Component traction installation system and installation method combined with flexible photovoltaic support
Through the component traction installation system, the traction winch and guide rail components are used to solve the installation problems of traditional flexible photovoltaic brackets on complex terrain and site, and the installation cost is achieved quickly, efficiently and safely.
Patent Information
- Application Number
- CN202411623358.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-14
- Publication Date
- 2025-02-11
- Estimated Expiration
- 2044-11-14
AI Technical Summary
The installation of traditional flexible photovoltaic brackets in complex mountainous areas with steep slopes or open and difficult to cross the ponds is problematic and expensive, and the transportation and installation efficiency of photovoltaic modules is low.
The component traction installation system is adopted, including traction system, traction cable, support system, guide rail assembly and component cable installation components. The traction installation of photovoltaic components is achieved through traction winch and guide rail assembly, avoiding the transportation of photovoltaic components in traditional installation methods and Difficult to install.
It realizes rapid, efficient and safe installation of photovoltaic modules on complex terrain and sites, reducing installation costs and improving installation efficiency.
Smart Images

Figure CN119117946B_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to a component traction type installation system and a component traction type installation method combined with a flexible photovoltaic support, which are applicable to the field of photovoltaic power generation and are mainly used for the installation of photovoltaic components with a flexible photovoltaic support structure. Background Art
[0002] With the continuous advancement of photovoltaic technology, the role and impact of flexible photovoltaic brackets as an important part of photovoltaic systems are increasingly valued by the industry. Flexible photovoltaic brackets are gradually occupying a larger share in the development of the industry due to their high comprehensive land utilization rate, low construction cost and fast construction.
[0003] Flexible photovoltaic brackets use steel cables to replace traditional purlin structures, which has the characteristics of saving material consumption. However, traditional flexible photovoltaic brackets install photovoltaic modules on steel cables, which requires the photovoltaic modules to be transported to the steel cables, and then the installation workers fix the photovoltaic modules on the steel cables. The transportation and installation of photovoltaic modules are very inconvenient. Especially when flexible photovoltaic brackets are installed in mountainous areas with complex terrain or above open ponds, because it is difficult for construction machinery such as transport vehicles, cranes, and aerial vehicles to reach the installation site, photovoltaic modules can only be transported by manpower, and their transportation efficiency is very low; during installation, workers need to climb to install modules on steel cables, which is highly dangerous and has low installation efficiency. Traditional installation technology makes it impossible to implement flexible photovoltaic brackets in areas such as steep and complex terrain mountains or open and difficult-to-cross ponds due to the difficulty of construction and high cost. Summary of the invention
[0004] The purpose of the present invention is to provide a component traction installation system and a component traction installation method combined with a flexible photovoltaic bracket, which is designed to be installed on a flexible bracket in a mountainous area with complex terrain or above an open pond, and can install photovoltaic components quickly, efficiently, safely, and at a low cost.
[0005] According to the first aspect of the present invention, the present invention adopts the following technical solution:
[0006] A component traction installation system combined with a flexible photovoltaic support, comprising a traction system, a traction cable, a support system, a guide rail assembly and a component cable installation assembly;
[0007] The traction system includes a capstan and a traction winch, the two ends of the traction rope are respectively connected to the capstan and the traction winch, and a section of the traction rope is used as a component rope;
[0008] The guide rail assembly is installed at the bottom of the photovoltaic assembly; the guide rail assembly includes a pre-installed part and an on-site installation part, and the on-site installation part cooperates with the pre-installed part to connect the guide rail assembly and the assembly cable together;
[0009] The support system comprises a front column located at the front end and a rear column located at the rear end, and one or more middle columns located between the front column and the rear column, the front column and the rear column are respectively connected to the front cross beam and the rear cross beam, and the middle column is connected to the middle cross beam;
[0010] The support system further comprises a support fixed pulley, which is removably fixed to the front crossbeam, the rear crossbeam and the middle crossbeam along the photovoltaic module traction line, and the guide rail assembly is provided with a lower end matching portion that matches with the pulley groove in the support fixed pulley; the setting height of the support fixed pulley satisfies that the photovoltaic module can pass over the middle crossbeam without touching the middle crossbeam when being towed and moved, and after the support fixed pulley is removed, the module cable can be supported by leaning on the middle crossbeam;
[0011] The component cable installation assembly comprises a component cable anchoring assembly and a component cable positioning assembly connected to the middle cross beam or to a structure fixed to the middle cross beam.
