Building heating pipeline construction device

Abstract

The utility model discloses a building heating pipeline construction device, which belongs to the technical field of pipeline construction, and comprises an air treatment device, a heating pipeline construction device, a heating pipeline construction device, a heating pipeline construction device and a heating pipeline construction device, and is characterized in that the air treatment device is used for purifying and humidifying air and adjusting temperature to ensure the air quality of a construction environment; the heat pump is used for providing heat regulation in the building to realize a heat supply function; the reverse osmosis filter is used for purifying a water source in the heat supply system to ensure that the water quality is clean; a built-in vacuum dust collector is used for cleaning dust and sundries generated in the construction process, and it is guaranteed that the construction environment is clean and tidy. The air quality of the construction environment can be effectively improved through the air purification, humidification and temperature regulation functions of the air treatment device. Dust, bacteria and harmful gas in the construction process are removed through the purification function, and the health of constructors is protected; the humidifying function can keep proper humidity, and adverse effects of dry environment on construction materials and personnel are prevented.

Description

Technical Field

[0001] This utility model relates to the field of pipeline construction technology, and more specifically, to a construction device for building heating pipelines. Background Technology

[0002] During building construction, heating pipe systems are crucial for ensuring comfortable and stable indoor temperatures. However, existing heating pipe installation equipment has several problems:

[0003] 1. Construction Environment Issues: During cold seasons, low temperatures can negatively impact the health and work efficiency of construction workers. Poor air quality and insufficient humidity can cause discomfort such as difficulty breathing and dry skin. Traditional construction environments often fail to adequately consider worker comfort, leading to reduced efficiency.

[0004] 2. Water Quality Issues: The quality of the water source in a heating system is crucial to the long-term stability of the system and the service life of the equipment. Impurities, dissolved substances, bacteria, and other contaminants in the water, if not treated promptly, will form scale in the system, affecting heat exchange efficiency and even damaging pipes and heat exchange equipment. These problems can usually only be resolved through manual inspection or regular maintenance, increasing maintenance costs.

[0005] 3. Environmental pollution at the construction site: During construction, especially when laying heating pipes, a large amount of dust and debris is generated. This dust and debris not only harms the health of construction workers but also leads to chaos at the construction site, affecting construction progress and quality. Traditional construction site cleaning methods are inefficient and easily leave dust behind, causing difficulties for subsequent work.

[0006] 4. Difficulty in System Control and Adjustment: Existing heating pipe systems rely heavily on manual intervention for control. Manual control easily leads to low system accuracy, resulting in uneven temperature distribution and energy waste. Furthermore, precise regulation of water and air flow is difficult, and the lack of intelligent management makes pipe flow unstable during construction, hindering flexible adjustments based on demand.

[0007] 5. Safety Issues: During the operation of heating pipe systems, factors such as hot water or hot air backflow and unstable pipe pressure may lead to system malfunctions or operational instability, affecting the smooth progress of construction. Traditional pipe systems lack effective safety protection measures and cannot be adjusted in a timely manner when abnormalities occur, increasing the risk of system damage or safety hazards.

[0008] Therefore, developing an integrated construction device for building heating pipes is particularly important to address the aforementioned issues. This device not only effectively improves the construction environment, providing comfortable and healthy working conditions, but also achieves efficient purification of the heating system's water, reducing damage to the equipment from impurities. Furthermore, through an intelligent automatic control system, it can precisely regulate water flow, airflow, and temperature, ensuring the stable operation of the heating pipe system, improving construction efficiency, and reducing safety hazards. Utility Model Content

[0009] 1. Technical problems to be solved

[0010] To address the problems existing in the prior art, the purpose of this utility model is to provide a construction device for building heating pipes. This device can effectively improve the construction environment, provide comfortable and healthy working conditions, and efficiently purify the water quality of the heating system, reducing damage to the equipment from impurities. It can precisely regulate water flow, airflow, and temperature, ensuring the stable operation of the heating pipe system, improving construction efficiency, and reducing safety hazards.

