Mud flat photovoltaic material conveying system

Abstract

The utility model discloses a tidal flat photovoltaic material conveying system which comprises a supporting device at least extending from the land side to the water surface side; the conveying device is arranged on the supporting device, the conveying device comprises a first direction sliding rail, a sliding movable beam and a fixing piece, the first direction sliding rail is arranged on the supporting device and extends to the water surface side from the land side, and the sliding movable beam is matched with the first direction sliding rail through a first tackle; the fixing piece is connected to the sliding movable beam and used for fixing materials to be carried. According to the tidal flat photovoltaic material conveying system, the road-to-sea transportation mode is achieved, bulk and even large materials can be transferred conveniently and rapidly, compared with tower crane transferring, the transferring process is point-to-point route transferring, compared with tower crane swinging transferring, the stability of the transferring process is higher, and the transferring efficiency is improved. The transfer speed control stability does not need to be reduced, and higher transfer efficiency is achieved.

Description

Technical Field

[0001] This application relates to the field of marine photovoltaic technology, and more specifically, to a tidal flat photovoltaic material conveying system. Background Technology

[0002] Offshore photovoltaics (PV) is a renewable energy technology that deploys solar photovoltaic power generation systems in water bodies such as oceans, lakes, or reservoirs. It combines photovoltaic power generation with marine engineering and has become an important area of ​​exploration in the global new energy field in recent years. Tidal flat PV is a solar energy technology that deploys photovoltaic power generation systems in coastal or lakeside areas such as intertidal zones and tidal flats. These areas, situated between land and water, are periodically submerged by tides, presenting unique development conditions and challenges.

[0003] Because tidal flat photovoltaic (TPV) systems are close to the shore and have the most similar environment to onshore TPV systems, they are easier to construct and deploy compared to offshore TPV systems. Therefore, tidal flat TPV systems were the first type of offshore TPV systems developed. The biggest challenge in tidal flat development is offshore construction, especially the transportation of materials. Since tidal flat TPV systems adopt the structural form of onshore TPV systems—PHC (pre-stressed high-strength concrete) pipe piles plus loose support structures—a large amount of materials needs to be transported to the sea. The practical difficulty is that tidal flat TPV systems often operate between water and dry conditions, and there is no corresponding equipment for large-scale transportation, especially transportation from the shore to the tidal flat area, which is extremely difficult.

[0004] The current construction method involves building tower cranes (or crawler cranes) on the shore to transport goods from land to sea, but the transfer efficiency is low, which greatly affects the construction period at sea.

[0005] Therefore, how to realize road-to-sea transportation and improve transshipment efficiency is a problem that urgently needs to be solved by those skilled in the art. Utility Model Content

[0006] In view of this, the purpose of this application is to provide a tidal flat photovoltaic material conveying system that enables land-to-sea transportation and improves transshipment efficiency.

[0007] To achieve the above objectives, this application provides the following technical solution:

[0008] The first aspect of this application provides a tidal flat photovoltaic material conveying system, comprising:

[0009] The support structure extends at least from the land side to the water side;

[0010] A conveying device is mounted on the supporting device. The conveying device includes a first directional slide rail, a sliding movable beam, and a fixing member. The first directional slide rail is mounted on the supporting device and extends from the land side to the water side. The sliding movable beam cooperates with the first directional slide rail via a first trolley. The fixing member is connected to the sliding movable beam and is used to fix the material to be transported.

[0011] In one possible implementation, the first directional slide rail consists of two parallel rails, and the sliding movable beam is provided with two suspension arms, with the first trolley mounted on the top of the suspension arms.

[0012] In one possible implementation, there are at least two sliding movable beams, wherein the fixing elements on at least two sliding movable beams are used to fix different parts of the material to be transported.

[0013] In one possible implementation, a second directional slide rail is provided on the sliding movable beam, and the second directional slide rail is perpendicular to the first directional slide rail;

[0014] The fixing member is connected to the sliding movable beam via a second trolley, and the second trolley cooperates with the second direction slide rail.

[0015] In one possible implementation, at least two second trolleys are provided on the second directional slide rail, and each second trolley is provided with the fixing member.

[0016] In one possible implementation, both ends of the second directional slide rail are provided with limiting members to restrict the position of the second trolley;

[0017] And / or,

[0018] The second pulley is a pulley with a moving power.

