Product Specification

EMBEDDED G TYPE FIN TUBE SA210 GR.A1 ALUMINIUM 1060 AIR HEATING SYSTEMS

Overview

Embedded fin tubes, also known as integral finned tubes, are heat transfer components used in various industries and applications. They consist of a base tube with integral fins that are formed by a continuous extrusion process. The fins are typically made from the same material as the base tube, ensuring good thermal conductivity and mechanical strength.

Here are some key points about embedded fin tubes:

• Heat Transfer Enhancement: Embedded fin tubes are designed to enhance heat transfer efficiency. The fins increase the surface area of the tube, allowing for improved heat exchange between the fluid inside the tube and the surrounding environment. This makes them particularly useful in applications where efficient heat transfer is critical.
• Increased Heat Transfer Surface: The fins in embedded fin tubes are tightly attached to the base tube, providing a large surface area for heat transfer. This increased surface area facilitates better heat dissipation and can lead to improved performance in heat exchangers, air coolers, and other heat transfer equipment.
• Enhanced Fluid Flow: The fins in embedded fin tubes disrupt the flow of fluid passing over them, creating turbulence. This turbulence enhances convective heat transfer by promoting better mixing and reducing the boundary layer thickness, allowing for more efficient heat exchange.
• Different Fin Geometries: Embedded fin tubes can come in various fin geometries, such as straight fins, helical fins, or rectangular fins. The choice of fin geometry depends on the specific application requirements, including heat transfer rates, fluid flow characteristics, and space limitations.
• Industrial Applications: Embedded fin tubes find applications in a wide range of industries, including HVAC systems, refrigeration, power plants, chemical processing, and oil refineries. They are commonly used in heat exchangers, air coolers, condensers, boilers, and other equipment that require efficient heat transfer.
• Material Selection: The choice of materials for embedded fin tubes depends on the specific operating conditions, including temperature, pressure, and corrosive environments. Common materials used include carbon steel, stainless steel, copper, aluminum, and their alloys.

Embedded fin tubes offer several advantages, including increased heat transfer efficiency, compact design, and improved performance in various heat transfer applications. Proper selection and design of embedded fin tubes are crucial to ensure optimal heat transfer performance and system reliability. Consulting with experts or engineers in the field can help determine the most suitable embedded fin tube configuration for a specific application.

ASTM A210 Grade C Composition

ASME SA210 Mechanical Properties

A210 GR.A1 refers to ASTM A210 Grade A1, which is a specification for seamless medium-carbon steel boiler and superheater tubes. Here are some key features of A210 GR.A1:

1. Composition: A210 GR.A1 is made from carbon-manganese steel, which contains elements such as carbon, manganese, phosphorus, and sulfur. The chemical composition is designed to provide good mechanical properties and corrosion resistance.

2. Seamless Construction: A210 GR.A1 tubes are manufactured using a seamless process, which ensures a uniform structure and eliminates the risk of weld-related defects. This seamless construction makes them suitable for high-pressure and high-temperature applications.

3. High Heat Transfer Efficiency: A210 GR.A1 tubes have excellent heat transfer properties, making them ideal for use in boilers and superheaters. The seamless construction and specific chemical composition allow for efficient transfer of heat from the combustion gases to the working fluid.

4. Good Mechanical Properties: A210 GR.A1 exhibits good tensile strength, yield strength, and elongation properties. This ensures the tubes can withstand high-pressure conditions and provide reliable performance in boiler and superheater applications.

5. Corrosion Resistance: A210 GR.A1 has good resistance to corrosion and oxidation at elevated temperatures. This is important for applications where the tubes come into contact with high-temperature gases and steam.

6. Suitable for High-Temperature Service: A210 GR.A1 tubes are designed to operate at elevated temperatures. They can handle temperatures up to 760°C (1400°F) and are commonly used in power generation, refineries, and other industries where high-temperature processes are involved.

Application:

• Heat Exchangers

• Air Coolers

• Condensers

• Chemical Processing

• Oil and Gas Industry

• HVAC Systems

• Power Generation