WO2019091031A1 - 整体式太阳能支架发电柱形成方法 - Google Patents
整体式太阳能支架发电柱形成方法 Download PDFInfo
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- WO2019091031A1 WO2019091031A1 PCT/CN2018/078980 CN2018078980W WO2019091031A1 WO 2019091031 A1 WO2019091031 A1 WO 2019091031A1 CN 2018078980 W CN2018078980 W CN 2018078980W WO 2019091031 A1 WO2019091031 A1 WO 2019091031A1
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- Prior art keywords
- solar
- power generation
- column
- support power
- columns
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- 238000010248 power generation Methods 0.000 title claims abstract description 176
- 238000000034 method Methods 0.000 title claims abstract description 23
- 230000002093 peripheral effect Effects 0.000 claims abstract description 10
- 238000009434 installation Methods 0.000 claims description 8
- 210000001503 joint Anatomy 0.000 description 4
- 239000002699 waste material Substances 0.000 description 3
- 238000004519 manufacturing process Methods 0.000 description 2
- 238000012986 modification Methods 0.000 description 2
- 230000004048 modification Effects 0.000 description 2
- 239000007787 solid Substances 0.000 description 2
- 238000003466 welding Methods 0.000 description 2
- 230000015572 biosynthetic process Effects 0.000 description 1
- 230000000694 effects Effects 0.000 description 1
- 238000005516 engineering process Methods 0.000 description 1
Classifications
-
- H—ELECTRICITY
- H02—GENERATION; CONVERSION OR DISTRIBUTION OF ELECTRIC POWER
- H02S—GENERATION OF ELECTRIC POWER BY CONVERSION OF INFRARED RADIATION, VISIBLE LIGHT OR ULTRAVIOLET LIGHT, e.g. USING PHOTOVOLTAIC [PV] MODULES
- H02S20/00—Supporting structures for PV modules
- H02S20/10—Supporting structures directly fixed to the ground
-
- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E10/00—Energy generation through renewable energy sources
- Y02E10/50—Photovoltaic [PV] energy
Definitions
- the invention discloses a technology in the field of solar power generation, in particular to a method for forming a monolithic solar bracket power generation column.
- a solar power generation device such as a street lamp
- a power-consuming device or device As a power supply station and other applications, centralized solar power generation is suitable for the case of large power supply.
- a large number of large solar panels are arranged in a certain site, and the overall occupied space is large, and the force is large. Heavier, the plate-shaped power generation device occupies more land area, resulting in waste of land resources.
- the present invention is directed to the absence of the prior art, and the main object thereof is to provide a method for forming a monolithic solar stent power generation column, which is obtained by a simple and ingenious forming method, and is obtained by integrally integrating a solar-powered generating column group for Solar power generation, its overall structural stability, wind resistance and durability, also saves the land area occupied by power generation.
- a method for forming a monolithic solar scaffold power generation column wherein a plurality of vertically extending solar scaffold power generation columns are arranged by a pitch type, and a solar panel mounting area is arranged on an outer peripheral side of the solar scaffold power generation column, and the solar scaffold power generation column passes through
- the transverse connectors are joined to form a unitary monolithic structure.
- the solar-bracket generating columns are respectively formed with lateral joints at different heights in the vertical direction.
- the method includes the following steps: firstly connecting a plurality of solar-bracket generating columns with a lateral connecting member to form an integrated unitary structure, and then vertically arranging a plurality of annular solar panel brackets on the outer peripheral side of the solar-bracket generating column; wherein each The outer peripheral side of the annular solar panel holder is surrounded by a flexible solar panel.
- the lateral connecting member is disposed at a lower portion of the second solar bracket power generating column; or the lateral connecting member is disposed at an upper portion of the first solar bracket power generating column; or the lateral connecting member is disposed at the rotating portion
- the adapter is connected between the top end of the first solar support power generation column and the bottom end of the second solar support power generation column;
- Each solar support power generation column is formed by sequentially splicing a corresponding first solar support power generation column and two or more first solar support power generation columns in a vertical direction.
- the first solar support power generation column is vertically spliced by two or more first solar support power generation column segments; the second solar support power generation column is powered by two or more second solar power supports.
- the column segments are vertically spliced together.
- the adapter has a top end locking portion, a bottom end locking portion and two or more first lateral locking portions, and the transverse connecting member is connected to the corresponding two of the two adjacent adapters. Between the side locks.
- the lateral connector is set by a mounting bracket, the mounting bracket has a mounting portion and a second lateral locking portion, and the mounting portion is fixed to an upper portion of the corresponding first solar bracket power generating column.
- the portion or the lower portion of the second solar stent power generation column, the lateral connector is connected between the corresponding two second lateral locking portions on the adjacent second solar stent power generation column.
- the lateral connector is soldered and fixed to an upper portion of the corresponding first solar stent power generation column or a lower portion of the second solar stent power generation column.