[0019] In one possible implementation, both the first directional slide rail and the second directional slide rail include a support rod, a connecting plate, and a support bracket. The support rod is disposed on the support device, and the connecting plate connects the support rod and the support bracket.

[0020] Both the first trolley and the second trolley include a base plate, a mounting plate, and pulleys. There are two mounting plates, which are arranged in a parallel shape on the base plate. Each mounting plate is rotatably provided with a pulley. A slot is formed between the two pulleys to cooperate with the connecting plate. The pulley rolls in cooperation with the support plate.

[0021] In one possible implementation, a traction device is also included to reciprocate the sliding movable beam along the slide rail in the first direction.

[0022] or,

[0023] The first pulley is a pulley with propulsion.

[0024] In one possible implementation, the support device includes a support frame and a support column supporting the support frame, with the first directional slide rail disposed on the support frame.

[0025] In one possible implementation, the support frame includes:

[0026] At least two truss longitudinal beams extending from the land side to the water side;

[0027] Multiple truss beams are arranged at intervals, and the truss beams connect to each of the truss longitudinal beams;

[0028] Truss bracing that connects the longitudinal beams and the transverse beams of the truss.

[0029] In one possible implementation, at least one set of the support columns extends above the support frame and is connected to the support frame by a stay cable;

[0030] Two support columns arranged symmetrically along the support frame constitute a set of support columns.

[0031] In one possible implementation, the height of the first directional slide rail gradually decreases along the direction from the land side to the water side.

[0032] The tidal flat photovoltaic material conveying system provided in this application includes a support device and a conveying device. The support device provides a conveying route for the conveying device. The support device extends at least from the land side to the water side, thus enabling the conveying device to transport materials from the land side to the water side and place them on a transport vessel on the water side. Fixing members of the conveying device can secure the materials to be transported. These fixing members are mounted on a sliding movable beam, which can move along a first direction rail via a first trolley, thereby realizing the conveying of the materials. The tidal flat photovoltaic material conveying system provided in this application solves the problem of land-to-sea transportation, enabling the transfer of loose or even large materials. It is convenient and fast. Compared with tower crane transfer, the transfer process in this application is a point-to-point route transfer. Compared with the swing transfer of tower cranes, the transfer process is more stable, does not require reducing the transfer speed to control stability, and has higher transfer efficiency. Attached Figure Description

[0033] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0034] Figure 1 This is a top view of the tidal flat photovoltaic material conveying system disclosed in the embodiments of this application;

[0035] Figure 2 This is a front view of the tidal flat photovoltaic material conveying system disclosed in the embodiments of this application;

[0036] Figure 3 This is a side view of the tidal flat photovoltaic material conveying system disclosed in an embodiment of this application;

[0037] Figure 4 This is an exploded view of the slide rail and trolley disclosed in the embodiments of this application;

[0038] Figure 5 This is an assembly view of the slide rail and trolley disclosed in an embodiment of this application;

[0039] Figure 6 This is a top view of the operation process of the tidal flat photovoltaic material conveying system disclosed in the embodiments of this application;

[0040] Figure 7 This is a front view of the operation process of the tidal flat photovoltaic material conveying system disclosed in the embodiments of this application;

[0041] Figure 8 This is a side view of the operation process of the tidal flat photovoltaic material conveying system disclosed in the embodiments of this application.

[0042] The meanings of the various reference numerals in the figure are as follows:

[0043] 101 - Support column;

[0044] 102-Support frame; 1021-Truss crossbeam; 1022-Truss longitudinal beam; 1023-Truss diagonal brace;

[0045] 103 - Cable-stayed bridge;

[0046] 104-Conveying device; 1041-First direction slide rail; 1042-First trolley; 1043-Sliding movable beam; 1044-Second direction slide rail; 1045-Second trolley; 1046-Fixing component;

[0047] 111-Support rod; 112-Support plate; 113-Connecting plate;

[0048] 121-Mounting plate; 122-Pulley; 123-Base plate; 124-Slot;

[0049] 200 - Materials to be moved;

[0050] 300 - Transport ship. Detailed Implementation

[0051] The core of this application is to provide a tidal flat photovoltaic material conveying system that enables land-to-sea transportation and improves transshipment efficiency.

