCH) pulls the network wire, carries the solar cell panel, moves it along the frame rail, and returns it to the container shelf. This contributes to saving human labor in panel installation and storage on the container shelf. Also, the slide rail system adjustment tool installation allows the panel installation height to be adjusted to be appropriate with respect to the ground.

[0004] The height-adjustable solar cell installation container described in Patent Document 1 is in the shape of a container, and is composed of a metal pipe beam set along the length direction, a metal pipe beam set along the width direction, a rectangular metal structural base panel, a prefabricated solar cell panel, a pipe beam front end fixed support column set along the length direction, a pipe beam front end height adjustment support column set along the length direction, a pipe beam side end height adjustment support column set arranged along the width direction, a rear end height adjustment support column base lift jack, and a side end height adjustment support column base lift jack. The rectangular metal structural base panel having the solar cell panel has a pipe set along the length direction, which is appropriately engaged with the upper part, and the rectangular metal structural base panel has a pipe set along the length direction. The lower part of the metal structural base panel has a set of lengthwise metal pipe beams arranged in the center for supporting a set of lengthwise metal pipe beam front end fixed columns arranged in the center at the top end of the container, and a set of lengthwise metal pipe beam rear end fixed columns arranged in the center close to the rear wall of the container, and has metal pipe beams along the width direction for supporting a set of lengthwise metal pipe beam side end height adjustment support columns arranged from the center toward the rear of the container close to the side walls, and the bases of both sets of height adjustment support columns are fitted with jacks for adjusting the height up and down as required. However, the disadvantage is that the area of ​​the solar cell panel is limited and it cannot be expanded and opened, so the possible electrical energy generation is low. [Prior art documents] [Patent documents]

[0005] [Patent Document 1] Thai Petty Patent Application No. 2003000803 Height-adjustable solar cell installation container Summary of the Invention [Problem to be solved by the invention]

[0006] The objective of the present invention is to provide a ready-made unfoldable, foldable and transportable solar cell panel network storage container, in which the storage container can be easily moved, the foldable solar cell panel network is folded and stored in the storage container, and the foldable solar cell panel network is unfolded by rotating folding fixing parts, wire lock parts and caster wheels to create a wide area from inside the storage container to outside the container. The caster wheels are configured to carry a first solar cell panel set and a second solar cell panel set to support the folding movement of the foldable solar cell panel network. [Means for solving the problem]

[0007] The unfoldable and foldable transportable prefabricated solar cell panel network storage container is characterized in that the foldable solar cell panel network can be folded and stored in the storage container, and can be unfolded to create a large area from inside the storage container to outside the storage container. The foldable solar cell panel network is characterized in that the first solar cell panel set and the second solar cell panel set are connected to each other at a top end position, and at least one rotation folding fixing part is responsible for folding the first solar cell panel set and the second solar cell panel set to engage each other in an upright position and for allowing the panels of the first solar cell panel set and the second solar cell panel set to unfold from each other and together form a rotation angle for use. The first solar cell panel set and the second solar cell panel set are configured to engage into an integral module of a foldable solar cell panel. The integrated modules of the foldable solar cell panels are connected to each other as identical panels to form a foldable solar cell panel network, forming a wide area in the length direction to form a surface receiving sunlight as a path to be deployed outward. The first solar cell panel set has a pair of first caster wheels disposed on the first slide rail and the second slide rail in a configuration in which the first solar cell panel set is equipped to support the folding movement of the first solar cell panel set. The second solar cell panel set has a pair of second caster wheels disposed on the first slide rail and the second slide rail in a configuration in which the second solar cell panel set is equipped to support the folding movement of the second solar cell panel set. Effect of the Invention

[0008] According to the improved invention by providing a ready-made solar cell panel network storage container that can be unfolded and folded for transport, the storage container can be easily moved, and the foldable solar cell panel network can be unfolded by the rotating and folding fixing part to create a large area from inside the storage container to outside the container. The rotating and folding fixing part, the wire lock part and the caster wheels are equipped on the foldable solar cell panel network to support the folding and unfolding movement of the foldable solar cell panel network. [Brief description of the drawings]