- each solar stent power generation column is grounded.
- the present invention has obvious advantages and advantageous effects compared with the prior art. Specifically, it can be known from the above technical solutions:
- the main purpose is to obtain a one-piece solar-supported power generation column group for solar power generation through a simple and ingenious formation method, which has good overall structural stability, stronger wind resistance and durability, and can be flexibly extended in height. It saves the land area occupied by power generation, effectively solves the problem that the traditional power generation device occupies more land area and causes waste of resources, and is suitable for popularization and application.
- FIG. 1 is a simplified schematic view of an integrated solar stent power generation column in the first embodiment
- FIG. 2 is a partial perspective structural view of the integrated solar stent power generation column in the second embodiment
- FIG. 3 is a top plan view of the integrated solar stent power generation column in the third embodiment
- FIG. 5 is a partial perspective structural view of an integrated solar stent power generation column in the fourth embodiment
- Embodiment 6 is a partial perspective structural view of an integrated solar stent power generation column in Embodiment 5;
- FIG. 7 is a partial perspective structural view of an integrated solar stent power generation column in Embodiment 6;
- Figure 8 is a partial perspective structural view of the integrated solar stent power generation column in the seventh embodiment
- Embodiment 9 is a partial perspective structural view of an integrated solar stent power generation column in Embodiment 8.
- FIG. 10 is a partial perspective structural view of the integrated solar stent power generation column in the ninth embodiment.
- annular solar panel bracket 4 the first solar bracket power generation column
- Installation part 8 Second lateral locking part
- the invention relates to a method for forming a monolithic solar support power generation column, which is provided with a plurality of vertically extending solar support power generation columns 1 by a pitch type, and a solar panel installation area on the outer peripheral side of the solar support power generation column 1, the solar support power generation column 1
- a plurality of lateral connectors 2 are coupled to form an integrated unitary structure, thereby obtaining a solar-bracket generating column group for solar power generation, which has good overall structural stability, stronger wind resistance and durability, and can be heightened.
- Flexible extension saving the land area occupied by power generation, suitable for promotion and application.
- the solar support power generation columns 1 can form lateral joints at different heights in the vertical direction, especially for the solar support power generation column design with high vertical overall height, it is necessary to form transverse joints at different heights respectively, Strengthen the connection stability between the solar rack power generation columns 1.
- the following steps may be included: (1) firstly connecting a plurality of solar support power generation columns 1 by using a lateral connecting member 2 to form an integrated unitary structure; (2) re-powering the solar power generating column 1
- the outer peripheral side is vertically disposed with a plurality of annular solar panel supports 3; wherein, the outer peripheral side of each annular solar panel support 3 is surrounded by flexible solar panels; generally, the annular solar panel supports 3 are stacked one by one to vertically fill the solar brackets The outer circumference of the power generation column.
- a plurality of solar stent power generation columns 1 are first connected by a lateral connecting member 2 to form an integrated unitary structure, which may be specifically refined to include the following steps:
- the solar support power generation column has a first set of solar support power generation columns and a second set of solar support power generation columns; defining a first set of solar support power generation columns including a plurality of first solar support power generation columns 4, defining a second set of solar support
- the power generation column includes a plurality of second solar support power generation columns 5.
- each first solar bracket power generating column 4 in the first group of solar bracket power generating columns is fixed, for example, the bottom end of each solar bracket power generating column Ground fixation;
- the lowermost set of solar support power generation columns is defined as the first set of solar support power generation columns, and at the same time, the first set of solar support power generation columns is defined to include a plurality of first solar support power generation columns 4,
- the arrangement of a solar-supported power generation column 4 is not limited, and may be flexibly arranged according to the terrain and the actual situation of the site, or may be uniformly arranged in four directions of front, back, left and right;
- each second solar support power generation column 5 of the second set of solar support power generation columns is correspondingly installed in the first set of solar support power generation columns Corresponding to the top end of the first solar support power generation column 4; wherein the lateral connection member is installed at a lower portion of the second solar support power generation column; or the lateral connection member is installed at an upper portion of the first solar support power generation column Or the lateral connector is disposed on the adapter, the adapter is connected between the top end of the first solar bracket power generation column and the bottom end of the second solar bracket power generation column;
- the lateral connecting member 14 is installed in the lower portion of the second solar bracket power generating column 55, and after the bottom end of the second solar bracket power generating column 55 is installed,
- the transverse connector 14 is mounted on the second solar stent power generation column 5 and completes the splicing between the lateral connectors 14.
- the horizontal connection member 14 is installed on the second solar energy support.
- a mounting structure of the lateral connector 14 at the lower portion of the second solar-bracket generating column 5 is provided, that is, the outer periphery of the lower portion of the second solar-bracket generating column 5 is installed.
- a mounting bracket 6 having a mounting portion 7 and a second lateral locking portion 8, the mounting portion 7 is fixed to a lower portion of the second solar bracket power generating column 5, and the lateral connecting member 14 is connected to the adjacent portion.
