Abstract

To maintain the safety of an open-type hot-metal car and to reduce wheel-rail wear during transportation, simulation models of the main components of such car were built using Pro/E software and then tested. In particular, the Pro/E models were imported into ADAMS/Rail for assembly and then used to construct a complete hot-metal car dynamic model. Locomotive wheel-rail attack angle, wheel-rail lateral force, and wear index were used as evaluation parameters during the simulation to analyze the effects of bogie parameter, rail parameter, and speed of the hot-metal car on wheel-rail wear. An improvement scheme for reducing wheel-rail wear was proposed based on the result of the dynamic simulation, wherein wheel-rail wear and curving performance were analyzed and compared. The simulation provided an important reference for evaluating and improving the dynamic performance of the hot-metal car. The applied effect showed that the improvement scheme is effective.

Highlights

  • A hot-metal car is a special vehicle for transporting hot iron for iron works

  • The Pro/E models were imported into ADAMS/Rail for assembly and used to construct a complete hot-metal car dynamic model

  • An improvement scheme for reducing wheel-rail wear was proposed based on the result of the dynamic simulation, wherein wheel-rail wear and curving performance were analyzed and compared

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Summary

Introduction

A hot-metal car is a special vehicle for transporting hot iron for iron works. With the rapid development of the steel industry, fundamental standards for hot-metal cars have been established in terms of safety, efficiency, and load capacity. Steel manufacturers aim to further develop hot-metal cars. The advantages of appropriate capacity, low cost, huge market demand, and technical difficulty have made hot-metal cars with the 140 t capacity the most competitive in

Feng et al DOI
Establishing the Complete Car Model
Friction Coefficients of the Center Plate and Side Bearing
Axle Box Positioning Size
Vertical Stiffness of the Spring
Effects of Orbital Parameters on Wheel-Rail Wear
Length of Transition Curve
Curve Radius
Operating Speed
Super-Elevation
Improvement Scheme for Reducing Wheel-Rail Wear
Findings
Conclusions
Full Text
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