Wind-solar complementary fuel gas pressure regulating metering cabinet

Abstract

The utility model relates to the technical field of pressure-regulating metering cabinets, and provides a wind-solar complementary type fuel gas pressure-regulating metering cabinet, which comprises a fixed part, a rotating part rotationally arranged on the fixed part, a solar panel arranged on the rotating part, and a locking part arranged on the fixed part and used for being connected with the rotating part and used for fixing or cancelling fixing of the rotating part. According to the technical scheme, the problem that the solar panel of the wind-solar complementary fuel gas pressure regulating metering cabinet in the prior art is easy to damage is solved.

Description

Technical Field

[0001] The utility model relates to the technical field of pressure regulating and metering cabinets, and specifically to a wind-solar complementary type gas pressure regulating and metering cabinet. Background Art

[0002] In the field of gas transmission and comprehensive energy utilization, gas pressure regulating and metering cabinets play a core role, ensuring the accuracy and safety of gas supply. Traditional gas pressure regulating and metering cabinets rely primarily on external mains power for operation. However, if the mains power is interrupted, especially in remote areas or under unstable power grids, the equipment will be unable to operate, forcing the suspension of gas pressure regulation and metering, which will have a significant impact on gas users.

[0003] With the surge in clean energy development, the utilization of solar and wind energy has garnered significant attention, prompting the idea of ​​integrating them into gas pressure regulating and metering cabinets. While solar panels were initially installed, they were often fixed, unable to flexibly adjust their angles according to the sun's trajectory. This significantly reduced solar energy utilization, enabling efficient power generation only during limited periods, making it difficult to continuously and adequately power equipment.

[0004] Complex outdoor wind conditions present a particularly thorny challenge. Strong winds can overwhelm fixed solar panels, often leading to panel shattering and bracket breakage. According to statistics, under a force 8 wind sustained for two hours, the damage rate for traditional fixed arrays exceeds 50%. Subsequent repair costs are high, involving panel and bracket replacement and labor costs. This also leads to prolonged equipment downtime and disrupts the continuity of gas pressure regulation and metering operations. Utility Model Content

[0005] The utility model proposes a wind-solar complementary gas pressure regulating and metering cabinet, which solves the problem that the solar panels of the wind-solar complementary gas pressure regulating and metering cabinets in the related art are easily damaged.

[0006] The technical solution of the utility model is as follows:

[0007] Wind-solar hybrid gas pressure regulating and metering cabinet, including:

[0008] Fixings,

[0009] a rotating member, the rotating member being rotatably arranged on the fixed member,

[0010] a solar panel, wherein the solar panel is arranged on the rotating member,

[0011] A locking member is provided on the fixing member and is used to connect with the rotating member and to fix or cancel the fixing of the rotating member.

[0012] As a further technical solution, the locking member includes:

[0013] A first main body, the first main body is arranged on the rotating member, and the first main body has a fixing groove,

[0014] A second main body, the second main body is arranged on the fixing member, and the second main body has a sliding groove,

[0015] A telescopic member is slidably arranged in the sliding groove, and the telescopic member slides into or out of the fixed groove after sliding.

[0016] As a further technical solution, the second body is a non-magnetic part, the telescopic part is a magnetic part, and the locking part further includes:

[0017] an electromagnet, which is arranged at one end of the slide groove and provides a force for the telescopic member to slide into the elastic member.

[0018] An elastic member is arranged in the sliding groove, one end of the elastic member acts on the electromagnet, and the other end acts on the telescopic member to provide a force for the telescopic member to slide into the fixed groove. The elastic member is a non-magnetic member.

[0019] As a further technical solution, there are a plurality of fixing grooves arranged circumferentially on one side of the first main body, and there are a plurality of sliding grooves corresponding one to one with the fixing grooves.

[0020] As a further technical solution, it also includes:

[0021] a frame, wherein the fixing member is arranged on the frame,

[0022] A wind turbine, the wind turbine being arranged at the end of the frame and above the fixing member,

[0023] A voltage regulating and metering cabinet is provided on one side of the rack.

[0024] The power storage component is arranged on the voltage regulating and metering cabinet, the wind turbine and the solar panel are both connected to the power storage component, and the power storage component is respectively connected to the electromagnet and the voltage regulating and metering cabinet.

