Green low-energy-consumption dust suppression device

Abstract

The invention discloses a green low-energy-consumption dust suppression device which comprises a mounting part, an assembly part, a first bearing part, a driving part and the like. The mounting piece is internally connected with the supporting piece, the storage piece is arranged at the bottom, the control center is arranged outside, and the solar inverter, the storage battery, the central controller and the PLC module are integrated in the mounting piece; a humidity sensor, a dust concentration sensor and a wind power sensor are arranged on the assembly part; a second bearing piece is arranged outside the first bearing piece, and a fixing piece, a bearing piece, a transmission piece and an electric assembly are arranged on the second bearing piece; the output end of the driving part is connected with the power output part and connected with the fluid output part sequentially through the first connecting part, the third connecting part and the like, an annular groove and a ball are arranged in the transmission part, the fluid adjusting system is in linkage with the second bearing part through the first bearing part, and the electric assembly drives the bearing part and the transmission part to move and is matched with transmission of the ball in the annular groove. The inclination angle of the fluid output piece is adjusted; the driving piece drives the power output piece to rotate, so that the fluid output piece rotates, and two-degree-of-freedom dynamic jetting is formed.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of environmental protection equipment, and in particular to a green low-energy-consumption dust suppression device. BACKGROUND

[0002] In the field of environmental protection equipment, dust suppression devices have been widely used as key environmental management equipment to address dust pollution problems in scenarios such as industrial production, construction, or material transportation. With the increasing demand for green and low-carbon development, it has become an important direction for the industry to reduce energy consumption and improve water resource utilization while ensuring dust suppression effectiveness. Although various spray-type dust suppression devices exist in the prior art, their functional design mainly focuses on basic spray function implementation, and there is still room for improvement in environmental adaptability, intelligent control, and resource conservation.

[0003] Common dust suppression devices generally use fixed spray structures, and their spray angles and directions are usually preset during installation and cannot be dynamically adjusted according to actual dust dispersion characteristics or environmental condition changes. This rigid design limits the coverage range of water mist and easily forms coverage blind spots in complex wind conditions or non-uniform dust distribution scenarios, affecting dust suppression effectiveness. Meanwhile, the control method of traditional devices is relatively simple, relying mainly on manual experience setting or simple timing start-stop mechanisms, and lacks real-time monitoring and data analysis capabilities for key parameters such as dust concentration, environmental humidity, wind direction, etc. It is difficult to automatically optimize spray intensity and frequency according to environmental changes, often resulting in water resource waste in high humidity environments or insufficient dust suppression efficiency in dry conditions, which cannot meet the working requirements of environmental protection equipment applications. Therefore, a green low-energy-consumption dust suppression device is proposed. SUMMARY

[0004] The present application provides the following technical solution: a green low-energy-consumption dust suppression device, comprising: A mounting member has a support member connected inside to enhance the overall structural strength of the mounting member, prevent deformation of the mounting member during long-term loading of various components, and improve the structural stability and service life of the device. A storage member is installed at the inner bottom of the mounting member to centrally store fluid for dust suppression, ensuring the continuity of fluid supply, avoiding the inconvenience of frequent fluid addition, and improving the continuous operation capability of the device. A control hub is installed on the outside of the mounting member, and the control hub has a solar inverter, a battery, a central controller, and a PLC module integrated inside. The integrated control hub integrates energy conversion, energy storage, and control functions into one, reducing the dispersion of various components, saving installation space, facilitating signal transmission and collaborative work between modules, and improving the control response speed of the device. The assembly is installed on the outer side of the mounting piece, and the outer side of the assembly is provided with a multi-source sensor including a humidity sensor, a dust concentration sensor and a wind force sensor, which can comprehensively monitor the key parameters such as humidity, dust concentration and wind force in the environment, and provide accurate environmental basis for dynamic adjustment of the device, so as to avoid adjustment deviation caused by single parameter monitoring. The first bearing member is connected to the inner side of the mounting piece, the outer side of the first bearing member is provided with a second bearing member, the outer side of the second bearing member is provided with a fixing member, the outer side of the fixing member is sleeved with a supporting member, and the outer side of the supporting member is connected with a transmission member, the outer side of the second bearing member is provided with an electric component, the electric component serves as a power source and can provide driving force for the movement of the supporting member and the transmission member, and is a core power component for adjusting the inclination angle of the fluid output member. The driving member is installed on the outer side of the second bearing member below the fixing member, the output end of the driving member is coaxially connected with a power output member, the outer end of the power output member is inserted with a first connecting member, the outer end of the first connecting member is provided with a third connecting member, the outer side of the third connecting member is provided with a pipe clamp, the inner side of the pipe clamp is inserted with a fluid output member, the inner side of the annular groove of the transmission member is inserted with a ball, the annular groove provides trajectory guidance for the movement of the ball, and the rolling of the ball in the annular groove can reduce the frictional resistance in the transmission process, so that the angle adjustment is more smooth and flexible.