- the second solar bracket power generation column 5 is between the two second lateral locking portions 8; the mounting portion 7 is a curved plate, and the two ends of the curved plate are respectively bent to form a locking plate 9, which is installed by two The portion 7 is butted around the outer circumference of the second solar support power generation column 5, and then locked by two screws of the corresponding locking plate 9 to realize the mounting portion 7 on the second solar support power generation column 5; wherein, FIG.
- FIG. 8 Listed mounting bracket 6, mounting portion 7 of mounting bracket 6
- Two second lateral locking portions 8 extending perpendicularly to each other are provided, and a mounting bracket 6 not provided with the second lateral locking portion 8 is required to form a butt joint with the mounting bracket 6, of course, if the mounting bracket 6 is provided
- the mounting bracket 6 illustrated in FIG. 8 has two mounting brackets 6 with two second lateral locking portions 8 . After the two mounting brackets 6 are relatively locked and locked, the four second lateral locking portions 8 are illustrated. Arranged in a cross shape, the angle between adjacent two second lateral locking portions 8 is 90 degrees.
- the lateral connecting member 14 is preferably installed in the lower portion of the second solar bracket power generating column 5, and is also considered to be used for locking in the split joint of the first solar bracket power generating column 4 and the second solar bracket power generating column 5.
- the solid flange can help prevent the mounting bracket 6 from slipping off; the mounting bracket 6 can also be installed on the upper portion of the first solar bracket power generating column 4.
- the foregoing mounting bracket 6 is The change design is carried out, that is, the mounting portion 7 is changed into a welded portion, and the welded portion is directly welded to the upper portion of the first solar support power generation column 4 or the lower portion of the second solar support power generation column 5, and the second lateral direction
- the locking portion 8 changes the locking direction, and the locking direction of the second lateral locking portion 8 is in the same direction as the axial direction, and in FIG. 9 and FIG. 10, the locking direction is changed by the I-shaped design.
- the I-shaped design structure comprises an upper horizontal plate 15, a lower horizontal plate 16 and an intermediate vertical connecting plate 17, and the intermediate vertical connecting plate 17 is connected to the upper horizontal plate. 15.
- the first solar support power generation column and the second solar support power generation column are designed in a cylindrical shape. Therefore, the bonding surface is designed as a concave curved surface.
- the upper horizontal horizontal plate 15 and the lower horizontal horizontal plate 16 are generally The vertical connecting plates 17 are all welded and fixed to the corresponding first solar support power generation column or the second solar support power generation column.
- the other end of the I-shaped design structure is connected with a locking plate 18 at the end of the intermediate vertical connecting plate 17, and one end of the locking plate 18 is fixed to the end of the intermediate vertical connecting plate 17, and the locking plate 18 is fixed.
- the other end is fixed to the transverse connecting member, and can be fixed by using a locking hole on the locking plate 18; and FIG. 9 and FIG.
- the transverse connecting members 10 are designed with two locking plates 18, two locking
- the plates 18 are respectively located on opposite sides of the intermediate vertical connecting plate 17, so that the transverse connecting members are also clamped between the two locking plates; for the mounting frame of the I-shaped design, the transverse connecting members Can also be designed
- the lateral connecting member has a portion for connecting with the locking plate.
- the lateral connecting member 14 is disposed on the adapter 10 , and the adapter 10 is first installed on the top end of the first solar bracket power generating column 4 and the lateral connecting member 14 is completed.
- the second solar bracket power generation column 5 is mounted on the top end of the corresponding adapter 10;
- the adapter 10 listed here has a top locking portion 11, a bottom locking portion 12 and more than two
- the first lateral locking portion 13 is connected between the two first lateral locking portions 13 of the adjacent two adapters 10;
- FIG. 6 shows the top locking portion 11 and the bottom locking portion.
- the adapter 12 of the solid portion 12 and the two first lateral locking portions 13, and FIG. 8 shows the rotation with the top locking portion 11, the bottom locking portion 12 and the four first lateral locking portions 13.
- Connector 10 is disposed on the adapter 10 , and the adapter 10 is first installed on the top end of the first solar bracket power generating column 4 and the lateral connecting member 14 is completed.
- the second solar bracket power generation column 5 is mounted on the top end of the
- the third is that the lateral connecting member is welded and fixed to the upper portion of the corresponding first solar bracket power generating column or the lower portion of the second solar bracket power generating column; the lateral connecting member can be directly fixed at both ends, or similar to FIG. 9 and In the case shown in Fig. 10, the lateral connecting member is designed to be assembled by splicing and assembling two or more connecting pieces, and the connecting parts at both ends are welded to the upper portion of the corresponding first solar bracket power generating column or the second solar energy. The lower part of the power generation column of the bracket.