[0012] On the basis of adopting the above technical solutions, the present invention may also adopt the following further technical solutions, or use these further technical solutions in combination:
[0013] The front end cross beam and the rear end cross beam are respectively provided with holes, and the traction rope passes through the holes. The front end cross beam and the rear end cross beam also serve as anchoring support structures, and the anchoring assembly is fixed at the front end of the hole on the front end cross beam and the rear end of the hole on the rear end cross beam respectively.
[0014] The lower end mating portion is located on the pre-installed portion.
[0015] Each photovoltaic module has two module cables and two sets of guide rail modules corresponding to the two module cables one by one; the pre-installation part is provided with a photovoltaic module support structure matching with the module cables, the photovoltaic module support structure is provided with a groove matching with the module cables, the photovoltaic module support structure is connected with the photovoltaic module, the on-site installation part includes a locking structure connected with the photovoltaic module or the photovoltaic module support structure, and the lower end of the locking structure is provided as the lower end matching part.
[0016] The guide rail assembly includes a guide rail type connection assembly located at both ends; the guide rail type connection assembly includes a T-shaped connection member and the locking structure matching the T-shaped connection member; the T-shaped connection member is used for the photovoltaic component support structure, and the bottom of the vertical plate of the T-shaped connection member is provided with the groove matching the component cable; the locking structure includes a groove structure and connection parts located on both sides of the groove notch, the connection parts are connected to the photovoltaic component or the structure fixedly connected to the photovoltaic component, the vertical plate of the T-shaped connection member is wrapped by the groove structure, the component cable is located between the bottom of the vertical plate of the T-shaped connection member and the bottom of the groove structure and is clamped, and the outer side of the groove structure is the lower end matching part matching with the pulley groove.
[0017] The longitudinal beams are connected between the T-shaped connecting members in the guide rail type connecting assemblies at both ends.
[0018] According to the second aspect of the present invention, the present invention adopts the following technical solution:
[0019] The photovoltaic module traction installation method based on the above-mentioned module traction installation system is to install the module traction installation system in the construction area, wherein the front column, the rear column and the middle column are arranged according to the traction route, and the traction route passes through the designed location of the photovoltaic module; in the factory or on site, the pre-installed part of the guide rail assembly and the photovoltaic module are assembled together; the method also includes the following construction steps:
[0020] Step 1: at the starting point of the traction route, the photovoltaic modules connected to the pre-installed parts are installed one by one on the traction rope serving as the assembly rope behind the front crossbeam by connecting the on-site installation parts according to the designed spacing of the photovoltaic modules;
[0021] Step 2: After all the photovoltaic modules to be connected to the module rope are connected to the module rope, the traction winch is started again, and the photovoltaic modules on the module rope move forward together with the traction rope; the photovoltaic modules installed with the guide rail modules cross the supporting fixed pulley on the middle beam until they reach the designed location of the photovoltaic modules;
[0022] Step 3: Apply tension to the component cable to tension the component cable; after tensioning, temporarily fix the component cable on the front crossbeam and the rear crossbeam; cut off the traction cable; remove the supporting fixed pulleys on the middle crossbeam, the front crossbeam and the rear crossbeam;
[0023] Step 4: Install the component cable anchoring components on the front and rear cross beams to permanently anchor them, and install the component cable positioning components on the middle cross beam to permanently fix the component cables. The installation is complete.
