Chilled water pipe high-efficiency heat preservation anti-condensation structure

Abstract

The utility model relates to the field of water pipe, and disclose a frozen water pipe efficient heat preservation anti -condensation structure, including the pipe body structure of the outer layer, intermediate layer and inner layer constitution, the water storage subassembly is equipped with one end of the pipe body, the outside is equipped with support subassembly, the outer tube wall of outer layer opens spiral flow guide groove, the inner tube wall is pasted with the intermediate layer through rubber block and support plate, the inner wall of intermediate layer is equipped with corrugated aluminium foil, and is pasted with the outer wall of inner layer, and the inner wall of inner layer is through support block, spring and clamping block clamping dehumidification cylinder, and the water storage subassembly is composed of water pan, plug and elastic bellows, is used for collecting and discharging condensation water, and the support subassembly forms the frame through support and universal ball, and is pasted with the outer wall of outer layer, the utility model passes through three layers of pipe body heat preservation, aluminium foil heat reflection, dehumidification cylinder adsorbs moisture, spiral groove flow guide condensation, water storage subassembly collects accumulated water, and the elastic support and universal ball support subassembly are combined, and adapt to pipeline displacement vibration, solve the problem such as traditional structure heat preservation difference, condensation treatment deficiency, improve the heat preservation anti -condensation effect.

Description

Technical Field

[0001] This utility model relates to the field of water pipes, specifically a high-efficiency heat preservation and anti-condensation structure for chilled water pipes. Background Technology

[0002] In fields such as air conditioning, food refrigeration, and industrial cooling, if the insulation performance of chilled water pipes is insufficient when operating in low-temperature environments, the outer wall is prone to contact with water vapor in the surrounding air to form condensation. This not only wastes energy but may also cause pipe corrosion, mold growth, or even water dripping that damages equipment. Therefore, an efficient insulation and anti-condensation structure is crucial for improving system energy efficiency, extending pipe life, and ensuring environmental hygiene.

[0003] Traditional chilled water pipe insulation and anti-condensation structures often employ a single insulation layer or a simple double-layer structure, which has limited insulation performance and is difficult to effectively block heat transfer. As a result, the surface temperature of the pipe body is still prone to falling below the dew point temperature, leading to condensation. At the same time, traditional structures lack condensation treatment, and the accumulated condensate can easily drip onto surrounding equipment or building structures, causing equipment failure or damage to the decoration. In addition, traditional structures are mostly rigid connections, and when the pipes are displaced due to thermal expansion and contraction or vibration, the insulation layer is prone to cracking and falling off, which not only reduces the insulation and anti-condensation effect but also requires frequent maintenance and replacement. To address these issues, we propose a high-efficiency insulation and anti-condensation structure for chilled water pipes. Utility Model Content

[0004] To address the shortcomings of existing technologies, this invention provides a highly efficient heat-insulating and anti-condensation structure for chilled water pipes, thus solving the aforementioned problems.

[0005] To achieve the above-mentioned objectives, this utility model provides the following technical solution: a high-efficiency heat preservation and anti-condensation structure for chilled water pipes, comprising an outer layer, a middle layer, and an inner layer, wherein the middle layer is coaxially sleeved within the outer layer, and the inner layer is coaxially sleeved within the middle layer; The outer layer, the middle layer, and the inner layer together constitute the tubular structure; A water storage component is fixedly installed on one end of the pipe structure, and another set of the pipe structure is installed on the other side of the water storage component; The tube structure is provided with a support component.

[0006] Preferably, the outer tube wall of the outer layer is provided with a spiral guide groove.

[0007] Preferably, multiple sets of rubber blocks are fixedly installed at equal intervals on the inner wall of the outer layer, and a support plate is fixedly installed on the inner wall of the outer layer between two rubber blocks, with hexagonal holes symmetrically opened on the support plate. The rubber block and the support plate are attached to the outer surface of the outer layer and the outer wall of the middle layer.

[0008] Preferably, an aluminum foil is installed on the inner wall of the intermediate layer, and the aluminum foil is corrugated. The corrugated walls of the aluminum foil are bonded to the outer wall of the inner layer.

[0009] Preferably, a support block is fixedly installed on the inner wall of the inner layer in a circular shape. Multiple connecting holes are equally spaced on the plane of the support block away from the inner layer. A spring is fixedly installed in the connecting hole, and a clamping block is fixedly installed on the other end of the spring. The clamping block is arc-shaped.

