In fields such as physicochemical laboratory testing, precision gas proportioning, and scientific research monitoring, the accuracy, stability, and adaptability of gas flow measurement directly determine the accuracy of experimental data and the safety of equipment operation. Addressing the pain points of traditional flowmeters in current laboratory gas measurement scenarios, such as poor material durability, limited range adaptability, single media compatibility, and ambiguous operating condition identification, a newly upgraded, highly adaptable glass rotor flowmeter has been officially launched. This device, relying on superior material selection, scientific range design, and precise operating condition and standard condition flow differentiation technology, is specifically tailored for measuring various gas media in laboratories, providing a reliable flow measurement and control solution for scientific research experiments and precision testing scenarios.
◆
Superior Material Construction
Material quality is the core foundation for the stable operation of a flow meter. This upgraded flow meter features refined optimization in its structural materials, balancing corrosion resistance, pressure resistance, and light transmittance. The base is made of 304 stainless steel through a single forging process. 304 stainless steel possesses excellent acid and alkali resistance, oxidation resistance, and rust resistance, effectively resisting the erosion of various trace corrosive gases and humid environments in the laboratory. This prevents problems such as rusting, deformation, and leakage of the base over long-term use, significantly extending the equipment’s service life and making it suitable for long-term, high-frequency laboratory experiments.
◆
Wide Range & Multi-Media Adaptability
In terms of core measurement performance, this flowmeter features a 1:10 wide range ratio design, offering a broader measurement coverage compared to traditional narrow-range flowmeters. It can meet the measurement needs of various scenarios in laboratories, including trace, routine, and medium-to-high flow rate gases, eliminating the need for frequent equipment changes and effectively improving experimental efficiency. Simultaneously, the device is fully adapted to the characteristics of industrial and scientific research media, suitable for various gas media of different densities.
▲
Precise Flow Condition Differentiation
Of particular note is the new flow meter’s ability to accurately distinguish between standard condition flow rate and working condition flow rate, addressing the most critical and easily confused issue in laboratory gas measurement. This completely resolves the problems of inconsistent flow parameter statistics and data mismatches in scientific research experiments. In the field of gas flow measurement, standard condition and working condition are two completely different sets of core parameters that directly affect the reference value of experimental data.
ⓘ
Standard Condition
The flow rate under standard conditions, which refers to the flow rate after the compressed gas is released into the atmosphere.
ⓘ
Working Condition
The flow rate of compressed gas is the working condition flow rate.
Currently, this highly adaptable glass rotor flowmeter is widely used in gas flow measurement scenarios in various university laboratories, research institutes, and precision testing laboratories. With its robust material processing, wide measurement range, multi-media adaptability, and precise distinction between operating and standard conditions, it has become the preferred device for laboratory gas flow measurement and control. In the future, the product will continue to optimize calibration accuracy, further developing its application in the niche market of scientific research laboratories, providing more professional and stable flow measurement support for precision gas experiments and scientific innovation.pharmaceutical production. Both materials comply with international industrial standards, ensuring the valves’ long-term stable operation in harsh working conditions.
Post time:
May-26-2026