[0005] Preferably, the outer side of the storage member is provided with a water pump, the top of the storage member is provided with a water inlet, the water outlet of the water pump is connected with a hose, and the length of the hose is twice the distance between the storage member and the first bearing member, so as to avoid interference of the fluid output member during movement.

[0006] Preferably, the inner side of the first bearing member is provided with a through hole corresponding to the hose, the water outlet of the hose is connected with the water inlet of the fluid output member, and the second bearing member is connected with the first bearing member through bolts, so as to facilitate disassembly and assembly.

[0007] Preferably, reinforcing ribs are welded between the first bearing member and the mounting piece and between the mounting piece and the supporting member, the top of the control hub is provided with a wire arranging hole, and the wire arranging hole is communicated with the inner cavity of the control hub, so as to facilitate wire arranging.

[0008] Preferably, the outer side of the fixing member is connected with the outer side of the second bearing member through a supporting leg, the power output member penetrates the inner side of the fixing member, and the output end of the electric component is connected with the lower surface of the supporting member in a corresponding position, so as to facilitate transmission.

[0009] Preferably, the top side of the mounting piece is provided with a photovoltaic module, the output end of the photovoltaic module is connected with a solar inverter through a wire, and the bottom of the photovoltaic module is provided with a support, and the photovoltaic module is arranged in a slanting manner, so that power management is improved.

[0010] Preferably, the second connecting piece is connected with the outer part of the ball, the outer end of the second connecting piece is connected with the corresponding position of the outer part of the first connecting piece, and the second connecting piece is arranged in an L shape.

[0011] Preferably, the central controller arranged in the control hub and the PLC module establish a bidirectional data interaction channel through an RS485 communication protocol, and the signal output ends of the dust concentration sensor, the humidity sensor and the wind force sensor are connected with the signal input ports of the control hub through shielded twisted pairs, so that data transmission is facilitated.

[0012] Preferably, the inner wall of the annular groove arranged in the transmission piece is subjected to precision polishing treatment and coated with a self-lubricating coating, and the ball is made of high-density polyethylene material.

[0013] Preferably, the end of the fluid output piece is connected with a detachable atomizing nozzle through a threaded structure, and the outer part of the atomizing nozzle is sleeved with a protective mesh cover.

[0014] Compared with the prior art, the green low-energy-consumption dust suppression device has the following beneficial effects: 1. The downward movement of the support piece and the transmission piece driven by the electric component can drive the inclination of the first connecting piece and the third connecting piece through the ball, so that the inclination angle of the fluid output piece can be adjusted, and the power output piece can be rotated through the driving piece, so that the fluid output piece can be rotated, and the fluid output piece can dynamically adjust the spraying angle and direction according to real-time environmental conditions. 2. The combination control architecture of the central controller and the PLC endows the device with high intelligent level, and through the integration of multi-source sensor data, the system can dynamically analyze the change trend of environmental parameters and optimize the inclination angle and spraying frequency of the nozzle accordingly. BRIEF DESCRIPTION OF DRAWINGS

[0015] Figure 1 is a structural schematic view of the present application.

[0016] Figure 2Is the installation piece rear structure schematic diagram of the present application.

[0017] Figure 3 Is the installation piece inside structure schematic diagram of the present application.

[0018] Figure 4 Is the first bearing piece structure schematic diagram of the present application.

