Parametric Modeling of Transition Tube with Constant Section Area along Straight, Circular and Oblique Central Route on CATIA

Xiang Bao Meng; Lei Wang; Zi Jian Pan

doi:10.4028/www.scientific.net/AMR.619.18

Paper Titles

Preface

Forecast of Blasting Fragmentation Distribution Based on BP Neural Network
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Research on Nonlinear Dynamical Behaviors of Mine Hoist Transmission System under External Excitation
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Study on Belt Conveyor Direct Driven by External-Rotor PMSM
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Parametric Modeling of Transition Tube with Constant Section Area along Straight, Circular and Oblique Central Route on CATIA
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Study on Mine Hoist Driven by PMSM of Low Voltage and Multi-Branch
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Impact Dynamic Analysis of Horizontally Vibrated Conveyor with Coulomb Friction Modeling
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Dynamic Characteristics of the Backhoe Excavator Bucket Based on Pro/E and ANSYS
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Following Straightly Control Strategy and Testing for Split Platform in Roadway
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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 619Parametric Modeling of Transition Tube with...

Parametric Modeling of Transition Tube with Constant Section Area along Straight, Circular and Oblique Central Route on CATIA

Abstract:

Parametric modeling of transition tubes were implemented based on constant cross section area assumption along the main central routes on CATIA software. The key objective of modeling these similar structures is to provide more geometric configuration options and modifications of micro channels for multi phase flow systems. The modeling processes were parameterized and analyzed by CATIA “Generative Shape Design” module with the help of “Parameters” and “Relations” functions. The surface models are all designed in circular cross sections that are constrained in two ways: one is perpendicular to the main central routes of the tube for planar transitional junction, and another is, perpendicular to the sub-branch central routes for oblique transitional junction three dimensionally. Next work is emphasized on numerical simulation and experimental investigation with these geometric structures in a multi phase flow system.

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Periodical:

Advanced Materials Research (Volume 619)

Pages:

18-21

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.619.18

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Online since:

December 2012

Authors:

Xiang Bao Meng, Lei Wang, Zi Jian Pan

Keywords:

CATIA Application, Circular Pipe, Micro-Channel, Parametric Modeling, Transition Tube

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