[0010] Preferably, the dehumidifier cylinder is held between several clamping blocks that are installed in a circular pattern.

[0011] Preferably, the water storage component includes a water receiving tray, a plug, and an elastic corrugated pipe. An elastic corrugated pipe is coaxially fixedly installed on one end of the outer layer. A water flow channel is formed on the plane where the elastic corrugated pipe and the outer layer are connected. A water receiving tray is sleeved on the plane where the water flow channel is formed on the elastic corrugated pipe. An arc-shaped water baffle is fixedly installed on the circumference of the surface of the water receiving tray. A water outlet hole is formed on the outer wall of the water baffle. A plug is movably connected in the water outlet hole. The other end plane of the elastic bellows is coaxially and fixedly connected to another outer layer.

[0012] Preferably, the support assembly includes bracket one, omnidirectional ball, bracket two, and bracket three. Omnidirectional balls are fixedly installed on both sides of bracket two, and bracket one is fixedly installed on the other end of each of the two omnidirectional balls. Another omnidirectional ball is fixedly installed on the plane of each of the two brackets one away from bracket two, and bracket three is fixedly connected in the middle of the two omnidirectional balls. Connecting columns are symmetrically fixedly installed on the outer circle of the second bracket; The support assembly is frame-shaped, and the outer walls of bracket one, bracket two and bracket three are in contact with the outer wall of the outer layer.

[0013] Compared with the prior art, this utility model provides a high-efficiency heat preservation and anti-condensation structure for chilled water pipes, which has the following beneficial effects: 1. This chilled water pipe features a high-efficiency heat preservation and anti-condensation structure, employing a three-layer pipe structure consisting of an outer layer, a middle layer, and an inner layer. The corrugated aluminum foil installed on the inner wall of the middle layer effectively reflects heat and reduces heat transfer. Meanwhile, the inner wall of the inner layer holds the dehumidification cylinder through support blocks, springs, and clamping blocks, which can absorb moisture inside the pipe. Combined with the spiral guide grooves on the outer wall of the outer layer, it can guide the flow of condensed water and prevent condensation accumulation. Compared with traditional structures, the heat preservation and anti-condensation performance is significantly improved.

[0014] 2. The chilled water pipe features a high-efficiency heat preservation and anti-condensation structure. The rubber blocks and support plates on the inner wall of the outer layer are in contact with the outer wall of the middle layer. The inner layer uses springs and clamping blocks to hold the dehumidification cylinder, forming an elastic support structure. At the same time, the support components adopt a frame-like structure composed of bracket one, universal ball, bracket two, and bracket three, which are in contact with the outer wall of the outer layer. This structure can adapt to a certain displacement and vibration of the pipe, thus enhancing the stability of the structure.

[0015] 3. This chilled water pipe features a high-efficiency heat preservation and anti-condensation structure. The elastic corrugated pipe in the water storage component has a water flow channel on the plane connecting to the outer layer. The water receiving tray is fitted over the elastic corrugated pipe and can collect the condensate guided by the outer spiral guide channel. The condensate can be easily discharged through the water outlet and plug on the baffle plate of the water receiving tray. Compared with the traditional structure, it achieves effective collection and convenient treatment of condensate and reduces the adverse effects of condensate. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a cross-sectional view of the present invention; Figure 3 This is an exploded view of the present invention; Figure 4 for Figure 3 A magnified view of part A in the diagram; Figure 5 for Figure 3 A magnified view of part B in the diagram.

[0017] In the diagram: 1. Outer layer; 2. Spiral guide channel; 3. Support 1; 4. Universal ball; 5. Support 2; 6. Water receiving tray; 7. Plug; 8. Elastic bellows; 9. Middle layer; 10. Aluminum foil; 11. Inner layer; 12. Support block; 13. Clamping block; 14. Dehumidifier cylinder; 15. Spring; 16. Rubber block; 17. Support plate; 18. Support 3. Detailed Implementation

[0018] 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.

[0019] Please see Figure 1-5 A high-efficiency heat preservation and anti-condensation structure for chilled water pipes includes an outer layer 1, a middle layer 9, and an inner layer 11. The middle layer 9 is coaxially sleeved inside the outer layer 1, and the inner layer 11 is coaxially sleeved inside the middle layer 9. The outer layer 1, the middle layer 9, and the inner layer 11 together constitute the tube structure; A water storage component is fixedly installed on one end of the pipe structure, and another set of pipe structures is installed on the other side of the water storage component; Support components are installed on the outside of the tube structure.