[0024] Furthermore, in step 1, according to the size of the installation site at the starting point, the traction winch is started in batches to move the photovoltaic components installed on the traction rope serving as the component rope forward a certain distance, and the traction rope of the component rope is supplemented behind the front crossbeam to install subsequent photovoltaic components at the starting point.
[0025] 1. The traction-type installation method is adopted. The photovoltaic modules are installed only at one end of the flexible photovoltaic bracket (usually at the foot of the mountain or the bank of the pond). The modules only need to be transported to the starting point and installed at the starting point, at the foot of the mountain or the bank of the pond, etc., where the installation is convenient. There is no need to transport the modules to the pond or the mountain separately. This avoids the transportation and installation difficulties of the traditional flexible bracket installed on the cable, greatly improves the installation efficiency and safety, and reduces the installation cost.
[0026] 2. Installing a guide rail assembly under the photovoltaic module has the following beneficial effects: (1) Under the guidance of the guide rail assembly, the photovoltaic module can smoothly pass through the supporting fixed pulley under the action of traction, and the supporting fixed pulley can also play the role of lateral positioning of the photovoltaic module. (2) When the photovoltaic module passes through the supporting fixed pulley, due to the large tension of the cable, if the pulley directly contacts the photovoltaic module, it may damage the structure of the photovoltaic module. The guide rail assembly is set up to bear the force of the cable and the pulley, thereby avoiding damage to the photovoltaic module.
[0027] 3. Furthermore, the guide rail assembly adopts an I-shaped snap connection technology. The clearance height of the I-shaped snap is greater than the height of the fixed pulley slot, which is convenient for installation and connection. It can not only lock the assembly cable but also enable the entire sliding system to smoothly pass through the supporting fixed pulley slot.
[0028] 4. The technology of installing detachable supporting fixed pulleys on the middle beam and the end beam is adopted. The beneficial effects of this technology are as follows: (1) The supporting fixed pulley can prevent the photovoltaic module from colliding with the beam when crossing the beam; (2) After the traction is completed, the supporting fixed pulley and the pulley bracket can be removed and reused; (3) After the supporting fixed pulley and the pulley bracket are removed, the module rope falls onto the beam, and the module rope is permanently fixed to the beam, which makes it very convenient to switch from a temporary traction state to a permanent fixed state. BRIEF DESCRIPTION OF THE DRAWINGS
[0029] Figure 1 It is a schematic diagram of the component traction type installation system and installation method of the present invention.
[0030] Figure 2 A plan view of a photovoltaic module with a rail assembly installed for the present invention.
[0031] Figure 3 A cross-sectional view of a photovoltaic module with a rail assembly installed according to the present invention.
[0032] Figure 4A front view of a photovoltaic assembly with a guide rail assembly installed according to the present invention.
[0033] Figure 5 It is a schematic diagram of the photovoltaic assembly of the present invention through the support fixed pulley.
[0034] Figure 6 It is a front view of the guide rail type connection assembly of the present invention.
[0035] Figure 7 It is a bottom view of the guide rail type connection assembly of the present invention.
[0036] Figure 8 It is a schematic diagram of the connection between the guide rail type connection assembly and the photovoltaic assembly of the present invention.
[0037] Fig. 9 It is a schematic diagram of the connection between the guide rail type connection component and the component cable of the present invention.
[0038] Fig.10 It is a schematic diagram of the connection between the guide rail type connection assembly and the longitudinal beam and the cooperation with the assembly cable of the present invention.
[0039] Fig.11 It is a front view of the T-shaped connecting member of the present invention.
[0040] Fig.12 It is a side view of the T-shaped connecting member of the present invention.
[0041] Fig.13 It is a side view of the I-shaped buckle of the present invention.
[0042] Fig.14 It is a front view of the X-shaped buckle of the present invention.
[0043] Fig.15 It is a side view of the supporting fixed pulley of the present invention.
[0044] Fig.16 It is a front view of the supporting fixed pulley of the present invention.
