Reprint

Advances in Ultra-Precision Machining Technology and Applications

Edited by
July 2024
292 pages
  • ISBN978-3-7258-1560-9 (Hardback)
  • ISBN978-3-7258-1559-3 (PDF)
https://doi.org/10.3390/books978-3-7258-1559-3 (registering)

This book is a reprint of the Special Issue Advances in Ultra-Precision Machining Technology and Applications that was published in

Chemistry & Materials Science
Engineering
Physical Sciences
Summary

Ultra-precision machining technology has been widely used in the manufacture of many mission-critical components for various industrial areas, such as advanced optics, photonics aerospace, the automotive industry, telecommunications, biomedical areas, energy, the environment, etc. Nowadays, ultra-precision machining technology is capable of producing workpieces with submicron shape accuracy, nanometer surface roughness, and high geometric complexity. Due to increasing geometrical complexity, high-precision requirements and the evolution of advanced materials of the workpiece being machined lead to numerous research challenges in different fields, including ultra-precision machining technologies, novel machining processes, cutting mechanics, surface generation mechanisms, novel machine design, advanced sensing, and machine metrology. In addition, the machining process can be accurately controlled through the modeling and simulation of ultra-precision machining processes, error compensation, materials sciences, measurement and on-machine metrology, as well as advanced applications for functional uses. This reprint aims to collate the latest research results on ultra-precision machining technology and applications in order to promote the development of related industrial technology with high efficiency, high precision, and intelligence.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
dynamics modeling; aerostatic spindle; rotor trajectory; stability; Reynolds equation; high frequency; ultrasonic-assisted vibration cutting; difficult-to-machine material; spherical steel mould; ultra-precision machining; weak-stiffness mirror; fast tool servo; clamping error; cutting error; error compensation; potassium dihydrogen phosphate (KDP) crystal; single point diamond fly-cutting; interaction mechanism; chip morphology; phase transition temperature; electrochemical machining; accuracy; stability; period; duty ratio; lateral gap; inlet pressure; computational fluid dynamic study; partial porous orifice; dynamic stiffness and damping; fluid flow; single-particle erosion; smoothed particle hydrodynamics; mechanism; optical glass; subsurface damage; micromachining; micro-turbine; computer-aided innovation; innovation design; smart manufacturing; knowledge-based engineering; problem solving; hydrostatic guideways; thermal error; finite element simulation; motion errors; ultraprecision lapping; Al6061; FEM; 6H-SiC; fixed abrasive; tribochemical mechanical polishing; solid-phase oxidant; dry polishing; machining methods; surface layer; microchanges; wear; friction coefficient; erosion; measurement; empirical mathematical model; milling stability; delay-differential equation; computational efficiency; Floquet theory; cutting-edge radius; shear angle; cutting force; stress concentration depth; finite element analysis; MOEMS; silicon microcantilever; multifocal microlens array; femtosecond laser; dry etching; precision shafting; capacitive sensor; error sources analysis; electrochemical machining; gas–liquid two-phase flow; multi-physical field coupling simulation; processing voltage; feed rate; n/a