[0020] Furthermore, a spiral guide groove 2 is provided on the outer wall of the outer layer 1. The spiral guide groove 2 spirals around the outer wall of the outer layer 1. In addition to guiding the condensate water to flow along the groove, its spiral structure can also extend the flow path of the condensate water on the pipe wall, causing some of the condensate water to evaporate during the flow due to the increased contact area with the air, thus reducing the amount of water that finally drips. In addition, the concave and convex structure of the spiral groove can increase the degree of air turbulence on the surface of the outer layer 1, reduce the convective heat transfer efficiency between the outer wall and the surrounding air, and further suppress the pipe wall temperature from falling below the dew point, thereby reducing the generation of condensate from the source.

[0021] Furthermore, multiple sets of rubber blocks 16 are fixedly installed at equal intervals on the inner wall of the outer layer 1. A support plate 17 is fixedly installed between two rubber blocks 16 on the inner wall of the outer layer 1. The support plate 17 is symmetrically provided with hexagonal holes. When the airflow flows inside the tube, the hexagonal holes can disturb the airflow through the hole structure, increase the heat exchange area between the airflow and the tube wall, and at the same time, the hexagonal edges can destroy the fluid boundary layer, reduce the thickness of the thermal boundary layer, thereby reducing the heat transfer efficiency. In addition, the structure of the hexagonal holes can reduce the weight of the support plate 17 and improve the overall structural lightness. The rubber block 16 and the support plate 17 are in contact with the outer wall of the middle layer 9, and the opposite side of the outer layer 1 is attached to the outer wall of the middle layer 9. When the pipeline expands or contracts radially due to temperature changes, the elastic deformation of the rubber block 16 can absorb the deformation stress and prevent the middle layer 9 from cracking due to rigid contact with the outer layer 1.

[0022] Furthermore, an aluminum foil 10 is installed on the inner wall of the intermediate layer 9. The aluminum foil 10 is corrugated. In addition to reflecting heat, the corrugated aluminum foil 10 can form multiple tiny air insulation layers between the intermediate layer 9 and the inner layer 11. As air is a poor conductor of heat, these tiny air gaps can further block the heat conduction between the inner layer 11 and the intermediate layer 9. At the same time, the corrugated design makes the contact between the aluminum foil 10 and the inner layer 11 a discontinuous surface contact, reducing the contact area for direct heat conduction, thereby significantly improving the heat preservation effect. In addition, the aluminum foil 10 has good corrosion resistance, which can prevent rust caused by moisture in the intermediate layer 9 and extend the service life of the structure. The corrugated wall of aluminum foil 10 is bonded to the outer wall of inner layer 11.

[0023] Furthermore, a support block 12 is fixedly installed on the inner wall of the inner layer 11 in a circular shape. Multiple connection holes are equally spaced on the plane opposite to the inner layer 11 of the support block 12. A spring 15 is fixedly installed in the connection hole. A clamping block 13 is fixedly installed on the other end of the spring 15. The elastic force of the spring 15 makes the clamping block 13 always maintain the clamping force on the dehumidifier cylinder 14. When the weight of the dehumidifier cylinder 14 increases due to the adsorption of moisture, the spring 15 can adaptively adjust the clamping force through deformation to prevent the dehumidifier cylinder 14 from loosening. The clamping block 13 is arc-shaped, and its arc-shaped surface fits tightly against the outer wall of the dehumidifier cylinder 14, which can evenly distribute the clamping force and prevent the dehumidifier cylinder 14 from being damaged due to excessive local stress. At the same time, the arc structure reduces the concentration of contact stress with the dehumidifier cylinder 14, improves the clamping stability, and ensures that the dehumidifier cylinder 14 can remain fixed when the pipeline vibrates, and continue to play its role in adsorbing moisture.

[0024] Furthermore, a dehumidifying cylinder 14 is held between several clamping blocks 13 installed in a circular pattern. The dehumidifying cylinder 14 is filled with moisture-absorbing material, which can actively adsorb water vapor generated by the fluid in the inner layer 11 pipe due to temperature changes, reduce the relative humidity of the air in the pipe, and eliminate the conditions for condensation from the inside. When the dehumidifying cylinder 14 is saturated with moisture, it can be replaced by disassembling the clamping blocks 13 for reuse. In addition, the installation position of the dehumidifying cylinder 14 ensures that the moisture absorption range covers the entire pipe cross-section, ensuring that the moisture in the pipe is evenly adsorbed and improving the uniformity of the anti-condensation effect.