[0009] [Figure 1] FIG. 1 illustrates the components of a prefabricated solar cell panel network containment container that can be unfolded and folded for transport. [Figure 2A] FIG. 2 shows a first solar cell panel set (21) and a second solar cell panel set (22) connected together according to the present invention. [Figure 2B] FIG. 2 shows a first solar cell panel set (21) and a second solar cell panel set (22) connected together according to the present invention. [Diagram 3] FIG. 1 shows a first solar cell panel set (21) and a second solar cell panel set (22) having a first caster wheel (95) and a second caster wheel (96) positioned on a first slide rail (97) and a second slide rail (98) according to the present invention. [Figure 4A] FIG. 2 shows a rotating and folding stationary part (50) according to the present invention. [Figure 4B] FIG. 2 is a diagram showing a wire lock (30) according to the present invention. [Diagram 5]FIG. 13 shows a second solar cell panel set (22) having a second pair of caster wheels (96) consisting of a left caster wheel (961) located on a first sliding rail (97) below a support rolling rail (93) and a right caster wheel (962) located on a second sliding rail (98) according to the present invention. [Figure 6] FIG. 1 shows a right caster wheel of the first caster wheel (951) located on the first sliding rail (97) and a left caster wheel of the second caster wheel (952) located on the second sliding rail (98) according to the present invention. [Figure 7] FIG. 1 shows one position inside the containment container (10) according to the present invention, specifically the upper wall position where the first solar cell panel holding portion (201) and the second solar cell panel holding portion (202) are installed, which serve to hold the solar cell panels when the entire foldable solar cell panel network (20) is folded. [Figure 8] FIG. 1 shows a first caster wheel (95) and a second caster wheel (96) as support for moving the entire foldable solar cell panel network (20) according to the present invention when folded. [Figure 9] FIG. 1 shows a foldable solar cell panel network (20) connected to an electrical system management set and inverter circuit (100) according to the present invention. [Figure 10] FIG. 1 shows a foldable solar cell panel network (20) connected to an electrical system management set and inverter circuit (100) according to the present invention. [Figure 11] FIG. 2 shows a foldable solar cell panel network (20) having an electrical cable feed-through (80) according to the present invention. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

[0010] FIG. 1 shows the components of a prefabricated, deployable, collapsible and transportable solar cell panel network containment container, characterized by the following components: The storage container (10) is a rigid metal container that creates an area for mounting the foldable solar cell panel network (20) within the storage container (10), and is characterized in that it has doors that can be opened on at least one side, such as a front opening door (11), a rear opening door (12), and a side opening door (13), and serves to support the deployment of the foldable solar cell panel network (20) from within the storage container (10) to outside the storage container (10). The storage container (10) has a number of interlocking supports (14) that serve to lift the storage container (10) onto a truck and move it to another location.

[0011] The foldable solar cell panel network (20) is housed within the storage container (10), and is characterized in that the foldable solar cell panel network (20) unfolds to create a wide area from within the storage container (10) to outside the storage container (10). The foldable solar cell panel network (20) is folded and housed within the storage container (10).

[0012] The foldable solar cell panel network (20) is characterized in that it comprises: The first solar cell panel set (21) and the second solar cell panel set (22) each have a rectangular geometric shape and at least one panel serves to form a surface for receiving sunlight.

[0013] 2A, 2B, 3, 4A, and 4B show a first solar cell panel set (21) and a second solar cell panel set (22) folded and engaged with each other in an upright position and connected to each other at their top ends by one or more rotational fold fasteners (50) that open the first solar cell panel set (21) and the second solar cell panel set (22) from each other and together form a rotational angle for use. The rotation folding fixing portion (50) is a portion that connects to the upper ends of the first solar cell panel set (21) and the second solar cell panel set (22), and is characterized by forming a rotation folding point at that position.

[0014] The wire lock portion (30) comprises a first fixed shaft (31) that connects to an upper end of the second solar cell panel set (22) of one module of the solar cell panel module, and a second fixed shaft (32) that connects to an upper end of the first solar cell panel set (21) of the other module of the solar cell panel module, and the first fixed shaft (31) and the second fixed shaft (32) are connected to each other by a bolt (40) to form a rotation folding point at that position. The wire lock part (30) is fixed to the network wire (60), and the push-up part (61) plays a role in managing the network wire when deploying and storing the solar cell panel and forming fixing points between the modules of the solar cell panel.