[0052] Hereinafter, embodiments will be described with reference to the accompanying drawings. Furthermore, the embodiments shown below do not limit the scope of the application as described in the claims. Additionally, the complete composition represented in the embodiments below is not limited to what is necessary as the solution to the application described in the claims. It should be noted that, for ease of description, only the parts relevant to the application are shown in the drawings. Unless otherwise specified, the embodiments and features described in this application can be combined with each other.

[0053] like Figures 1-3 As shown, the tidal flat photovoltaic material conveying system disclosed in this application includes a support device and a conveying device 104. The support device provides an installation foundation for the conveying device 104, and extends at least from the land side to the water side; that is, the support device forms a channel from the shore to the tidal flat area, allowing the conveying device 104 to transport materials 200 (such as...) from the shore. Figure 6 (As shown) is transported to the tidal flat area.

[0054] The conveying device 104 is mounted on the supporting device. The conveying device 104 includes a first direction slide rail 1041, a sliding movable beam 1043, and a fixing member 1046. The first direction slide rail 1041 is mounted on the supporting device and extends from the land side to the water side. The first direction slide rail 1041 guides the movement direction of the sliding movable beam 1043, so the direction and route of the first direction slide rail 1041 can be designed according to the required route.

[0055] The sliding movable beam 1043 is connected to the first directional slide rail 1041 via a first trolley 1042. That is, the first trolley 1042 is mounted on the sliding movable beam 1043 and engages with the first directional slide rail 1041, meaning that the first trolley 1042 can reciprocate along the first directional slide rail 1041, thereby driving the sliding movable beam 1043 to reciprocate along the first directional slide rail 1041.

[0056] The fixing element 1046 is connected to the sliding movable beam 1043 and is used to fix the material 200 to be transported. The material 200 to be transported can be PHC pipe piles, bulk supports, etc., but is not limited to PHC pipe piles and bulk supports; it can be any other material that needs to be transferred. When it is necessary to transfer the material 200, the fixing element 1046 can be used to fix the material 200 to be transported. When the sliding movable beam 1043 moves along the first direction slide rail 1041, the material 200 to be transported will move along with it under the action of the fixing element 1046.

[0057] It should be noted that, depending on the structure of the material 200 to be transported, a corresponding fastener 1046 can be selected to secure the material 200. The fastener 1046 includes, but is not limited to, wire ropes, clamp assemblies, hooks, etc.

[0058] like Figures 6-8 As shown, when it is necessary to move the material 200 to be transported from the shore to the transport vessel 300 on the water side, the transport vessel 300 can be moored at the corresponding position on the water side. The sliding movable beam 1043 moves along the first direction slide rail 1041 via the first trolley 1042 to the material placement area on the land side, and fixes the material 200 to be transported to the fixing member 1046. Then, the sliding movable beam 1043 is moved to the water side, and the material 200 to be transported is removed from the fixing member 1046 and placed on the transport vessel 300. After the removal of the material 200 to be transported is completed, the sliding movable beam 1043 moves again along the first direction slide rail 1041 via the first trolley 1042 to the material placement area on the land side for the transfer of the next material 200 to be transported.

[0059] The tidal flat photovoltaic material conveying system disclosed in this application includes a support device and a conveying device 104. The support device provides a conveying route for the conveying device 104. The support device extends at least from the land side to the water side, thus enabling the conveying device 104 to transport the material 200 to be transported from the land side to the water side and place the material 200 on the transport vessel 300 on the water side. The fixing member 1046 of the conveying device 104 can fix the material 200 to be transported. The fixing member 1046 is provided on a sliding movable beam 1043, which can move along a first direction slide rail 1041 via a first trolley 1042, thereby realizing the conveying of the material 200 to be transported. The tidal flat photovoltaic material conveying system disclosed in this application solves the problem of road-to-sea transportation, enabling the transfer of loose or even large materials in a convenient and fast manner. Compared with tower crane transfer, the transfer process of this application is a point-to-point route transfer. Compared with the swing transfer of tower crane, the transfer process of this application has higher stability, does not require reducing the transfer speed to control stability, and has higher transfer efficiency.