- each solar bracket power generation column is sequentially spliced by a corresponding first solar support power generation column 4 and one or more first solar support power generation columns 4 in sequence to make.
- the first solar support power generation column 4 is formed by vertically splicing two or more first solar support power generation columns 4; as shown in FIG. 2, it generally shows that the first solar support power generation column 4 includes two The design of the first solar support power generation column 4; similarly, the second solar support power generation column 5 can also be formed by vertically splicing two or more second solar support power generation columns 5 segments. There is no restriction on the vertical height of the solar-supported power generation column, the number of solar-supported power generation columns and the arrangement spacing, and the height of the horizontal connection member 14.
- the first solar support power generation column 4 segment and the second solar support power generation column 5 segment each have a length of 5 meters, so that two vertical splicings form 10 Meters, 20 meters, 25 meters, 30 meters high, each time 10 meters, 20 meters, 30 meters and other places to do a horizontal joint, the adjacent solar bracket power column spacing can be 2 meters.
- the shape of the first solar support power generation column and the second solar support power generation column is not limited to a cylindrical shape, and generally only needs to be designed as a vertically extending structure; and the lateral connector is not limited to a circular shape ( Or round tube), I-shaped or H-shaped.
- the design of the present invention is mainly focused on obtaining a monolithically coupled solar-bracket generating column group for solar power generation through a simple and ingenious forming method, which has good overall structural stability and wind resistance. It is more durable and can be flexibly extended in height, which saves the land area occupied by power generation, effectively solves the problem of waste of resources caused by the occupation of more land area by the conventional power generation device, and the installation method provided by the present invention is simple to install and fix. Suitable for promotion.
