Pipeline system capable of reducing heat loss

Abstract

The invention discloses a pipeline system capable of reducing heat loss, and relates to the technical field of ground source heat pumps, the pipeline system comprises a pipeline for circulation, and the pipeline is communicated with a heat source; the temperature identification and acquisition module is used for collecting and conveying temperature information on the pipeline; the heat insulation module is used for wrapping the outer surface of the pipeline, and the heat insulation module is used for conducting heat insulation on the pipeline, so that heat loss is reduced; the motion execution module is used for driving the heat insulation module to move; and the processing integration module is used for processing the temperature information transmitted by the temperature identification and acquisition module and controlling the motion execution module at the same time. By arranging the system, operation is carried out based on a temperature change iterative calculation formula and a temperature comparison model, so that manual frequent adjustment is not needed, and the processing integration module conveniently controls the execution motion module to drive the heat insulation module to move.

Description

Technical Field

[0001] The present invention relates to the technical field of heat insulation, and particularly to a pipeline system for reducing heat loss. Background Art

[0002] With the development of environmentally friendly energy by people, there have gradually emerged air-source heat pumps, water-source heat pumps, and ground-source heat pump systems, etc. The geothermal heat pump system, also known as the ground-source heat pump, uses ground-source energy (soil, groundwater, surface water, low-temperature geothermal water, and tail water) as the cooling source for the heat pump to cool in summer and the low-temperature heat source for heating in winter, and is also a system for realizing heating, cooling, and domestic hot water.

[0003] However, currently, most of the refrigerant in the refrigerant circulation system of the ground-source heat pump circulates in the refrigerant pipeline. Since the refrigerant pipeline needs to transfer heat, it is necessary to insulate the refrigerant pipeline to avoid a large amount of heat loss and control the stable temperature of the refrigerant, providing a good basis for the operation of downstream equipment. In the prior art, generally two methods are used to reduce heat loss. The first is to wrap the refrigerant pipeline with an insulating layer by manual operation to reduce heat loss. The second is to use manual control to drive an electric telescopic rod to drive the insulating layer to move, so that the insulating layer wraps the refrigerant pipeline to isolate heat, and it is expected to control the temperature of the refrigerant in the pipeline by means of heat exchange between the pipeline and the outside. Since the pipeline system is relatively long, the first method usually controls the refrigerant flow through a valve, and then adjusts the target ambient temperature. It is convenient to adjust and has a simple structure, so it is widely used, especially suitable for the situation where the temperature of the refrigerant source is stable, such as the ground-source heat pump with vertical buried pipes. The second method is suitable for cooperating with the first method and is used for the situation where the temperature of the refrigerant source changes greatly, such as the ground-source heat pump with horizontal buried pipes and the ground-source heat pump combined with solar energy. Since the ground-source heat pump with horizontal buried pipes and the ground-source heat pump combined with solar energy can reduce costs, it is an important development direction in the industry. Therefore, we propose a pipeline system for reducing heat loss. Summary of the Invention

[0004] The purpose of the present invention is to provide a pipeline system for reducing heat loss. By setting up this system, the system operates based on the temperature change iterative calculation formula and the temperature comparison model, so that there is no need for frequent manual adjustment, and it is convenient to process the integrated module to control the execution movement module to drive the adiabatic module to move.

[0005] To achieve the above purpose, the present invention provides the following technical solution: A pipeline system for reducing heat loss, including a temperature recognition and acquisition module, a pipeline, an adiabatic module, an execution movement module, and a processing integration module; The pipeline is used for circulating and is connected to a heat source; The temperature recognition and acquisition module is used to collect and transmit the temperature information on the pipeline; The adiabatic module is used to wrap the outer surface of the pipeline and is used to insulate the pipeline, thereby reducing heat loss. The execution movement module is used to drive the adiabatic module to move. The processing integration module is used to process the temperature information transmitted by the temperature recognition and acquisition module and simultaneously control the execution movement module. The adiabatic module is composed of arc-shaped heat insulation plates, and a docking mechanism is arranged on one side of the arc-shaped heat insulation plate. The docking mechanism is used for docking the adiabatic module with the pipeline.