[0011] 2. Technical Solution

[0012] To solve the above problems, the present invention adopts the following technical solution.

[0013] A building heating pipe construction device includes an air handling unit for purifying, humidifying, and regulating the temperature of the air to ensure air quality in the construction environment; a heat pump for providing heat regulation within the building to achieve heating function; a reverse osmosis filter for purifying the water source in the heating system to ensure water quality; a built-in vacuum cleaner for cleaning dust and debris generated during construction to ensure a clean construction environment; a calorimeter for monitoring and adjusting the heat transfer of the heating system during construction; an air heater for heating the air to ensure a comfortable temperature in the construction environment; a check valve for preventing backflow of hot water or hot air in the heating pipes to ensure stable system operation; and a return temperature limiter for limiting the temperature of the fluid returning from the heating system to prevent excessive temperature. Or too low; Solenoid valve, used to regulate water or air flow in the pipeline to achieve automatic system control; Differential pressure regulator, used to control the pressure difference between various parts of the pipeline system to ensure system balance and stability; Water meter, used to monitor and record water flow in the system to adjust water volume and heating load; Filter, used to clean the fluid in the heating system to prevent impurities from affecting system operation; Temperature sensor, used to monitor the temperature of key parts in the system in real time to ensure the system operates within the set temperature range; Fan unit control panel, used to control the fan in the system to regulate air flow and achieve air distribution; Heat pump thermostat, used to control the start and stop of the heat pump and temperature setting to regulate heating capacity; Ball valve, used to control the water flow switch in the heating pipes to ensure that the fluid flow in the pipes is adjustable.

[0014] Based on the above characteristics, the heat pump, reverse osmosis filter, built-in vacuum cleaner, calorimeter, air heater, and check valve assembly are connected through a pipeline system to form an integrated pipeline construction and monitoring system.

[0015] In some embodiments, the water meter and temperature sensor are used to provide real-time feedback on the operating status of the heating pipe system during construction.

[0016] Based on the above characteristics, the wind turbine control panel is connected to all control components for unified scheduling and monitoring of the system's operation.

[0017] In some embodiments, the differential pressure regulator is used to ensure a stable pressure difference between the pipes.

[0018] Based on the above characteristics, the solenoid valve is used to automatically control the switching of water flow or air flow, and can adjust the fluid flow in the pipeline according to system requirements.

[0019] 3. Beneficial effects

[0020] Compared with existing technologies, the advantages of this utility model are:

[0021] 1) The air purification, humidification, and temperature control functions of the air handling unit can effectively improve the air quality of the construction environment. The purification function removes dust, bacteria, and harmful gases during the construction process, protecting the health of construction workers; the humidification function maintains suitable humidity, preventing the environment from drying out and adversely affecting construction materials and personnel; and the temperature control ensures that construction workers can work in a comfortable temperature, especially in cold seasons, which helps to improve work efficiency and construction quality.

[0022] 2) Reverse osmosis filters purify the water source in the heating system, removing impurities and dissolved substances, effectively preventing damage to heat exchange equipment from scale and pollutants, extending equipment lifespan, and ensuring long-term stable system operation. Built-in vacuum cleaners can clean up dust and debris generated during construction in real time, avoiding air pollution and environmental mess caused by dust in traditional construction methods. This device, through automatic start-up and efficient dust collection, ensures a clean construction site, improves the working environment for construction workers, and reduces safety risks at the construction site.