[0025] As a further technical solution, it also includes:

[0026] A rotating driving member, which is arranged on the fixing member and drives the rotating member to rotate,

[0027] A control module is provided on the fixing member, and the power storage assembly is connected to the electromagnet and the voltage regulating and metering cabinet respectively through the control module.

[0028] As a further technical solution, it also includes:

[0029] A time relay is provided between the control module and the electromagnet. The control module is configured to disconnect the control module from the electromagnet when the current of the wind turbine generator is too large.

[0030] As a further technical solution, the telescopic member has a first guiding inclined surface, and the fixing groove has a second guiding inclined surface. After the telescopic member slides, the second guiding inclined surface abuts against the first guiding inclined surface.

[0031] As a further technical solution, the wind turbine includes:

[0032] A generator, the generator being arranged on the frame and having a rotating shaft,

[0033] The blades are multiple and arranged in a circle on the rotating shaft.

[0034] As a further technical solution, the power storage assembly is connected to the rotating drive member.

[0035] The working principle and beneficial effects of the utility model are as follows:

[0036] In the present invention, the fixing part is made of high-strength steel and has undergone anti-corrosion treatment, such as hot-dip galvanizing, to ensure that it is structurally stable and durable in long-term outdoor use. The rotating part is rotatably arranged on the fixing part with the help of bearings. The selection of bearings is based on the overall load of the equipment and the rotation accuracy requirements. It has good sealing and durability and can withstand complex outdoor climate environments. The rotation angle range of the rotating part is designed to be 0-360°, and precise and controllable rotation is achieved through an electric drive device. The locking part is installed on the fixing part and connected to the rotating part. When the equipment is in a low wind speed environment, the locking part cancels the fixation of the rotating part. When the wind is strong, the efficiency of wind power generation is high and the solar panels are easily damaged. The rotating part rotates to a lower resistance position, and the locking part fixes the rotating part to prevent the rotating part from accidentally rotating and damaging the equipment due to strong winds.

[0037] The solar panels can be precisely rotated to a sheltered angle immediately upon strong winds, significantly reducing the direct impact of the wind. While damage to traditional fixed solar panel arrays (panel breakage, bracket breakage) is unavoidable in winds of comparable intensity (e.g., winds lasting for hours), this device's timely wind-shedding adjustment effectively extends the panel's lifespan, significantly reducing equipment maintenance costs (panel replacement, bracket repair, etc.), and ensuring continuous, stable power generation and gas pressure regulation and metering operations. BRIEF DESCRIPTION OF THE DRAWINGS

[0038] The preferred embodiments will be described below in a clear and understandable manner with reference to the accompanying drawings to further illustrate the above-mentioned characteristics, technical features, advantages and implementation methods of the present invention.

[0039] Figure 1 This is a schematic diagram of the structure of the utility model;

[0040] Figure 2 for Figure 1 Schematic diagram of the enlarged structure of A;

[0041] Figure 3 This is a schematic diagram of the slideway and related structures in the utility model;

[0042] In the figure: fixing member 1, rotating member 2, solar panel 3, locking member 4, first body 401, fixing slot 402, second body 403, slide slot 404, telescopic member 405, electromagnet 407, elastic member 406, first guide slope 408, second guide slope 409, frame 5, wind turbine 6, generator 601, blade 602, voltage regulating and metering cabinet 7, storage assembly 8, rotating drive member 9, control module 10, time relay 12. DETAILED DESCRIPTION

[0043] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the specific implementation methods of the present invention will be described below with reference to the accompanying drawings. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings and other implementation methods can be obtained based on these drawings without inventive work.

[0044] To simplify the drawings, only the parts relevant to the utility model are schematically shown in each figure; they do not represent the actual structure of the product. Furthermore, to simplify the drawings and facilitate understanding, in some figures, only one of the components with the same structure or function is schematically shown or labeled. In this document, "one" not only means "only one" but also "more than one," and "several" includes "two" and "more than two."

[0045] It should be noted that, unless otherwise specified or limited, the terms "mounted," "connected," and "connected" should be understood broadly. For example, they can refer to fixed, detachable, or integral connections; mechanical or electrical connections; direct or indirect connections through an intermediary; and internal communication between two components. Those skilled in the art will understand the specific meanings of these terms in this utility model based on the specific circumstances.

