Novel climbing conveying equipment adopting photovoltaic tracking power generation
The new type of ramp conveyor equipment, which integrates photovoltaic tracking power generation and power storage technology, solves the problem of traditional equipment's dependence on external power, realizes the efficient use of solar energy and the self-sufficient operation of the equipment, and is suitable for complex environments and remote areas.
Patent Information
- Application Number
- CN202423112070.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-17
- Publication Date
- 2025-12-02
- Estimated Expiration
- 2034-12-17
AI Technical Summary
Traditional ramp conveyor systems rely on external power supplies, increasing operating costs and limiting their use in remote or unreliable power supply areas, lacking self-sufficient energy solutions.
It adopts photovoltaic tracking power generation technology, integrates horizontal and inclined transmission mechanisms, and uses solar energy to provide self-sufficient power. The photovoltaic panels track the sun's position in real time to improve the efficiency of solar energy collection and conversion, and are equipped with power storage devices to ensure continuous operation of the equipment.
It significantly reduces the equipment's dependence on external power, achieves energy self-sufficiency, reduces operating costs, and improves the equipment's applicability and reliability in complex environments.
Smart Images
Figure CN223619439U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of material conveying equipment, and in particular to a novel inclined conveying equipment that uses photovoltaic tracking power generation. Background Technology
[0002] In modern industrial production and logistics, material transport is a crucial link. For scenarios requiring material transfer between different heights, inclined conveyor equipment is indispensable. Traditional inclined conveyor equipment often relies on external power supply, which not only increases operating costs but also limits its use in remote areas or areas with unstable power supply. With the intensification of the energy crisis and the increase in environmental awareness, finding renewable energy sources to replace traditional energy sources has become an urgent task. Solar energy, as a clean and renewable energy source, has broad application prospects. Utility Model Content
[0003] To address some of the problems existing in the prior art, this utility model provides a novel inclined conveying device that uses photovoltaic tracking power generation. This device integrates horizontal conveying, inclined conveying, and photovoltaic tracking power generation technologies, aiming to utilize solar energy for self-sufficient power supply and efficient material conveying.
[0004] To achieve the above objectives, this utility model provides a novel inclined conveying device employing photovoltaic tracking power generation, comprising a device body, which includes a horizontal conveying mechanism, an inclined conveying mechanism, and a tracking power generation mechanism; the inclined conveying mechanism is generally inclined and one end is connected to the horizontal conveying mechanism, both of which are used for material conveying; the tracking power generation mechanism is located outside the horizontal and inclined conveying mechanisms, and connecting pipes are provided between the tracking power generation mechanism and both the horizontal and inclined conveying mechanisms; the tracking power generation mechanism is used to collect solar energy and convert it to power the device through the connecting pipes.
[0005] In operation, the first drive unit of the horizontal conveying mechanism is activated, driving the first conveyor belt on the first roller assembly to rotate via the first gear assembly. Material is placed onto the first conveyor belt from one end of the horizontal frame. The first baffle prevents material from slipping, the upper guide plate assembly guides the material, and the first tensioning device ensures proper tension of the first conveyor belt. Then, the material reaches the end of the horizontal conveying mechanism and enters the inclined conveying mechanism. At this time, the second drive unit is activated, driving the second conveyor belt on the second roller assembly to rotate via the second gear assembly. The second baffle and the adjustable second baffle adjustment bracket prevent material overflow, and the upper anti-slip block prevents material from sliding down. The second tensioning device maintains good tension on the second conveyor belt, allowing materials to be smoothly conveyed upwards. Simultaneously, the tracking power generation mechanism starts working, with the light sensor on the photovoltaic panel monitoring the intensity and direction of sunlight in real time. The main control device controls and adjusts the angle and height of the photovoltaic panel based on the feedback light information, ensuring it is always aligned with the sun to maximize solar energy collection. The collected solar energy is converted into electrical energy, stored in the power storage device within the main control device, and then provides power to the horizontal and inclined conveying mechanisms through connection ports and connecting pipes, ensuring continuous and stable operation of the equipment and achieving energy self-sufficiency and efficient utilization.