[0045] Fig.17 It is a schematic diagram of the connection between the middle cross beam and the connecting plate of the present invention.
[0046] Fig.18 It is a schematic diagram of the connection between the middle cross beam and the supporting fixed pulley of the present invention.
[0047] Fig.19 This is a plan view of the installation of the supporting fixed pulley on the middle cross beam of the present invention.
[0048] Fig. 20 It is a schematic diagram of the cooperation between the supporting fixed pulley and the traction rope on the middle cross beam of the present invention.
[0049] Fig.21This is a front view of the permanent fixed state of the component cable and the intermediate cross beam of the present invention.
[0050] Fig. 22 It is a side view of the permanent fixing state of the component cable and the intermediate cross beam of the present invention.
[0051] Fig.23 It is a schematic diagram of the cooperation between the supporting fixed pulley and the traction rope on the rear end cross beam of the present invention.
[0052] Fig.24 It is a schematic diagram of temporarily fixing the component cable on the rear end cross beam of the present invention.
[0053] Fig.25 It is a schematic diagram of the permanent anchoring assembly cable on the rear end cross beam of the present invention. DETAILED DESCRIPTION
[0054] In order to make the purpose, technical solution and advantages of the present invention clearer, a component traction installation method of a three-span flexible photovoltaic bracket is listed below, and the technical solution of the present invention is clearly and completely described in conjunction with the accompanying drawings. The three-span flexible photovoltaic bracket, in which the columns adopt pile foundations. It is easy to understand that the technical solution of the present invention can be applied to different span numbers and different foundation types, all of which belong to the scope of protection of the present invention.
[0055] As shown in the accompanying drawings, the present invention provides a component traction installation system combined with a flexible photovoltaic support, including a traction system, a traction cable 2, a support system, a guide rail assembly 8 and a component cable installation assembly;
[0056] The traction system includes a winch 5 and a traction winch 1, and the two ends of the traction rope 2 are respectively connected to the winch 5 and the traction winch 1, and a section of the traction rope 2 is used as a component rope 3. The guide rail assembly is installed at the bottom of the photovoltaic module 4; the guide rail assembly 8 includes a pre-installed part and an on-site installation part, and the on-site installation part cooperates with the pre-installed part to connect the guide rail assembly and the component rope 3 together.
[0057] The support system includes a front column 11 located at the front end and a rear column 12 located at the rear end, and one or more intermediate columns 13 located between the front column 11 and the rear column 12. The front column and the rear column are respectively connected to the front cross beam and the rear cross beam 92, and the intermediate column is connected to the intermediate cross beam 93.
[0058] Taking the setting of this embodiment and the three-span flexible photovoltaic support on the hillside as an example, in addition to the front column 11 and the rear column 12, there are also two middle columns 13, which are arranged according to the traction route. The traction route passes through the designed location of the photovoltaic component 4. Correspondingly, in addition to the front beam and the rear beam 92, there are also two middle beams 93.
[0059] The support system also includes a support fixed pulley 61, which is removably fixed to the front crossbeam, the rear crossbeam 92 and the middle crossbeam 93 along the photovoltaic module traction line, and the guide rail assembly is provided with a lower end matching portion 815 that matches with the pulley groove 610 in the support fixed pulley 61; the setting height of the support fixed pulley 61 satisfies that the photovoltaic module 4 can pass over the middle crossbeam 93 without touching the middle crossbeam 93 when being towed and moved, and after the support fixed pulley 61 is removed, the module cable 3 can be supported by leaning on the middle crossbeam 93;
[0060] The component cable installation assembly comprises a component cable anchoring assembly and a component cable positioning assembly connected to the middle cross beam or to a structure fixed to the middle cross beam.