[0019] Figure 5 Is the second bearing piece structure schematic diagram of the present application.

[0020] Figure 6 Is the fixed piece and transmission piece structure section view schematic diagram of the present application.

[0021] Reference signs: 1, installation piece; 2, support piece; 3, storage piece; 4, control hub; 5, photovoltaic assembly; 6, assembly piece; 7, humidity sensor; 8, dust concentration sensor; 9, wind force sensor; 10, first bearing piece; 11, water pump; 12, second bearing piece; 13, fixed piece; 14, driving piece; 15, electric assembly; 151, bearing piece; 16, transmission piece; 17, power output piece; 18, first connecting piece; 19, second connecting piece; 20, ball; 21, third connecting piece; 22, annular groove; 23, pipe clamp; 24, fluid output piece; 25, hose; 26, through hole; 27, wire discharge hole. DETAILED DESCRIPTION

[0022] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0023] The present application provides a technical solution, a green low-energy-consumption dust suppression device, comprising an installation piece 1, a support piece 2, a storage piece 3, a control hub 4, a photovoltaic assembly 5, an assembly piece 6, a humidity sensor 7, a dust concentration sensor 8, a wind force sensor 9, a first bearing piece 10, a water pump 11, a second bearing piece 12, a fixed piece 13, a driving piece 14, an electric assembly 15, a bearing piece 151, a transmission piece 16, a power output piece 17, a first connecting piece 18, a second connecting piece 19, a ball 20, a third connecting piece 21, an annular groove 22, a pipe clamp 23, a fluid output piece 24, a hose 25, a through hole 26, and a wire discharge hole 27. Please refer to Figure 1The inside of the mounting piece 1 is connected with the support piece 2, the support piece 2 is matched with the connecting structure of the mounting piece 1, the reinforcing rib welded between the two can significantly enhance the structural strength and anti-deformation ability of the whole device, avoid the bending and tilting of the mounting piece 1 when bearing the weight of each component for a long time or being impacted by external force, provide stable foundation support for the whole device, prolong the service life of the equipment, the inside bottom of the mounting piece 1 is provided with the storage piece 3, the storage piece 3 is the core of fluid storage, its closed structure can effectively reduce the evaporation loss of fluid, and the water inlet at the top provides a convenient channel for supplementing fluid, avoiding the trouble of frequently disassembling components to add fluid, ensuring that the device does not need to be frequently stopped for water replenishment during long-time operation, the outside of the mounting piece 1 is provided with the control center 4, the control center 4 is a cabinet structure, the inside of the control center 4 is integrated with a solar inverter, a battery, a central controller and a PLC module, the integrated design integrates energy conversion, energy storage and control functions into one, greatly reducing the space required by the dispersed arrangement of each component, shortening the signal transmission path between each module, improving the instruction response speed, and avoiding the problems of line clutter and signal interference in traditional dispersed layout, please refer to Figure 3 The outside of the storage piece 3 is provided with a water pump 11, the water pump 11 is a power source for fluid delivery, which can stably pressurize and deliver the fluid in the storage piece 3 to the subsequent components, ensure the stability of the fluid output pressure, and provide power guarantee for the atomization effect, the top of the storage piece 3 is provided with a water inlet, the water outlet of the water pump 11 is connected with a hose 25, the length of the hose 25 is twice the distance between the storage piece 3 and the first bearing piece 10, the longer hose 25 has sufficient expansion allowance and can fully adapt to the position change of the fluid output piece 24 during multi-angle adjustment, avoiding the pipe from being pulled and broken due to component movement, and ensuring the continuity of fluid delivery; Please refer to Figure 2 The assembly piece 6 is arranged on one side of the outside of the mounting piece 1, the assembly piece 6 provides a unified installation reference for various sensors, which is arranged outside the mounting piece 1 and away from the direct dust impact area, which can ensure that the sensor contacts the real environment parameter and reduce the damage of dust adhesion to the sensor, the outside of the assembly piece 6 is provided with a multi-source sensor. The multi-source sensor includes a humidity sensor 7, a dust concentration sensor 8 and a wind sensor 9, the humidity sensor 7 can monitor the environmental humidity in real time, provide key basis for the control center 4 to judge whether to strengthen or weaken the spraying intensity, avoid water waste caused by excessive spraying in high humidity environment, the dust concentration sensor 8 as