[0006] The beneficial effects of this utility model are as follows: This utility model utilizes a tracking power generation mechanism to track the sun's position in real time, ensuring that the photovoltaic panels always maintain the optimal angle for receiving sunlight. This significantly improves the efficiency of solar energy collection and conversion, significantly reduces the equipment's dependence on external power, achieves energy self-sufficiency, effectively saves operating costs, and has significant environmental benefits. Through the optimized design of the horizontal and inclined conveying mechanisms, it can adapt to complex conveying environments, ensuring stable and efficient material conveying. In addition, the inclusion of a power storage device ensures the continuous operation of the equipment when sunlight is insufficient, improving the feasibility of the equipment in remote areas or areas with unstable power supply, thus giving the equipment a wider range of applications and higher practical value.
[0007] As a further improvement of this utility model, in order to improve the accuracy and stability of power transmission and ensure the smooth and stable conveying of materials in the horizontal direction, the horizontal conveying mechanism includes a horizontal frame, on which a first roller assembly is provided at both ends; a first conveyor belt is fitted on the first roller assembly, and a first baffle is installed at both ends of the first conveyor belt; a first baffle fixing frame is provided on the first baffle and fixed by the first baffle fixing frame; a first driving device is provided on the horizontal frame, and a first gear assembly is installed at the output end of the first driving device; the first driving device drives the first conveyor belt to rotate on the first roller assembly through the first gear assembly, and an upper guide plate assembly is provided above the first conveyor belt; a first tensioning device is also provided on the horizontal frame, which is used to adjust the tension of the first conveyor belt.
[0008] As a further improvement of this utility model, in order to meet the material conveying needs between different heights and ensure smooth upward material conveying, it is suitable for material conveying scenarios in complex terrain or multi-layered structures; the inclined conveying mechanism includes an inclined frame, on which second roller assemblies are provided at both ends; a second conveyor belt is fitted on the second roller assembly, and second baffles are installed at both ends of the second conveyor belt; a second baffle adjusting bracket is provided on the outer side of the second baffle, which is used to adjust and fix the position of the second baffle; a second driving device is provided on the inclined frame, and a second gear assembly is installed at the output end of the second driving device; the second driving device drives the second conveyor belt to rotate on the second roller assembly through the second gear assembly, and several upper anti-slip blocks are evenly arranged on the second conveyor belt; a second tensioning device is also provided on the inclined frame, which is used to adjust the tension of the second conveyor belt.
[0009] As a further improvement of this utility model, in order to enhance the overall stability of the tracking power generation mechanism and to adjust the height according to the actual situation to improve the solar energy collection efficiency, the tracking power generation mechanism includes a stabilizing bracket, a main control device, and a telescopic device. A mounting plate is provided above the stabilizing bracket, and the mounting plate is connected to the main control device and the telescopic device. The mounting plate can be raised and lowered via the main control device and the telescopic device. Multiple fixing blocks are provided on the mounting plate, and connecting optical rods are installed between the fixing blocks. A fastening connection assembly and a connecting support are fitted onto the connecting optical rod, and the connecting support can slide on the connecting optical rod via the fastening connection assembly. A light source tracking module is also provided on the mounting plate.
[0010] As a further improvement of this utility model, in order to sense the changes in the intensity and direction of the ambient light in real time, and adjust the rotation of the photovoltaic panel according to the feedback information to ensure that the photovoltaic panel always maintains the optimal angle with the sunlight and achieves accurate tracking of the sun; the light source tracking module includes a photovoltaic panel, which is connected to the other end of the connecting support; several light sensors are provided on the photovoltaic panel; a second fastening connection assembly is provided on the back of the photovoltaic panel, and the photovoltaic panel is mounted on the mounting plate through the second fastening connection assembly; a second fixing block is also provided on the mounting plate, and a pulley is installed on the second fixing block; a steel wire rope is wound around the pulley and connected to the photovoltaic panel through the steel wire rope, and the photovoltaic panel can rotate and tilt through the connecting support and the second fastening connection assembly; the main control device is also provided with a connection port and connected to a connecting pipe through the connection port.
