Ultrasonic flowmeters rely on stable ultrasonic signal transmission and fully developed fluid flow fields to achieve accurate flow measurement. Straight pipe sections are essential installation conditions that eliminate flow turbulence, swirling flow, and velocity profile distortion caused by pipe fittings such as elbows, valves, and reducers. Insufficient straight pipe length is one of the most common causes of measurement deviation, data fluctuation, and long-term metering instability in industrial sites.

Ultrasonic flowmeters are widely used for fluid measurement in various industrial fields, which can be classified into gas and liquid types according to applicable measuring media. Although both adopt the ultrasonic time-difference measurement principle, significant technical differences exist in sensor design, signal processing, structural parameters, and working condition adaptability due to the distinct physical properties of gas and liquid media. Gas features low density, high compressibility, and severe ultrasonic signal attenuation, while liquid has high density, stable sound velocity, and susceptibility to bubble interference.

Multi-channel high-precision ultrasonic flow meters are core metering equipment for industrial high-accuracy flow measurement, widely used in petrochemical custody transfer, thermal energy measurement and precision process control. Different from single-channel products, multi-channel flow meters adopt multiple acoustic paths to optimize flow field sampling, achieving higher measurement accuracy and repeatability. However, multi-path structural characteristics bring higher requirements for calibration accuracy and process standardization.

Ultrasonic flowmeters are widely used in industrial fluid measurement due to their non-intrusive structure, zero pressure loss and wide applicability. However, their measurement accuracy is severely compromised under complex working conditions including gas-liquid two-phase flow, high temperature and high turbidity. Bubbles, suspended particles and extreme temperature environments cause ultrasonic signal attenuation, scattering and velocity deviation, resulting in significant flow data drift and fluctuation.

Flow measurement is a fundamental component of industrial process control, energy metering, and fluid pipeline management. Ultrasonic, electromagnetic, and turbine flowmeters are three of the most widely used flow measurement devices in modern industrial systems, each with unique structural principles, performance characteristics, and applicable scenarios. Selecting a suitable flowmeter directly affects measurement accuracy, operational stability, and project economic benefits.

Spool-piece ultrasonic flowmeters are widely adopted in industrial fluid measurement due to their high accuracy, zero pressure loss, and strong adaptability to clean liquid and gas media. Unlike clamp-on ultrasonic flowmeters, integrated spool-piece sensors feature factory-calibrated pipelines and integrated transducer structures, ensuring more stable and reliable measurement performance.

Spool-piece ultrasonic flowmeters are widely adopted in industrial fluid measurement due to their high accuracy, zero pressure loss, and strong adaptability to clean liquid and gas media. Unlike clamp-on ultrasonic flowmeters, integrated spool-piece sensors feature factory-calibrated pipelines and integrated transducer structures, ensuring more stable and reliable measurement performance.

High-frequency non-contact radar level meters are widely used in industrial tank measurement, with 6GHz, 26GHz, and 80GHz being the three mainstream frequency bands. Although all of them adopt microwave time-of-flight measurement theory, differences in frequency, wavelength, beam angle and signal characteristics lead to distinct performance in measurement accuracy, anti-interference ability and environmental adaptability.

Guided wave radar and non-contact radar are two mainstream radar level measurement technologies widely used in industrial process monitoring. Although both work based on microwave electromagnetic wave reflection theory, they differ fundamentally in structural design, working mechanisms, and medium applicability. Guided wave radar adopts contact probe transmission, while non-contact radar realizes non-invasive measurement through air-propagating microwaves.