Metallurgical production extensively involves high-temperature, high-abrasion slurry media such as ore pulp, tailings slurry, and smelting wastewater mixed with solid particles. These harsh working conditions easily cause lining wear, electrode abrasion, and measurement instability for conventional flow detection equipment, seriously affecting process batching accuracy and production safety.

Key points for using electromagnetic flowmeters in municipal wastewater containing high levels of silt and impurities

The chemical industry extensively utilizes and transports highly corrosive media, including strong acids, strong alkalis, and salt solutions, which pose severe challenges to conventional flow measurement equipment. Traditional mechanical and ultrasonic flow meters are prone to corrosion, scaling, structural damage and inaccurate readings in harsh chemical environments, resulting in unstable process control and potential safety hazards.

Large-diameter electromagnetic flowmeters are essential precision measuring instruments specially designed for industrial large-caliber pipeline fluid monitoring, which are widely applied in municipal water engineering, hydraulic engineering, and heavy industrial fluid transportation. Based on Faraday’s law of electromagnetic induction, the equipment converts the flow velocity of conductive fluids into measurable electrical signals to achieve real-time, high-precision flow metering.

The electromagnetic vortex turbine flow meter is an innovative integrated flow measurement device that combines the technical advantages of electromagnetic, vortex, and turbine flow meters. It effectively compensates for the single-measurement limitations of traditional flow meters and achieves high-precision and high-stability flow detection for diverse fluid media including liquids, gases, and steam.

The metallurgical heavy industry involves high-temperature, high-pressure, dusty, and strongly corrosive working environments, where pressure parameters of smelting furnaces, rolling equipment, and conveying pipelines are core indicators for judging production stability and equipment safety.

The food and pharmaceutical industries belong to high-standard sanitary production fields, where production environments, equipment cleanliness and process parameter accuracy directly determine product safety and qualification rate. Pressure is a vital process parameter in material transportation, fermentation, purification and sterile filling processes. Ordinary pressure transmitters are prone to material residue, bacterial growth and cleaning dead angles, which cannot meet strict sanitary production specifications.

The rapid development of the new energy industry, covering hydrogen energy, photovoltaic power generation, wind power, and new energy vehicles, has raised stringent requirements for industrial precision and operational safety. Pressure is one of the most critical process parameters in new energy production, storage, and operation links, and tiny pressure deviations can lead to reduced energy conversion efficiency, equipment failure, and even safety accidents.

Urban water supply pipeline networks are the core infrastructure of municipal water systems, and unstable pipeline pressure is a leading cause of water leakage, pipe burst accidents, and low water supply efficiency. Traditional water pipeline management relies on manual inspection and regular pressure regulation, which features lagging data acquisition, inaccurate control, and high resource waste. With the rapid development of Internet of Things (IoT) and intelligent sensing technology, smart pipeline pressure control has become a key component of modern smart water management.