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Abstract
本发明公开一种整体式太阳能支架发电柱形成方法，通过间距式设置若干竖向延伸的太阳能支架发电柱，在太阳能支架发电柱的外周侧为太阳能板装设区，所述太阳能支架发电柱之间通过若干横向连接件联结形成一体式整体结构；藉此，通过简单巧妙的形成方法，获得一体式联结的太阳能支架发电柱群用于太阳能发电，其具有很好的整体结构稳固性，抗风能力及耐用性更强，在高度上可以灵活延伸，节约了发电占用土地面积，适于推广应用。
Description
本发明公开一种太阳能发电领域技术，尤其是指一种整体式太阳能支架发电柱形成方法。
目前，太阳能发电应用主要有两类情形，其一情形是单独针对用电设备或装置设置有太阳能发电装置，例如：路灯等，其一般只能适用于供电量较小的情况；另一情形是集中式太阳能发电作为供电站等应用，其适用于供电量较大的情况，在现有技术中，是采用集中某个场地布置若干较大的太阳能电池板，其整体占用空间较大，受力较重，板状发电装置占用土地面积较多，造成了土地资源的浪费。
因此，急需一种新的技术方案以解决上述问题。
有鉴于此，本发明针对现有技术存在之缺失，其主要目的是提供一种整体式太阳能支架发电柱形成方法，其通过简单巧妙的形成方法，获得一体式联结的太阳能支架发电柱群用于太阳能发电，其整体结构稳固性、抗风能力及耐用性佳，也节约了发电占用土地面积。
为实现上述目的，本发明采用如下之技术方案：
一种整体式太阳能支架发电柱形成方法，通过间距式设置若干竖向延伸的太阳能支架发电柱，在太阳能支架发电柱的外周侧为太阳能板装设区，所述太阳能支架发电柱之间通过若干横向连接件联结形成一体式整体结构。
作为一种优选方案，所述太阳能支架发电柱之间，沿竖向在不同高度分别形成横向联结。
作为一种优选方案，包括如下步骤：先将若干太阳能支架发电柱利用横向连接件联结形成一体式整体结构，再于太阳能支架发电柱的外周侧沿竖向套装若干环形太阳能板支架；其中，每个环形太阳能板支架的外周侧围绕有柔性太阳能板。
作为一种优选方案，包括如下步骤：
（1）将第一组太阳能支架发电柱间距布置，第一组太阳能支架发电柱中每个第一太阳能支架发电柱的底端被固定；
（2）在第一组太阳能支架发电柱的顶端安装第二组太阳能支架发电柱，第二组太阳能支架发电柱中每个第二太阳能支架发电柱对应安装于第一组太阳能支架发电柱中相应第一太阳能支架发电柱的顶端；
其中，所述横向连接件装设于第二太阳能支架发电柱的下段部位；或者，所述横向连接件装设于第一太阳能支架发电柱的上段部位；或者，所述横向连接件设置于转接件上，所述转接件连接于第一太阳能支架发电柱的顶端与第二太阳能支架发电柱的底端之间；
（3）在第二组太阳能支架发电柱的顶端继续向上安装有一个以上第二组太阳能支架发电柱，相邻第二组太阳能支架发电柱的相应第二太阳能支架发电柱的连接部位处通过横向连接件形成横向联结，在最上方的第二组太阳能支架发电柱的各第二太阳能支架发电柱的顶端之间通过横向连接件形成横向联结；
每个太阳能支架发电柱由相应的一第一太阳能支架发电柱和两个以上第一太阳能支架发电柱依次沿竖向拼接而成。
作为一种优选方案，所述第一太阳能支架发电柱由两个以上第一太阳能支架发电柱分段相竖向拼接而成；所述第二太阳能支架发电柱由两个以上第二太阳能支架发电柱分段相竖向拼接而成。
作为一种优选方案，所述转接件具有顶端锁固部、底端锁固部及两个以上的第一侧向锁固部，横向连接件连接于相邻两转接件的相应两第一侧向锁固部之间。
作为一种优选方案，所述横向连接件通过安装架装设定位，所述安装架具有安装部和第二侧向锁固部，所述安装部固定于相应第一太阳能支架发电柱的上段部位或第二太阳能支架发电柱的下段部位，横向连接件连接于相邻第二太阳能支架发电柱上的相应两第二侧向锁固部之间。
作为一种优选方案，所述横向连接件焊接固定于相应第一太阳能支架发电柱的上段部位或第二太阳能支架发电柱的下段部位。
作为一种优选方案，每个太阳能支架发电柱的底端做地基固定。
本发明与现有技术相比具有明显的优点和有益效果，具体而言，由上述技术方案可知:
其主要是通过简单巧妙的形成方法，获得一体式联结的太阳能支架发电柱群用于太阳能发电，其具有很好的整体结构稳固性，抗风能力及耐用性更强，在高度上可以灵活延伸，节约了发电占用土地面积，有效解决了传统发电装置占用较多土地面积而造成资源浪费的问题，适于推广应用。
图1是实施例一中整体式太阳能支架发电柱的简易示意图；
图2是实施例二中整体式太阳能支架发电柱的局部立体结构示意图；
图3是实施例三中整体式太阳能支架发电柱的俯视图；
图4是实施例三中整体式太阳能支架发电柱的主视图；
图5是实施例四中整体式太阳能支架发电柱的局部立体结构示意图；
图6是实施例五中整体式太阳能支架发电柱的局部立体结构示意图；
图7是实施例六中整体式太阳能支架发电柱的局部立体结构示意图；
图8是实施例七中整体式太阳能支架发电柱的局部立体结构示意图；
图9是实施例八中整体式太阳能支架发电柱的局部立体结构示意图；
图10是实施例九中整体式太阳能支架发电柱的局部立体结构示意图。
附图标识说明：
1、太阳能支架发电柱 2、横向连接件
3、环形太阳能板支架 4、第一太阳能支架发电柱