[0006] Preferably, the processing integration module controls the execution movement module based on a temperature comparison model. The specific content of the temperature comparison model is as follows: Set the temperature threshold as T, and the temperature t collected by the temperature recognition and acquisition module each time is substituted into the temperature change iteration calculation formula to obtain the result A. When A is less than T, the processing integration module controls the execution movement module to drive the adiabatic module to approach and adhere to the pipeline, so that the adiabatic module wraps the pipeline, thereby reducing heat loss. However, when A is greater than or equal to T, the processing integration module controls the execution movement module to drive the adiabatic module away from the pipeline.

[0007] Preferably, the temperature change iteration calculation formula is specifically as follows: A = (t n + t n-1 + t n-2 + t n-3 +... + t1) / n; where n is the number of times the temperature recognition and acquisition module collects temperature, and the temperature data collected by the temperature recognition and acquisition module for the nth time is t n .

[0008] Preferably, the temperature recognition and acquisition module collects temperature X times within every twenty-four hours, and the specific value of X is: 2, 3, or 4, where the value of n in the temperature change iteration calculation formula is greater than the value of 2X.

[0009] Preferably, the temperature recognition and acquisition module is specifically a temperature sensor, and the temperature sensor is installed on the outer wall surface of the pipeline.

[0010] Preferably, the actuating motion module is composed of an electric telescopic rod. The docking mechanism includes a moving component and a locking component. The moving component includes a fixed track fixedly connected to the middle of the arc-shaped heat insulation plate, limiting strips fixedly connected to both sides inside the fixed track, a moving sleeve slidably arranged between the two limiting strips, two groups of limiting pieces fixedly connected to the top and bottom of the moving sleeve, rollers rotatably connected to the outside of the limiting pieces, and a push rod inserted into the inside of the moving sleeve. The locking component includes two bumps fixedly connected to one end of the push rod, an L-shaped groove opened on one side of the bump, a rotating sleeve hinged inside the L-shaped groove, a moving rod inserted into the inner wall surface of the rotating sleeve, a locking spring located inside the rotating sleeve, a hemispherical locking block fixedly connected to one end of the locking spring, a rubber sleeve fixedly connected to the outside of the hemispherical locking block, a push rod hinged to one side of the rotating sleeve, a push block hinged between the two push rods, two arc-shaped cavities opened on one side inside the fixed track, and a pressure-receiving cavity opened on one side of the arc-shaped cavity. Moreover, the distance between the inner wall surface of the arc-shaped cavity and the center of the arc gradually decreases from the end far away from the pressure-receiving cavity to the end close to the pressure-receiving cavity. The output end of the electric telescopic rod is fixedly connected to one end of the push rod.

[0011] Preferably, when A is less than T, at this time, the processing integration module controls the electric telescopic rod to drive the arc-shaped heat insulation plate to approach and close to the pipeline, and uses the two arc-shaped heat insulation plates to wrap the pipeline, thereby reducing heat loss. However, when A is greater than or equal to T, at this time, the processing integration module controls the electric telescopic rod to drive the arc-shaped heat insulation plate away from the pipeline.

[0012] Preferably, the arc-shaped heat insulation plate includes a connecting plate fixedly connected to the electric telescopic rod, a middle heat insulation layer connected to one side of the connecting plate, an outer heat insulation layer connected to the outside of the middle heat insulation layer, and an inner heat insulation layer connected to the inside of the middle heat insulation layer.

[0013] Preferably, a cavity is provided in the middle of the connecting plate. The middle heat insulation layer is arranged in the shape of a rectangular cover body, and a plurality of cross bars are fixedly arranged inside the middle heat insulation layer. The plurality of cross bars divide the internal space of the middle heat insulation layer into accommodating cavities, and an inner heat insulation layer is arranged inside each accommodating cavity.