[0023] 3) This device utilizes an automated control system, including solenoid valves, ball valves, and a fan unit control panel, to precisely regulate water and air flow in the pipeline. It can also adjust airflow and temperature according to system requirements. Intelligent control reduces the complexity and errors of manual operation, improving the accuracy and reliability of the construction process. The design of check valves and return temperature limiters prevents backflow of hot water or hot air, as well as excessively high or low temperatures, ensuring the system operates in a stable and safe state. These safety devices effectively prevent accidents caused by system malfunctions or improper operation, reducing the frequency of system maintenance and repair, and ensuring the long-term stability of the equipment. Attached Figure Description

[0024] Figure 1 This is a structural schematic diagram of a construction device for building heating pipes according to the present invention.

[0025] Explanation of the labels in the diagram:

[0026] 1. Air handling unit; 2. Heat pump; 3. Reverse osmosis filter; 4. Built-in vacuum cleaner; 5. Calorimeter; 6. Air heater; 7-9. Check valve; 10. Return temperature limiter; 11. Solenoid valve; 12. Differential pressure regulator; 13-16. Water meter; 17-20. Filter; 21. Check valve; 22-25. Temperature sensor; 26. Fan unit control panel; 27. Heat pump thermostat; 28-44. Ball valve. Detailed Implementation

[0027] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present utility model. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present utility model without creative effort are within the protection scope of the present utility model.

[0028] Example 1:

[0029] Please see Figure 1A construction device for building heating pipes includes an air handling unit 1 for purifying, humidifying, and regulating the temperature of the air to ensure air quality in the construction environment; a heat pump 2 for providing heat regulation within the building to achieve heating function; a reverse osmosis filter 3 for purifying the water source in the heating system to ensure water quality; a built-in vacuum cleaner 4 for cleaning dust and debris generated during construction to ensure a clean construction environment; a calorimeter 5 for monitoring and adjusting the heat transfer of the heating system during construction; an air heater 6 for heating the air to ensure a comfortable temperature in the construction environment; check valves 7-9 for preventing backflow of hot water or hot air in the heating pipes to ensure stable system operation; a return temperature limiter 10 for limiting the temperature of the fluid returning from the heating system to prevent excessively high or low temperatures; and a solenoid valve 1. 1. A heat pump 2 is used to regulate the water or air flow in the pipeline to achieve automatic system control; 2. A differential pressure regulator 12 is used to control the pressure difference between different parts of the pipeline system to ensure system balance and stability; 3. Water meters 13-16 are used to monitor and record the water flow in the system to adjust the water volume and heating load; 4. Filters 17-20 are used to clean the fluid in the heating system to prevent impurities from affecting system operation; 5. Temperature sensors 22-25 are used to monitor the temperature of key parts in the system in real time to ensure that the system operates within the set temperature range; 6. Fan unit control panel 26 is used to control the fans in the system, regulate air flow, and achieve air distribution; 7. Heat pump thermostat 27 is used to control the start and stop of heat pump 2 and temperature setting to regulate the heating capacity; 8. Ball valves 28-44 are used to control the water flow switch in the heating pipes to ensure that the fluid flow in the pipes is adjustable. Heat pump 2, reverse osmosis filter 3, built-in vacuum cleaner 4, calorimeter 5, air heater 6, and check valves 7-9 are connected through the pipeline system to form an integrated pipeline construction and monitoring system.

[0030] In some embodiments, the water meters 13-16 and temperature sensors 22-25 are used to provide real-time feedback on the operating status of the heating pipe system during construction. The fan unit control panel 26 is connected to all control components for unified scheduling and monitoring of the system's operation.

[0031] In some embodiments, the differential pressure regulator 12 is used to ensure a stable pressure difference between the pipes. The solenoid valve 11 is used to automatically control the on / off switching of water or air flow, and can regulate the fluid flow in the pipes according to system requirements.

[0032] Working Principle: The core task of the air handling unit is to ensure air quality in the construction environment. This unit provides a comfortable working environment through three main functions: purification, humidification, and temperature regulation. The built-in air filter effectively removes dust, bacteria, and harmful gases from the air, ensuring a safe breathing environment for personnel during construction. A water atomizer releases moisture into the air, maintaining appropriate humidity and preventing damage to construction materials or discomfort caused by dryness. The unit is equipped with a temperature control system that can adjust the indoor air temperature according to actual needs, ensuring a warm environment so that construction workers can work comfortably, which is especially important during winter construction.

