Damp-proof and heat-insulating device for pipeline
By wrapping the moisture-proof and heat insulation device on the pipe, the heat loss, pipe network leakage and noise problems in the collective heating system are solved, and heat insulation, corrosion and mechanical protection are provided to achieve rapid installation.
Patent Information
- Application Number
- CN202422188366.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-09-06
- Publication Date
- 2025-07-22
- Estimated Expiration
- 2034-09-06
AI Technical Summary
There are problems in collective heating systems such as heat loss, pipeline leakage and uneven heat distribution, especially the expansion damage and noise interference of pipes to external buildings under high temperatures.
A multi-layer structure consisting of glass fiber aluminum foil layer, fiber cloth layer, polyurethane glue layer, rubber layer, polyethylene foam layer, glued glass wool layer and self-adhesive layer is adopted to form a closed loop through bonding to provide heat insulation, corrosion protection, buffering and sound absorption effects.
Effectively reduce thermal loss, prevent pipeline expansion and damage to buildings, reduce noise interference, improve the mechanical protection and chemical corrosion resistance of pipelines, and achieve rapid installation.
Smart Images

Figure CN223137384U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of moisture-proof and heat-insulation, and particularly relates to a pipeline moisture-proof and heat-insulation device. Background Technique
[0002] Central heating refers to a heating method that provides heat energy for multiple buildings or units in a region through a central heating system. Compared with individual household heating, central heating has some characteristics and advantages. Central heating plays an important role in urban construction and development. By sharing heat sources within a region, central heating improves the energy utilization efficiency. Common central heating heat sources include boiler houses, heating plants, combined heat and power generation, etc. Through centralized heating, energy can be utilized more efficiently, energy waste can be reduced, and carbon emissions can be lowered; the central heating system can concentrate combustion boiler facilities at dedicated heating sites, effectively controlling the waste gas and emissions generated by combustion, thereby reducing the risk of air pollution and indoor pollution. Compared with decentralized heating, central heating has less impact on the environment and human health; the central heating system is operated and managed by a heating company or management agency, and the heating equipment and pipe networks are maintained and repaired uniformly. This can ensure the normal operation of the heating equipment and pipelines, and promptly handle faults and maintenance requirements; through the establishment of a perfect heating pipe network and heat substation, the central heating system can achieve balanced regulation of heating load, improving the stability and reliability of heating. Even in cold seasons or peak hours, the heating system can continuously and stably provide heat energy for users; central heating can reduce heating costs through large-scale operation and shared heat sources. The heating company can purchase fuel and maintain equipment more effectively, thereby achieving cost savings, and can provide more competitive heat energy prices through intensive operation.
[0003] However, there are also some challenges and problems in central heating, such as heat loss, pipe network leakage, heat distribution, and damage to pipelines by external forces. Therefore, it is necessary to improve the existing pipelines through reasonable design and improvement of some existing pipelines. Content of the Utility Model
[0004] (1) Technical Problems to be Solved
[0005] The purpose of the utility model is to provide a pipeline moisture-proof and heat-insulation device to solve the problems of heat loss, pipe network leakage, heat distribution, and damage to pipelines by external forces in the above-mentioned background technique.
[0006] (2) Technical Solutions
[0007] To achieve the above object, the present utility model provides the following technical solutions: A pipeline moisture-proof and heat-insulating device, including a pipeline main body, a fiberglass aluminum foil layer, a second fiber fabric layer, and a first polyurethane glue layer. The outer part of the pipeline main body is wrapped with a 0.02-mm-thick fiberglass aluminum foil layer. A layer of acrylic glue is wrapped on the fiberglass aluminum foil layer. A first fiber fabric layer is provided outside the acrylic glue. The thickness of the first fiber fabric layer is 1 mm - 3 mm. The fiberglass aluminum foil layer is adhered through acrylic glue.