[0046] In addition, in the description of the present application, the terms "first", "second", etc. are only used to distinguish the description and cannot be understood as indicating or implying relative importance.

[0047] Reference Figures 1 to 3 , which is the first embodiment of the utility model, proposes a wind-solar complementary gas pressure regulating and metering cabinet, including a fixing part 1, a rotating part 2 rotatably arranged on the fixing part 1, a solar panel 3 arranged on the rotating part 2, and a locking part 4 arranged on the fixing part 1, and used to be connected to the rotating part 2, and used to fix or cancel the fixing of the rotating part 2.

[0048] In this embodiment, the fixing member 1 is made of high-strength steel and has undergone anti-corrosion treatment, such as hot-dip galvanizing, to ensure that it is structurally stable and durable in long-term outdoor use. The rotating member 2 is rotatably arranged on the fixing member 1 with the help of bearings. The selection of bearings is based on the overall load of the equipment and the rotation accuracy requirements. It has good sealing and durability and can withstand complex outdoor climate environments. The rotation angle range of the rotating member 2 is designed to be 0-360°, and precise and controllable rotation is achieved through an electric drive device. The locking member 4 is installed on the fixing member 1 and connected to the rotating member 2. When the equipment is in a low wind speed environment, the locking member 4 cancels the fixation of the rotating member 2. When the wind is strong, the wind power generation efficiency is high and the solar panel 3 is easily damaged. The rotating member 2 rotates to a lower resistance position, and the locking member 4 fixes the rotating member 2 to prevent the rotating member 2 from accidentally rotating and damaging the equipment due to strong winds.

[0049] Solar panels 3 can be precisely rotated to a sheltered angle immediately upon strong winds, significantly reducing the direct impact of the wind. In the event of similarly strong winds (e.g., force 8 winds sustained for two hours), damage to traditional fixed solar panel arrays (panel breakage, bracket breakage) is unavoidable. However, the timely wind-shedding adjustment of solar panels 3 in this device effectively extends the panel's service life, significantly reducing equipment operation and maintenance costs (panel replacement, bracket repair, etc.), and ensuring the equipment's continued stable power generation and the continuity of gas pressure regulation and metering operations.

[0050] As a further technical solution, the locking member 4 includes a first main body 401, which is arranged on the rotating member 2, and the first main body 401 has a fixed groove 402, a second main body 403 is arranged on the fixed member 1, and the second main body 403 has a slide groove 404, and the telescopic member 405 is slidably arranged in the slide groove 404, and the telescopic member 405 slides into or out of the fixed groove 402 after sliding.

[0051] In this embodiment, after the fixed member 1 is installed in place, the rotating member 2 is connected to the fixed member 1 via a bearing. The first body 401 is installed at a predetermined position on the rotating member 2. A threaded connection and a positioning pin are used to ensure that the telescopic member 405 slides into or out of the fixed groove 402. The second body 403 is installed at a corresponding position on the fixed member 1 to ensure a precise match with the first body 401. The inner wall of its sliding groove 404 ensures smooth and unobstructed sliding of the telescopic member 405. The telescopic member 405 is placed in the slide groove 404. Initial debugging ensures that the telescopic member 405 can slide freely in the slide groove 404. The coordinated design of the telescopic member 405 and the fixed groove 402 provides a solid fixation for the rotating member 2 and the solar panel 3 when the equipment is subjected to strong winds, preventing damage to the solar panel 3. It effectively avoids problems such as reduced power generation efficiency (due to angle deviation, poor line contact, etc.) and structural damage (loose bracket, panel crack) caused by shaking and displacement of the solar panel 3. Compared with equipment without an effective locking mechanism, the service life of the equipment is expected to be extended by 2-3 times, greatly reducing operation and maintenance costs and equipment failure rate.

[0052] As a further technical solution, the second main body 403 is a non-magnetic part, the telescopic part 405 is a magnetic part, and the locking part 4 also includes an electromagnet 407, which is arranged at one end of the slide groove 404 to provide force for the telescopic part 405 to slide into the elastic part 406, and the elastic part 406 is arranged in the slide groove 404, one end of which acts on the electromagnet 407 and the other end acts on the telescopic part 405 to provide force for the telescopic part 405 to slide into the fixed groove 402, and the elastic part 406 is a non-magnetic part.