[0033] A heat pump system works by absorbing low-temperature heat energy from the environment and converting it into high-temperature heat energy required for the heating system. In heating mode, the heat pump extracts heat from the outside air or underground, pressurizes it with a compressor, and then transfers it to the indoor heating system to provide constant-temperature warmth. Driven by a small amount of electricity, a heat pump can generate a large amount of heat energy, making it more energy-efficient and reducing energy consumption compared to traditional heating equipment.

[0034] Reverse osmosis filters purify water sources by removing dissolved substances, bacteria, and impurities from the water through a reverse osmosis membrane. Driven by pressure, water molecules pass through the reverse osmosis membrane, effectively blocking impurities and contaminants, ensuring the cleanliness of the water source in the heating system. The purity of the water is crucial for the normal operation of heating equipment, reducing damage to the heat exchange system from scale and impurities, and extending the system's lifespan.

[0035] The vacuum cleaner is built into the construction unit to clean up dust and debris generated during construction in real time. Its efficient suction function quickly adsorbs and collects building material dust, sawdust, and other debris from the construction environment, ensuring a clean construction site and minimizing the impact on the health of construction workers. The vacuum cleaner automatically starts in conjunction with other systems, ensuring that the cleaning process does not disrupt the normal progress of construction.

[0036] A calorimeter is used to monitor and regulate heat transfer in building heating systems. This device monitors the flow and temperature of hot water or hot air in the heating system in real time to ensure efficient operation. The calorimeter feeds the measured data back to the system control panel, helping operators determine if adjustments to the heating system output are needed to ensure temperature stability.

[0037] Air heaters regulate the temperature of the construction environment by heating the air. Through internal heating elements, air heaters can quickly raise the air temperature in the construction environment, ensuring comfort during the construction process. Air heaters can precisely regulate the temperature through a temperature control system to adapt to different weather conditions and ensure a suitable indoor temperature.

[0038] Check valves are used to prevent the backflow of hot water or steam in heating pipes. When the water flow direction in the piping system changes, the check valve automatically closes due to its internal one-way valve design, preventing hot water from flowing back to the water source and ensuring the stable operation of the heating system. Return temperature limiters are used to limit the temperature of the fluid returning from the heating system, preventing it from becoming too high or too low. Using a built-in temperature sensor, the return temperature limiter monitors the temperature of the return water and automatically adjusts valves or heating equipment to ensure the system temperature operates within a safe and suitable range.

[0039] Solenoid valves are used to regulate water or air flow in pipelines, performing automatic control functions. Driven by electrical signals, solenoid valves control the flow of fluid in heating pipes and can automatically open or close according to system needs, ensuring automated system control. Differential pressure regulators are used to control the pressure difference between different parts of the pipeline system, ensuring balanced and stable system operation. By accurately measuring the pressure in different areas of the pipeline system, this device can automatically adjust the pressure difference to ensure that the pressure in each area is within a reasonable range, preventing overpressure or underpressure operation of the pipeline system.

[0040] Water meters are used to monitor and record water flow data in the system. By monitoring the water flow in real time, water meters can help regulate water volume and heating load, adjusting the operating status of the heating system based on real-time feedback. The water meter transmits the collected data to the control panel for subsequent water volume adjustments or troubleshooting. Filters are used to clean the fluids in the heating system, preventing impurities from affecting the normal operation of the system. Filters remove solid impurities from water or gas, preventing these impurities from affecting the normal operation of the equipment and reducing the probability of malfunctions.

[0041] Temperature sensors are used to monitor the temperature of key components in the system in real time, ensuring that the system operates within a set temperature range. Temperature sensors can accurately measure the temperature at every critical point in the heating system, guaranteeing that the entire heating system operates efficiently at ideal temperatures.

