The production of low finned tubes involves precision machining techniques and is usually achieved by rolling. This processing method can form fins with a specific height,

 pitch and thickness on the outside of the optical tube, thereby increasing its heat exchange surface area and improving heat exchange efficiency. 

This tube is particularly common in the condensers and evaporators of air conditioners, and its superior heat transfer performance and anti-fouling ability make it an important position in industrial applications. 

The details are as follows:

Production process:

The production of low finned tubes is mainly by rolling method, which is an efficient and accurate machining method. By placing a mandrel inside the light tube,

 a fin is formed on the outside of the tube through a pass composed of a roll blade and a mandrel. This processing method ensures the integrity and consistency of the fins while increasing production efficiency.

In the rolling process, the tube material is plastic deformed under the action of the roll to form a fin firmly bonded with the base tube. 

The low fin tube produced by this method has almost no contact thermal resistance since the base tube and fin are a whole, thus improving the heat transfer efficiency.

Structural properties:

The main structural parameters of low fin tube include inner diameter, outer diameter, wall thickness, height, thickness and pitch of fin. 

These parameters determine the heat transfer performance and mechanical strength of the low-finned tube, and are important factors to be considered in design.

The heat transfer performance of the low-fin tube is better than that of the optical tube, because the external fin can effectively increase the heat transfer area and promote the turbulence of the fluid,

 thereby increasing the convective heat transfer coefficient. Finning ratio and fin efficiency are important indicators to measure its performance. The larger the finning ratio is,

 the more the heat transfer area increases, and fin efficiency reflects the proportional relationship between the actual heat dissipation and the theoretical heat dissipation of the fin.

Application field:

Low fin tubes are widely used in condensers and evaporators of air conditioners, and their excellent heat transfer performance helps to improve the efficiency and energy saving

 performance of air conditioning systems.

In industrial applications, such as boiler heat exchangers in power plants and coolers in the petrochemical industry, low-fin tubes are also widely used because they can 

work stably in high temperature and high pressure environments and have good corrosion resistance and mechanical strength.

Optimization challenges:

To further improve the performance of low-fin tubes, ongoing research is focused on optimizing fin design, such as fin height, thickness and shape, 

as well as exploring more efficient production techniques, such as composite processing methods and the application of new materials.

Facing the challenges of different working environments, how to maintain the long-term thermal stability and corrosion resistance of low-finned tubes is an important topic.

 At the same time, the accumulation of dirt will also significantly affect the heat transfer efficiency, so the development of effective anti-fouling technology and cleaning methods is also the focus of research.

In summary, it can be seen that the production of low-fin tubes is not only a simple manufacturing process, it involves complex engineering design,

 material science and environmental adaptation and other considerations. Only through continuous technological innovation and optimization can 

we ensure that low-fin tubes can play the best performance in a variety of applications to meet the increasingly demanding industrial needs.