[0014] Preferably, the middle heat insulation layer is made of glass fiber, the outer heat insulation layer is made of aluminum foil, and the inner heat insulation layer is made of extruded polystyrene foam board.

[0015] The technical effects and advantages of the present invention: (1) Install the temperature recognition module at the outlet of the pipeline. By setting the temperature threshold, due to the heat exchange of the pipeline, the temperature recognition and acquisition module continuously collects the temperature information on the pipeline, substitutes the temperature information into the temperature change iteration calculation formula, and obtains the result. When the result is less than the temperature threshold, the processing integration module will control the execution movement module to drive the adiabatic module to approach the refrigerant heat exchange pipeline, thereby avoiding a large amount of heat loss from the refrigerant heat exchange pipeline. When the result is greater than or equal to the temperature threshold, the processing integration module will control the execution movement module to drive the adiabatic module away from the pipeline, thereby controlling the length of the heat exchange section. This system operates based on the temperature change iteration calculation formula and the temperature comparison model, so there is no need for frequent manual adjustment. The length of the movable adiabatic module can be adjusted as needed, especially suitable for air conditioning systems that combine geothermal heat pumps and solar energy. Most of the above-ground pipelines isolate heat by wrapping the refrigerant pipeline with a thermal insulation layer, detect the temperature at multiple points through multiple sensors, and then control the refrigerant flow by controlling the valve opening. Under the condition of reducing heat loss, the refrigerant flow is accurately adjusted, and then the target ambient temperature is adjusted. It can operate stably under normal conditions. Only when the temperature recognition module installed at the outlet of the pipeline detects an abnormality, the heat exchange between the above-ground pipeline and the outside is controlled by the movable adiabatic module to ensure the stable operation of the system. It can be applied to large-scale occasions with slow temperature control response speed, as well as storage warehouses, laboratories, etc. that require precise temperature ranges. (2) By setting the middle adiabatic layer, the outer adiabatic layer and the inner adiabatic layer, the multi-layer adiabatic structure is utilized to improve the wrapping and heat insulation of the pipeline, thereby reducing heat loss. At the same time, the middle adiabatic layer is made of glass fiber, the outer adiabatic layer is made of aluminum foil, and the inner adiabatic layer is made of extruded polystyrene foam board. Utilizing the good heat insulation performance of these heat insulation materials, the heat insulation performance of the arc-shaped heat insulation board is further improved, and heat loss is further reduced. Brief Description of the Drawings

[0016] Figure 1 It is a schematic flow chart of the present invention.

[0017] Figure 2 It is a three-dimensional structure schematic diagram of the adiabatic module of the present invention.

[0018] Figure 3 It is a schematic diagram of the internal structure of the adiabatic module of the present invention.

[0019] Figure 4 For the present invention Figure 3 The partial enlarged structure schematic diagram at point A in it.

[0020] Figure 5 For the present invention Figure 4 The partial enlarged structure schematic diagram at point B in it.

[0021] In the figure: 1, connecting plate; 2, middle heat insulation layer; 3, external heat insulation layer; 4, internal heat insulation layer; 5, cavity; 6, moving assembly; 601, fixed track; 602, limiting strip; 603, moving sleeve; 604, limiting piece; 605, roller; 606, push rod; 7, locking assembly; 701, convex block; 702, rotating sleeve; 703, moving rod; 704, locking spring; 705, hemispherical locking block; 706, rubber sleeve; 707, pushing rod; 708, pushing block; 709, arc-shaped cavity; 710, pressure-receiving cavity. Specific implementation mode

[0022] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0023] Embodiment 1 The present invention provides a Figures 1 - 3 shown pipeline system for reducing heat loss, including a temperature recognition and acquisition module, a pipeline, a heat insulation module, an execution movement module, and a processing and integration module; the pipeline is used for circulating, and the pipeline is connected to a heat source; the temperature recognition and acquisition module is used to collect and transmit the temperature information on the pipeline; the heat insulation module is used to wrap the outer surface of the pipeline, and the heat insulation module is used to insulate the pipeline, thereby reducing heat loss; the execution movement module is used to drive the heat insulation module to move; the processing and integration module is used to process the temperature information transmitted by the temperature recognition and acquisition module and simultaneously control the execution movement module; by collecting and transmitting the temperature information on the pipeline through the temperature recognition and acquisition module, when the processing and integration module receives the temperature information on the pipeline, it makes a judgment, and then the processing and integration module can control the execution movement module to drive the heat insulation module to wrap the pipeline, so that the pipeline is insulated, thereby avoiding a large amount of heat loss on the pipeline.

