YS-HLV Velbar flowmeter

Product Introduction: 1. Overview: The YS-HLV Velbar flowmeter adopts an engineering structure design that fully complies with aerodynamic principles. It is a sensing element that achieves unparalleled accuracy, efficiency, and reliability. The Weiliba uniform velocity flowmeter utilizes the principle of differential pressure ..

YS-HLVverabarAdopting an engineering structural design that fully complies with aerodynamic principles, it is a sensing element that achieves unparalleled precision, efficiency, and reliability. The Weiliba uniform velocity flowmeter uses the principle of differential pressure for flow measurement, and follows the flow continuity equation and Bernoulli equation. It is currently internationally recognized as a new type of plug-in flow meter with high accuracy, good repeatability, and reliable operation in flow primary source detection.

The Weiliba flowmeter has a simple structure, easy disassembly and assembly, low pressure loss, and low usage and maintenance costs. In today's world where energy is increasingly scarce due to rapid economic development, the Weiliba flowmeter is an energy-saving flowmeter that is worth promoting and using. Especially in pipelines with a diameter greater than 200 millimeters, the advantages of the Weiliba flowmeter are more obvious. Therefore, in industries such as power, metallurgy, and petrochemicals, the Velbar flowmeter is often used as a ***** instrument.

2、 Working principle and flow calculation formula

When fluid flows through the probe, a high-pressure distribution area is generated in its front, and the pressure in the high-pressure distribution area is slightly higher than the static pressure of the pipeline. According to the Bernoulli equation principle, the velocity of the fluid increases as it flows through the probe, creating a low-pressure distribution area at the back of the probe. The pressure in the low-pressure distribution area is slightly lower than the static pressure of the pipeline. After the fluid flows through the probe, a partial vacuum is generated at the back of the probe, and vortices appear on both sides of the probe. The cross-sectional shape, surface roughness, and location of the low-pressure tapping hole of the Weiliba flowmeter probe are key factors determining the performance of the probe. The stability and accuracy of low-voltage signals play a decisive role in the accuracy and performance of the uniform velocity probe. The Weiliba flowmeter probe can accurately detect the average differential pressure generated by the average velocity of the fluid. The Weiliba flowmeter probe has multiple pairs of pressure tapping holes arranged according to certain criteria in the high and low pressure areas, making it possible to accurately measure the average flow velocity.