[0053] In this embodiment, when the wind is too strong, the solar panel 3 rotates precisely into position, the electromagnet 407 is powered off, and the elastic member 406 immediately takes effect, converting the accumulated elastic potential energy into propulsion power, steadily pushing the telescopic member 405 to quickly embed into the fixed groove 402, and achieving a secure lock. The second main body 403 is made of non-magnetic material, which can be copper, iron, or plastic, etc., which are not adsorbed by magnets. Simultaneously, the elastic member 406 is made of non-magnetic material to eliminate the adverse phenomena such as heat and eddy currents derived from electromagnetic induction from the root, creating a safe, stable, and efficient operating environment for the equipment. The design of the elastic member 406 allows the telescopic member 405 to slide smoothly when needed, with a simple structure and easy maintenance.

[0054] As a further technical solution, there are a plurality of fixing grooves 402 circumferentially arranged on one side of the first body 401 , and there are a plurality of sliding grooves 404 corresponding one-to-one to the fixing grooves 402 .

[0055] In this embodiment, multiple fixing slots 402 are arranged circumferentially and work in conjunction with corresponding slide slots 404 and telescopic members 405. This unique design significantly enhances the stability of the connection between the solar panel 3 and the rotating member 2, enabling it to withstand complex and harsh external environments. Whether it's encountering strong winds that subject the equipment to immense wind pressure or unexpected vibrations and impacts, the multi-slot locking mechanism effectively distributes the forces, firmly "anchoring" the solar panel 3 and preventing unstable conditions such as shaking and displacement.

[0056] As a further technical solution, it also includes a frame 5, a fixing part 1 is arranged on the frame 5, a wind turbine 6 is arranged at the end of the frame 5 and is located above the fixing part 1, a voltage regulating and metering cabinet 7 is arranged on one side of the frame 5, and a storage component 8 is arranged on the voltage regulating and metering cabinet 7. The wind turbine 6 and the solar panel 3 are both connected to the storage component 8, and the storage component 8 is respectively connected to the electromagnet 407 and the voltage regulating and metering cabinet 7.

[0057] In this embodiment, the frame 5 cleverly carries multiple components such as the fixing part 1, the wind turbine 6, and the pressure regulating and metering cabinet 7. From capturing solar energy and wind energy to converting and storing electric energy, to providing energy for gas pressure regulating and metering operations and regulating the mechanical structure of the equipment, it reduces redundant links and energy loss, improves the overall operating efficiency of the equipment, and reduces the complexity of operation and maintenance.

[0058] The integrated design significantly reduces the equipment's footprint and offers excellent site adaptability. Whether it's a gas station in the open countryside or a small energy supply point on the edge of a cramped urban area, the device's compact size and flexible structure ensure secure positioning and efficient operation, as long as basic ventilation, lighting, and safe spacing requirements are met. The bottom of the rack 5 can be configured with different types of feet and rolling wheels as needed, allowing for easy adjustment of placement based on site conditions, easily integrating into diverse usage scenarios and broadening the device's application range.

[0059] Wind turbine 6 and solar panel 3 harness the full power of nature. During daytime sunlight, solar panel 3 efficiently converts sunlight into electricity. At night, on cloudy days, and in areas with strong winds, wind turbine 6 continuously generates electricity. The interleaving of these two generators and their complementary advantages significantly expands energy acquisition, continuously replenishing power storage component 8 and significantly improving the device's overall energy self-sufficiency. This reduces reliance on the external power grid and ensures stable power to support device operation in all weather conditions and at all times, making it particularly suitable for remote areas with unstable power supply.

[0060] The battery pack 8 supplies a stable current to the electromagnet 407 and the pressure-regulating and metering cabinet 7. With precise, stable power, the electromagnet 407 unlocks and locks precisely, allowing the telescopic member 405 to advance and retract in an orderly manner. This allows for flexible and stable adjustment of the solar panel 3 and the rotating member 2, ensuring the safety and stability of the equipment's mechanical structure. The pressure-regulating and metering cabinet 7, relying on a reliable power supply, precisely controls gas pressure regulation and flow measurement, achieving minimal pressure regulation errors and accurate flow measurement. This provides a solid foundation for gas transmission operations, prevents operational failures caused by power fluctuations, and ensures safe and efficient gas distribution.