5、第二太阳能支架发电柱 6、安装架
7、安装部 8、第二侧向锁固部
9、锁固板 10、转接件
11、顶端锁固部 12、底端锁固部
13、第一侧向锁固部 14、横向连接件
15、上侧水平板 16、下侧水平板
17、中间竖向连接接板 18、锁固板
请参照图1-图10所示，其显示出了本发明之多种实施例的具体结构。
一种整体式太阳能支架发电柱形成方法，通过间距式设置若干竖向延伸的太阳能支架发电柱1，在太阳能支架发电柱1的外周侧为太阳能板装设区，所述太阳能支架发电柱1之间通过若干横向连接件2联结形成一体式整体结构，从而，获得太阳能支架发电柱群用于太阳能发电，其具有很好的整体结构稳固性，抗风能力及耐用性更强，在高度上可以灵活延伸，节约了发电占用土地面积，适于推广应用。
所述太阳能支架发电柱1之间，可以沿竖向在不同高度分别形成横向联结，尤其是对于竖向整体高度较高的太阳能支架发电柱设计而言，需要在不同高度分别形成横向联结，以加强各太阳能支架发电柱1之间的连接稳固性。
在形成前述整体式太阳能支架发电柱时，可以包括如下步骤：（1）先将若干太阳能支架发电柱1利用横向连接件2联结形成一体式整体结构；（2）再于太阳能支架发电柱1的外周侧沿竖向套装若干环形太阳能板支架3；其中，每个环形太阳能板支架3的外周侧围绕有柔性太阳能板；通常，环形太阳能板支架3是逐个堆设以沿竖向布满太阳能支架发电柱的外周。
在前述步骤（1）先将若干太阳能支架发电柱1利用横向连接件2联结形成一体式整体结构，具体可以细化为包括如下步骤：
所述太阳能支架发电柱具有位于第一组太阳能支架发电柱和第二组太阳能支架发电柱；定义第一组太阳能支架发电柱包括有若干个第一太阳能支架发电柱4，定义第二组太阳能支架发电柱包括有若干个第二太阳能支架发电柱5。
（1）将第一组太阳能支架发电柱间距布置，第一组太阳能支架发电柱中每个第一太阳能支架发电柱4的底端被固定，例如：可以对每个太阳能支架发电柱的底端做地基固定；此处，将最下端的一组太阳能支架发电柱定义为第一组太阳能支架发电柱，同时，定义第一组太阳能支架发电柱包括有若干个第一太阳能支架发电柱4，第一太阳能支架发电柱4的排布不受局限，可以依地形及场地实际情况来灵活布置，也可以选择沿前、后、左及右四个方向均匀布置；
（2）在第一组太阳能支架发电柱的顶端安装第二组太阳能支架发电柱，第二组太阳能支架发电柱中每个第二太阳能支架发电柱5对应安装于第一组太阳能支架发电柱中相应第一太阳能支架发电柱4的顶端；其中，所述横向连接件装设于第二太阳能支架发电柱的下段部位；或者，所述横向连接件装设于第一太阳能支架发电柱的上段部位；或者，所述横向连接件设置于转接件上，所述转接件连接于第一太阳能支架发电柱的顶端与第二太阳能支架发电柱的底端之间；
在实际安装时，此处列举三种方式作说明：
其一是，如图6和图8所示，所述横向连接件14装设于第二太阳能支架发电柱55的下段部位，在装完第二太阳能支架发电柱55的底端后，再将横向连接件14装设于第二太阳能支架发电柱5上并完成横向连接件14之间的拼接。在第一太阳能支架发电柱4的顶端、第二太阳能支架发电柱5的底端之间彼此是对接拼合后再利用螺丝锁固；此处，针对横向连接件14装设于第二太阳能支架发电柱5的下段部位的情形，提供了一种横向连接件14于第二太阳能支架发电柱5的下段部位的安装结构，即：于所述第二太阳能支架发电柱5的下段部位的外周装设有安装架6，所述安装架6具有安装部7和第二侧向锁固部8，所述安装部7固定于第二太阳能支架发电柱5的下段部位，横向连接件14连接于相邻第二太阳能支架发电柱5上的相应两第二侧向锁固部8之间；安装部7为弧形板，弧形板的两端分别弯折形成有锁固板9，由两个安装部7对接围绕于第二太阳能支架发电柱5的外周，再通过相应锁固板9两两螺丝锁固，实现了将安装部7箍套在第二太阳能支架发电柱5上；其中，图6列举的安装架6，安装架6的安装部7上设置有两个彼此垂直延伸的第二侧向锁固部8，另需要一个未设置第二侧向锁固部8的安装架6与安装架6形成对接围设，当然，若安装架6上需要设置有三个第二侧向锁固部8时，通常是由一个安装架6带两个第二侧向锁固部8，而另一个安装架6带一个第二侧向锁固部8；图8列举的安装架6，其两个安装架6均带两个第二侧向锁固部8，两个安装架6相对接围设锁固后，四个第二侧向锁固部8呈十字形布置，相邻两个第二侧向锁固部8之间的夹角为90度。以及，此处优选将横向连接件14装设于第二太阳能支架发电柱5的下段部位，也是考虑到在第一太阳能支架发电柱4、第二太阳能支架发电柱5的拼合对接处有用于锁固的翻边，有利于防止安装架6向下滑脱；也可将安装架6装设于第一太阳能支架发电柱4的上段部位。