[0008] Preferably, the first fiber fabric layer is fixedly arranged outside the fiberglass aluminum foil layer. The thickness of the second fiber fabric layer is 1 mm - 3 mm. The first polyurethane glue layer is fixedly arranged outside the first fiber fabric layer. A rubber layer is provided on one side of the first polyurethane glue layer. By installing a 0.02-mm-thick fiberglass aluminum foil layer, this fiberglass aluminum foil layer has a moderate thickness and has good heat insulation, waterproof, and anti-corrosion properties, effectively avoiding damage to the external building caused by the expansion of the high-temperature pipe due to high temperature. By setting the first fiber fabric layer, the fiber fabric is a soft material with a certain tensile strength, which can provide mechanical protection and anti-corrosion effects.
[0009] Preferably, the rubber layer is fixedly arranged outside the first polyurethane glue layer. The thickness of the rubber layer is 5 mm - 10 mm. The second polyurethane glue layer is fixedly arranged outside the rubber layer. A polyethylene foam layer is provided outside the second polyurethane glue layer. The first polyurethane glue layer has good bonding strength and water resistance, and is especially suitable for bonding moisture-proof and heat-insulating materials. It can provide strong tensile strength and has good chemical corrosion resistance, and can adapt to various working environments. By installing the rubber layer, the rubber is a soft material with good elasticity, having wear resistance, chemical corrosion resistance, and temperature resistance. It can be used for the protection of pipelines and can be wrapped around the pipeline to provide a buffering and protective effect.
[0010] Preferably, the polyethylene foam layer is fixedly arranged outside the second polyurethane glue layer. The thickness of the polyethylene foam layer is 10 mm - 20 mm. A third polyurethane glue layer is provided outside the polyethylene foam layer. A glued glass wool layer is provided outside the third polyurethane glue layer. By installing a 10-mm - 20-mm-thick polyethylene foam layer, the polyethylene foam is a lightweight, soft, and elastic material, which has excellent shock absorption and sound absorption properties, can buffer external impacts and vibrations, and at the same time can provide a certain heat insulation effect and reduce the noise generated by the water flow in the water pipe.
[0011] Preferably, the glued glass wool layer is fixedly arranged outside the polyurethane glue layer three. The thickness of the glued glass wool layer is 15 mm - 30 mm. There is a polyurethane glue layer four outside the glued glass wool layer. Through the polyurethane glue layer three, the polyethylene foam layer and the glued glass wool layer can be firmly bonded together. It can provide strong tensile strength and has good chemical corrosion resistance, and can adapt to various working environments. By installing a glued glass wool layer with a thickness of 15 mm - 30 mm, the glued glass wool is a soft material made of glass fiber, having good heat insulation performance and sound absorption performance. It can cover the surface of the pipeline, provide heat insulation protection, and can absorb noise and vibration.
[0012] Preferably, there is a fiber cloth layer two outside the polyurethane glue layer four. There is a self-adhesive layer outside the fiber cloth layer two. The self-adhesive layer is fixedly installed outside the glued glass wool layer. By installing the polyurethane glue layer three, the glued glass wool layer and the fiber cloth layer two can be firmly bonded together. By installing the fiber cloth layer two, the fiber cloth is a soft material with a certain tensile strength. It can provide mechanical protection and anti-corrosion effect.
[0013] Preferably, there is a protective film outside the self-adhesive layer. By installing the self-adhesive layer, the fiber cloth layer two and the glued glass wool layer can be quickly bonded together to form a closed loop, realizing the quick installation of the device and improving work efficiency. By installing the protective film, it can protect the self-adhesive layer from pollution and damage during transportation work, and is also convenient for the installation of the staff during installation.
