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CPVC power conduit

CPVC high-voltage power cable sheathing materials are primarily made from CPVC resin, which boasts excellent heat resistance and insulation properties. CPVC products are currently recognized as environmentally friendly and green, making them an ideal replacement for traditional power cable sheathing pipes.


Keywords

管材

CPVC电力管

九和橡塑

电缆保护套管

橡塑管材



Product Details

Product description:
CPVC high-voltage power cable jacket pipes are primarily made from CPVC resin, which boasts excellent heat resistance and insulation properties. CPVC products are currently recognized as environmentally friendly and green, making them an ideal replacement for traditional power cable jacket pipes.
Product features:

1. CPVC power conduits are increasingly gaining attention in the industry due to their outstanding physicochemical properties. CPVC high-voltage power cable sheathing pipes are rigid, solid-wall pipes with smooth and even inner and outer surfaces. They have an orange-red color that is bright and eye-catching. Compared to conventional UPVC double-wall corrugated pipes, CPVC pipes exhibit a 15°C higher heat resistance, maintaining their shape and integrity even in environments above 93°C, while also possessing sufficient strength.
2. CPVC power conduits are typically used as cable protection pipes. This product boasts high strength, excellent flexibility, high-temperature resistance, corrosion resistance, flame retardancy, good insulation performance, zero pollution, resistance to aging, light weight, and ease of installation. All its performance indicators have been tested, verified, and certified by provincial authorities and have either reached or surpassed the standards of similar domestic products. The product’s performance significantly outperforms that of traditional asbestos cable ducts and ordinary PVC pipes, making it an ideal replacement for conventional power cable sheathing pipes.

Scope of application:
Widely used in urban power grid construction and renovation; urban municipal renovation projects; civil aviation airport construction; industrial park and residential community development; transportation, bridge and road construction; and the laying of urban streetlight cables, providing guidance and protection.

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CPVC power conduit

CPVC high-voltage power cable sheathing materials are primarily made from CPVC resin, which boasts excellent heat resistance and insulation properties. CPVC products are currently recognized as environmentally friendly and green, making them an ideal replacement for traditional power cable sheathing pipes.

Keywords:

Product Inquiries:

  • Product Description
  • Product description:
    CPVC high-voltage power cable jacket pipes are primarily made from CPVC resin, which boasts excellent heat resistance and insulation properties. CPVC products are currently recognized as environmentally friendly and green, making them an ideal replacement for traditional power cable jacket pipes.
    Product features:

    1. CPVC power conduits are increasingly gaining attention in the industry due to their outstanding physicochemical properties. CPVC high-voltage power cable sheathing pipes are rigid, solid-wall pipes with smooth and even inner and outer surfaces. They have an orange-red color that is bright and eye-catching. Compared to conventional UPVC double-wall corrugated pipes, CPVC pipes exhibit a 15°C higher heat resistance, maintaining their shape and integrity even in environments above 93°C, while also possessing sufficient strength.
    2. CPVC power conduits are typically used as cable protection pipes. This product boasts high strength, excellent flexibility, high-temperature resistance, corrosion resistance, flame retardancy, good insulation performance, zero pollution, resistance to aging, light weight, and ease of installation. All its performance indicators have been tested, verified, and certified by provincial authorities and have either reached or surpassed the standards of similar domestic products. The product’s performance significantly outperforms that of traditional asbestos cable ducts and ordinary PVC pipes, making it an ideal replacement for conventional power cable sheathing pipes.

    Scope of application:
    Widely used in urban power grid construction and renovation; urban municipal renovation projects; civil aviation airport construction; industrial park and residential community development; transportation, bridge and road construction; and the laying of urban streetlight cables, providing guidance and protection.