the core monitoring component can accurately capture the concentration change of dust in the air, so that the device only starts work when the dust exceeds the standard, realizes "on-demand dust suppression", reduces invalid energy consumption, and the wind sensor 9 can monitor the wind size and direction, provide data support for the control center 4 to adjust the angle of the fluid output piece 24, offset the influence of wind on water mist diffusion, and ensure that the water mist accurately acts on the dust area; Please refer to Figure 4The first bearing 10 is connected to the inside of the mounting piece 1, the outside of the first bearing 10 is provided with the second bearing 12, the outside of the second bearing 12 is provided with the fixing piece 13, the outside of the fixing piece 13 is sleeved with the supporting piece 151, and the outside of the supporting piece 151 is connected with the transmission piece 16, the outside of the second bearing 12 is provided with the electric component 15, and the electric component 15 is an electric telescopic rod mechanism. Please refer to Figure 5 and Figure 6 The driving piece 14 is installed on the outside of the second bearing 12 below the fixing piece 13, the driving piece 14 is a stepping motor, the output end of the driving piece 14 is coaxially connected with the power output piece 17, the outer end of the power output piece 17 is inserted with the first connecting piece 18, the outer end of the first connecting piece 18 is provided with the third connecting piece 21, the outside of the third connecting piece 21 is provided with the pipe clamp 23, the inside of the pipe clamp 23 is inserted with the fluid output piece 24, the inside of the first bearing 10 is provided with the through hole 26 at the position corresponding to the hose 25, the water outlet of the hose 25 is connected with the water inlet of the fluid output piece 24, the second bearing 12 is connected with the first bearing 10 through bolts, the inside of the transmission piece 16 is provided with the annular groove 22, and the inside of the annular groove 22 is inserted with the ball 20. Please refer to Figure 1 The first bearing 10 and the mounting piece 1 and the mounting piece 1 and the supporting piece 2 are all welded with the reinforcing ribs, please refer to Figure 2 The top of the control hub 4 is provided with the wire arranging hole 27, the wire arranging hole 27 is communicated with the inner cavity of the control hub 4, the outside of the fixing piece 13 is connected with the outside of the second bearing 12 through the supporting leg, the inside of the fixing piece 13 is penetrated by the power output piece 17, the output end of the electric component 15 is connected with the lower surface of the supporting piece 151 at the corresponding position, the top of the mounting piece 1 is provided with the photovoltaic component 5 on one side, the output end of the photovoltaic component 5 is connected with the solar inverter through the wire, the bottom of the photovoltaic component 5 is provided with the support, the photovoltaic component 5 is arranged obliquely, the outside of the ball 20 is connected with the second connecting piece 19, the outer end of the second connecting piece 19 is connected with the outside of the first connecting piece 18 at the corresponding position, the second connecting piece 19 is L-shaped, the central controller arranged in the control hub 4 and the PLC module establish a bidirectional data interaction channel through the RS485 communication protocol, the signal output ends of the dust concentration sensor 8, the humidity sensor 7 and the wind sensor 9 are all connected with the signal input port of the control hub 4 through the shielded twisted pair wire, the inner wall of the annular groove 22 in the transmission piece 16 is subjected to precision polishing treatment and coated with a self-lubricating coating, the ball 20 is made of high-density polyethylene material, the end of the fluid output piece 24 is connected with the detachable atomizing nozzle through the thread structure, and the outside of the atomizing nozzle is sleeved with the protective mesh cover.

[0024] The scheme drives the downward movement of the supporting member 151 and the transmission member 16 through the electric component 15, so that the inclination of the first connecting member 18 and the third connecting member 21 can be driven through the ball 20, so that the inclination angle of the fluid output member 24 can be adjusted, and at the same time, the power output member 17 can be driven to rotate through the driving member 14, and then the fluid output member 24 can be rotated, so that the fluid output member 24 can dynamically adjust the spraying angle and direction according to the real-time environmental conditions. The double-freedom adjustment design not only expands the water mist coverage range, but also can cover different areas according to the dust diffusion characteristics, avoiding the coverage blind area problem caused by the single angle of the traditional fixed spray system.

