Modelling and simulation of mid-spatial-frequency error generation in CCOS

Abstract Background The computer-controlled optical surfacing (CCOS) technology, which has advantages of high certainty and high convergence rate for surface error correction, has been widely applied in the manufacture of large-aperture optical elements. However, due to the convolution effect, the m...

Full description

Bibliographic Details
Main Authors: Bo Zhong, Hongzhong Huang, Xianhua Chen, Wenhui Deng, Jian Wang
Format: Article
Language:English
Published: SpringerOpen 2018-02-01
Series:Journal of the European Optical Society-Rapid Publications
Subjects:
Online Access:http://link.springer.com/article/10.1186/s41476-018-0075-y
id doaj-a7044719dc5d4966aa7237d4a42d50e6
record_format Article
spelling doaj-a7044719dc5d4966aa7237d4a42d50e62020-11-24T23:56:42ZengSpringerOpenJournal of the European Optical Society-Rapid Publications1990-25732018-02-0114111310.1186/s41476-018-0075-yModelling and simulation of mid-spatial-frequency error generation in CCOSBo Zhong0Hongzhong Huang1Xianhua Chen2Wenhui Deng3Jian Wang4School of Mechanical and Electrical Engineering, University Of Electronic Science And Technology Of ChinaSchool of Mechanical and Electrical Engineering, University Of Electronic Science And Technology Of ChinaResearch Center of Laser Fusion, China Academy of Engineering PhysicsResearch Center of Laser Fusion, China Academy of Engineering PhysicsResearch Center of Laser Fusion, China Academy of Engineering PhysicsAbstract Background The computer-controlled optical surfacing (CCOS) technology, which has advantages of high certainty and high convergence rate for surface error correction, has been widely applied in the manufacture of large-aperture optical elements. However, due to the convolution effect, the mid-spatial-frequency (MSF) errors are difficult to be restrained in CCOS. Methods Consequently, this paper presents a theoretical and experimental investigation on the generation of MSF errors, aiming to reveal its main influencing factors, and figure out the optimized parameters and the controlling strategies for restraining MSF errors. A surface topography simulation model for the generation of MSF errors was established first. Based on which, orthogonal simulation experiments were designed and conducted for the following three parameters, i.e., tool influence function (TIF), path type, and path spacing. Subsequently, the proposed model was verified through the practical polishing experiments. Results and conclusions The results demonstrated the influencing degree of the parameters and the optimized combination of parameters, and provided process guidance for restraining MSF errors in CCOS.http://link.springer.com/article/10.1186/s41476-018-0075-yMid-spatial-frequency errorConvolution effectResidual ripplePower spectral density
collection DOAJ
language English
format Article
sources DOAJ
author Bo Zhong
Hongzhong Huang
Xianhua Chen
Wenhui Deng
Jian Wang
spellingShingle Bo Zhong
Hongzhong Huang
Xianhua Chen
Wenhui Deng
Jian Wang
Modelling and simulation of mid-spatial-frequency error generation in CCOS
Journal of the European Optical Society-Rapid Publications
Mid-spatial-frequency error
Convolution effect
Residual ripple
Power spectral density
author_facet Bo Zhong
Hongzhong Huang
Xianhua Chen
Wenhui Deng
Jian Wang
author_sort Bo Zhong
title Modelling and simulation of mid-spatial-frequency error generation in CCOS
title_short Modelling and simulation of mid-spatial-frequency error generation in CCOS
title_full Modelling and simulation of mid-spatial-frequency error generation in CCOS
title_fullStr Modelling and simulation of mid-spatial-frequency error generation in CCOS
title_full_unstemmed Modelling and simulation of mid-spatial-frequency error generation in CCOS
title_sort modelling and simulation of mid-spatial-frequency error generation in ccos
publisher SpringerOpen
series Journal of the European Optical Society-Rapid Publications
issn 1990-2573
publishDate 2018-02-01
description Abstract Background The computer-controlled optical surfacing (CCOS) technology, which has advantages of high certainty and high convergence rate for surface error correction, has been widely applied in the manufacture of large-aperture optical elements. However, due to the convolution effect, the mid-spatial-frequency (MSF) errors are difficult to be restrained in CCOS. Methods Consequently, this paper presents a theoretical and experimental investigation on the generation of MSF errors, aiming to reveal its main influencing factors, and figure out the optimized parameters and the controlling strategies for restraining MSF errors. A surface topography simulation model for the generation of MSF errors was established first. Based on which, orthogonal simulation experiments were designed and conducted for the following three parameters, i.e., tool influence function (TIF), path type, and path spacing. Subsequently, the proposed model was verified through the practical polishing experiments. Results and conclusions The results demonstrated the influencing degree of the parameters and the optimized combination of parameters, and provided process guidance for restraining MSF errors in CCOS.
topic Mid-spatial-frequency error
Convolution effect
Residual ripple
Power spectral density
url http://link.springer.com/article/10.1186/s41476-018-0075-y
work_keys_str_mv AT bozhong modellingandsimulationofmidspatialfrequencyerrorgenerationinccos
AT hongzhonghuang modellingandsimulationofmidspatialfrequencyerrorgenerationinccos
AT xianhuachen modellingandsimulationofmidspatialfrequencyerrorgenerationinccos
AT wenhuideng modellingandsimulationofmidspatialfrequencyerrorgenerationinccos
AT jianwang modellingandsimulationofmidspatialfrequencyerrorgenerationinccos
_version_ 1725457017078808576