[0060] To improve the stability of the sliding movable beam 1043, in this embodiment, two first-direction slide rails 1041 are arranged in parallel, and two suspension arms are provided on the sliding movable beam 1043. A first trolley 1042 is provided at the top of each suspension arm. For example, suspension arms can be respectively provided on the upper sides of both ends of the sliding movable beam 1043, and a first trolley 1042 is provided at the top of each suspension arm. The two first trolleys 1042 respectively cooperate with the two first-direction slide rails 1041. In this embodiment, the sliding movable beam 1043 is connected to the support device through two suspension points (i.e., two suspension arms), and the two suspension points are located at both ends of the sliding movable beam 1043. This allows the weight of the material to be transported 200 to be distributed onto the support device through the two suspension arms when the weight of the material to be transported 200 acts on the sliding movable beam 1043, resulting in a more balanced force distribution and improving the service life of the tidal flat photovoltaic material conveying system.

[0061] Because PHC pipe piles are relatively long, when the fixing member 1046 is used to fix the PHC pipe pile, it is easy for the PHC pipe pile to become tilted due to the imbalance of the center of gravity of the PHC pipe pile. In severe cases, it may lead to fixing failure and cause the PHC pipe pile to fall. Based on this, in order to facilitate the fixing of long materials to be transported 200, in this embodiment, there are at least two sliding movable beams 1043, and the fixing members 1046 on at least two sliding movable beams 1043 are used to fix different parts of the materials to be transported 200.

[0062] Taking two sliding movable beams 1043 as an example, the fixing members 1046 on the two sliding movable beams 1043 can be fixed to different parts of the material to be transported 200, thereby enabling the setting of fixing points over a relatively large length range. Specifically, the spacing between the two sliding movable beams 1043 can be controlled according to the length of the material to be transported 200, so that the fixing members 1046 on the two sliding movable beams 1043 are respectively fixed at positions near the ends of the material to be transported 200. For example, if the fixing member 1046 on one sliding movable beam 1043 is fixed at the first end of the material to be transported 200, then the fixing member 1046 on the other sliding movable beam 1043 is fixed at the second end of the material to be transported 200 (the first end and the second end are the two ends of the material to be transported 200). It should be noted that the first end and the second end here do not refer to the ends, but rather to a length range near the ends. This arrangement can prevent the material to be transported 200 from deflecting during movement, which could lead to fixing failure.

[0063] During material transfer, the transport vessel 300 will dock below the supporting device on the water surface side. The transport vessel 300 will load multiple materials 200 to be transported. Once full, it will depart from the docking area. Taking the material 200 to be transported as a PHC pipe pile as an example, the conveying device 104 will transport the PHC pipe pile from the material placement area on the land side to the docking area of ​​the transport vessel 300. Since multiple PHC pipe piles need to be placed sequentially in the width direction of the transport vessel 300, the transported PHC pipe piles need to be adjusted in the width direction of the vessel so that they can be placed in the corresponding positions on the transport vessel 300.

[0064] Based on this, such as Figure 3 As shown in a specific embodiment of this application, a second directional slide rail 1044 is provided on the sliding movable beam 1043, and the second directional slide rail 1044 is perpendicular to the first directional slide rail 1041. A fixing member 1046 is connected to the sliding movable beam 1043 via a second trolley 1045, which cooperates with the second directional slide rail 1044. That is, the fixing member 1046 is disposed on the second trolley 1045, and the second trolley 1045 can reciprocate along the second directional slide rail 1044, thereby driving the fixing member 1046 to reciprocate along the second directional slide rail 1044.

[0065] When it is necessary to transfer the material to be transported 200, the material to be transported 200 can be fixed by the fixing member 1046. When the sliding movable beam 1043 moves along the first direction slide rail 1041, the material to be transported 200 will move along with it under the action of the fixing member 1046. When the sliding movable beam 1043 moves to the water surface side and the material to be transported 200 is above the transport ship 300, the fixing member 1046 moves along the second direction slide rail 1044 through the second trolley 1045 to adjust the position of the material to be transported 200 in the width direction of the transport ship 300. After adjusting to a suitable position, the material to be transported 200 can be removed from the fixing member 1046 and placed in the corresponding position on the transport ship 300.

