2015Unpublished venueRequires access

Analysis of magnetic force of electromagnet ball valve during pipeline hydraulic transients

Cao Wen-zhi, Zhao Tian-yang, Dan Jiang, Ping Yang

Open publisher page 0 citations

Abstract

On the experimental study of hydraulic transients in water hydraulic pipeline, the initial water flow should be shut down immediately to trigger transient pressure pulsations. To achieve this goal, a self-made electromagnetic ball valve is designed. A steel ball is released from upper reservoir to hit a valve seat shutting off water flow in a horizontal straight copper pipeline and triggering pressure transients. The valve seat is wrapped by electrified coils to create magnetic force that prevents the ball from bouncing. In order to keep the ball stick on the valve seat during pipeline hydraulic transients, the magnitude of magnetic force should be investigated. In this article, a 3D sketch of the electromagnetic ball valve is introduced. The influences of coil input current and distance between the steel ball and the valve seat on the magnitude of magnetic force are investigated using finite element software JMAG. The simulation results indicate the validity of the self-made electromagnet ball valve.

About this research paper

What this paper is about

On the experimental study of hydraulic transients in water hydraulic pipeline, the initial water flow should be shut down immediately to trigger transient pressure pulsations. To achieve this goal, a self-made electromagnetic ball valve is designed. A steel ball is released from upper reservoir to hit a valve seat shutting off water flow in a horizontal straight copper pipeline and triggering pressure transients. The valve seat is wrapped by electrified coils to create magnetic force that prevents the ball from bouncing. In order to keep the ball stick on the valve seat during pipeline hydraulic transients, the magnitude of magnetic force should be investigated. In this article, a 3D sketch of the electromagnetic ball valve is introduced. The influences of coil input current and distance between the steel ball and the valve seat on the magnitude of magnetic force are investigated using finite element software JMAG. The simulation results indicate the validity of the self-made electromagnet ball valve.

Why it matters

A significance statement is not available in the OpenAlex record.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

On the experimental study of hydraulic transients in water hydraulic pipeline, the initial water flow should be shut down immediately to trigger transient pressure pulsations. To achieve this goal, a self-made electromagnetic ball valve is designed. A steel ball is released from upper reservoir to hit a valve seat shutting off water flow in a horizontal straight copper pipeline and triggering pressure transients. The valve seat is wrapped by electrified coils to create magnetic force that prevents the ball from bouncing. In order to keep the ball stick on the valve seat during pipeline hydraulic transients, the magnitude of magnetic force should be investigated. In this article, a 3D sketch of the electromagnetic ball valve is introduced. The influences of coil input current and distance between the steel ball and the valve seat on the magnitude of magnetic force are investigated using finite element software JMAG. The simulation results indicate the validity of the self-made electromagnet ball valve.

Key concepts: Ball valve, Valve seat, Globe valve, Ball (mathematics), Electromagnet, Mechanics, Mechanical engineering, Electromagnetic coil

Related papers

Back to paper searchBrowse research topicsOriginal source
Analysis of magnetic force of electromagnet ball valve during pipeline hydraulic transients — Research Paper | ScholarLens