[0011] As a further improvement of this utility model, in order to ensure the continuous operation of the equipment when there is insufficient light and to improve the feasibility of the equipment in remote areas or areas with unstable power supply, a power storage device is also provided in the main control device. Attached Figure Description
[0012] To facilitate understanding by those skilled in the art, the present invention will be further described below with reference to the accompanying drawings:
[0013] Figure 1 This is a schematic diagram of the overall structure of this utility model.
[0014] Figure 2 This is a schematic diagram of the horizontal conveying mechanism in this utility model.
[0015] Figure 3 This is a schematic diagram of the inclined conveying mechanism in this utility model.
[0016] Figure 4 This is a schematic diagram of the tracking power generation mechanism in this utility model.
[0017] The components include: 1. Horizontal conveying mechanism; 101. Horizontal frame; 102. First baffle; 103. First roller assembly; 104. First tensioning device; 105. Upper guide plate assembly; 106. First conveyor belt; 107. First drive device; 108. First gear assembly; 109. First baffle fixing frame; 2. Inclined conveying mechanism; 201. Inclined frame; 202. Second baffle adjusting bracket; 203. Second tensioning device; 204. Anti-slip block; 205. Second gear assembly; 206. Second drive device. 207 Second baffle, 208 Second conveyor belt, 209 Second roller assembly, 3 Tracking power generation mechanism, 301 Stabilizing bracket, 302 Mounting plate, 303 Fixing block, 304 Connecting rod, 305 Fastening connection assembly, 306 Second fixing block, 307 Wire rope, 308 Pulley, 309 Photovoltaic panel, 310 Main control device, 311 Telescopic device, 312 Connecting support column, 313 Second fastening connection assembly, 314 Connection port, 315 Light sensor, 4 Connecting pipe. Detailed Implementation
[0018] like Figure 1-4The diagram illustrates a novel inclined conveying device employing photovoltaic tracking power generation. The device body includes a horizontal conveying mechanism 1, an inclined conveying mechanism 2, and a tracking power generation mechanism 3. The inclined conveying mechanism 2 is generally inclined and one end is connected to the horizontal conveying mechanism 1. Both the horizontal conveying mechanism 1 and the inclined conveying mechanism 2 are used for material conveying. The tracking power generation mechanism 3 is located outside the horizontal conveying mechanism 1 and the inclined conveying mechanism 2, and connecting pipes 4 are provided between the tracking power generation mechanism 3 and both the horizontal conveying mechanism 1 and the inclined conveying mechanism 2. The tracking power generation mechanism 3 collects solar energy and converts it to power the device via the connecting pipes 4. The horizontal conveying mechanism 1 includes a horizontal frame 101. A first roller assembly 103 is provided at both ends of the horizontal frame 101; a first conveyor belt 106 is fitted onto the first roller assembly 103, and a first baffle 102 is installed at both ends of the first conveyor belt 106; a first baffle fixing bracket 109 is provided on the first baffle 102 and fixed by the first baffle fixing bracket 109; a first drive device 107 is provided on the horizontal frame 101, and a first gear assembly 108 is installed at the output end of the first drive device 107; the first drive device 107 drives the first conveyor belt 106 to rotate on the first roller assembly 103 through the first gear assembly 108, and an upper guide plate assembly 105 is provided above the first conveyor belt 106; a first drive device 107 is also provided on the horizontal frame 101. A first tensioning device 104 is provided, which is used to adjust the tension of the first conveyor belt 106; the inclined conveying mechanism 2 includes an inclined frame 201, on which second roller assemblies 209 are provided at both ends; a second conveyor belt 208 is fitted on the second roller assembly 209, and second baffles 207 are installed at both ends of the second conveyor belt 208; a second baffle adjusting bracket 202 is provided on the outer side of the second baffle 207, which is used to adjust and fix the position of the second baffle 207; a second drive device 206 is provided on the inclined frame 201, and a second gear assembly 205 is installed at the output end of the second drive device 206; the... The second drive device 206 drives the second conveyor belt 208 to rotate on the second roller assembly 209 via the second gear assembly 205. A plurality of upper anti-slip blocks 204 are evenly arranged on the second conveyor belt 208. A second tensioning device 203 is also provided on the inclined frame 201 to adjust the tension of the second conveyor belt 208. The tracking power generation mechanism 3 includes a stabilizing bracket 301, a main control device 310, and a