[0025] The detailed implementation process of the scheme is: System startup and self-checking stage: the operator starts the device through the start-up interface of the control hub, and the central controller first performs a self-checking program to detect the solar inverter, the energy storage state of the battery and the communication connection of each sensor. At this time, the photovoltaic assembly converts light energy into electrical energy and stores it in the battery to provide green energy for subsequent spraying operations. After the self-checking is completed, the system enters the standby state, and each component completes the initialization preparation; Through the collaborative design of solar power supply and battery energy storage, zero carbon emission during device operation is realized, and the self-checking program ensures system reliability, avoiding operation interruption caused by component failure; Environmental data acquisition stage: the humidity sensor, dust concentration sensor and wind sensor installed outside the mounting member are started synchronously to collect real-time environmental humidity, dust concentration and wind data. The sensor transmits the analog signal to the control hub through the shielded twisted pair, and forms digital environmental parameters after being processed by the internal analog-to-digital conversion module; The environmental perception network composed of multiple sensors can comprehensively capture the dynamic characteristics of dust diffusion, provide accurate data support for subsequent intelligent regulation, and avoid subjective errors of traditional manual experience judgment; Central controller data analysis stage: based on the received environmental data, the central controller of the control hub analyzes the dust concentration change trend and the correlation between environmental humidity and wind through a preset algorithm. The PLC module generates control instructions according to the analysis results to determine the required inclination angle, rotation speed and spraying frequency of the fluid output member; The combined architecture of the central controller and the PLC realizes efficient cooperation of complex logic operation and real-time control, ensuring that the device can still respond quickly in a multi-parameter coupled environment, improving the accuracy and timeliness of decision-making; Fluid delivery system starts: When the control center 4 issues dust suppression instructions, the water pump 11 outside the storage 3 starts to deliver the internal fluid to the through hole 26 of the first carrier 10 through the hose 25, and then enters the fluid output 24 through the connection end of the hose 25 and the fluid output 24. The flexible design of the hose 25 can adapt to the multi-angle movement of the fluid output 24, and the through hole 26 provides a hidden path for the pipeline to avoid wear or entanglement caused by exposure, ensuring the smoothness of fluid delivery. Fluid output angle adjustment: After the electric component 15 is started, the support 151 and the transmission 16 are moved, the annular groove 22 inside the transmission 16 pushes the second connecting piece 19 through the ball 20, and then the first connecting piece 18 and the third connecting piece 21 are tilted to realize the inclination angle adjustment of the fluid output 24; at the same time, the driving piece 14 drives the power output 17 to rotate, and through the first connecting piece 18, the third connecting piece 21 drives the fluid output 24 to rotate circumferentially. The double-degree-of-freedom adjustment structure breaks through the traditional fixed angle limitation, the self-lubricating coating of the annular groove 22 and the high-density polyethylene ball 20 reduce the friction of movement, making the angle adjustment more flexible, and the dust diffusion direction can be accurately covered to eliminate the dust suppression blind area. Atomization and spraying operation: The atomization nozzle at the end of the fluid output 24 converts the fluid into fine mist, forms a three-dimensional mist net under the cooperation of angle adjustment and circumferential rotation, and the protective screen prevents impurities from entering the nozzle to block the channel. The atomization nozzle increases the contact area of the fluid and the dust, the three-dimensional mist net can quickly capture suspended dust, the protective screen prolongs the service life of the nozzle and reduces the maintenance frequency. Dynamic adjustment and optimization: During the operation, the sensor continuously feeds back the environmental parameters, and the control center 4 adjusts the angle, speed of the fluid output 24 and the delivery amount of the water pump 11 in real time: when the wind increases, the spraying range is expanded, and when the humidity is high, the spraying frequency is reduced. The dynamic optimization based on real-time data makes the dust suppression operation more suitable for environmental changes, avoids resource waste while ensuring stable dust suppression effect, and realizes the intelligent goal of "operation on demand".