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Heat-resistant polyethylene (PE-RT)

Product Introduction Polyethylene pipe for hot and cold water systems, abbreviated as PE-RT in English. PE-RT is a non-crosslinked polyethylene material suitable for hot water piping. It is a new type of polyethylene product manufactured using a special molecular design and synthesis process. This material is a copolymer of ethylene and octene. In terms of molecular structure, its main chain consists of linear polyethylene, while shorter molecular chains of octene form its side branches. During the polymerization reaction, the number and distribution of side branches on the polyethylene chains are moderately controlled, giving the material excellent heat resistance and outstanding long-term resistance to static hydraulic pressure. PE-RT also features easy bendability without deformation or rebound, making it an ideal pipe material for underfloor heating systems. Product Features Long service life; good thermal stability and long-term pressure resistance, meeting 50-year usage requirements when applied in hot water piping systems. Excellent low-temperature impact resistance; PE-RT pipes have superior low-temperature impact resistance, making them less likely to crack under impact during winter construction. Hygienic and non-toxic; Meiergu brand PE-RT pipe products belong to the "healthy and environmentally friendly" category of green building materials. All hygienic indicators meet national hygiene standards and can be directly used in pure water delivery systems. Good flexibility; the pipes can be straightened or bent easily, facilitating installation. No preheating of the pipes is required during installation in low-temperature environments, making construction convenient. Environmentally friendly; the material is recyclable, does not pollute the environment, and qualifies as an eco-friendly and energy-saving product. Stable processing performance; PEX has issues such as difficulty in controlling crosslinking uniformity, leading to complex processing that directly affects pipe performance. In contrast, PE-RT is easy to process, and its pipe performance is largely determined by the raw materials, ensuring relatively stable performance. Good heat dissipation performance; PE-RT has excellent heat dissipation properties, with a thermal conductivity coefficient of 0.4 W/m·K. In heating applications, this enhances heat transfer efficiency and saves significant energy. Application Fields PE-RT underfloor heating pipes are suitable for residential buildings, villas, hotels, office buildings, shopping malls, hospitals, theaters, schools, libraries, exhibition halls, conference centers, swimming pools, entertainment venues, and more. PE-RT underfloor heating pipes are also used in industrial fields such as greenhouses, flower houses, machine rooms, fish farms, nurseries, livestock farms, airports, as well as outdoor ground snow-melting projects including stations, parking lots, and outdoor sports areas. Building cold and hot water supply, potable water piping systems. Also applicable in the food industry for fluid transport pipelines in beverages, alcoholic drinks, milk, and other liquid products. PE-RT Pipe Installation Methods 1.1 Lay down insulation boards and secure them to the floor with steel nails. 1.2 Choose an indoor layout configuration. 1.3 Lay out and fix the pipes according to requirements. 1.4 After the pipes are laid and installed, gather them together at the manifold installation location. 1.5 Secure the manifold in its dedicated box. Conduct system hydrostatic tests before pouring the concrete filling layer and again after the concrete curing period. 2. Construction Precautions 2.1 When bending PE-RT pipes, no heating is required. The bending radius should not be less than 8 times the outer diameter of the pipe. Use fixing clips to secure the pipe, and place clips every 12 cm along the bend. 2.2 During pipeline laying, follow the design specifications. Pipes must be laid horizontally and vertically, aligned in a straight line, and fixed at the marked positions on the insulation layer. For straight sections, use clips every 60 cm to prevent pipe deformation. 2.3 After laying the PE-RT pipes, lay the steel mesh in sequence, then pour cement mortar, and finally pave the floor. The height from the original ground to the finished floor should be between 70–100 mm. The steel mesh used should have a diameter of 25 mm and a mesh size of 50 mm in length and width. 2.4 At the beginning and end of the heating pipes where they extend above the ground and reach 1 meter from the manifold, install protective sleeves or other insulation measures to prevent damage to the pipes from the edges of the floor during flooring installation. 2.5 When installing the manifold, fix it either on the wall or in a dedicated box. When installed horizontally, the manifold should be placed above the collector, with a center distance of 200 mm. The center of the collector should be no less than 300 mm above the ground. When installed vertically, the bottom of the manifold should be no less than 150 mm above the ground. After securely connecting the underfloor heating pipes to the manifold, each circuit should be gradually flushed until clean water flows out of the pipes. 2.6 Before concealing the pipes, conduct a hydrostatic test on the pipes. The test pressure should be 1.5 times the working pressure of the pipes, but no less than 0.6 MPa. Conduct another system hydrostatic test before and after the concrete filling layer cures. The test pressure should be the working pressure at the highest point of the system plus 0.2 MPa, with the test pressure at the highest point of the system being no less than 0.4 MPa.

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