当然，在实际设计制作时，也不限于这种结构设计及安装方式，可以有多种其它不同结构设计及安装方式，例如：如图9和图10所示，可以理解为将前述安装架6进行了变化设计，即：前述安装部7变化为焊接部，焊接部是直接焊接在第一太阳能支架发电柱4的上段部位或第二太阳能支架发电柱5的下段部位，而前述第二侧向锁固部8则变化了锁固方向，前述第二侧向锁固部8的锁固方向是与轴向同向，而图9、图10中，是通过工字形设计，将锁固方向改变为垂直于横向连接件的延伸方向；工字形设计结构包括有上侧水平板15、下侧水平板16及中间竖向连接接板17，中间竖向连接接板17是连接于上侧水平板15、下侧水平板16之间，上侧水平板15、下侧水平板16的一端对应前述焊接部所在部位，形成有匹配相应第一太阳能支架发电柱或第二太阳能支架发电柱的贴合面，此处，第一太阳能支架发电柱、第二太阳能支架发电柱设计为圆柱状，因此，贴合面设计为凹弧面，在焊接时，通常上侧水平板15、下侧水平板16及中间竖向连接接板17均会与相应第一太阳能支架发电柱或第二太阳能支架发电柱形成焊接固定。而，工字形设计结构的另一端，在中间竖向连接接板17的端部连接有锁固板18，锁固板18一端固定于中间竖向连接接板17的端部，锁固板18另一端固定于横向连接件，可以通过在锁固板18上开设锁固孔的方式，再利用螺丝连接固定；图9、图10所示为设计有两个锁固板18，两个锁固板18分别位于中间竖向连接接板17的两侧，这样，横向连接件也被夹设式锁固于两个锁固板之间；对于工字形设计结构的安装架而言，横向连接件也可以设计
为匹配的工字形设计结构或者板状结构或者T形结构等，主要是横向连接件具有用于与锁固板相连接的部即可。
其二是，如图5和图7所示，所述横向连接件14设置于转接件10上，先在第一太阳能支架发电柱4的顶端安装转接件10并完成横向连接件14之间的拼接，再将第二太阳能支架发电柱5安装于相应的转接件10的顶端；此处列举的转接件10具有顶端锁固部11、底端锁固部12及两个以上的第一侧向锁固部13，横向连接件14连接于相邻两转接件10的相应两第一侧向锁固部13之间；图6显示了具有顶端锁固部11、底端锁固部12及两个第一侧向锁固部13的转接件10，图8显示了具有顶端锁固部11、底端锁固部12及四个第一侧向锁固部13的转接件10。
其三是，将横向连接件焊接固定于相应第一太阳能支架发电柱的上段部位或第二太阳能支架发电柱的下段部位；横向连接件可以直接两端分别焊接固定，或者，类似于图9和图10所示情形，相当于是将横向连接件设计为由两段以上的连接分件拼接组装形成，位于两端的连接分件则焊接在相应的第一太阳能支架发电柱的上段部位或第二太阳能支架发电柱的下段部位。
（3）在前述第二组太阳能支架发电柱的各第二太阳能支架发电柱5的顶端之间通过横向连接件14形成横向联结；或者，在第二组太阳能支架发电柱的顶端继续向上安装有一个以上第二组太阳能支架发电柱，相邻第二组太阳能支架发电柱的相应第二太阳能支架发电柱5的连接部位处通过横向连接件14形成横向联结，在最上方的第二组太阳能支架发电柱的各第二太阳能支架发电柱5的顶端之间通过横向连接件14形成横向联结；如图1、图4所示，其大致显示了由一个第一组太阳能支架发电柱及两个第二组太阳能支架发电柱构成的整体式太阳能支架发电柱；通常，每个太阳能支架发电柱由相应的一第一太阳能支架发电柱4和一个以上第一太阳能支架发电柱4依次沿竖向拼接而成。
所述第一太阳能支架发电柱4由两个以上第一太阳能支架发电柱4分段沿竖向拼接而成；如图2所示，其大致显示了第一太阳能支架发电柱4包括有两个第一太阳能支架发电柱4分段的设计；同理，所述第二太阳能支架发电柱5也可由两个以上第二太阳能支架发电柱5分段沿竖向拼接而成。对于太阳能支架发电柱的竖向高度、太阳能支架发电柱的布置根数以及排布间距等，以及，横向连接件14的设置高度等，都不作限制，在实际制作及安装时，可以依实际情况而定；此处，提供一种优选尺寸设计，例如：第一太阳能支架发电柱4分段、第二太阳能支架发电柱5分段的长度均为5米，这样，两根竖向拼接形成10米、20米、25米、30米高等，在每10米、20米、30米等地方各做一次横向联结，相邻太阳能支架发电柱的间距可以为2米。
事实上，前述第一太阳能支架发电柱、第二太阳能支架发电柱的形状不限于圆柱形，通常只需要设计为整体竖向延伸之结构即可；以及，前述横向连接件也不限于圆形（或圆管）、工字形或H形等。
综上所述，本发明的设计重点在于，其主要是通过简单巧妙的形成方法，获得一体式联结的太阳能支架发电柱群用于太阳能发电，其具有很好的整体结构稳固性，抗风能力及耐用性更强，在高度上可以灵活延伸，节约了发电占用土地面积，有效解决了传统发电装置占用较多土地面积而造成资源浪费的问题，以及，本发明提供的安装方式，安装固定简易，适于推广应用。
以上所述，仅是本发明的较佳实施例而已，并非对本发明的技术范围作任何限制，故凡是依据本发明的技术实质对以上实施例所作的任何细微修改、等同变化与修饰，均仍属于本发明技术方案的范围内。
Claims (9)
- 一种整体式太阳能支架发电柱形成方法，其特征在于：通过间距式设置若干竖向延伸的太阳能支架发电柱，在太阳能支架发电柱的外周侧为太阳能板装设区，所述太阳能支架发电柱之间通过若干横向连接件联结形成一体式整体结构。
- 根据权利要求1所述整体式太阳能支架发电柱形成方法，其特征在于：所述太阳能支架发电柱之间，沿竖向在不同高度分别形成横向联结。
- 根据权利要求1所述整体式太阳能支架发电柱形成方法，其特征在于：包括如下步骤：先将若干太阳能支架发电柱利用横向连接件联结形成一体式整体结构，再于太阳能支架发电柱的外周侧沿竖向套装若干环形太阳能板支架；其中，每个环形太阳能板支架的外周侧围绕有柔性太阳能板。