[0024] It should be further noted that the processing integration module controls the execution of the motion module based on the temperature comparison model. The specific content of the temperature comparison model is as follows: Set the temperature threshold as T, set the temperature collected by the temperature recognition and acquisition module each time as t, and substitute t into the temperature change iterative calculation formula to obtain the result A. When A is less than T, the processing integration module controls the execution of the motion module to drive the adiabatic module to approach and adhere to the pipeline, so that the adiabatic module wraps the pipeline, thereby reducing heat loss. However, when A is greater than or equal to T, the processing integration module controls the execution of the motion module to drive the adiabatic module away from the pipeline; by comparing the results of the processing integration module based on the temperature comparison model, it is determined whether to control the motion execution module to drive the adiabatic module to move.

[0025] Furthermore, the temperature change iterative calculation formula is specifically as follows: A=(t n +t n-1 +t n-2 +t n-3 +...+t1) / n; where n is the number of times the temperature recognition and acquisition module collects temperature, and the temperature data collected by the temperature recognition and acquisition module for the nth time is t n ; The temperature recognition and acquisition module collects the temperature on the pipeline for the most recent time, and at the same time combines the temperature information on the pipeline several times before this time and substitutes it into the temperature change iterative calculation formula to obtain A. And following the continuous collection by the temperature recognition and acquisition module, this A also iterates with the iteration of the temperature information, so as to keep in sync with the temperature on the pipeline, so as to facilitate the processing integration module to make better judgments.

[0026] Furthermore, the temperature recognition and acquisition module collects temperature X times within every twenty-four hours, and the specific value of X is: 2, 3 or 4, where the value of n in the temperature change iterative calculation formula is greater than 2 times the value of X; when the value of X is 2, the temperature recognition and acquisition module will collect the temperature information on the pipeline twice within twenty-four hours. When the value of X is 3, the temperature recognition and acquisition module will collect the temperature information on the pipeline three times within twenty-four hours. When the value of X is 4, the temperature recognition and acquisition module will collect the temperature information on the pipeline four times within twenty-four hours. At the same time, n changes based on X. When n is greater than 2X, it can at least ensure that at least the temperature information of two days on the pipeline is combined, so as to avoid misjudgment by the processing integration module due to sudden changes in the temperature of a single day, thereby further improving the accuracy of the results of the entire temperature comparison model.

[0027] For example, when it is winter and the set value of T is 26 degrees, due to the heat exchange of the pipeline and the relatively low temperature in winter, the temperature recognition and acquisition module continuously acquires the temperature information t on the pipeline, substitutes the temperature information t into the temperature change iteration calculation formula to obtain A. At this time, if A is less than T, the processing integration module will control the execution movement module to drive the adiabatic module to approach the refrigerant heat exchange pipeline, so as to avoid a large amount of heat loss from the refrigerant heat exchange pipeline. At the same time, when it is summer, when the temperature information t of the pipeline acquired by the temperature recognition and acquisition module is substituted into the temperature change iteration calculation formula, A is greater than or equal to T at this time. The processing integration module will control the execution movement module to drive the adiabatic module away from the pipeline, so as to control the length of the heat exchange section. By exchanging heat with the outside world, the outlet temperature of the refrigerant heat exchange pipeline is controlled. When the outlet temperature of the refrigerant heat exchange pipeline reaches the target threshold, the valve opening is controlled, which can more accurately regulate the ambient temperature. It should be noted that the pipeline controlled by the movable adiabatic module can be connected in parallel with the chemical pipeline, so as to regulate the temperature of the medium in the chemical pipeline or recover heat energy.