[0014] Compared with the prior art, the beneficial effects of the present utility model are:
[0015] 1. For this pipeline moisture-proof and heat-insulating device, by installing a 0.02-mm-thick glass fiber aluminum foil layer, this kind of glass fiber aluminum foil layer has a moderate thickness and has good heat insulation, waterproof and anti-corrosion properties, effectively avoiding the damage caused by the expansion of the high-temperature pipe to the external building due to high temperature. By setting the fiber cloth layer one, the fiber cloth is a soft material with a certain tensile strength. It can provide mechanical protection and anti-corrosion effect; the polyurethane glue layer one has good bonding strength and water resistance, and is especially suitable for bonding moisture-proof and heat-insulating materials. It can provide strong tensile strength and has good chemical corrosion resistance, and can adapt to various working environments. By installing the rubber layer, the rubber is a soft material with good elasticity, having wear resistance, chemical corrosion resistance and temperature resistance. It can be used for the protection of the pipeline and can be wrapped around the pipeline to provide a buffering and protection effect;
[0016] 2. The pipeline moisture-proof and heat-insulating device installs a polyethylene foam layer with a thickness of 10 mm - 20 mm. Polyethylene foam is a lightweight, soft and elastic material. It has excellent shock-proof and sound-absorbing properties, can buffer external impacts and vibrations, and at the same time can provide a certain heat-insulating effect, reducing the noise generated by water flow in the water pipe. By installing a glued glass wool layer with a thickness of 15 mm - 30 mm, the glued glass wool is a soft material made of glass fibers, with good heat insulation performance and sound-absorbing properties. It can cover the surface of the pipeline, provide heat insulation protection, and can absorb noise and vibrations.
[0017] 3. The pipeline moisture-proof and heat-insulating device installs a second fiber cloth layer. The fiber cloth is a soft material with a certain tensile strength. It can provide mechanical protection and anti-corrosion effects. By installing a self-adhesive layer, the second fiber cloth layer and the glued glass wool layer can be quickly bonded together to form a closed loop, realizing the rapid installation of the device and improving work efficiency. By installing a protective film, it can protect the self-adhesive layer from pollution and damage during transportation work, and is also convenient for the installation of workers during installation. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Figure 1 It is a three-dimensional structural schematic diagram of the present utility model;
[0019] Figure 2 It is a closed sectional structural schematic diagram of the present utility model;
[0020] Figure 3 It is an unfolded sectional structural schematic diagram of the present utility model
[0021] Figure 4 It is an unfolded partial sectional structural schematic diagram of the present utility model.
[0022] In the figure: 1. Pipeline main body; 2. Glass fiber aluminum foil layer; 3. First fiber cloth layer; 4. First polyurethane glue layer; 5. Rubber layer; 6. Second polyurethane glue layer; 7. Polyethylene foam layer; 8. Third polyurethane glue layer; 9. Glued glass wool layer; 10. Fourth polyurethane glue layer; 11. Second fiber cloth layer; 12. Self-adhesive layer; 13. Protective film. DETAILED DESCRIPTION OF THE EMBODIMENTS
[0023] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the protection scope of the present utility model.
[0024] Please refer to Figure 1 -Figure 4 , the present utility model provides a technical solution: a pipeline moisture-proof and heat-insulating device, including a pipeline main body 1, a fiberglass aluminum foil layer 2, a fiber fabric layer two 11, and a polyurethane glue layer one 4. The outside of the pipeline main body 1 is wrapped with a fiberglass aluminum foil layer 2 with a thickness of 0.02 mm. The fiberglass aluminum foil layer 2 is wrapped with a layer of acrylic glue. An outer fiber fabric layer one 3 is provided outside the acrylic glue. The thickness of the fiber fabric layer one 3 is 1 mm - 3 mm. The fiberglass aluminum foil layer 2 is bonded through the acrylic glue.
[0025] The fiber fabric layer one 3 is fixedly arranged outside the fiberglass aluminum foil layer 2. The thickness of the fiber fabric layer two 11 is 1 mm - 3 mm. The polyurethane glue layer one 4 is fixedly arranged outside the fiber fabric layer one 3. A rubber layer 5 is provided on one side of the polyurethane glue layer one 4. By installing the fiberglass aluminum foil layer 2 with a thickness of 0.02 mm, this fiberglass aluminum foil layer 2 has a moderate thickness and has good heat insulation, waterproof, and anti-corrosion properties, effectively avoiding damage to the external building caused by the expansion of the high-temperature pipe due to high temperature. By setting the fiber fabric layer one 3, the fiber fabric is a soft material with a certain tensile strength, and it can provide mechanical protection and anti-corrosion effects.
