Design and analysis of a novel self-deployable baffle

被引:1
|
作者
Du, Kai [1 ]
Yin, Kewei [1 ]
Li, Hua [1 ]
Liao, Sheng [1 ]
Long, Fengping
机构
[1] Chinese Acad Sci, Inst Opt & Elect, Lab Appl Opt, Chengdu 610209, Peoples R China
来源
INTERNATIONAL SYMPOSIUM ON PHOTOELECTRONIC DETECTION AND IMAGING 2013: INFRARED IMAGING AND APPLICATIONS | 2013年 / 8907卷
关键词
deployable baffle; self-deployable baffle; ASAP; optical system; TELESCOPE;
D O I
10.1117/12.2034946
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
As the improvement of Astronomy technology, the size of the space optical system is developing toward huge type. However, the capability of the carriers of the space optical systems, which has got rid in the way of the development of the space optical system, is limited. To solve this problem, a self-deployable baffle is discussed, a method of the deployment utilizing elastic strain energy is advanced, and a new deployable baffle is designed in this paper. The baffle here consists of three or more sleeves, and each diameter of the sleeve is different in order to make the whole structure contract easily. The baffle is staying in contraction state until it is in the state of working. It is able to deploy into working state as required in a very short time. Well moving stabilization and high precision of deployment are ensured in this new style of deployable baffle. In order to reduce the mass of the baffle, every sleeve in the system uses the structure of thin board. As a result of the use of sleeve structure, the inner faces of the baffle are varied in each sleeve. To prove it is still effective in the optical system, professional software of ASAP is used to test its behavior. All the analysis and emulation prove that the baffle in working state is able to resist the stray light from the outside of the Field of View (FOV), improve the quality of the imaging, and meet the requirements of the optical system.
引用
收藏
页数:9
相关论文
共 50 条
  • [21] Design of self-deployable origami utilizing rigid-elastic coupling spherical mechanism
    Wang, Wei
    Li, Xu
    Yan, Peng
    Huang, Hailin
    Li, Bing
    MECHANISM AND MACHINE THEORY, 2024, 201
  • [22] Shape memory self-deployable structures for solar sails
    Sokolowski, Witold
    Tan, Seng
    Willis, Paul
    Pryor, Mark
    SMART MATERIALS V, 2008, 7267
  • [23] Self-deployable drag sail folded nine times
    Nikolajsen, Jan A.
    Kristensen, Anders S.
    ADVANCES IN SPACE RESEARCH, 2021, 68 (10) : 4242 - 4251
  • [24] Dynamics of a folding rod of a space self-deployable frame
    Zimin, VN
    Meshkovsky, VE
    Computational Methods and Experimental Measurements XII, 2005, 41 : 539 - 548
  • [25] Core network function placement in self-deployable mobile networks
    Oueis, Jad
    Conan, Vania
    Lavaux, Damien
    Rivano, Herve
    Stanica, Razvan
    Valois, Fabrice
    COMPUTER COMMUNICATIONS, 2019, 133 : 12 - 23
  • [26] Origami-inspired self-deployable reflectarray antenna
    Russo, Aloisia
    Barakali, Beyit
    Kitsu, Kensei Iglesias
    Baudet, Lucille
    Yang, Jingyi
    Zhong, You
    ACTA ASTRONAUTICA, 2023, 213 : 240 - 251
  • [27] Multiple shape memory polymers for self-deployable device
    Zhuo, Shuyun
    Zhang, Gongzheng
    Feng, Xianqi
    Jiang, Haoyang
    Shi, Jinli
    Liu, Huanqing
    Li, Huanjun
    RSC ADVANCES, 2016, 6 (56): : 50581 - 50586
  • [28] Shape memory composite structures for self-deployable solar sails
    Santo, L.
    ASTRODYNAMICS, 2022, 6 (04) : 441 - 441
  • [29] Shape memory composite structures for self-deployable solar sails
    Santo, Loredana
    Bellisario, Denise
    Iorio, Leamdro
    Quadrini, Fabrizio
    ASTRODYNAMICS, 2019, 3 (03) : 247 - 255
  • [30] Investigation of natural oscillations for self-deployable truss space antennae
    Zimin, VN
    Koloskov, IM
    Meshkovsky, VE
    Usyukin, VI
    COMPUTATIONAL METHODS AND EXPERIMENTAL MEASUREMENTS X, 2001, 3 : 497 - 504