[0066] To improve transfer efficiency, at least two second trolleys 1045 are provided on the second directional slide rail 1044, and each second trolley 1045 is equipped with a fixing member 1046. Each second trolley 1045 can be loaded with one material 200 to be transported. When multiple second trolleys 1045 are provided, multiple materials 200 to be transported can be transferred simultaneously, allowing multiple materials 200 to be transported to be transported simultaneously in one transfer process. It should be noted that the fixing members 1046 on multiple second trolleys 1045 can also be used to fix one material 200 to be transported at the same time. This embodiment does not limit the actual application method of the user. Those skilled in the art can selectively transfer multiple materials 200 to be transported at one time to improve transfer efficiency; or they can transfer only one material 200 to be transported at a time and fix the material 200 to be transported by the fixing members 1046 on multiple second trolleys 1045 to improve the fixing strength.

[0067] Since the length of the second directional slide rail 1044 is significantly shorter than the length of the first directional slide rail 1041, there is a risk that the second trolley 1045 may slide off the second directional slide rail 1044. To prevent the second trolley 1045 from sliding off the second directional slide rail 1044, in this embodiment, limiting members are provided at both ends of the second directional slide rail 1044 to restrict the position of the second trolley 1045. The limiting members can restrict the movement of the second trolley 1045, that is, define the movement boundary of the second trolley 1045, preventing the second trolley 1045 from detaching from the second directional slide rail 1044.

[0068] The first trolley 1042 and the second trolley 1045 can both be trolleys with walking power. The first trolley 1042 and the second trolley 1045 can both move on the first direction slide rail 1041 and the second direction slide rail 1044 by a drive motor device.

[0069] It should be noted that an external traction device can also be installed to pull the sliding movable beam 1043 back and forth along the first direction slide rail 1041. For example, a traction device can be installed on the support device, which can wind a steel wire rope, one end of which is fixed to the sliding movable beam 1043. By winding the steel wire rope, the sliding movable beam 1043 can also be pulled back and forth along the first direction slide rail 1041. Correspondingly, a traction device capable of pulling the second trolley 1045 back and forth along the second direction slide rail 1044 can also be installed on the sliding movable beam 1043.

[0070] like Figure 4 and Figure 5As shown, both the first direction slide rail 1041 and the second direction slide rail 1044 include a support rod 111, a connecting plate 113, and a support support plate 112. The support rod 111 is disposed on the support device. The support rod 111 can be a solid structure or a hollow tubular structure. Its outer contour can be polygonal or circular. In this embodiment, the shape or structure of the support rod 111 is not limited.

[0071] The connecting plate 113 is connected between the support rod 111 and the support plate 112. The surface of the support plate 112 can be perpendicular to the surface of the connecting plate 113, and the connecting plate 113 can be connected in the middle of the support plate 112, so that the connecting plate 113 divides the support plate 112 into two parts.

[0072] The first trolley 1042 and the second trolley 1045 both include a base plate 123, a mounting plate 121, and pulleys 122. There are two mounting plates 121, which are arranged in a parallel shape on the base plate 123. Each mounting plate 121 is rotatably equipped with a pulley 122. A slot 124 is formed between the two pulleys 122 to cooperate with the connecting plate 113. The pulleys 122 roll in cooperation with the support plate 112. The mounting plates 121 can be arranged symmetrically along the center line of the base plate 123. The two pulleys 122 are arranged between the two mounting plates 121, and a gap is maintained between the two pulleys 122. The connecting plate 113 is located at the gap between the two pulleys 122, that is, at the position of the slot 124, which can restrict the movement of the first trolley 1042 and the second trolley 1045 along the axial direction of the pulleys 122. That is, the two pulleys 122 are located on both sides of the connecting plate 113. The connecting plate 113 can restrict the position of the pulleys 122. That is, when the first trolley 1042 and the second trolley 1045 move to the left, the pulley 122 on the right side will interfere with and abut against the connecting plate 113; correspondingly, when the first trolley 1042 and the second trolley 1045 move to the right, the pulley 122 on the left side will interfere with and abut against the connecting plate 113, thereby restricting the range of movement of the pulleys 122 in the axial direction and preventing the pulleys 122 from disengaging from the supporting plate 112.

[0073] When the first trolley 1042 and the second trolley 1045 are trolleys with walking power, at least one of the two pulleys 122 is a pulley 122 driven to rotate by a drive motor device, so that the first trolley 1042 and the second trolley 1045 can have walking function.

