Accurate flow measurement is essential for controlling industrial processes, monitoring energy consumption, and maintaining production efficiency. An inline flow meter provides a direct way to measure liquid or gas flow within a pipeline.

A gas mass flow meter measures the mass flow rate of gas directly, eliminating the need for separate temperature and pressure compensation under suitable operating conditions. It is widely used for compressed air, nitrogen, biogas, natural gas, and specialty process gases in energy consumption accounting, process gas blending, and custody transfer applications.

In AI data centers and high-performance liquid cooling systems, water is not always the only cooling medium. Depending on system design and operating requirements, a Coolant Distribution Unit (CDU) may use pure water, water-glycol mixtures, or specialized cooling fluids.

As AI computing and high-density servers continue to increase rack power consumption, liquid cooling is becoming an increasingly important solution for modern data centers. Within a Coolant Distribution Unit (CDU), reliable flow measurement helps maintain coolant circulation, support efficient heat transfer, and keep cooling systems operating within their intended parameters.

Steam is one of the most widely used energy media in industrial applications—and one of the most expensive to produce and distribute. Accurate steam flow measurement directly affects energy cost allocation, process control, and carbon emissions management.

As industrial companies place greater emphasis on energy efficiency and carbon reduction, compressed air is increasingly recognized as the “fourth utility” of industry. Accurate compressed air measurement directly affects energy costs, energy management, and the efficiency of an entire compressed air system.

Choosing the right steam flow meter starts with one fundamental question: Are you measuring saturated steam or superheated steam?

Although both are forms of steam, their physical properties, density behavior, and measurement challenges are significantly different. These differences directly affect the choice of flow measurement principle, compensation method, materials, and installation requirements.

Municipal water supply networks are the “arteries” of modern cities. Their main pipelines typically involve large diameters, significant variations between daytime peak demand and nighttime minimum flow, humid underground valve chambers, and complex installation conditions.