[0028] Further, the temperature recognition and acquisition module is specifically a temperature sensor, and the temperature sensor is installed on the outer wall of the pipeline; by attaching the temperature sensor to the pipeline, it is convenient for the temperature sensor to accurately acquire the temperature information of the pipeline.

[0029] Further, the execution movement module is composed of an electric telescopic rod, and the adiabatic module is composed of an arc-shaped heat insulation board.

[0030] Further, when A is less than T, the processing integration module controls the electric telescopic rod to drive the arc-shaped heat insulation board to approach and attach to the pipeline, and uses two arc-shaped heat insulation boards to wrap the pipeline, so as to reduce heat loss. However, when A is greater than or equal to T, the processing integration module controls the electric telescopic rod to drive the arc-shaped heat insulation board away from the pipeline.

[0031] Furthermore, the arc-shaped heat insulation board includes a connecting plate 1 fixedly connected to the electric telescopic rod, a middle heat insulation layer 2 connected to one side of the connecting plate 1, an outer heat insulation layer 3 connected to the outer side of the middle heat insulation layer 2, and an inner heat insulation layer 4 connected to the inner side of the middle heat insulation layer 2; a cavity 5 is provided in the middle of the connecting plate 1, the middle heat insulation layer 2 is arranged in the shape of a rectangular cover, and a plurality of cross bars are fixedly arranged inside the middle heat insulation layer 2, and the plurality of cross bars divide the internal space of the middle heat insulation layer 2 into individual accommodating cavities, and an inner heat insulation layer 4 is arranged inside each accommodating cavity; the middle heat insulation layer 2 is made of glass fiber, the outer heat insulation layer 3 is made of aluminum foil, and the inner heat insulation layer 4 is made of extruded polystyrene foam board; by providing the middle heat insulation layer 2, the outer heat insulation layer 3 and the inner heat insulation layer 4, a multi-layer heat insulation structure is utilized to improve the heat insulation performance of the pipeline wrapping, thereby reducing heat loss. At the same time, the middle heat insulation layer 2 is made of glass fiber, the outer heat insulation layer 3 is made of aluminum foil, and the inner heat insulation layer 4 is made of extruded polystyrene foam board. Utilizing the good heat insulation performance of these heat insulation materials further improves the heat insulation performance of the arc-shaped heat insulation board and further reduces heat loss. Among them, the middle heat insulation layer 2 may not be provided with cross bars, and the inner heat insulation layer 4 in one piece can be directly used to fill the inside of the middle heat insulation layer 2.