[0061] As a further technical solution, it also includes a rotating driving member 9, which is arranged on the fixed member 1 to drive the rotating member 2 to rotate. The control module 10 is arranged on the fixed member 1, and the storage component 8 is connected to the electromagnet 407 and the voltage regulating and metering cabinet 7 respectively through the control module 10.

[0062] In this embodiment, a rotary drive element 9 is mounted on the fixed element 1 and, following precise instructions from the control module 10, drives the rotating element 2 for flexible and precise rotation. The rotary drive element 9 precisely controls the rotation angle and speed of the rotating element 2, ensuring that the solar panel 3 maximizes solar energy capture. In windy conditions, the solar panel 3 is quickly and smoothly rotated to the optimal wind-proof angle for its mechanical structure, effectively enhancing the device's adaptability to complex natural environments and significantly improving the stability and sustainability of energy utilization.

[0063] As the energy source for the equipment, the battery pack 8, with the help of the control module 10, achieves scientific distribution and efficient utilization of electrical energy. In response to the unlocking and locking requirements of the electromagnet 407 and the power stability requirements of the voltage-regulating metering cabinet 7, the control module 10 dynamically adjusts the power output based on the real-time operating status of each component, ensuring that the electromagnet 407 has sufficient and stable power to drive the telescopic member 405 at critical moments, ensuring timely and smooth mechanical adjustments. At the same time, the battery pack 8 continuously supplies a smooth and clutter-free current to the voltage-regulating metering cabinet 7, so that its gas pressure regulation and metering operations are not affected by power fluctuations. The pressure regulation is precise and stable, and the flow measurement error is minimal, maintaining the efficiency and safety of the gas supply system and achieving a delicate balance between energy supply and demand within the equipment.

[0064] As a further technical solution, a time relay 12 is further included. The time relay 12 is arranged between the control module 10 and the electromagnet 407. The control module 10 is configured to disconnect the control module 10 from the electromagnet 407 when the current of the wind turbine 6 is too large.

[0065] In this embodiment, time relay 12 acts as an "electromagnetic bodyguard" within the device. When control module 10 receives a signal indicating excessive current from wind turbine 6, it promptly disconnects control module 10 from electromagnet 407. This mechanism effectively prevents electromagnet 407 from operating under abnormal current conditions, potentially leading to overheating and coil burnout. Operating electromagnet 407 in a stable current environment significantly extends its service life, reducing equipment downtime and repair costs associated with electromagnet failures and ensuring long-term, stable operation.

[0066] The control module 10's real-time monitoring of the wind turbine 6's current demonstrates the device's intelligence. In unstable wind conditions, the wind turbine 6's current may fluctuate significantly. By providing a mechanism to disconnect the device when the current is too high, the control module 10 can proactively address this situation, ensuring that the device operates within a safe current range. This not only protects the electromagnet 407 but also helps maintain the overall electrical stability of the device, avoiding cascading failures caused by local current anomalies and ensuring the proper functioning of other components such as the wind-solar hybrid system and the voltage regulating and metering cabinet 7.

[0067] The coordination of time relay 12 and control module 10 forms a fault prevention mechanism. As soon as the wind turbine 6's current begins to rise abnormally, the system quickly responds by shutting off power to electromagnet 407. This proactive fault prevention measure, compared to waiting for repairs after a fault occurs, effectively reduces the probability of sudden equipment failures, lowers the frequency of equipment maintenance, improves operational reliability and continuity, and ensures that gas pressure regulation and metering operations are not disrupted by equipment failures.

[0068] When excessive current occurs, the time relay 12 and control module 10 disconnect the device in an orderly manner, ensuring a safe transition in the event of an abnormality. This emergency response mechanism prevents irreversible damage to the electromagnet 407 caused by excessive current, while also buying time for troubleshooting and repairing any potential failures. Once normal current is restored, the system can reconnect the electromagnet 407, restoring normal operation and ensuring efficient energy collection and utilization.