telescopic device 311. A mounting plate 302 is provided above the stabilizing bracket 301 and is connected to the main control device 310 and the telescopic device 311. The mounting plate 302 can be raised and lowered via the main control device 310 and the telescopic device 311.The mounting plate 302 is provided with multiple fixing blocks 303, and connecting light rods 304 are installed between the fixing blocks 303. A fastening connection assembly 305 and a connecting support column 312 are fitted onto the connecting light rod 304. The connecting support column 312 can slide on the connecting light rod 304 via the fastening connection assembly 305. A light source tracking module is also provided on the mounting plate 302. The light source tracking module includes a photovoltaic panel 309, which is connected to the other end of the connecting support column 312. Several light sensors 315 are provided on the photovoltaic panel 309. A second light sensor is provided on the back of the photovoltaic panel 309. A fastening connection assembly 313 is provided, through which the photovoltaic panel 309 is mounted on the mounting plate 302. The mounting plate 302 is also provided with a second fixing block 306, on which a pulley 308 is mounted. A steel wire rope 307 is wound around the pulley 308 and connected to the photovoltaic panel 309. The photovoltaic panel 309 can rotate and tilt via the connecting support column 312 and the second fastening connection assembly 313. The main control device 310 is also provided with a connection port 314, which is connected to the connecting pipe 4. A power storage device is also provided inside the main control device 310.
[0019] In operation, the first drive device 107 of the horizontal conveying mechanism 1 is activated, driving the first conveyor belt 106 on the first roller assembly 103 to rotate via the first gear assembly 108. Material is placed onto the first conveyor belt 106 from one end of the horizontal frame 101. The first baffle 102 prevents material slippage, the upper guide plate assembly 105 guides the material, and the first tensioning device 104 ensures proper tension of the first conveyor belt 106. Then, the material reaches the end of the horizontal conveying mechanism 1 and enters the inclined conveying mechanism 2. At this time, the second drive device 206 is activated, driving the second conveyor belt 208 on the second roller assembly 209 to rotate via the second gear assembly 205. The second baffle 207 and the adjustable second baffle adjustment bracket 202 prevent material overflow and provide anti-slip protection. The stop block 204 prevents the material from sliding down, and the second tensioning device 203 maintains the good tension of the second conveyor belt 208, so that the material is smoothly conveyed upward on the second conveyor belt 208. At the same time, the tracking power generation mechanism 3 starts to work, and the light sensor 315 on the photovoltaic panel 309 monitors the intensity and direction of sunlight in real time. The main control device 310 controls and adjusts the angle and height of the photovoltaic panel 309 according to the feedback light information so that it is always aligned with the sun to maximize the collection of solar energy. The collected solar energy is converted into electrical energy, which is stored in the power storage device in the main control device 310, and then provides power support to the horizontal conveying mechanism 1 and the inclined conveying mechanism 2 through the connection port 314 and the connection pipe 4, ensuring the continuous and stable operation of the equipment and realizing energy self-sufficiency and efficient utilization.
[0020] The above description is merely a preferred embodiment of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are within its protection scope. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should also be considered within its protection scope.
Claims
1. A novel inclined conveying device employing photovoltaic tracking power generation, comprising a device body, characterized in that, The equipment body includes a horizontal conveying mechanism (1), an inclined conveying mechanism (2), and a tracking power generation mechanism (3); the inclined conveying mechanism (2) is inclined and one end is connected to the horizontal conveying mechanism (1). Both the horizontal conveying mechanism (1) and the inclined conveying mechanism (2) are used for conveying materials; the tracking power generation mechanism (3) is located outside the horizontal conveying mechanism (1) and the inclined conveying mechanism (2). A connecting pipe (4) is provided between the tracking power generation mechanism (3) and the horizontal conveying mechanism (1) and the inclined conveying mechanism (2); the tracking power generation mechanism (3) is used to collect solar energy and convert it to power the equipment through the connecting pipe (4).