[0032] Embodiment 2 Compared with Embodiment 1, Embodiment 2 adds a docking mechanism on the basis of Embodiment 1, such as Figures 2 - 5As shown in the figure, the actuating motion module is composed of an electric telescopic rod, and the heat insulation module is composed of an arc-shaped heat insulation plate. A docking mechanism is provided on one side of the arc-shaped heat insulation plate. The docking mechanism includes a moving component 6 and a locking component 7. The moving component 6 includes a fixed track 601 fixedly connected to the middle of the arc-shaped heat insulation plate, limiting strips 602 fixedly connected to both sides inside the fixed track 601, a moving sleeve 603 slidably arranged between the two limiting strips 602, two groups of limiting pieces 604 fixedly connected to the top and bottom of the moving sleeve 603, rollers 605 rotatably connected to the outside of the limiting pieces 604, and a push rod 606 inserted into the inside of the moving sleeve 603. The locking component 7 includes two bumps 701 fixedly connected to one end of the push rod 606, an L-shaped groove opened on one side of the bump 701, a rotating sleeve 702 hinged inside the L-shaped groove, a moving rod 703 inserted into the inner wall surface of the rotating sleeve 702, a locking spring 704 located inside the rotating sleeve 702, a hemispherical locking block 705 fixedly connected to one end of the locking spring 704, a rubber sleeve 706 fixedly connected to the outside of the hemispherical locking block 705, a push rod 707 hinged to one side of the rotating sleeve 702, a push block 708 hinged between the two push rods 707, two arc-shaped cavities 709 opened on one side inside the fixed track 601, and a pressure-receiving cavity 710 opened on one side of the arc-shaped cavity 709. Moreover, the distance dimension between the inner wall surface of the arc-shaped cavity 709 and the arc center gradually decreases from the end far away from the pressure-receiving cavity 710 to the end close to the pressure-receiving cavity 710. The output end of the electric telescopic rod is fixedly connected to one end of the push rod 606; when the electric telescopic rod drives the push rod 606 and its entire docking mechanism and the arc-shaped heat insulation plate to move, when the arc-shaped heat insulation plate gradually contacts the pipeline, at this time, the arc-shaped heat insulation plate docks with the pipeline, causing the fixed track 601 to move, thereby causing the push rod 606 to drive the moving sleeve 603 to move along the limiting strip 602, making the roller 605 roll inside the fixed track 601. After adjusting the position of the fixed track 601, the electric telescopic rod still further drives the push rod 606 to move, thereby causing the push block 708 to drive the push rod 707 to expand outwards, thereby driving the rotating sleeve 702 to rotate, making the hemispherical locking block 705 rotate inside the arc-shaped cavity 709. Due to the change in the size of the arc-shaped cavity 709, the moving rod 703 locks the inside of the rotating sleeve 702, and further compresses the locking spring 704 until the hemispherical locking block 705 abuts against the inner wall surface of the pressure-receiving cavity 710, and the rotating sleeve 702 abuts against one side of the L-shaped groove, as Figure 3As shown, the change in the internal dimensions of the arc-shaped cavity 709 can also prevent the rotation sleeve 702 from rotating easily when the electric telescopic rod drives the push rod 606 to move, having a certain damping effect, enabling the fixed track 601 to move first, and avoiding the locking component 7 locking the position of the fixed track 601 before the position of the fixed track 601 is adjusted properly. This design can reduce the installation and positioning accuracy of the arc-shaped heat insulation board, reduce the installation difficulty, facilitate the docking of the arc-shaped partition board with the pipeline, thus producing a better wrapping effect, further enhancing the heat dissipation effect, and the setting of the locking component 7 can avoid repeated docking.

[0033] Finally, it should be noted that the above are only the preferred embodiments 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 foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A pipeline system for reducing heat loss, characterized in that, It includes a temperature recognition and acquisition module, a pipeline, a heat insulation module, an actuating motion module, and a processing and integration module; The pipeline is used for circulating and is connected to a heat source; The temperature recognition and acquisition module is used to collect and transmit the temperature information on the pipeline; The heat insulation module is used to wrap the outer surface of the pipeline and is used to insulate the pipeline to reduce heat loss; The actuating motion module is used to drive the heat insulation module to move; The processing and integration module is used to process the temperature information transmitted by the temperature recognition and acquisition module and simultaneously control the actuating motion module; The heat insulation module is composed of arc-shaped heat insulation plates, and a docking mechanism is provided on one side of the arc-shaped heat insulation plate. The docking mechanism is used for docking the heat insulation module with the pipeline; 2. The pipeline system for reducing heat loss according to claim 1, characterized in that, The processing and integration module controls the actuating motion module based on a temperature comparison model. The specific content of the temperature comparison model is as follows: Set the temperature threshold as T, set the temperature collected by the temperature recognition and acquisition module each time as t, and substitute t into the temperature change iteration calculation formula to obtain the result A. When A is less than T, at this time, the processing and integration module controls the actuating motion module to drive the heat insulation module to approach and closely adhere to the pipeline, so that the heat insulation module wraps the pipeline, thereby reducing heat loss. However, when A is greater than or equal to T, at this time, the processing and integration module controls the actuating motion module to drive the heat insulation module away from the pipeline.