[0026] This scheme gives the device a high level of intelligence through the combination of central controller and PLC control architecture, and by integrating dust concentration, wind power and environmental humidity and other multi-source sensor data, the system can dynamically analyze the trend of environmental parameters and optimize the inclination angle and spraying frequency of the fluid output 24. In the scene of low dust concentration or high humidity, the device can automatically reduce the spraying intensity to avoid water resource waste; while in the high dust concentration or dry environment, the device can increase the inclination angle and circumferential rotation speed of the nozzle to form a denser mist net to quickly suppress the dust. This dynamic adjustment mechanism based on environmental feedback changes the dust suppression operation from passive response to active adaptation, significantly improving resource utilization efficiency.

[0027] The scheme realizes multiple advantages of efficient dust suppression, low energy consumption operation and environmental adaptation through driving structure design and intelligent control logic. The installation piece 1 is used as the basic framework, the support piece 2 connected inside cooperates with the reinforcing ribs between the two, which greatly improves the overall structural strength and provides a stable bearing foundation for each component, effectively avoiding deformation problems in long-term use. The storage piece 3 at the inside bottom of the installation piece 1 serves as the fluid reserve core, and its closed structure reduces fluid evaporation loss, and the top water inlet simplifies the replenishment process, ensuring the continuous operation of the device. The control hub 4 outside the installation piece 1 adopts integrated design, integrating solar inverter, battery, central controller and PLC module in one, which not only saves space, but also shortens the signal transmission path, avoiding the traditional scattered layout of line clutter and signal interference problems. The water pump 11 outside the storage piece 3 provides stable power for fluid delivery, and the connected hose 25 has sufficient extension allowance and can adapt to the multi-angle movement of the fluid output piece 24, ensuring the continuity of fluid delivery, and the environment sensing system is composed of the assembly 6 and the humidity sensor 7, dust concentration sensor 8 and wind sensor 9 thereon. The assembly 6 provides an installation reference for the sensor away from the direct impact of dust, ensuring the authenticity of the monitoring data; the humidity sensor 7 can assist in determining the spraying intensity to avoid water waste in high humidity environments; the dust concentration sensor 8 as the core monitoring component realizes "on-demand dust suppression" and reduces invalid energy consumption; the wind sensor 9 provides a basis for angle adjustment of the fluid output piece 24 to offset the influence of wind on water mist. In terms of actuator, the first bearing piece 10 and the second bearing piece 12 are connected by bolts, which is convenient for disassembly and maintenance, and the fixing piece 13 on the second bearing piece 12 provides stable support for the supporting piece 151 and the power output piece 17. The electric assembly 15 drives the supporting piece 151 and the transmission piece 16 to move, cooperates with the annular groove 22 and the ball 20 in the transmission piece 16 to realize the inclination angle adjustment of the fluid output piece 24; the driving piece 14 drives the fluid output piece 24 to rotate through the power output piece 17 and the first connecting piece 18, and the double-degree-of-freedom adjustment design breaks through the limitation of traditional fixed angle, expands the water mist coverage range, and eliminates the dust suppression blind area. In addition, the self-lubricating coating on the inner wall of the annular groove 22 and the high-density polyethylene ball 20 reduce the movement friction and prolong the service life of the components; the detachable atomizing nozzle at the end of the fluid output piece 24 and the protective mesh cover improve the adaptability and avoid the clogging problem.

[0028] It is to be understood that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to be limiting; it is not intended to exclude myriad other embodiments of the present application that other inventors can develop based on the same general inventive concepts embodied by the described embodiments. That is, although the present application is described in terms of particular embodiments and implementations, it is to be understood that the terminology used is for the purpose of descriptive clarity and that it should be taken in its broadest possible sense. For example, the terms "a", "an", and "the" include both singular and plural referents unless the context clearly dictates otherwise. The terms "comprises", "comprising", "includes", "including" and the like can be used in conjunction with the term "consisting of to include the elements or steps listed after such conjunctive language, but not to the exclusion of other elements or steps. The singular forms "a", "an" and "the" include plural referents unless the context clearly dictates otherwise.

[0029] While the embodiments of the application have been shown and described herein, it is to be understood that the application is not limited to these embodiments. Rather, many modifications, changes and substitutions are intended to fall within the scope of the present application, which is limited only by the scope of the claims hereinafter appended.