[0042] The fan unit control panel is used to control the fans in the system, regulate airflow, and achieve air distribution. The control panel adjusts the fan's on / off status and fan speed as needed to ensure uniform airflow in the construction environment and provide suitable temperature and humidity conditions. The heat pump thermostat is used to control the heat pump's start / stop and temperature setting, regulating the heating output. This device regulates the heating output through real-time temperature monitoring and heat pump control to ensure the indoor temperature reaches the preset comfort level. The ball valve is used to control the water flow in the heating pipes. The ball inside the valve rotates to switch the flow of water in the pipes, enabling precise control of the water flow in the heating system and ensuring stable water distribution within the piping system.

[0043] This device integrates multiple functions, including air handling, heat regulation, water purification, air cleaning, and flow control, through a complete intelligent and automated monitoring and control system. This ensures a safe, comfortable, energy-efficient, and environmentally friendly construction environment during the installation of building heating pipes. Each component works collaboratively through efficient connections and an automatic control system to maximize construction efficiency and guarantee system stability and safety.

[0044] The above description is merely a preferred embodiment of this utility model; however, the protection scope of this utility model is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the technical scope disclosed in this utility model, based on the technical solution and its improved concept, should be included within the protection scope of this utility model.

Claims

1. A construction heating pipe laying device, characterized by: Air treatment device (1) for purifying, humidifying and temperature adjusting of air to ensure air quality of construction environment; Heat pump (2) for providing heat regulation inside the building to realize heating function; Reverse osmosis filter (3) for purifying water source in heating system to ensure clean water quality; Built-in vacuum cleaner (4) for cleaning dust and debris generated during construction to ensure clean construction environment; Heat meter (5) for monitoring and adjusting heat transmission of heating system during construction Air heater (6) for heating air to ensure comfortable temperature of construction environment; Check valve (7-9) for preventing backflow of hot water or hot gas in heating pipe to ensure stable operation of the system; Return temperature limiter (10) for limiting the temperature of return fluid of heating system to prevent excessive high or low temperature; Solenoid valve (11) for adjusting water flow or air flow in pipe to realize automatic control of the system; Differential pressure regulator (12) for controlling pressure difference of each part of pipe system to ensure balance and stability of the system; Water meter (13-16) for monitoring and recording water flow in the system to adjust water quantity and heating load; Filter (17-20) for cleaning fluid in heating system to prevent impurities affecting system operation; Temperature sensor (22-25) for real-time monitoring of temperature at key positions in the system to ensure system operation within the set temperature range; Fan unit control panel (26) for controlling fans in the system to adjust air flow and realize air distribution; Heat pump temperature controller (27) for controlling start and stop of heat pump and temperature setting to adjust heating capacity; Ball valve (28-44) for controlling water flow switch in heating pipe to ensure adjustable fluid flow in pipe.

2. A device for the construction of a heating pipe according to claim 1, characterized in that: The heat pump (2), reverse osmosis filter (3), built-in vacuum cleaner (4), heat meter (5), air heater (6), check valve (7-9) components are connected through pipe system to form an integrated pipe construction and monitoring system.

3. A device for installing a heating pipe in a building according to claim 1, characterized in that: The water meter (13-16) and temperature sensor (22-25) are used for real-time feedback of operation status of heating pipe system during construction.

4. A device for installing a heating pipe in a building according to claim 1, characterized in that: The fan unit control panel (26) is connected with all control components for unified scheduling and monitoring of operation status of the system.

5. A device for installing a heating pipe in a building according to claim 1, characterized in that: The differential pressure regulator (12) is used to ensure stable pressure difference between pipes.

6. A building heating pipe construction apparatus according to claim 1, wherein: The solenoid valve (11) is used for automatic control of switch of water flow or air flow to adjust fluid flow in pipe according to system demand.

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