[0069] As a further technical solution, the telescopic member 405 has a first guiding inclined surface 408 , and the fixing groove 402 has a second guiding inclined surface 409 . After the telescopic member 405 slides, the second guiding inclined surface 409 abuts against the first guiding inclined surface 408 .

[0070] In this embodiment, the design of the first guiding bevel 408 of the telescopic member 405 and the second guiding bevel 409 of the fixed groove 402 is such that when the telescopic member 405 slides toward the fixed groove 402 under the push of the elastic member 406, the first guiding bevel 408 and the second guiding bevel 409 gradually come into contact. This bevel design cleverly guides the telescopic member 405 to slide precisely into the fixed groove 402, ensuring the accuracy and efficiency of the locking action. Regardless of the working conditions of the equipment, for example, when the solar panel 3 needs to be quickly locked after rotation, the guiding effect of the bevel can enable the telescopic member 405 to quickly and accurately enter the fixed groove 402, achieve a stable lock, ensure that the solar panel 3 remains at the optimal working angle, and thus ensure the stability of energy collection.

[0071] When electromagnet 407 is energized and unlocking is required, telescopic member 405 retracts. The contact design between first guide bevel 408 and second guide bevel 409 also plays a key role. The presence of these bevels allows telescopic member 405 to move smoothly when disengaging from fixed slot 402, reducing mechanical jamming and component wear that could occur from forced disengagement. This design extends the service life of telescopic member 405 and fixed slot 402, reduces maintenance costs, and ensures efficient and stable operation during frequent locking and unlocking operations.

[0072] As a further technical solution, the wind turbine 6 includes a generator 601 , which is disposed on the frame 5 . The generator 601 has a rotating shaft, and a plurality of blades 602 are arranged in a circle on the rotating shaft.

[0073] In this embodiment, a plurality of blades 602 are arranged circumferentially on the rotating shaft of the generator 601. This design can maximize the capture of wind energy. When the wind blows, multiple blades 602 are simultaneously subjected to force, increasing the area for capturing wind energy. Compared with a design with a single blade or fewer blades, multiple blades 602 arranged circumferentially can more comprehensively receive wind energy from different directions, allowing the wind turbine 6 to start and generate electricity even at lower wind speeds, thereby improving the efficiency of wind energy utilization. The circumferentially arranged blades 602 can be evenly stressed during rotation. Each blade 602 passes through the area with the strongest wind force in turn as the wind rotor rotates, ensuring that the torque on the rotating shaft is relatively stable. This uniform force characteristic makes the rotation speed of the generator 601 more stable, thereby achieving stable power output. Whether in a light breeze or a strong wind environment, the wind turbine 6 can smoothly convert wind energy into electrical energy, charging the subsequent storage component 8, ensuring a stable energy supply for the entire equipment system, and meeting the power requirements of equipment operation and gas pressure regulation and metering operations.

[0074] Multiple blades 602 are evenly distributed along the rotating shaft, forming a symmetrical and stable structure. This structure helps wind turbine 6 withstand external forces such as strong winds. In windy weather, the circular arrangement of blades 602 effectively disperses wind pressure on the rotor, preventing blade breakage or shaft damage due to localized excessive force. Furthermore, generator 601 is mounted on frame 5, providing stable support for the generator and further enhancing the overall structural stability of wind turbine 6, ensuring its long-term reliable operation in harsh environments.

[0075] As a further technical solution, the power storage assembly 8 is connected to the rotating drive member 9 .

[0076] In this embodiment, the power storage component 8 is connected to the rotating drive member 9, providing a stable and reliable energy source for the rotating drive member 9. The rotating drive member 9 is responsible for driving the rotating member 2 to rotate. During the operation of the equipment, whether it is adjusting the orientation of the solar panel 3 according to the change in light angle, or changing the angle of the solar panel 3 according to the wind direction and wind force to reduce wind resistance or better utilize wind energy, the rotating drive member 9 needs to work stably. The power storage component 8 can ensure that under different working conditions, sufficient electrical energy is continuously provided to the rotating drive member 9, so that it can accurately and stably control the rotation of the rotating member 2, ensure that the equipment responds to environmental changes in a timely and accurate manner, and maintain the stability of the equipment operation.

