Measurement of Cutting Speed of Mechanical Excavator

Only when mining at reasonable cutting speed, can a mechanical excavator achieve high efficient and low consumption. The same cutting-angle logarithmic spiral trajectory is initially confirmed for the model of a reasonable excavating trajectory to reduce digging resistance. An analytical expression...

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Veröffentlicht in:Applied Mechanics and Materials 2014-04, Vol.538 (Mechanical, Electronic and Engineering Technologies (ICMEET 2014)), p.331-334
Hauptverfasser: Wang, Ji Sheng, Wang, Guo Qiang, Gao, Su He, Li, Ai Feng, Hou, Ya Juan
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container_end_page 334
container_issue Mechanical, Electronic and Engineering Technologies (ICMEET 2014)
container_start_page 331
container_title Applied Mechanics and Materials
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creator Wang, Ji Sheng
Wang, Guo Qiang
Gao, Su He
Li, Ai Feng
Hou, Ya Juan
description Only when mining at reasonable cutting speed, can a mechanical excavator achieve high efficient and low consumption. The same cutting-angle logarithmic spiral trajectory is initially confirmed for the model of a reasonable excavating trajectory to reduce digging resistance. An analytical expression between hoisting and pushing speed is derived from the mechanism kinematics theory and the constraint equation method. This expression accurately describes the cooperative relationship between these speeds. Virtual prototype kinematics of a large mechanical excavator are simulated and verified through ADAMS. The simulation result is consistent with the theoretical result, and thus validates the analytical expression between hoisting and pushing speed.
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subjects Cutting speed
Exact solutions
Excavators
Hoisting
Kinematics
Mathematical analysis
Mathematical models
Pushing
title Measurement of Cutting Speed of Mechanical Excavator
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