[0061] The front cross beam and the rear cross beam 92 are respectively provided with holes 91, and the traction rope 2 passes through the holes 9491. The front cross beam 91 and the rear cross beam 92 also serve as anchoring support structures. The anchoring assembly is fixed at the front end of the hole on the front cross beam and the rear end of the hole 91 on the rear cross beam 92. The anchoring assembly includes an anchoring plate 76 and an anchor 77. Fig.23 , Fig.24 and Fig.25 The figure shows the rear end cross beam 92 with holes 91 and the coordination with the anchoring assembly, and the front end cross beam also adopts a similar solution.
[0062] Each photovoltaic module 4 has two module cables 3 and two sets of guide rail modules 8 corresponding to the two module cables.
[0063] The pre-installation part is provided with a photovoltaic component support structure that cooperates with the component cable 3, and the photovoltaic component support structure is provided with a groove 813 that matches the component cable. The photovoltaic component support structure and the photovoltaic component 4 can be connected by bolts. In this embodiment, the top connecting plate of the T-shaped connecting member 811 described below is bolted to the photovoltaic component 4. The on-site installation part includes a locking structure, and the lower end of the locking structure is set as a lower end matching part 815.
[0064] The guide rail assembly includes a guide rail type connection assembly 81 located at both ends, and the guide rail type connection assembly includes a T-shaped connection member 811 and the locking structure 812 matched with the T-shaped connection member; the T-shaped connection member 811 is composed of a top connection plate and a vertical plate, and the top connection plate and the vertical plate are both steel plates; the T-shaped connection member 811 is used for the photovoltaic component support structure, and the bottom of the vertical plate of the T-shaped connection member 811 is provided with the groove 813 matched with the component cable 3;
[0065] The locking structure 812 can be formed into an I-shaped snap-on by bending a metal plate, and the I-shaped snap-on includes a groove structure 814 and connecting parts 816 located on both sides of the groove notch. The height of the groove structure 814 matches the sum of the height of the vertical plate of the T-shaped connecting member 811 and the height of the component cable 3 protruding from the groove 813. The connecting part 816 is connected to the top plate connecting plate of the T-shaped connecting member 811 by bolts. The vertical plate of the T-shaped connecting member 811 is wrapped by the groove structure 814. The component cable 3 is located between the bottom of the vertical plate of the T-shaped connecting member 811 and the bottom of the groove of the groove structure 814 and is clamped. The groove width of the groove structure 814 is consistent with the diameter of the component cable 3, and the groove width of the pulley groove 610 is greater than the outer width of the groove structure. The bottom of the groove structure 814 is also arc-shaped. Therefore, the outer side of the groove structure 814 is the lower end matching part 815 that matches the pulley groove 610 and can pass through the pulley groove 610.
[0066] The longitudinal beam 82 is connected between the T-shaped connecting members 811 in the guide rail type connecting components at both ends. The cross-section of the longitudinal beam 82 can also be T-shaped, and its top connecting plate is connected to the top connecting plate of the T-shaped connecting member 811. The lower end of the vertical plate of the longitudinal beam 82 abuts against the component cable 3.
[0067] The supporting fixed pulley 61 is connected to the cross beam through the pulley bracket 62. The connecting plate 64 is welded to the middle cross beam 93, and the connecting plates 66 are welded to the front cross beam and the rear cross beam 92. Holes are respectively formed on the connecting plates 64 and 66, and are connected to the elongated connecting holes 621 on the pulley bracket 62 by bolts.
[0068] The setting height of the supporting fixed pulley 61 on the middle crossbeam 93 is higher than the top surface of the middle crossbeam 93, and the setting height of the supporting fixed pulley 61 on the front crossbeam and the rear crossbeam 92 is slightly higher than the bottom edge of the hole 91, so that the photovoltaic components, guide rail components and component cables will not collide with the middle crossbeam 93.
