Low-carbon efficient economical heat supply station

Abstract

The utility model relates to the technical field of heat supply stations, and discloses a low-carbon efficient economical heat supply station which comprises a heat supply station body, a heat supply unit is arranged in the heat supply station body and connected with a heat supply pipeline used for conveying a heat source, and a solar heat collection plate is arranged at the top of the heat supply station body. The solar heat collection plate is connected with the heat supply unit and used for providing auxiliary energy for the heat supply unit, and an energy storage device is further arranged in the heat supply station body, connected with the heat supply unit and used for storing redundant heat generated by the heat supply unit. Through the collaborative design of the solar heat collection plate and the multi-stage heat exchanger, combination of clean energy and efficient heat exchange is achieved, traditional energy consumption is reduced through auxiliary energy input, the energy storage device recovers and stores redundant heat and releases the redundant heat at the demand valley, and heat loss is reduced by matching with a double-heat-preservation structure; a low-carbon energy-saving closed loop is formed from energy supply to conversion utilization, and the overall heat efficiency of the system is remarkably improved.

Description

Technical Field

[0001] This utility model relates to the field of heating station technology, and in particular to a low-carbon, high-efficiency and economical heating station. Background Technology

[0002] Heating stations are facilities that provide centralized heating, typically relying on boiler systems, heat exchange devices, and pipeline networks to ensure the efficient transfer of heat to users. Their main function is to heat water or steam and then use the pipeline network to deliver heat to various buildings or areas, guaranteeing comfortable heating during winter or in low-temperature environments.

[0003] Traditional heating stations typically include a boiler, heat exchanger, fuel supply system, and control system. The boiler is responsible for converting fuel into heat energy, the heat exchanger transfers heat to the heating system, the fuel supply system ensures a continuous energy supply, and the control system manages parameters such as temperature and pressure during the heating process.

[0004] Traditional heating stations typically rely on fossil fuels (such as coal and natural gas) as their energy source. The combustion of these fuels produces large amounts of carbon dioxide and other harmful gases, resulting in low energy efficiency and a significant environmental impact. Furthermore, the heat transfer process in traditional heating stations is often accompanied by substantial heat loss, preventing them from achieving optimal efficiency. These factors not only lead to energy waste but also exacerbate greenhouse gas emissions, further aggravating the risks of global climate change. Therefore, traditional heating stations have significant shortcomings in terms of low carbon emissions and high efficiency, necessitating technological improvements and structural optimization to achieve greener and more efficient energy use. Summary of the Invention

[0005] To overcome the above shortcomings, this utility model provides a low-carbon, high-efficiency, and economical heating station, aiming to improve the significant deficiencies in the low-carbon and high-efficiency performance of traditional heating stations.

[0006] To achieve the above objectives, the present invention adopts the following technical solution: a low-carbon, high-efficiency, and economical heating station, comprising a main body of the heating station, wherein a heating unit is installed inside the main body of the heating station, the heating unit is connected to a heating pipeline for conveying heat source, and a solar collector is provided on the top of the main body of the heating station, the solar collector being connected to the heating unit for providing auxiliary energy to the heating unit.

[0007] Furthermore, the main body of the heating station is also equipped with an energy storage device, which is connected to the heating unit and is used to store the excess heat generated by the heating unit.

[0008] Furthermore, a flow regulating valve is installed on the heating pipeline, which is used to regulate the flow rate of the heat source in the heating pipeline.

[0009] Furthermore, the main body of the heating station is equipped with an intelligent control system, which is connected to the heating unit, solar collector, energy storage device and flow regulating valve respectively, for monitoring and regulating the operation of each device.

[0010] Furthermore, the heating unit includes a multi-stage heat exchanger, the input end of which is connected to a heat source generating device, and the output end is connected to a heating pipeline. The outer shell of the multi-stage heat exchanger is provided with a heat insulation layer.

[0011] Furthermore, the main body of the heating station is provided with an insulation layer, which is used to reduce heat loss from the main body of the heating station.

