Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks

This paper presents a method for design multi-section proportional directional valve Throttle grooves with ANN method, which aims at getting a better flow stability. There exists a coupling matter during the opening and closing process between the throttling notches, so that it’s difficult to parame...

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Main Authors: Zhang Xiaolu, Wang Anlin, Tang Jiangwei
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:MATEC Web of Conferences
Online Access:https://doi.org/10.1051/matecconf/201823703003
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spelling doaj-7373735547394569a90fcdfc6872c6d72021-02-02T04:01:23ZengEDP SciencesMATEC Web of Conferences2261-236X2018-01-012370300310.1051/matecconf/201823703003matecconf_d2me2018_03003Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural NetworksZhang Xiaolu0Wang Anlin1Tang Jiangwei2Research Institute of Mechanical and Electronic Engineering, School of mechanical and energy engineering, Tongji UniversityResearch Institute of Mechanical and Electronic Engineering, School of mechanical and energy engineering, Tongji UniversityResearch Institute of Mechanical and Electronic Engineering, School of mechanical and energy engineering, Tongji UniversityThis paper presents a method for design multi-section proportional directional valve Throttle grooves with ANN method, which aims at getting a better flow stability. There exists a coupling matter during the opening and closing process between the throttling notches, so that it’s difficult to parameterize the complex flow field characteristics Cd and the structure boundary of the spool grooves. However, in this paper, an ANN was built with data from CFD results, while the typical structural parameters (U type, the O-type and C-type), operating parameters was input vectors, the discharge coefficient as output vectors. Meanwhile, all of the needed data is taken from the three-dimensional CFD analysis, which are organized properly and verified by a bench scale test on a rig. Then, with throttling stiffness as optimization objective to evaluate flow stability, an optimal design process is carried out to optimize to optimize the structure of coupling grooves with ANN models and genetic algorithm. Ultimately, the optimized structure is verified better by the physical test on test rig, therefore, the significance of design method is proved.https://doi.org/10.1051/matecconf/201823703003
collection DOAJ
language English
format Article
sources DOAJ
author Zhang Xiaolu
Wang Anlin
Tang Jiangwei
spellingShingle Zhang Xiaolu
Wang Anlin
Tang Jiangwei
Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks
MATEC Web of Conferences
author_facet Zhang Xiaolu
Wang Anlin
Tang Jiangwei
author_sort Zhang Xiaolu
title Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks
title_short Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks
title_full Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks
title_fullStr Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks
title_full_unstemmed Optimal Design of Multi-section Proportional Directional Valve Throttle Grooves with Artificial Neural Networks
title_sort optimal design of multi-section proportional directional valve throttle grooves with artificial neural networks
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2018-01-01
description This paper presents a method for design multi-section proportional directional valve Throttle grooves with ANN method, which aims at getting a better flow stability. There exists a coupling matter during the opening and closing process between the throttling notches, so that it’s difficult to parameterize the complex flow field characteristics Cd and the structure boundary of the spool grooves. However, in this paper, an ANN was built with data from CFD results, while the typical structural parameters (U type, the O-type and C-type), operating parameters was input vectors, the discharge coefficient as output vectors. Meanwhile, all of the needed data is taken from the three-dimensional CFD analysis, which are organized properly and verified by a bench scale test on a rig. Then, with throttling stiffness as optimization objective to evaluate flow stability, an optimal design process is carried out to optimize to optimize the structure of coupling grooves with ANN models and genetic algorithm. Ultimately, the optimized structure is verified better by the physical test on test rig, therefore, the significance of design method is proved.
url https://doi.org/10.1051/matecconf/201823703003
work_keys_str_mv AT zhangxiaolu optimaldesignofmultisectionproportionaldirectionalvalvethrottlegrooveswithartificialneuralnetworks
AT wanganlin optimaldesignofmultisectionproportionaldirectionalvalvethrottlegrooveswithartificialneuralnetworks
AT tangjiangwei optimaldesignofmultisectionproportionaldirectionalvalvethrottlegrooveswithartificialneuralnetworks
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