[0069] A temporary fixing assembly for the component cable may be provided on the front cross beam and the rear cross beam 92, and the temporary fixing assembly includes a cable connecting plate 75 and a U-bolt 78. After the traction is completed, the component cable 3 is tensioned to make the component cable 3 reach a predetermined tensioning force. After the tensioning is completed, the component cable 3 and the cable connecting plate 75 are temporarily fixed by the U-bolt 78; after the component cable 3 is temporarily fixed, all supporting fixed pulleys 61 (including the pulley brackets thereof) are removed, and the component cable 3 falls onto the middle cross beam 93, and the U-bolt 65 is installed on the component cable 3, and the U-bolt 65 is used as a component cable positioning assembly to permanently fix the component cable 3 and the middle cross beam 93. Cut off the excess component cable 3, leaving only the anchoring length, then install the anchor plate 76 and the anchor 77 at the front end of the hole of the front cross beam and the rear end of the hole 9491 of the rear end cross beam 92 to permanently anchor the component cable 3 to the front cross beam and the rear end cross beam 92. After anchoring, loosen the U-bolt 78 on the cable connecting plate 75 to tighten the anchoring end, and then tighten the U-bolt 78 again to prevent the anchor from loosening.
[0070] The traction-type installation method of the components of the present invention, after the traction system, traction rope 2, and support system are installed, the following steps are used to install the photovoltaic components:
[0071] Step 1, at the starting point of the traction route (generally at the foot of a hillside or the bank of a pond), the photovoltaic components connected to the pre-installed part are installed one by one on the traction rope serving as the component rope behind the front crossbeam according to the designed spacing of the photovoltaic components 4 by connecting the on-site installation part; further, according to the size of the installation site at the starting point, the traction winch 1 can be started in batches to move the photovoltaic components 4 installed on the traction rope serving as the component rope forward a certain distance, supplement the traction rope of the component rope behind the front crossbeam, and install subsequent photovoltaic components 4 at the starting point.
[0072] Step 2: After all the photovoltaic modules 4 to be connected to the module rope are connected to the module rope 3, the traction winch 1 is started again, and the photovoltaic modules 4 on the module rope move forward together with the traction rope 2; the photovoltaic modules 4 equipped with the guide rail module cross the supporting fixed pulley 61 on the middle beam until they reach the designed location of the photovoltaic modules 4;
[0073] Step 3: Apply tension to the component cable 3 to tension the component cable; after tensioning, temporarily fix the component cable 3 on the front crossbeam and the rear crossbeam 92; remove the traction winch 1 and the capstan 5, and cut off the traction cable 2; remove the supporting fixed pulley 61 on the middle crossbeam 93, the front crossbeam and the rear crossbeam 92;
[0074] Step 4: Install the component cable anchoring components on the front cross beam and the rear cross beam 92 to permanently anchor them, and install the component cable positioning components on the middle cross beam 93 to permanently fix the component cables. The installation is completed.
[0075] The above embodiment is only a preferred technical solution of the present invention. Those skilled in the art should understand that the technical solutions or parameters in the embodiments can be modified or replaced without departing from the principle and essence of the present invention, and all should be covered within the protection scope of the present invention.