[0074] When the first trolley 1042 and the second trolley 1045 are trolleys without walking power, neither pulley 122 may be equipped with a drive motor, and the sliding movable beam 1043 and the fixed member 1046 may be pulled by external equipment.

[0075] like Figure 1 and Figure 2As shown in a specific embodiment of this application, the support device may include a support frame 102 and support columns 101 supporting the support frame 102. A first direction slide rail 1041 is disposed on the support frame 102. The support columns 101 are arranged at intervals along the transfer route to support the support frame 102 and raise the height of the support frame 102, facilitating the transport of the material to be transported 200 at a high level and avoiding interference between other structures on the transfer route and the material to be transported 200.

[0076] Furthermore, the support frame 102 may include truss longitudinal beams 1022, truss crossbeams 1021, and truss diagonal braces 1023. There are at least two truss longitudinal beams 1022, extending from the land side to the water side. The truss crossbeams 1021 connect the various truss longitudinal beams 1022, and there are multiple truss crossbeams 1021 arranged at intervals. The spacing between the various truss crossbeams 1021 can be designed to be equal or unequal, depending on requirements.

[0077] The truss brace 1023 connects the truss longitudinal beam 1022 and the truss transverse beam 1021 respectively, so as to strengthen the connection between the truss longitudinal beam 1022 and the truss transverse beam 1021 and improve the connection strength of the support frame 102.

[0078] The frame structure composed of truss longitudinal beams 1022, truss transverse beams 1021 and truss diagonal braces 1023 can be arranged in multiple layers along the height direction. Adjacent frames are connected by connecting rods to further increase the rigidity of the support frame 102 and prevent deformation under the gravity of the material to be transported 200.

[0079] In one specific embodiment of this application, at least one set of support columns 101 extends above the support frame 102 and is connected to the support frame 102 via a stay cable 103. Two support columns 101 symmetrically arranged along the support frame 102 constitute a set of support columns 101. Support columns 101 need to be arranged on both sides of the extension direction of the support frame 102, that is, two support columns 101 are arranged on the same cross-section of the support frame 102, and these two support columns 101 constitute a set of support columns 101.

[0080] If the actual installation environment cannot guarantee the spacing between two adjacent support columns 101, resulting in a large span between two adjacent support columns 101 in some areas, then the support columns 101 in those areas cannot effectively support the support frame 102. In such areas, the top of the support column 101 can extend above the support frame 102, and a stay cable 103 can be connected to the top of the support column 101. The stay cable 103 connects to the support frame 102, providing tension to the support frame 102 and improving the stability of the support frame 102 in large-span areas.

[0081] When the conveying device 104 moves from the land side to the water side, it needs to carry the material 200 to be transported, meaning the conveying device 104 needs to be loaded. However, when moving from the water side to the land side, it is usually in an unloaded state after unloading. In this embodiment, to facilitate the movement of the conveying device 104 from the land side to the water side, the height of the first directional slide rail 1041 along the direction from the land side to the water side is designed to gradually decrease. That is, as the conveying device 104 carries the material 200 to be transported from the land side to the water side, the height of the material 200 gradually decreases, allowing for transport using gravitational potential energy, thereby reducing the power requirements of the traction sliding movable beam 1043. When returning from the water side to the land side, it is in an unloaded state. Even though the center of gravity gradually rises during the movement, since it is unloaded, it will not significantly affect the increase in the power requirements for the movement of the traction sliding movable beam 1043.

[0082] As indicated in this application and claims, unless the context clearly indicates otherwise, the words "a," "an," "a," and / or "the" are not specifically singular and may include the plural. Generally, the terms "comprising" and "including" only indicate the inclusion of expressly identified steps and elements, which do not constitute an exclusive list, and the method or apparatus may also include other steps or elements. An element defined by the phrase "comprising an..." does not exclude the presence of other identical elements in the process, method, product, or apparatus that includes the element.

[0083] In the description of this application, unless otherwise expressly defined, terms such as "setup," "installation," and "connection" should be interpreted broadly, and those skilled in the art can reasonably determine the specific meaning of the above terms in this application in conjunction with the specific content of the technical solution.

[0084] The various embodiments in this specification are described in a progressive manner, with each embodiment focusing on the differences from other embodiments. The same or similar parts between the various embodiments can be referred to each other.