[0012] Furthermore, the main body of the heating station is provided with a shock-absorbing base at its bottom, which is used to reduce the vibration generated during the operation of the heating station.

[0013] This utility model has the following beneficial effects:

[0014] In this invention, the design of a solar collector and a multi-stage heat exchanger is used to combine clean energy with efficient heat exchange. This reduces traditional energy consumption by assisting energy input, and the energy storage device recovers and stores excess heat and releases it during periods of low demand. Combined with a double insulation structure, heat loss is reduced. This forms a low-carbon and energy-saving closed loop from energy supply to conversion and utilization, significantly improving the overall thermal efficiency of the system.

[0015] In this invention, the intelligent control system monitors the operating status of each device in real time and dynamically adjusts the flow distribution to accurately match the heating demand at different times and reduce energy waste; the bottom shock-absorbing base effectively reduces the vibration of the equipment during operation, and combined with the stable structural design, ensures the long-term reliable operation of the heating station, thereby improving the level of intelligent management and extending the service life of the equipment. Attached Figure Description

[0016] Figure 1 A three-dimensional view of a low-carbon, high-efficiency, and economical heating station proposed in this utility model;

[0017] Figure 2 This is a schematic diagram of the heating unit structure of a low-carbon, high-efficiency, and economical heating station proposed in this utility model.

[0018] Figure 3 This is a schematic diagram of a multi-stage heat exchanger structure for a low-carbon, high-efficiency, and economical heating station proposed in this utility model.

[0019] Legend:

[0020] 1. Main body of heating station; 2. Heating unit; 3. Heating pipeline; 4. Solar collector panel; 5. Energy storage device; 6. Flow regulating valve; 7. Intelligent control system; 8. Multi-stage heat exchanger; 9. Thermal insulation layer; 10. Insulation layer; 11. Vibration damping base. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0022] Reference Figures 1-3 This utility model provides an embodiment of a low-carbon, high-efficiency, and economical heating station, comprising a main body 1, a heating unit 2 installed within the main body 1, a heating pipe 3 connected to the heating unit 2 for transporting heat source, a solar collector 4 installed on the top of the main body 1, connected to the heating unit 2 to provide auxiliary energy for the heating unit 2, an energy storage device 5 installed within the main body 1, connected to the heating unit 2 to store excess heat generated by the heating unit 2, and a flow regulating valve 6 installed on the heating pipe 3 to regulate the flow rate of heat source within the heating pipe 3. The main body 1 is equipped with an intelligent control system 7, which is connected to the heating unit 2, solar collector 4, energy storage device 5 and flow regulating valve 6 respectively, and is used to monitor and regulate the operation of each device. The heating unit 2 includes a multi-stage heat exchanger 8. The input end of the multi-stage heat exchanger 8 is connected to the heat source generating device, and the output end is connected to the heating pipeline 3. The outer shell of the multi-stage heat exchanger 8 is provided with a heat insulation layer 9. The main body 1 of the heating station is provided with an insulation layer 10. The insulation layer 10 is used to reduce the heat loss inside the main body 1 of the heating station. The bottom of the main body 1 of the heating station is provided with a shock-absorbing base 11. The shock-absorbing base 11 is used to reduce the vibration generated during the operation of the heating station.