2. The novel inclined conveying equipment using photovoltaic tracking power generation according to claim 1, characterized in that: The horizontal conveying mechanism (1) includes a horizontal frame (101), with first roller assemblies (103) at both ends of the horizontal frame (101); a first conveyor belt (106) is fitted onto the first roller assembly (103), and first baffles (102) are installed at both ends of the first conveyor belt (106); a first baffle fixing frame (109) is provided on the first baffle (102) and fixed by the first baffle fixing frame (109); a first driving device (107) is provided on the horizontal frame (101). The output end of the first drive device (107) is fitted with a first gear assembly (108); the first drive device (107) drives the first conveyor belt (106) to rotate on the first roller assembly (103) through the first gear assembly (108); an upper guide plate assembly (105) is provided above the first conveyor belt (106); a first tensioning device (104) is also provided on the horizontal frame (101), which is used to adjust the tension of the first conveyor belt (106).
3. The novel inclined conveying equipment using photovoltaic tracking power generation according to claim 1, characterized in that: The inclined conveying mechanism (2) includes an inclined frame (201), with second roller assemblies (209) at both ends of the inclined frame (201); a second conveyor belt (208) is fitted onto the second roller assembly (209), and second baffles (207) are installed at both ends of the second conveyor belt (208); a second baffle adjusting bracket (202) is provided on the outer side of the second baffle (207), and the second baffle adjusting bracket (202) is used to adjust and fix the position of the second baffle (207); the inclined frame (201) is equipped with... The second drive device (206) has a second gear assembly (205) installed at its output end. The second drive device (206) drives the second conveyor belt (208) to rotate on the second roller assembly (209) through the second gear assembly (205). A number of upper anti-slip blocks (204) are evenly arranged on the second conveyor belt (208). The inclined frame (201) is also equipped with a second tensioning device (203), which is used to adjust the tension of the second conveyor belt (208).
4. A novel inclined conveying device using photovoltaic tracking power generation according to claim 1, characterized in that: The tracking power generation mechanism (3) includes a stabilizing bracket (301), a main control device (310), and a telescopic device (311); a mounting plate (302) is provided above the stabilizing bracket (301), and the mounting plate (302) is connected to the main control device (310) and the telescopic device (311); the mounting plate (302) can be raised and lowered through the main control device (310) and the telescopic device (311); a plurality of fixing blocks (303) are provided on the mounting plate (302), and connecting light rods (304) are installed between the fixing blocks (303); a fastening connection component (305) and a connecting support column (312) are fitted on the connecting light rod (304), and the connecting support column (312) can slide on the connecting light rod (304) through the fastening connection component (305); a light source tracking module is also provided on the mounting plate (302).
5. A novel inclined conveying device using photovoltaic tracking power generation according to claim 4, characterized in that: The light source tracking module includes a photovoltaic panel (309), which is connected to the other end of a connecting support column (312). A light sensor (315) is provided on the photovoltaic panel (309), and several light sensors (315) are provided. A second fastening connection assembly (313) is provided on the back of the photovoltaic panel (309), and the photovoltaic panel (309) is mounted on a mounting plate (302) via the second fastening connection assembly (313). The mounting plate (302) is also equipped with... There is a second fixing block (306), on which a pulley (308) is installed; a steel wire rope (307) is wound around the pulley (308) and connected to the photovoltaic panel (309) through the steel wire rope (307); the photovoltaic panel (309) can rotate and tilt through the connecting support (312) and the second fastening connection assembly (313); the main control device (310) is also provided with a connection port (314) and is connected to the connecting pipe (4) through the connection port (314).
6. A novel inclined conveying device using photovoltaic tracking power generation according to claim 4, characterized in that: The main control device (310) is also equipped with a power storage device.