[0025] Furthermore, the water storage component includes a water receiving tray 6, a plug 7, and an elastic corrugated pipe 8. An elastic corrugated pipe 8 is coaxially fixedly installed on one end of the outer layer 1. A water flow channel is circumferentially formed on the plane where the elastic corrugated pipe 8 and the outer layer 1 are connected. A water receiving tray 6 is sleeved on the plane where the water flow channel is formed on the elastic corrugated pipe 8. An arc-shaped baffle is fixedly installed on the circumference of the surface of the water receiving tray 6. A water outlet hole is formed on the outer wall of the baffle. A plug 7 is movably connected in the water outlet hole. The water flow channel on the elastic corrugated pipe 8 is circumferentially distributed, which can evenly collect the condensate water guided by the spiral guide channel 2 to the end of the outer layer 1 and guide it into the water receiving tray 6, so as to avoid the accumulation of condensate water at the pipe connection. The other end plane of the elastic bellows 8 is coaxially and fixedly connected to another outer layer 1.

[0026] Furthermore, the support components include bracket 1 3, universal ball 4, bracket 2 5, and bracket 3 18. Universal ball 4 is fixedly installed on both sides of bracket 2 5. Bracket 1 3 is fixedly installed on the other end of each of the two universal balls 4. Another universal ball 4 is fixedly installed on the plane of each of the two bracket 1 3 facing away from bracket 2 5. Bracket 3 18 is fixedly connected between the two universal balls 4. Connecting columns are symmetrically fixedly installed on the outer circle of bracket 25; The support components are frame-shaped, and the outer walls of bracket 1 (3), bracket 2 (5), and bracket 3 (18) are in contact with the outer wall of outer layer 1.