[0085] This document uses specific examples to illustrate the principles and implementation methods of this application. The descriptions of the embodiments above are only for the purpose of helping to understand the method and core ideas of this application. It should be noted that those skilled in the art can make several improvements and modifications to this application without departing from the principles of this application, and these improvements and modifications also fall within the protection scope of the claims of this application.

Claims

1. A tidal flat photovoltaic material conveying system, characterized in that, include: The support structure extends at least from the land side to the water side; A conveying device (104) is mounted on the supporting device. The conveying device (104) includes a first directional slide rail (1041), a sliding movable beam (1043), and a fixing member (1046). The first directional slide rail (1041) is mounted on the supporting device and extends from the land side to the water side. The sliding movable beam (1043) cooperates with the first directional slide rail (1041) through a first trolley (1042). The fixing member (1046) is connected to the sliding movable beam (1043) and is used to fix the material (200) to be transported.

2. The tidal flat photovoltaic material conveying system as described in claim 1, characterized in that, The first directional slide rail (1041) consists of two parallel rails, and the sliding movable beam (1043) is provided with two suspension arms, with the first trolley (1042) provided on the top of the suspension arms.

3. The tidal flat photovoltaic material conveying system as described in claim 1, characterized in that, There are at least two sliding movable beams (1043), and the fasteners (1046) on at least two sliding movable beams (1043) are used to fix different parts of the material to be transported (200).

4. The tidal flat photovoltaic material conveying system as described in any one of claims 1-3, characterized in that, The sliding movable beam (1043) is provided with a second direction slide rail (1044), which is perpendicular to the first direction slide rail (1041); The fixing member (1046) is connected to the sliding movable beam (1043) via a second trolley (1045), and the second trolley (1045) cooperates with the second directional slide rail (1044).

5. The tidal flat photovoltaic material conveying system as described in claim 4, characterized in that, At least two second trolleys (1045) are provided on the second direction slide rail (1044), and each second trolley (1045) is provided with the fixing member (1046).

6. The tidal flat photovoltaic material conveying system as described in claim 4, characterized in that, Both ends of the second directional slide rail (1044) are provided with limiting members to restrict the position of the second trolley (1045); And / or, The second pulley (1045) is a pulley with walking power.

7. The tidal flat photovoltaic material conveying system as described in claim 4, characterized in that, Both the first directional slide rail (1041) and the second directional slide rail (1044) include a support rod (111), a connecting plate (113) and a support plate (112). The support rod (111) is disposed on the support device, and the connecting plate (113) is connected between the support rod (111) and the support plate (112). Both the first trolley (1042) and the second trolley (1045) include a base plate (123), a mounting plate (121), and pulleys (122). There are two mounting plates (121), which are arranged in a parallel shape on the base plate (123). Each mounting plate (121) is rotatably equipped with a pulley (122). A slot (124) is formed between the two pulleys (122) to cooperate with the connecting plate (113). The pulley (122) rolls and cooperates with the support plate (112).

8. The tidal flat photovoltaic material conveying system as described in any one of claims 1-3, characterized in that, It also includes a traction device for reciprocating the sliding movable beam (1043) along the slide rail (1041) in the first direction; or, The first pulley (1042) is a pulley with walking power.

9. The tidal flat photovoltaic material conveying system as described in any one of claims 1-3, characterized in that, The support device includes a support frame (102) and a support column (101) supporting the support frame (102), and the first directional slide rail (1041) is disposed on the support frame (102).

10. The tidal flat photovoltaic material conveying system as described in claim 9, characterized in that, The support frame (102) includes: At least two truss longitudinal beams (1022) extending from the land side to the water side. Multiple truss beams (1021) are arranged at intervals, and the truss beams (1021) connect to each of the truss longitudinal beams (1022). Truss bracing (1023) connecting the truss longitudinal beam (1022) and the truss transverse beam (1021).

11. The tidal flat photovoltaic material conveying system as described in claim 9, characterized in that, At least one set of the support columns (101) extends above the support frame (102) and is connected to the support frame (102) by a cable (103); Two support columns (101) arranged symmetrically along the support frame (102) constitute a set of support columns (101).

12. The tidal flat photovoltaic material conveying system as described in any one of claims 1-3, characterized in that, The height of the first directional slide rail (1041) gradually decreases along the direction from the land side to the water side.

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