Claims
1. A component traction installation system combined with a flexible photovoltaic support, characterized in that: It includes a traction system, a traction rope, a support system, a guide rail assembly and a component rope installation assembly; The traction system includes a capstan and a traction winch, the two ends of the traction rope are respectively connected to the capstan and the traction winch, and a section of the traction rope is used as a component rope; The guide rail assembly is installed at the bottom of the photovoltaic assembly; the guide rail assembly includes a pre-installed part and an on-site installation part, and the on-site installation part cooperates with the pre-installed part to connect the guide rail assembly and the assembly cable together; The support system comprises a front column located at the front end and a rear column located at the rear end, and one or more middle columns located between the front column and the rear column, the front column and the rear column are respectively connected to the front cross beam and the rear cross beam, and the middle column is connected to the middle cross beam; The support system further comprises a support fixed pulley, which is removably fixed to the front crossbeam, the rear crossbeam and the middle crossbeam along the photovoltaic module traction line, and the guide rail assembly is provided with a lower end matching portion that matches with the pulley groove in the support fixed pulley; the setting height of the support fixed pulley satisfies that the photovoltaic module can pass over the middle crossbeam without touching the middle crossbeam when being towed and moved, and after the support fixed pulley is removed, the module cable can be supported by leaning on the middle crossbeam; The component cable installation assembly includes a component cable anchoring assembly and a component cable positioning assembly connected to the middle cross beam or to a structure fixed to the middle cross beam; The front cross beam and the rear cross beam are respectively provided with holes, and the traction rope passes through the holes. The front cross beam and the rear cross beam also serve as anchoring support structures, and the anchoring assembly is fixed at the front end of the hole on the front cross beam and the rear end of the hole on the rear cross beam respectively; Each photovoltaic module has two module cables, and two sets of guide rail modules corresponding to the two module cables; the pre-installation part is provided with a photovoltaic module support structure matched with the module cables, the photovoltaic module support structure is provided with a groove matching with the module cables, the photovoltaic module support structure is connected with the photovoltaic module, the on-site installation part includes a locking structure connected with the photovoltaic module or the photovoltaic module support structure, and the lower end of the locking structure is provided as the lower end matching part; The guide rail assembly includes a guide rail type connection assembly located at both ends; the guide rail type connection assembly includes a T-shaped connection member and the locking structure matched with the T-shaped connection member; the T-shaped connection member is used for the photovoltaic component support structure, and the bottom of the vertical plate of the T-shaped connection member is provided with the groove matched with the component cable; the locking structure includes a groove structure and connection parts located on both sides of the groove notch, the connection parts are connected to the photovoltaic component or the structure fixedly connected to the photovoltaic component, the vertical plate of the T-shaped connection member is covered by the groove structure, the component cable is located between the bottom of the vertical plate of the T-shaped connection member and the bottom of the groove structure and is clamped, and the outer side of the groove structure is the lower end matching part matching with the pulley groove; The longitudinal beams are connected between the T-shaped connecting members in the guide rail type connecting assemblies at both ends.
2. A component traction installation system combined with a flexible photovoltaic support as claimed in claim 1, characterized in that: The lower end mating portion is located on the pre-installed portion.
3. A photovoltaic module traction installation method based on the module traction installation system of claim 1, characterized in that: Install the component traction installation system of claim 1 in the construction area, wherein the front column, the rear column and the middle column are arranged according to a traction route, and the traction route passes through the designed location of the photovoltaic component; assemble the pre-installed part of the guide rail assembly and the photovoltaic component together in the factory or on site; the method also includes the following construction steps: Step 1: at the starting point of the traction route, the photovoltaic modules connected to the pre-installed parts are installed one by one on the traction rope serving as the assembly rope behind the front crossbeam by connecting the on-site installation parts according to the designed spacing of the photovoltaic modules; Step 2: After all the photovoltaic modules to be connected to the module rope are connected to the module rope, the traction winch is started again, and the photovoltaic modules on the module rope move forward together with the traction rope; the photovoltaic modules installed with the guide rail modules cross the supporting fixed pulley on the middle beam until they reach the designed location of the photovoltaic modules; Step 3: Apply tension to the component cable to tension the component cable; after tensioning, temporarily fix the component cable on the front crossbeam and the rear crossbeam; cut off the traction cable; remove the supporting fixed pulleys on the middle crossbeam, the front crossbeam and the rear crossbeam; Step 4: Install the component cable anchoring components on the front crossbeam and the rear crossbeam to permanently anchor them, and install the component cable positioning components on the middle crossbeam to permanently fix the component cables. The installation is complete.
4. The photovoltaic module traction installation method according to claim 3, characterized in that: In step 1, according to the size of the installation site at the starting point, the traction winch is started in batches to move the photovoltaic components installed on the traction rope serving as the component rope forward a certain distance, and the traction rope of the component rope is supplemented behind the front crossbeam to install subsequent photovoltaic components at the starting point.
Citation Information
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