- 根据权利要求1所述整体式太阳能支架发电柱形成方法，其特征在于：包括如下步骤：（1）将第一组太阳能支架发电柱间距布置，第一组太阳能支架发电柱中每个第一太阳能支架发电柱的底端被固定；（2）在第一组太阳能支架发电柱的顶端安装第二组太阳能支架发电柱，第二组太阳能支架发电柱中每个第二太阳能支架发电柱对应安装于第一组太阳能支架发电柱中相应第一太阳能支架发电柱的顶端；其中，所述横向连接件装设于第二太阳能支架发电柱的下段部位；或者，所述横向连接件装设于第一太阳能支架发电柱的上段部位；或者，所述横向连接件设置于转接件上，所述转接件连接于第一太阳能支架发电柱的顶端与第二太阳能支架发电柱的底端之间；（3）在前述第二组太阳能支架发电柱的各第二太阳能支架发电柱的顶端之间通过横向连接件形成横向联结；或者，在第二组太阳能支架发电柱的顶端继续向上安装有一个以上第二组太阳能支架发电柱，相邻第二组太阳能支架发电柱的相应第二太阳能支架发电柱的连接部位处通过横向连接件形成横向联结，在最上方的第二组太阳能支架发电柱的各第二太阳能支架发电柱的顶端之间通过横向连接件形成横向联结；每个太阳能支架发电柱由相应的一第一太阳能支架发电柱和一个以上第一太阳能支架发电柱依次沿竖向拼接而成。
- 根据权利要求4所述整体式太阳能支架发电柱形成方法，其特征在于：所述第一太阳能支架发电柱由两个以上第一太阳能支架发电柱分段沿竖向拼接而成；所述第二太阳能支架发电柱由两个以上第二太阳能支架发电柱分段沿竖向拼接而成。
- 根据权利要求4所述整体式太阳能支架发电柱形成方法，其特征在于：所述转接件具有顶端锁固部、底端锁固部及两个以上的第一侧向锁固部，横向连接件连接于相邻两转接件的相应两第一侧向锁固部之间。
- 根据权利要求4所述整体式太阳能支架发电柱形成方法，其特征在于：所述横向连接件通过安装架装设定位，所述安装架具有安装部和第二侧向锁固部，所述安装部固定于相应第一太阳能支架发电柱的上段部位或第二太阳能支架发电柱的下段部位，横向连接件连接于相邻第二太阳能支架发电柱上的相应两第二侧向锁固部之间。
- 根据权利要求4所述整体式太阳能支架发电柱形成方法，其特征在于：所述横向连接件焊接固定于相应第一太阳能支架发电柱的上段部位或第二太阳能支架发电柱的下段部位。
- 根据权利要求1所述整体式太阳能支架发电柱形成方法，其特征在于：每个太阳能支架发电柱的底端做地基固定。
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Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101976971A (zh) * | 2010-08-27 | 2011-02-16 | 屈良 | 纵横联动式太阳能斜轴跟踪支架机构 |
| CN203180803U (zh) * | 2013-04-08 | 2013-09-04 | 辽宁天德光电新能源开发有限公司 | 一种杆式太阳能发电机 |
| CN204441940U (zh) * | 2014-07-14 | 2015-07-01 | 直兴光电股份有限公司 | 发电柱结构 |
| CN107248836A (zh) * | 2017-04-14 | 2017-10-13 | 张宇顺 | 一种环形太阳能板支架及环形太阳能板发电装置 |
| CN206561934U (zh) * | 2016-12-12 | 2017-10-17 | 戴忠 | 一种水面光伏发电板支架浮动平台 |
Family Cites Families (3)
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|---|---|---|---|---|
| CN201490930U (zh) * | 2009-08-03 | 2010-05-26 | 北京印刷学院 | 大功率多支承柱塔式结构太阳能电站 |
| CN202279217U (zh) * | 2011-09-05 | 2012-06-20 | 浙江造船有限公司 | 插销式脚手架 |
| US10250183B2 (en) * | 2013-10-25 | 2019-04-02 | Joseph O. Edmunds | Modular solar power generator |
-
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Patent Citations (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN101976971A (zh) * | 2010-08-27 | 2011-02-16 | 屈良 | 纵横联动式太阳能斜轴跟踪支架机构 |
| CN203180803U (zh) * | 2013-04-08 | 2013-09-04 | 辽宁天德光电新能源开发有限公司 | 一种杆式太阳能发电机 |
| CN204441940U (zh) * | 2014-07-14 | 2015-07-01 | 直兴光电股份有限公司 | 发电柱结构 |
| CN206561934U (zh) * | 2016-12-12 | 2017-10-17 | 戴忠 | 一种水面光伏发电板支架浮动平台 |
| CN107248836A (zh) * | 2017-04-14 | 2017-10-13 | 张宇顺 | 一种环形太阳能板支架及环形太阳能板发电装置 |
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