Infrared and Laser Engineering, Volume. 49, Issue 5, 20201002(2020)
Applications of optical technology in lunar and deep space exploration in China(Invited)
Figures & Tables(7)
Table 1. Optical payloads of CLEP and China's first Mars exploration project
View tableView in ArticleTable 1. Optical payloads of CLEP and China's first Mars exploration project
Mission Payload Chang'e-1 CCD stereo camera, interferometer imaging spectrometer, laser altimete, r , altimeter, γ-ray spectrometer, X-ray spectrometerChang'e-2 TDI CCD stereo camera, laser altimeter, γ-ray spectrometer, X-ray spectrometer Chang'e-3 Lander：landing camera, topography camera, moon-based extreme ultraviolet camera, Moon-based ultraviolet telescope Rover：panoramic cameras, VNIS, APXS Chang'e-4 Lander：landing camera, topography camera Rover：panoramic cameras,VNIS Chang'e-5 Lander：landing camera, panoramic cameras, lunar mineral spectrometer First Mars exploration mission Orbiter：Medium-resolution camera, high-resolution camera, mars mineral spectrometer Rover：Topography camera（Navigation camera）, multispectral camera, Mars surface composition detector
Table 2. Optical payloads and scientific objectives of CLEP
View tableView in ArticleTable 2. Optical payloads and scientific objectives of CLEP
Scientific objective Optical payload Wavelength Exploration of geological condition Chang'e-1 CCD stereo camera, Chang'e-2 TDI CCD stereo camera, Chang'e-3/4/5 panoramic cameras, Chang'ecameras, Chang'e-3/4 topography cameras4 topography cameras Visible Chang'e-1/2 laser altimeters Infrared Exploration of lunar surface minerals type and composition Chang'e-1 interferometer imaging spectrometer Visible Chang'e-1/2 γ/X-ray spectrometers, Chang'e-3 APXS γ/X-ray Chang'e-3/4 VNIS, Chang'e-5 lunar mineral spectrometer Visible & infrared Exploration of earth plasmasphere Chang'e-3 moon-based extreme ultraviolet camera Ultraviolet Moon-based astronomical observation Chang'e-3 moon-based ultraviolet telescope
Table 3. Optical payloads and scientific objectives of China's first Mars exploration project
View tableView in ArticleTable 3. Optical payloads and scientific objectives of China's first Mars exploration project
Scientific objective Optical payload Wavelengths Exploration of geological condition Medium-resolution camera, high-resolution camera, topography camera Visible Exploration of soil type distribution and structure Mars mineral spectrometer Visible, near-infrared & mid-infrared Exploration of surface elements，minerals and rock type Multispectral camera Visible & near-infrared Mars surface composition detector ultraviolet, visible & near-infrared
Table 4. Part of optical equipment for engineering applications
View tableView in ArticleTable 4. Part of optical equipment for engineering applications
System Function Equipment Probe/Satellite Astronomical navigation Chang'e-1/2 mid-precision star sensors, Chang'e-1/2 ultraviolet lunar sensors, Chang'e-3/4 APS star sensors Landing navigation Laser 3D imaging sensor coarse hazard-avoiding camera Roving navigation Navigation cameras hazard cameras laser dot-matrix generatorlaser Rendezvous & docking Laser radar optical R&D imaging sensor Motion monitoring Monitoring cameras Rocket Navigation Laser gyroscope LIMU Separation monitoring Monitoring cameras TT&C and recovery Aiming, tracking & measurement Photoelectric theodolite Laser communication Optical telescope Ground application Lunar sample analysis Electron microscope polarization microscope CT scanner
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Zhaoyu Pei, Jun Hou, Qiong Wang. Applications of optical technology in lunar and deep space exploration in China(Invited)[J]. Infrared and Laser Engineering, 2020, 49(5): 20201002
Paper Information
Category: Deep space exploration technology
Received: Mar. 10, 2020
Accepted: --
Published Online: Aug. 17, 2020
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