Fundamentals and Processes of Fluid Pressure Forming Technology for Complex Thin-Walled Components
Author(s) -
Shijian Yuan
Publication year - 2020
Publication title -
engineering
Language(s) - English
Resource type - Journals
eISSN - 2096-0026
pISSN - 2095-8099
DOI - 10.1016/j.eng.2020.08.014
Subject(s) - hydroforming , forming processes , intermetallic , aerospace , materials science , mechanical engineering , formability , hardening (computing) , finite element method , fluid pressure , die (integrated circuit) , anisotropy , alloy , structural engineering , composite material , engineering , physics , layer (electronics) , quantum mechanics , tube (container) , aerospace engineering
A new generation of fluid pressure forming technology has been developed for the three typical structures of tubes, sheets, and shells, and hard-to-deform material components that are urgently needed for aerospace, aircraft, automobile, and high-speed train industries. In this paper, an overall review is introduced on the state of the art in fundamentals and processes for lower-pressure hydroforming of tubular components, double-sided pressure hydroforming of sheet components, die-less hydroforming of ellipsoidal shells, and dual hardening hot medium forming of hard-to-deform materials. Particular attention is paid to deformation behaviour, stress state adjustment, defect prevention, and typical applications. In addition, future development directions of fluid pressure forming technology are discussed, including hyper lower-loading forming for ultra-large non-uniform components, precision forming for intermetallic compound and high-entropy alloy components, intelligent process and equipment, and precise finite element simulation of inhomogeneous and strong anisotropic thin shells.
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