[0077] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, and all of these should be included in the scope of the claims of the present invention.

Claims

1. Wind-solar complementary gas pressure regulating and metering cabinet, characterized by: include: Fixing (1), A rotating member (2), the rotating member (2) being rotatably arranged on the fixed member (1), a solar panel (3), wherein the solar panel (3) is arranged on the rotating member (2), A locking member (4) is provided on the fixing member (1) and is used to connect with the rotating member (2) and to fix or cancel the fixing of the rotating member (2).

2. The wind-solar complementary gas pressure regulating and metering cabinet according to claim 1 is characterized in that: The locking member (4) comprises: A first body (401), the first body (401) is arranged on the rotating member (2), the first body (401) has a fixing groove (402), A second main body (403), the second main body (403) is arranged on the fixing member (1), and the second main body (403) has a sliding groove (404), A telescopic member (405) is slidably disposed in the sliding groove (404), and the telescopic member (405) slides into or out of the fixed groove (402).

3. The wind-solar complementary gas pressure regulating and metering cabinet according to claim 2 is characterized in that: The second main body (403) is a non-magnetic part, the telescopic part (405) is a magnetic part, and the locking part (4) further comprises: an electromagnet (407), the electromagnet (407) being arranged at one end of the slide groove (404) and providing a force for the telescopic member (405) to slide into the elastic member (406), An elastic member (406) is arranged in the sliding groove (404), one end of the elastic member acts on the electromagnet (407), and the other end acts on the telescopic member (405), providing a force for the telescopic member (405) to slide into the fixed groove (402), and the elastic member (406) is a non-magnetic member.

4. The wind-solar complementary gas pressure regulating and metering cabinet according to claim 3 is characterized in that: There are a plurality of fixing grooves (402) arranged circumferentially on one side of the first main body (401), and there are a plurality of sliding grooves (404) corresponding one to one with the fixing grooves (402).

5. The wind-solar complementary gas pressure regulating and metering cabinet according to claim 3 is characterized in that: Also includes: A frame (5), wherein the fixing member (1) is arranged on the frame (5), A wind turbine (6), the wind turbine (6) being arranged at an end of the frame (5) and located above the fixing member (1), A voltage regulating and metering cabinet (7), wherein the voltage regulating and metering cabinet (7) is arranged on one side of the frame (5), An electricity storage component (8) is provided on the voltage regulating and metering cabinet (7), the wind turbine (6) and the solar panel (3) are both connected to the electricity storage component (8), and the electricity storage component (8) is respectively connected to the electromagnet (407) and the voltage regulating and metering cabinet (7).

6. The wind-solar hybrid gas pressure regulating and metering cabinet according to claim 5 is characterized in that: Also includes: A rotating driving member (9), wherein the rotating driving member (9) is arranged on the fixing member (1) and drives the rotating member (2) to rotate. A control module (10) is provided on the fixing member (1), and the power storage assembly (8) is connected to the electromagnet (407) and the voltage regulating and metering cabinet (7) respectively through the control module (10).

7. The wind-solar hybrid gas pressure regulating and metering cabinet according to claim 6 is characterized in that: Also includes: A time relay (12), the time relay (12) being arranged between the control module (10) and the electromagnet (407), the control module (10) being configured to disconnect the control module (10) from the electromagnet (407) when the current of the wind turbine (6) is too large.

8. The wind-solar hybrid gas pressure regulating and metering cabinet according to claim 4 is characterized in that: The telescopic member (405) has a first guiding inclined surface (408), and the fixed groove (402) has a second guiding inclined surface (409). After the telescopic member (405) slides, the second guiding inclined surface (409) abuts against the first guiding inclined surface (408).

9. The wind-solar hybrid gas pressure regulating and metering cabinet according to claim 5 is characterized in that: The wind turbine (6) comprises: A generator (601), the generator (601) is arranged on the frame (5), and the generator (601) has a rotating shaft, The blades (602) are multiple and arranged in a circular pattern on the rotating shaft.

10. The wind-solar complementary gas pressure regulating and metering cabinet according to claim 6, characterized in that: The power storage component (8) is connected to the rotating drive component (9).

Images