Claims

1. A green low-energy dust suppression device, characterized in that, The utility model relates to a kind of solar energy water conservancy monitoring system, including: Mounting piece (1), support piece (2) is connected in the inside of mounting piece (1), the inside bottom of mounting piece (1) is equipped with storage piece (3), the outside of mounting piece (1) is equipped with control hub (4); Assembly piece (6) is equipped on the outside one side of mounting piece (1), and multiple-source sensor is equipped on the outside of assembly piece (6); First bearing piece (10) is connected to the inside of mounting piece (1), and second bearing piece (12) is equipped on the outside of first bearing piece (10), and fixed part (13) is equipped on the outside of second bearing piece (12), and support piece (151) is sleeved on the outside of fixed part (13), and transmission part (16) is connected to the outside of support piece (151), and electric module (15) is installed on the outside of second bearing piece (12); Drive part (14) is installed on the outside of second bearing piece (12) below fixed part (13), and power output part (17) is coaxially connected to the output end of drive part (14), and first connecting piece (18) is inserted on the outer end of power output part (17), and third connecting piece (21) is installed on the outer end of first connecting piece (18), and pipe clamp (23) is equipped on the outside of third connecting piece (21), and fluid output part (24) is inserted in the inside of pipe clamp (23), and annular groove (22) is set in the inside of transmission part (16), and sphere (20) is inserted in the inside of annular groove (22).

2. The green low-energy dust suppression device according to claim 1, characterized in that: Water pump (11) is installed on the outside of storage piece (3), and water inlet is equipped on the top of storage piece (3), and the water outlet of water pump (11) is connected with hose (25), and the length of hose (25) is twice the distance between storage piece (3) and first bearing piece (10).

3. The green low-energy dust suppression device according to claim 2, characterized in that, The multiple-source sensor includes humidity sensor (7), dust concentration sensor (8) and wind force sensor (9).

4. The green low-energy dust suppression device according to claim 1, characterized in that: The inside of first bearing piece (10) is provided with through hole (26) corresponding to the position of hose (25), and the water outlet of hose (25) is connected with the water inlet of fluid output part (24), and second bearing piece (12) is connected with first bearing piece (10) by bolt; Reinforcing rib is welded between first bearing piece (10) and mounting piece (1) and between mounting piece (1) and support piece (2), and wire hole (27) is equipped on the top of control hub (4), and the inner chamber of control hub (4) is communicated with wire hole (27).

5. The green low-energy dust suppression device according to claim 1, characterized in that: The outside of fixed part (13) is connected with the outside of second bearing piece (12) through support leg, and power output part (17) penetrates the inside of fixed part (13), and the output end of electric module (15) is connected with the lower surface of support piece (151) corresponding position.

6. The green low-energy dust suppression device according to claim 1, characterized in that: Photovoltaic module (5) is installed on the top side of mounting piece (1), the output end of photovoltaic module (5) is connected with solar inverter through wire, support is installed on the bottom of photovoltaic module (5), and photovoltaic module (5) is arranged obliquely.

7. The green low-energy dust suppression device according to claim 1, characterized in that: The second connecting piece (19) is connected with the outside of the first connecting piece (18) at the outer end.

8. The green low-energy dust suppression device according to claim 1, characterized in that: The control center (4) is internally integrated with a solar inverter, a battery, a central controller and a PLC module, the central controller and the PLC module are connected through an RS485 communication protocol to establish a bidirectional data interaction channel, and the signal output ends of the dust concentration sensor (8), the humidity sensor (7) and the wind sensor (9) are connected with the signal input ports of the control center (4) through shielded twisted pairs.

9. The green low-energy dust suppression device according to claim 1, characterized in that: The inner wall of the annular groove (22) formed in the transmission piece (16) is polished and coated with a self-lubricating coating, and the ball (20) is made of high-density polyethylene material.

10. The green low-energy dust suppression device according to claim 1, characterized in that: The end of the fluid output piece (24) is connected with a detachable atomizing nozzle through a threaded structure, and the atomizing nozzle is externally sleeved with a protective mesh cover.

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