[0027] Structural Description: Outer layer 1: Outer layer 1 is the outermost layer of the chilled water pipe insulation and anti-condensation structure. Spiral guide grooves 2 are opened on its outer pipe wall to guide the condensation water flow. The middle layer 9 is coaxially sleeved inside the outer layer 1. Multiple sets of rubber blocks 16 and support plates 17 are installed at equal intervals on the inner pipe wall, which fit with the outer wall of the middle layer 9 to provide support and buffer. Spiral guide channel 2: The spiral guide channel 2 is opened on the outer pipe wall of the outer layer 1 and is distributed in a spiral shape. It can guide the condensate on the surface of the outer layer 1 along the channel, avoid the accumulation and dripping of condensate, and achieve the initial guiding treatment of condensate. Bracket 1 3: Bracket 1 3 is a component of the support assembly. Both ends are connected to the universal ball 4. One end is connected to the universal ball 4 on both sides of bracket 2 5, and the other end is connected to bracket 3 18. The universal ball 4 enables the movable connection and participates in the formation of the frame-like support structure. Universal Ball 4: Universal Ball 4 is installed between Bracket 1 3 and Bracket 2 5, and Bracket 1 3 and Bracket 3 18. It can rotate in multiple directions, enabling the support components to adapt to the displacement and vibration of the pipeline, and enhancing the flexibility and adaptability of the structure. Bracket 2 5: Universal ball 4 is fixedly installed on both sides of bracket 2 5 and connected to bracket 1 3. Symmetrical connecting columns are fixed on the outer circle for installation and fixation. The whole is part of the support component and together with bracket 1 3 and bracket 3 18, it forms a frame to support the outer layer 1. Water receiving tray 6: The water receiving tray 6 is fitted outside the plane of the water channel of the elastic corrugated pipe 8. There is an arc baffle plate on the circumference of the surface. The water outlet hole is opened on the outer wall of the baffle plate and a plug 7 is installed inside to collect the condensate guided by the spiral guide channel 2 of the outer layer 1, and it can be discharged through the water outlet hole. Plug 7: Plug 7 is movably connected to the water outlet hole on the outer wall of the baffle plate of the water receiving tray 6. It is used to control the opening and closing of the water outlet hole, so that the condensate can be drained after the condensate is collected. When closed, it can prevent the condensate from overflowing. Elastic corrugated pipe 8: The elastic corrugated pipe 8 is coaxially fixed at one end of the outer layer 1, and the plane connected to the outer layer 1 has a circular water flow channel. The other end is coaxially connected to another outer layer 1. It is elastic and can adapt to a certain displacement of the pipe, while guiding condensed water into the water receiving tray 6. Intermediate layer 9: Intermediate layer 9 is coaxially sleeved between outer layer 1 and inner layer 11. Corrugated aluminum foil 10 is installed on the inner wall and is attached to the outer wall of inner layer 11. Together with outer layer 1 and inner layer 11, it forms a three-layer tube structure, which plays the role of intermediate heat preservation and heat reflection. Aluminum foil 10: Aluminum foil 10 is installed in a corrugated shape on the inner wall of the middle layer 9. The corrugated wall is attached to the outer wall of the inner layer 11. The reflective properties of aluminum foil are used to effectively reflect heat, reduce heat transfer, and improve the heat preservation effect. The corrugated design increases the contact area. Inner layer 11: Inner layer 11 is the innermost layer of the three-layer pipe structure. The inner wall has a circumferential fixed support block 12, which is used to install the spring 15 and the clamping block 13 to clamp the dehumidification cylinder 14. It is the channel for water flow and works with other structures to achieve heat preservation and anti-condensation. Support block 12: The support block 12 is circumferentially fixed to the inner wall of the inner layer 11. Multiple connection holes are opened on the plane opposite to the inner layer 11 for installing spring 15. The clamping block 13 is connected through the spring 15 to provide a support base for clamping the dehumidification cylinder 14. Clamping block 13: The clamping block 13 is arc-shaped and is connected to the support block 12 through the spring 15. Multiple clamping blocks 13 are installed circumferentially to clamp the dehumidifier cylinder 14 together. They can move elastically with the spring 15 to achieve stable clamping of the dehumidifier cylinder 14. Dehumidifier cylinder 14: The dehumidifier cylinder 14 is clamped in the inner layer 11 by multiple circumferentially installed clamping blocks 13, which are used to absorb moisture in the pipe, reduce the moisture in the pipe, and reduce the possibility of condensation from the inside in conjunction with other structures, thereby improving the anti-condensation effect. Spring 15: One end of spring 15 is fixed in the connecting hole of support block 12, and the other end is connected to clamping block 13. It is elastic, so that clamping block 13 can move flexibly to achieve elastic clamping of dehumidification cylinder 14, and at the same time plays a buffering role when the pipeline vibrates. Rubber block 16: Rubber blocks 16 are fixed at equal intervals on the inner wall of the outer layer 1, and the side facing away from the outer layer 1 is attached to the outer wall of the middle layer 9. The elasticity of the rubber plays a buffering role between the outer layer 1 and the middle layer 9, while enhancing the stability of the structure. Support plate 17: The support plate 17 is fixed between two rubber blocks 16 on the inner wall of the outer layer 1. It has symmetrical hexagonal holes on the top. The side of the support plate facing away from the outer layer 1 is in contact with the outer wall of the middle layer 9. The rubber blocks 16 support the middle layer 9. The edges of the hexagonal holes will disturb the fluid boundary layer, making the laminar flow turn into turbulent flow more quickly, and increasing the heat exchange area between the fluid and the pipe wall. Support 3 18: Support 3 18 connects two supports 1 3 on the plane away from support 2 5, forming a frame-like support component together with support 1 3 and support 2 5. Its outer wall is in contact with the outer wall of outer layer 1, and it plays a supporting and fixing role for the entire tube structure.

[0028] Working principle: When chilled water flows in the inner layer 11, the corrugated aluminum foil 10 on the inner wall of the middle layer 9 effectively blocks the loss of cold energy by reflecting heat radiation. At the same time, the corrugated structure of the aluminum foil 10 increases the contact area with the inner layer 11, further improving the heat insulation efficiency. The spiral guide groove 2 on the outer wall of the outer layer 1 guides the surface condensate to flow along the groove. The water receiving tray 6, by being sleeved on the outside of the water flow groove of the elastic corrugated pipe 8, collects the condensate into the arc baffle plate, and finally discharges it through the openable and closable plug 7, completely solving the problem of condensate accumulation.

