Flow meter

Instrumentation and control (I&C) systems are critical to ensuring the smooth operation of industrial processes. They play a pivotal role in monitoring, controlling, and safeguarding operations in sectors such as oil and gas, chemical plants, power generation, and manufacturing. The safety of these systems directly impacts both human and environmental safety. Therefore, proper safety inspection […]

1. Introduction Brief overview of vortex flowmeters Key advantages in industrial flow measurement (e.g., low pressure loss, high accuracy, minimal maintenance) Typical application areas: gas, steam, and liquid flow measurement in pipelines 2. Operating Principle of Vortex Flowmeters Explain Kármán vortex street principle Schematic diagram of vortex generation Highlight how piezoelectric stress sensors work to

The future of factories is undergoing a profound transformation, driven by the power of artificial intelligence (AI). As technology advances, AI is becoming the central engine behind factory automation, fundamentally reshaping how goods are designed, produced, and delivered. In this article, we will explore in detail the trends shaping the future of factory automation, from

Vortex flow meters are widely used for measuring steam due to their durability, high temperature tolerance, and minimal maintenance. However, wet steam can cause significant issues for vortex meters, leading to inaccurate readings or complete failure. In this article, we will explore why vortex meters struggle with wet steam and how to prevent or fix

1. Introduction Hydrochloric acid (HCl) is a highly corrosive medium commonly encountered in chemical processing, water treatment, and pharmaceutical manufacturing. Accurate and stable flow measurement of hydrochloric acid requires a carefully selected electromagnetic flow meter (magmeter) with appropriate wetted materials. This document provides guidelines for material selection and configuration when measuring HCl with electromagnetic flow

Flow measurement is the science of studying changes in quantities, and the principle of mass interconversion is fundamental to the development and interconnection of all things. As such, the objects of flow measurement are no longer limited to liquid in pipelines in the traditional sense.  Any process that involves monitoring quantity changes requires flow measurement.

Accurate steam flow measurement isn’t just about velocity—it’s about mass flow, which depends on temperature and pressure. Traditional vortex flow meters measure volumetric flow, which is often insufficient for precise steam control. That’s where temperature-compensated vortex flow meters come in. In this article, we explore how integrated temperature compensation improves accuracy, what to look for

Measuring gas flow in industrial processes is crucial for safety, efficiency, and cost control. Two of the most common technologies are vortex flow meters and thermal mass flow meters. Both have unique strengths, but they operate on very different principles and are suitable for different conditions. This article compares these two technologies in terms of

Vortex flow meters are widely adopted across multiple industries due to their rugged design, ability to handle steam and gas, and low maintenance needs. Unlike many other flow meter types, vortex meters can operate effectively under high temperature, high pressure, and challenging flow conditions, making them a popular choice for utility measurement and process control.

When it comes to flow measurement in industrial systems, two widely used technologies are vortex flow meters and differential pressure (DP) flow meters. Both have proven reliable across industries, especially for steam, gas, and liquid applications. However, they differ significantly in principle, performance, installation requirements, and cost. This article compares vortex vs. differential pressure flow