[0015] The network wire (60) connects to a power saving device (Winch) (70) for retracting the network wire (60) into the power saving device (Winch) (70), and the network wire (60) deploys along the length of the foldable solar cell panel network (20) by engine power. The network wire (60) is connected to the foldable solar cell panel network (20) for strength and defines the deployment position. (See FIG. 10.)

[0016] The first solar cell panel set (21) at the lower end position is provided with one or more pairs of caster wheels (95) that serve to support the first solar cell panel set (21) and engage with or deploy away from the second solar cell panel set (22). The first pair of caster wheels (95) comprises a right caster wheel (951) and a left caster wheel (952) for supporting the folding movement of the first solar cell panel set (21). The second solar cell panel set (22) at the lower end position is provided with one or more pairs of caster wheels (96) that serve to support the second solar cell panel set (22) and engage with or deploy away from the first solar cell panel set (21). The second pair of caster wheels (96) comprises a left caster wheel (961) and a right caster wheel (962) for supporting the folding movement of the second solar cell panel set (22).

[0017] A first side edge of the first solar cell panel set (21) and the second solar cell panel set (22) has a first sling (81) attached thereto, which determines the end point of the direction of the rotational tilt angle between the first solar cell panel set (21) and the second solar cell panel set (22). The first sling (81) has a first screw fastening portion (801) for determining the length of the first sling (81) attachment. A second side edge of the first solar cell panel set (21) and the second solar cell panel set (22) has a second sling (82) attached thereto to determine the end point of the direction of the rotational tilt angle between the first solar cell panel set (21) and the second solar cell panel set (22). The second sling (82) has a second screw fastener (802) for determining the length of the second sling (82) attachment. The first solar cell panel set (21) and the second solar cell panel set (22) are configured together as one module of a foldable solar cell panel network (20).

[0018] A module of the multiple foldable solar cell panel network (20) is a set of panels of the same shape that are connected together to form the foldable solar cell panel network (20) and have a wide area in the length direction to form a surface for receiving sunlight as an outwardly extending path. Multiple means 24 modules, etc. The lower end regions of both the first foldable solar cell panel network (20) and the second foldable solar cell panel network (20) utilize caster wheels.

[0019] 5 and 6 show views of a first solar cell panel set (21) having a first pair of caster wheels (95) consisting of a right caster wheel (951) located on a first slide rail (97) and a left caster wheel (952) located on a second slide rail (98) to support folding movement of the first solar cell panel set (21). The second solar cell panel set (22) has a second pair of caster wheels (96) consisting of a left caster wheel (961) located on the first slide rail (97) and a right caster wheel (962) located on the second slide rail (98) to support folding movement of the second solar cell panel set (22).

[0020] The slide rail has a rail shape that receives a first pair of caster wheels (95) and a second pair of caster wheels (96) and allows the caster wheels to be fried within the slide rail. The slide rail comprises: A first slide rail (97) and a second slide rail (98) are arranged in pairs along the length direction from the start point to the end point of an unfolding foldable solar cell panel network (20) having, for example, 24 modules. A first stopper (901) for determining the final position of the movement trajectory of the caster wheels is provided at one position on the end point side of the first slide rail (97), and a second stopper (902) for determining the final position of the movement trajectory of the caster wheels is provided at one position on the end point side of the second slide rail (98).

[0021] The slide rail is separate from the foldable solar cell panel network (20) and features a common use component, attached to the separate portion to support the deployment of the foldable solar cell panel network (20). The slide rail is made up of multiple rail parts that are connected to each other, and has a long distance on the outside to determine the final position of the caster wheel's moving path. A height-adjustable rail support (SUPPORT ROLLING RAIL) (93) is attached to the bottom of the slide rail, and serves as a base to receive the slide rail that is installed on the surface. The number of rail support (SUPPORT ROLLING RAIL) (93) depends on the length of the slide rail's path.

[0022] FIG. 7 shows one position inside the containment container (10), specifically the top wall position where the first solar cell panel holder (201) and the second solar cell panel holder (202) are installed, which serve to hold the solar cell panel network when the entire foldable solar cell panel network (20) is folded.

[0023] FIG. 8 illustrates a first caster wheel (95) and a second caster wheel (96) that support the movement of the entire foldable solar cell panel network (20) during folding.