[0029] The rubber block 16 and support plate 17 on the inner wall of the outer layer 1 are elastically fitted with the middle layer 9. The support plate 17 with hexagonal hole design not only reduces weight, but its edges can also disturb the fluid boundary layer and enhance the heat exchange effect. The support block 12 inside the inner layer 11 is connected to the arc-shaped clamping block 13 through the spring 15 to form an elastic fixation on the dehumidification cylinder 14. This not only adsorbs the moisture in the pipe to reduce the risk of condensation, but also buffers the impact of water flow. The support assembly is a flexible frame formed by the bracket 1 3, bracket 2 5 and bracket 3 18 hinged by the universal ball 4. The displacement or vibration of the outer layer 1 is dispersed and absorbed by the multi-directional adjustment of the universal ball 4, avoiding stress concentration caused by rigid connection.

[0030] The flexible corrugated pipe 8 can guide condensate into the water receiving tray 6 through the water channel, and can also adapt to the thermal expansion and contraction of the pipe by its own elasticity to ensure the sealing. The dehumidification cylinder 14 continuously absorbs the moisture in the pipe, and together with the heat preservation effect of the aluminum foil 10, it inhibits the formation of condensation from both the inside and outside.

[0031] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A high-efficiency heat insulation and anti-condensation structure for chilled water pipes, characterized in that, include: Outer layer (1), middle layer (9), inner layer (11), the middle layer (9) is coaxially sleeved inside the outer layer (1), and the inner layer (11) is coaxially sleeved inside the middle layer (9). The outer layer (1), the middle layer (9), and the inner layer (11) together constitute the tube structure; A water storage component is fixedly installed on one end of the pipe structure, and another set of the pipe structure is installed on the other side of the water storage component; The tube structure is provided with a support component.

2. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 1, characterized in that, The outer tube wall of the outer layer (1) is provided with a spiral guide groove (2).

3. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 2, characterized in that, Multiple sets of rubber blocks (16) are fixedly installed at equal intervals on the inner tube wall of the outer layer (1). A support plate (17) is fixedly installed between two rubber blocks (16) on the inner tube wall of the outer layer (1). Hexagonal holes are symmetrically opened on the support plate (17). The rubber block (16) and the support plate (17) facing away from the outer layer (1) are in contact with the outer wall of the intermediate layer (9).

4. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 3, characterized in that, An aluminum foil (10) is installed on the inner wall of the intermediate layer (9), and the aluminum foil (10) is corrugated. The corrugated wall of the aluminum foil (10) and the outer wall of the inner layer (11) are attached to each other.

5. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 4, characterized in that, The inner wall of the inner layer (11) is fixedly installed with a support block (12) in a circular shape. The support block (12) has multiple connecting holes equidistantly opened on the plane opposite to the inner layer (11). A spring (15) is fixedly installed in the connecting hole, and a clamping block (13) is fixedly installed on the other end of the spring (15). The clamping block (13) is arc-shaped.

6. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 5, characterized in that, A dehumidifier cylinder (14) is held between several clamping blocks (13) installed in a circular pattern.

7. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 1, characterized in that, The water storage assembly includes a water receiving tray (6), a plug (7), and an elastic corrugated pipe (8). An elastic corrugated pipe (8) is coaxially fixedly installed on one end of the outer layer (1). A water flow channel is formed on the plane where the elastic corrugated pipe (8) and the outer layer (1) are connected. A water receiving tray (6) is sleeved on the plane where the water flow channel is formed. An arc-shaped baffle is fixedly installed on the circumference of the surface of the water receiving tray (6). A water outlet hole is formed on the outer wall of the baffle. A plug (7) is movably connected in the water outlet hole. The other end plane of the elastic bellows (8) is coaxially fixedly connected to the other outer layer (1).

8. The high-efficiency heat insulation and anti-condensation structure for chilled water pipes according to claim 1, characterized in that, The support assembly includes bracket one (3), omnidirectional ball (4), bracket two (5), and bracket three (18). Omnidirectional ball (4) is fixedly installed on both sides of bracket two (5). Bracket one (3) is fixedly installed on the other end of each of the two omnidirectional balls (4). Another omnidirectional ball (4) is fixedly installed on the plane of each of the two bracket one (3) away from bracket two (5). Bracket three (18) is fixedly connected in the middle of the two omnidirectional balls (4). Connecting columns are symmetrically fixedly installed on the outer circle of the bracket two (5); The support assembly is frame-shaped, and the outer walls of the first bracket (3), the second bracket (5) and the third bracket (18) are in contact with the outer wall of the outer layer (1).

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