Efficient wavefront sensing for space-based adaptive optics

被引:11
|
作者
Sun, He [1 ,2 ]
Kasdin, N. Jeremy [1 ]
Vanderbei, Robert [3 ]
机构
[1] Princeton Univ, Dept Mech & Aerosp Engn, Princeton, NJ 08544 USA
[2] CALTECH, Dept Comp & Math Sci, Pasadena, CA 91125 USA
[3] Princeton Univ, Dept Operat Res & Financial Engn, Princeton, NJ USA
基金
美国国家航空航天局;
关键词
adaptive optics; high-contrast imaging; coronagraph; exoplanet; optimal experiment design; 1ST LIGHT;
D O I
10.1117/1.JATIS.6.1.019001
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Future large space telescopes will be equipped with adaptive optics (AO) to overcome wavefront aberrations and achieve high contrast for imaging faint astronomical objects, such as Earth-like exoplanets and debris disks. In contrast to AO that is widely used in ground telescopes, space-based AO systems will use focal plane wavefront sensing to measure the wavefront aberrations. Focal plane wave-front sensing is a class of techniques that reconstructs the light field based on multiple focal plane images distorted by deformable mirror (DM) probing perturbations. We report an efficient focal plane wavefront sensing approach for space-based AO that optimizes the DM probing perturbation and thus also the integration time for each image. Simulation of the AO system equipped with a vortex coronagraph has demonstrated that our approach enables efficient information acquisition and significantly reduces the time needed for achieving high contrast in space. (C) The Authors. Published by SPIE under a Creative Commons Attribution 4.0 Unported License.
引用
收藏
页数:13
相关论文
共 50 条
  • [1] Wavefront sensing for deformable space-based optics exploiting natural and synthetic guide stars
    McComas, BK
    Friedman, EJ
    OPTICAL ENGINEERING, 2002, 41 (08) : 2039 - 2049
  • [2] Optical wavefront differentiation:: Wavefront sensing for solar adaptive optics based on a LCD
    Schmidt, Dirk
    von der Luehe, Oskar
    ADAPTIVE OPTICS FOR LASER SYSTEMS AND OTHER APPLICATIONS, 2007, 6584
  • [3] Adaptive spectral imager for space-based sensing
    Vujkovic-Cvijin, Pajo
    Goldstein, Neil
    Fox, Marsha J.
    Higbee, Shawn D.
    Becker, Latika S.
    Ooi, Teng K.
    INFRARED TECHNOLOGY AND APPLICATIONS XXXII, PTS 1AND 2, 2006, 6206
  • [4] Adaptive Optics Microscopy with Wavefront Sensing Based on Neighbor Correlation
    Miura, Noriaki
    Ashida, Yusuke
    Matsuda, Yuya
    Shibuya, Takatoshi
    Tamada, Yosuke
    Hatsumi, Shuto
    Yamamoto, Hirotsugu
    Kajikawa, Ikumi
    Kamei, Yasuhiro
    Hattori, Masayuki
    PLANT AND CELL PHYSIOLOGY, 2023, 64 (11) : 1372 - 1382
  • [5] Efficient wavefront sensorless adaptive optics based on large dynamic crosstalk-free holographic modal wavefront sensing
    Liu, Ming
    Dong, Bing
    OPTICS EXPRESS, 2022, 30 (06): : 9088 - 9102
  • [6] Phase contrast wavefront sensing for adaptive optics
    Bloemhof, EE
    Wallace, JK
    ADVANCED WAVEFRONT CONTROL: METHODS, DEVICES, AND APPLICATIONS II, 2004, 5553 : 159 - 169
  • [7] Wavefront sensing techniques for adaptive optics systems
    Ray, M
    Sarkar, SK
    Chakraborty, RN
    Basuray, A
    PHOTONICS 2000: INTERNATIONAL CONFERENCE ON FIBER OPTICS AND PHOTONICS, 2001, 4417 : 555 - 557
  • [8] Wavefront sensing and adaptive optics in strong turbulence
    Mackey, R
    Dainty, C
    OPTO-IRELAND 2005: PHOTONIC ENGINEERING, 2005, 5827 : 23 - 29
  • [9] Wavefront sensing and adaptive optics for solar prominences
    Schmidt, Dirk
    Rimmele, Thomas
    Gorceix, Nicolas
    ADAPTIVE OPTICS SYSTEMS VI, 2018, 10703
  • [10] Wavefront sensing and control for large space optics
    Redding, David C.
    Shi, Fang
    Basinger, Scott A.
    Cohen, David
    Green, Joseph J.
    Lowman, Andrew E.
    Ohara, Catherine M.
    IEEE Aerosp. Conf. Proc., 2003, (1729-1744):