[0024] 9 and 10 show a foldable solar cell panel network (20) connected to a current management and conversion set from a prefabricated solar cell panel installed in one location of the containment container (10). The current management and conversion set consists of an electrical system management set and an inverter (Inverter Circuit) (100) etc.

[0025] FIG. 11 is a diagram showing a foldable solar cell panel network (20) between one module of a plurality of foldable solar cell panels (20), in which the same panel shapes are connected to each other to form a foldable solar cell panel network (20) with a large area in the length direction to form a surface for receiving sunlight, which is expanded outward. At least one electric cable penetration (80) is responsible for connecting an electric cable from the foldable solar cell panel network (20) to an electric system management set and an inverter (Inverter Circuit) (100) to form an electric network. Best Method of Invention

[0026] Please refer to the detailed description of the invention described above.

Claims

1. A prefabricated solar cell panel network storage container that can be deployed, folded, and transported, comprising: The invention is characterized in that it comprises a storage container (10) in the form of a metal container creating an area for mounting a foldable solar cell panel network (20) within the storage container (10), having a front opening door (11), a rear opening door (12) and a side opening door (13), which serve to support the deployment of the foldable solar cell panel network (20) from within the storage container (10) to the outside of the storage container (10), The storage container (10) has a number of interlocking supports (14) for lifting the storage container (10) onto a truck and transporting it to another location; The foldable solar cell panel network (20) is housed within the storage container (10), and the foldable solar cell panel network (20) is deployed to create a large area from within the storage container (10) to outside the storage container (10); The foldable solar cell panel network (20) is folded and stored within a storage container (10); The foldable solar cell panel network (20) is characterized in that it comprises a first solar cell panel set (21) and a second solar cell panel set (22), which serve to form a surface for receiving sunlight; The first solar cell panel set (21) and the second solar cell panel set (22) are engaged with each other in an upright position by folding the first solar cell panel set (21) and the second solar cell panel set (22); Also, the first solar cell panel set (21) and the second solar cell panel set (22) are connected at their upper end positions by one or more rotational folding fasteners (50) that open from each other and together form a rotation angle for use; The first solar cell panel set (21) at the lower end position is provided with one or more pairs of caster wheels (95) serving to support the first solar cell panel set (21) and engage with or deploy away from the second solar cell panel set (22); The second solar cell panel set (22) at the lower corner position is provided with one or more pairs of caster wheels (96) serving to support the second solar cell panel set (22) and engage with the first solar cell panel set (21) or deploy away from the first solar cell panel set (21); the first solar cell panel set (21) and the second solar cell panel set (22) are configured together as one module of a foldable solar cell panel network (20); A module of the plurality of foldable solar cell panel networks (20) is a set of panels of the same shape that are connected together to form the foldable solar cell panel network (20), and has a wide area in the length direction to form a surface that receives sunlight as a path for outward deployment; the first solar cell panel set (21) has a first pair of caster wheels (95) consisting of a right caster wheel (951) positioned on a first slide rail (97) and a left caster wheel (952) positioned on a second slide rail (98) for supporting folding movement of the first solar cell panel set (21); the second solar cell panel set (22) has a second pair of caster wheels (96) consisting of a left caster wheel (961) located on the first slide rail (97) and a right caster wheel (962) located on the second slide rail (98) for supporting folding movement of the second solar cell panel set (22); The slide rail has a rail shape that receives a first pair of caster wheels (95) and a second pair of caster wheels (96) and allows the caster wheels to slide within the slide rail. A ready-made solar cell panel network storage container that can be deployed, folded and transported.

2. The first solar cell panel set (21) and the second solar cell panel set (22) each comprise one or more solar cell panels having a rectangular geometric shape; 2. The unfoldable and collapsible transportable prefabricated solar cell panel network containment container of claim 1.