[0026] The rubber layer 5 is fixedly arranged outside the polyurethane glue layer one 4. The thickness of the rubber layer 5 is 5 mm - 10 mm. The polyurethane glue layer two 6 is fixedly arranged outside the rubber layer 5. A polyethylene foam layer 7 is provided outside the polyurethane glue layer two 6. The polyurethane glue layer one 4 has good bonding strength and water resistance, and is especially suitable for bonding moisture-proof and heat-insulating materials. It can provide strong tensile strength and has good chemical corrosion resistance, and can adapt to various working environments. By installing the rubber layer 5, rubber is a soft material with good elasticity, having wear resistance, chemical corrosion resistance, and temperature resistance. It can be used for the protection of pipelines and can be wrapped around the pipeline to provide a buffering and protective effect.
[0027] The polyethylene foam layer 7 is fixedly arranged outside the polyurethane glue layer two 6. The thickness of the polyethylene foam layer 7 is 10 mm - 20 mm. A polyurethane glue layer three 8 is provided outside the polyethylene foam layer 7. A glued glass wool layer 9 is provided outside the polyurethane glue layer three 8. By installing the polyethylene foam layer 7 with a thickness of 10 mm - 20 mm, polyethylene foam is a lightweight, soft, and elastic material. It has excellent shock absorption and sound absorption properties, can buffer external impacts and vibrations, and can also provide a certain heat insulation effect, reducing the noise generated by the water flow inside the water pipe.
[0028] The glued glass wool layer 9 is fixedly arranged outside the polyurethane glue layer three 8. The thickness of the glued glass wool layer 9 is 15 mm - 30 mm. The polyurethane glue layer four 10 is arranged outside the glued glass wool layer 9. Through the polyurethane glue layer three 8, the polyethylene foam layer 7 and the glued glass wool layer 9 can be firmly bonded together. It can provide strong tensile strength and has good chemical corrosion resistance, and can adapt to various working environments. By installing the glued glass wool layer 9 with a thickness of 15 mm - 30 mm, the glued glass wool is a soft material made of glass fibers, having good heat insulation performance and sound absorption performance. It can wrap around the surface of the pipeline to provide heat insulation protection and can absorb noise and vibration.
[0029] The fiber cloth layer two 11 is arranged outside the polyurethane glue layer four 10. The self-adhesive layer 12 is arranged outside the fiber cloth layer two 11. The self-adhesive layer 12 is fixedly installed outside the glued glass wool layer 9. By installing the polyurethane glue layer three 8, the glued glass wool layer 9 and the fiber cloth layer two 11 can be firmly bonded together. By installing the fiber cloth layer two 11, the fiber cloth is a soft material with a certain tensile strength, and it can provide mechanical protection and anti-corrosion effect.
[0030] The protective film 13 is arranged outside the self-adhesive layer 12. By installing the self-adhesive layer 12, the fiber cloth layer two 11 and the glued glass wool layer 9 can be quickly bonded together to form a closed loop, realizing the rapid installation of the device and improving work efficiency. By installing the protective film 13, it can protect the pollution and damage of the self-adhesive layer 12 during transportation work, and it is also convenient for the staff to install during installation.