[0023] Specifically, during operation, the solar collectors 4 prioritize collecting solar energy and converting it into heat energy. This heat energy serves as auxiliary energy input to the heating unit 2, reducing reliance on and consumption of traditional energy sources. The multi-stage heat exchangers 8 within the heating unit 2 generate high-temperature heat through heat source generation devices, such as clean energy combustion or industrial waste heat. After high-efficiency enhancement by the multi-stage heat exchangers, the heat is delivered to users via heating pipes 3. Flow regulating valves 6 on the pipes dynamically adjust the flow rate according to instructions from the intelligent control system 7, ensuring that the system can meet different heating demands at different times. Excess heat is stored in the energy storage device 5. When energy supply is low, the energy storage device releases stored heat to supplement it, ensuring the stability of heating. The external insulation layer 10 of the main body 1 of the heating station works in conjunction with the insulation layer 9 of the multi-stage heat exchanger 8 to reduce energy efficiency loss caused by heat loss during system operation. The intelligent control system 7 monitors the working status of the solar collector, energy storage device, heating unit and flow regulating valve in real time, and adjusts and optimizes the energy distribution strategy through feedback data to ensure that the heating station achieves efficient energy use in low-carbon mode. The shock-absorbing base 11 at the bottom effectively reduces the vibration of the equipment during operation through its damping structure, thereby ensuring the long-term stable operation of the equipment.

[0024] Working Principle: During operation, the solar collector panel 4 prioritizes collecting solar energy and converting it into heat energy, which is then used as auxiliary energy input to the heating unit 2, reducing the consumption of traditional energy. The multi-stage heat exchanger 8 within the heating unit 2 generates a high-temperature heat source through a heat source generating device such as clean energy combustion or industrial waste heat. After efficiency is improved through multi-stage heat exchange, the heat is delivered to the user end through the heating pipeline 3. The flow regulating valve 6 on the pipeline dynamically adjusts the flow rate according to the instructions of the intelligent control system 7 to meet the heating demand at different times. Excess heat is stored by the energy storage device 5 and released to supplement energy supply during off-peak hours. The external insulation layer 10 of the main body 1 and the insulation layer 9 of the multi-stage heat exchanger 8 work together to reduce heat loss. The intelligent control system 7 monitors the operating status of the solar collector panel, energy storage device, heating unit, and flow regulating valve in real time, optimizing the energy distribution strategy through data feedback to ensure efficient operation of the system in a low-carbon mode. The bottom vibration damping base 11 reduces equipment vibration through a damping structure, ensuring long-term stable operation.

[0025] Finally, it should be noted that the above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Although the present utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A low-carbon, high-efficiency, and economical heating station, comprising a main body (1) of the heating station, characterized in that: The main body (1) of the heating station is equipped with a heating unit (2), which is connected to a heating pipeline (3) for transporting heat source. The top of the main body (1) of the heating station is equipped with a solar collector (4), which is connected to the heating unit (2) and is used to provide auxiliary energy for the heating unit (2).

2. The low-carbon, high-efficiency, and economical heating station according to claim 1, characterized in that: The main body (1) of the heating station is also equipped with an energy storage device (5), which is connected to the heating unit (2) and is used to store the excess heat generated by the heating unit (2).

3. The low-carbon, high-efficiency, and economical heating station according to claim 2, characterized in that: A flow regulating valve (6) is installed on the heating pipe (3), and the flow regulating valve (6) is used to regulate the flow rate of the heat source in the heating pipe (3).

4. A low-carbon, high-efficiency, and economical heating station according to claim 3, characterized in that: The main body (1) of the heating station is equipped with an intelligent control system (7), which is connected to the heating unit (2), solar collector (4), energy storage device (5) and flow regulating valve (6) respectively, and is used to monitor and regulate the operation of each device.

5. A low-carbon, high-efficiency, and economical heating station according to claim 4, characterized in that: The heating unit (2) includes a multi-stage heat exchanger (8), the input end of which is connected to a heat source generating device, and the output end is connected to a heating pipeline (3). The outer shell of the multi-stage heat exchanger (8) is provided with a heat insulation layer (9).

6. A low-carbon, high-efficiency, and economical heating station according to claim 5, characterized in that: The heating station body (1) is provided with an insulation layer (10) on the outside, which is used to reduce heat loss inside the heating station body (1).

7. A low-carbon, high-efficiency, and economical heating station according to claim 6, characterized in that: The heating station body (1) is provided with a shock-absorbing base (11) at the bottom, which is used to reduce the vibration generated during the operation of the heating station.

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