3. the rotational folding fixing portion (50) is a portion that connects to the upper ends of the first solar cell panel set (21) and the second solar cell panel set (22), and forms a rotational folding point at said position; 3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

4. The wire lock (30) comprises a first fixing shaft (31) connected to an upper end of the second solar cell panel set (22) of one module of the solar cell panel module, and a second fixing shaft (32) connected to an upper end of the first solar cell panel set (21) of the other module of the solar cell panel module, the first fixing shaft (31) and the second fixing shaft (32) being connected to each other by a bolt (40) to form a rotation folding point at said position; The Wire Lock (30) is fixed to a network wire (60) consisting of: The network wire (60) is connected to a power saving device (Winch) (70) for pulling the network wire (60) into the power saving device (Winch) (70), and the network wire (60) is deployed in the length direction of the foldable solar cell panel network (20) by engine power and is connected to the foldable solar cell panel network (20) for strength to determine the deployed position.

3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

5. the first pair of caster wheels (95) comprises a right caster wheel (951) and a left caster wheel (952) for supporting the folding movement of the first solar cell panel set (21); the second pair of caster wheels (96) comprises a left caster wheel (961) and a right caster wheel (962) for supporting the folding movement of the second solar cell panel set (22); 3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

6. A first sling (81) is attached to a first side end of the first solar cell panel set (21) and the second solar cell panel set (22) to determine a rotation tilt angle generating direction end point between the first solar cell panel set (21) and the second solar cell panel set (22), the first sling (81) having a first screw fastening portion (801) for determining a length of the first sling (81) attachment; A second sling (82) is attached to a second side edge of the first solar cell panel set (21) and the second solar cell panel set (22) to determine a rotation tilt angle generating direction end point between the first solar cell panel set (21) and the second solar cell panel set (22), the second sling (82) having a second screw fastening portion (802) for determining a length of the second sling (82) attachment.

3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

7. A module of the plurality of foldable solar cell panel networks (20) is a panel of the same shape that is connected to each other to form the foldable solar cell panel network (20), and has a wide area in the length direction to be expanded outward to form a surface receiving sunlight, and a plurality is, for example, 24 modules; the first solar cell panel set (21) has a first pair of caster wheels (95) consisting of a right caster wheel (951) located on a first slide rail (97) and a left caster wheel (952) located on a second slide rail (98) for supporting folding movement of the first solar cell panel set (21); the second solar cell panel set (22) has a second pair of caster wheels (96) consisting of a left caster wheel (961) located on the first slide rail (97) and a right caster wheel (962) located on the second slide rail (98) for supporting folding movement of the second solar cell panel set (22); 3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

8. The slide rail is The solar cell panel system comprises a first slide rail (97) and a second slide rail (98) arranged in pairs along the length direction from the start point to the end point of an unfolded foldable solar cell panel network (20) having, for example, 24 modules, and the first slide rail (97) has a first stopper (STOPER) (901) at one position on the end point side for determining the final position of the moving path of the caster wheels, and the second slide rail (98) has a second stopper (STOPER) (902) at one position on the end point side for determining the final position of the moving path of the caster wheels; The slide rail is separate from the foldable solar cell panel network (20), has a feature as a common-use component, and is attached to the separate part to support the deployment of the foldable solar cell panel network (20); The slide rail is made up of multiple rail parts that are connected to each other, and has a long distance on the outside to determine the final position of the moving track of the caster wheels. A height-adjustable type rail support part (SUPPORT ROLLING RAIL) (93) is attached to the lower part of the slide rail, and serves as a base to receive the slide rail installed on the surface. The number of rail support parts (SUPPORT ROLLING RAIL) (93) depends on the track length of the slide rail.

3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

9. A first solar cell panel holding portion (201) is installed at one position inside the containment container (10), particularly at the upper wall position, and serves to hold a first panel of the solar cell panel when the entire foldable solar cell panel network (20) is folded; A second solar cell panel holder (202) is installed at one position inside the containment container (10), particularly at the upper wall position, and serves to hold the solar cell panel when the entire foldable solar cell panel network (20) is folded.

3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

10. The foldable solar cell panel network (20) has at least one electrical cable penetration (80) which serves to connect an electrical cable from the foldable solar cell panel network (20) to an electrical system management set and an inverter (Inverter Circuit) (100) to form an electrical network (Electrical Network); The foldable solar cell panel network (20) connects to a current management and conversion set from a prefabricated solar cell panel installed at one position of the containment container (10), the current management and conversion set being composed of an electrical system management set and an inverter (Inverter Circuit) (100); 3. The unfoldable and collapsible transportable prefabricated solar cell panel network storage container according to claim 1 or 2.

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