3. A pipeline system for reducing heat loss according to claim 1, characterized in that, The specific temperature change iteration calculation formula is as follows: A = (tn + tn-1 + tn-2 + tn-3 +... + t1) / n; Where n is the number of times the temperature recognition and acquisition module collects temperature, and the temperature data collected by the temperature recognition and acquisition module for the nth time is tn.

4. A pipeline system for reducing heat loss according to claim 3, characterized in that, The temperature recognition and acquisition module collects temperature X times within every twenty-four hours, and the specific value of X is: 2, 3, or 4, where the value of n in the temperature change iteration calculation formula is greater than the value of 2X.

5. A pipeline system for reducing heat loss according to claim 1, characterized in that, The temperature recognition and acquisition module is specifically a temperature sensor, and the temperature sensor is installed on the outer wall surface of the pipeline.

6. The pipeline system for reducing heat loss according to claim 2, characterized in that, The described execution motion module is composed of an electric telescopic rod. The docking mechanism includes a moving component (6) and a locking component (7). The moving component (6) includes a fixed track (601) fixedly connected to the middle of the arc-shaped heat insulation plate, limit strips (602) fixedly connected to both sides inside the fixed track (601), a moving sleeve (603) slidably arranged between the two limit strips (602), two groups of limit pieces (604) fixedly connected to the top and bottom of the moving sleeve (603), rollers (605) rotatably connected to the outer sides of the limit pieces (604), and a push rod (606) inserted into the inside of the moving sleeve (603). The locking component (7) includes two bumps (701) fixedly connected to one end of the push rod (606), an L-shaped groove opened on one side of the bump (701), a rotating sleeve (702) hinged inside the L-shaped groove, a moving rod (703) inserted into the inner wall surface of the rotating sleeve (702), a locking spring (704) located inside the rotating sleeve (702), a hemispherical locking block (705) fixedly connected to one end of the locking spring (704), a rubber sleeve (706) fixedly connected to the outer side of the hemispherical locking block (705), a push rod (707) hinged to one side of the rotating sleeve (702), a push block (708) hinged between the two push rods (707), two arc-shaped cavities (709) opened on one side inside the fixed track (601), and a pressure-receiving cavity (710) opened on one side of the arc-shaped cavity (709). The distance from the inner wall surface of the arc-shaped cavity (709) to the center of the arc gradually decreases from the end far away from the pressure-receiving cavity (710) to the end close to the pressure-receiving cavity (710). The output end of the electric telescopic rod is fixedly connected to one end of the push rod (606).

7. A pipeline system for reducing heat loss according to claim 6, characterized in that, When A is less than T, the processing integration module controls the electric telescopic rod to drive the arc-shaped heat insulation plate to approach and be close to the pipeline, and uses the two arc-shaped heat insulation plates to wrap the pipeline, thereby reducing heat loss. However, when A is greater than or equal to T, the processing integration module controls the electric telescopic rod to drive the arc-shaped heat insulation plate away from the pipeline.

8. A pipeline system for reducing heat loss according to claim 7, characterized in that, The arc-shaped heat insulation plate includes a connecting plate (1) fixedly connected to the electric telescopic rod, a middle heat insulation layer (2) connected to one side of the connecting plate (1), an outer heat insulation layer (3) connected to the outside of the middle heat insulation layer (2), and an inner heat insulation layer (4) connected to the inner side of the middle heat insulation layer (2).

9. A pipeline system for reducing heat loss according to claim 8, characterized in that, A cavity (5) is provided in the middle of the connecting plate (1). The middle heat insulation layer (2) is arranged in the shape of a rectangular cover body, and a plurality of cross bars are fixedly arranged inside the middle heat insulation layer (2). The plurality of cross bars divide the internal space of the middle heat insulation layer (2) into accommodating cavities, and an inner heat insulation layer (4) is arranged in each accommodating cavity.

10. A pipeline system for reducing heat loss according to claim 9, characterized in that, The middle heat insulation layer (2) is made of glass fiber, the outer heat insulation layer (3) is made of aluminum foil, and the inner heat insulation layer (4) is made of extruded polystyrene foam board.

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