[0031] Working principle: In production preparation, a glass fiber aluminum foil layer 2 with a thickness of 0.02 mm is used, and an acrylic glue is applied on the outside. A fiber cloth layer one 3 with a thickness of 1 mm - 3 mm is used and bonded to the glass fiber aluminum foil layer 2. A polyurethane glue layer one 4 is applied on the fiber cloth layer one 3, and then a rubber layer 5 with a thickness of 5 mm - 10 mm is used. Through the polyurethane glue layer one 4, the fiber cloth layer one 3 and the rubber layer 5 can be bonded together. Then a polyurethane glue layer two 6 is arranged on the rubber layer 5. Through the polyurethane glue layer two 6, the polyethylene foam layer 7 is bonded outside the rubber layer 5. Then a polyurethane glue layer three 8 is applied outside the polyethylene foam layer 7. Through the polyurethane glue layer three 8, the glued glass wool layer 9 is bonded. Then a self-adhesive layer 12 is arranged at the interface of the glued glass wool layer 9, and a self-adhesive layer 12 is arranged inside the interface of the fiber cloth layer two 11. A protective film 13 is arranged outside the self-adhesive layer 12 at the interface of the glued glass wool layer 9, and a protective film 13 is arranged inside the self-adhesive layer 12 inside the interface of the fiber cloth layer two 11. When installing this device on the hot water pipe, the protective film 13 on the self-adhesive layer 12 is torn off, and the self-adhesive layer 12 at the interface of the glued glass wool layer 9 and the self-adhesive layer 12 inside the interface of the fiber cloth layer two 11 are adhered and bonded to form a closed loop.
[0032] Finally, it should be noted that the above content is only used to illustrate the technical solution of the present utility model, rather than a limitation on the protection scope of the present utility model. Any simple modification or equivalent replacement made by those of ordinary skill in the art to the technical solution of the present utility model shall not depart from the essence and scope of the technical solution of the present utility model.
Claims
1. A pipeline moisture-proof and heat-insulating device, comprising a pipeline main body (1), a fiberglass aluminum foil layer (2), a second fiber cloth layer (11), and a first polyurethane glue layer (4), characterized in that: The outside of the pipe body (1) is wrapped with a fiberglass aluminum foil layer (2) with a thickness of 0.02 mm. The fiberglass aluminum foil layer (2) is wrapped with a layer of acrylic glue. An outer layer of fiber cloth (3) is provided outside the acrylic glue. The thickness of the outer layer of fiber cloth (3) is 1 mm - 3 mm. The fiberglass aluminum foil layer (2) is adhered by the acrylic glue.
2. The pipeline moisture-proof and heat-insulating device according to claim 1, characterized in that: The outer layer of fiber cloth (3) is fixedly arranged outside the fiberglass aluminum foil layer (2). The thickness of the second layer of fiber cloth (11) is 1 mm - 3 mm. The first layer of polyurethane glue (4) is fixedly arranged outside the outer layer of fiber cloth (3). A rubber layer (5) is provided on one side of the first layer of polyurethane glue (4).
3. The pipeline moisture-proof and heat-insulating device according to claim 2, characterized in that: The rubber layer (5) is fixedly arranged outside the first layer of polyurethane glue (4). The thickness of the rubber layer (5) is 5 mm - 10 mm. The second layer of polyurethane glue (6) is fixedly arranged outside the rubber layer (5). A polyethylene foam layer (7) is provided outside the second layer of polyurethane glue (6).
4. A pipeline moisture-proof and heat-insulating device according to claim 3, characterized in that: The polyethylene foam layer (7) is fixedly arranged outside the second layer of polyurethane glue (6). The thickness of the polyethylene foam layer (7) is 10 mm - 20 mm. An outer layer of polyurethane glue (8) is provided outside the polyethylene foam layer (7). A glued glass wool layer (9) is provided outside the outer layer of polyurethane glue (8).
5. A pipeline moisture-proof and heat-insulating device according to claim 4, characterized in that: The glued glass wool layer (9) is fixedly arranged outside the outer layer of polyurethane glue (8). The thickness of the glued glass wool layer (9) is 15 mm - 30 mm. An outer layer of polyurethane glue (10) is provided outside the glued glass wool layer (9).
6. The pipeline moisture-proof and heat-insulating device according to claim 5, wherein: The outer layer of polyurethane glue (10) is provided with a second layer of fiber cloth (11). An adhesive layer (12) is provided outside the second layer of fiber cloth (11). The adhesive layer (12) is fixedly installed outside the glued glass wool layer (9).
7. A pipeline moisture-proof and heat-insulating device according to claim 6, characterized in that: A protective film (13) is provided outside the adhesive layer (12).