Flow meter

Turbine flow meters are precision instruments used for measuring the flow rate of liquids or gases in various applications. Ordering the correct turbine flow meter is critical to ensuring compatibility with your system and achieving accurate, reliable measurements. This article outlines the key aspects you should consider when placing an order for a turbine flow […]

1. Initial Parameter Verification Before starting calibration, verify the following parameters: Pipe diameter (DN) Calibration coefficients (CS, CZ) Measuring range Fluid density 2. Inspection Procedures Using a Multimeter Electrode Resistance Check: Disconnect transmitter cable from the sensor. Measure electrode-to-ground resistance and electrode-to-electrode resistance using an analog multimeter. Acceptable resistance range: Electrode to ground: 2KΩ –

In flow measurement applications, certain types of flow meters require the addition of a bypass pipeline to facilitate maintenance, calibration, and ensure long-term measurement stability. A bypass allows for flow meter servicing without interrupting the process, reduces potential clogging or pressure loss, and helps maintain measurement accuracy. The need for a bypass depends on factors

Turbine flow meters are widely used in various industries for their accuracy and reliability in measuring the flow of liquids and gases. However, choosing the right turbine flow meter for a specific application requires a thorough understanding of the factors that can influence its performance. This article outlines the critical aspects to consider when selecting

Introduction The differential pressure (DP) flowmeter is one of the oldest and most widely used flow measurement devices. Despite the emergence of advanced electronic flowmeters, such as electromagnetic and vortex flowmeters, the orifice flowmeter remains prevalent in various industries. This guide provides an in-depth understanding of orifice flowmeters, their working principles, components, installation, and maintenance

Vortex flow meters are widely used in industrial applications for measuring the flow of liquids, gases, and steam. They work based on the principle of vortex shedding and are valued for their accuracy and reliability. In this article, we will discuss the basic working principle, applications, advantages, and limitations of vortex flow meters, along with

1. Introduction Orifice flow meters are widely used in industrial flow measurement due to their simplicity, reliability, and cost-effectiveness. They function based on the principle of differential pressure, where the fluid flow rate is determined by measuring the pressure drop across an orifice plate. Proper installation is crucial to ensure accurate readings and long-term performance.

Introduction Orifice flowmeters are widely used for measuring fluid flow in various industrial applications. They operate based on differential pressure measurement across an orifice plate. However, in some cases, users may encounter an abrupt drop in instantaneous flow readings, which can lead to operational disruptions. This article aims to explore the potential causes of such

Electromagnetic flowmeters are widely used in industrial applications for precise measurement of fluid flow. However, their performance can be significantly affected by various interference sources, such as electromagnetic coupling and electrostatic induction. This article discusses the primary sources of interference in electromagnetic flowmeters and explores hardware optimization strategies to mitigate these issues effectively. Sources of

Ultrasonic flow meters are highly convenient instruments, particularly useful for large-diameter water supply pipelines. The portable ultrasonic flow meters can be easily installed on the exterior of pipelines, enabling flow measurement without interrupting the flow or damaging existing pipelines. This ease of use has made them widely popular. To evaluate the quality of a flow