Yutao Feng, Di Fu, Zengliang Zhao, Weiguo Zong, Tao Yu, Zheng Sheng, Yajun Zhu. An Overview of Spaceborne Atmospheric Wind Field Measurement with Passive Optical Remote Sensing[J]. Acta Optica Sinica, 2023, 43(6): 0601011
- Acta Optica Sinica
- Vol. 43, Issue 6, 0601011 (2023)
Fig. 1. Schematic of spaceborne wind measurement technology based on image target movement detection
Fig. 2. Schematic of atmospheric wind detection based on Doppler frequency shift measurement
![SEVIRI system principle[47]](/Images/icon/loading.gif){kind=icon}
Fig. 3. SEVIRI system principle[47]
Fig. 4. Optical principle of the FCI[51]
Fig. 5. Optical principle of the VIIRS[52]
Fig. 6. AIRS optical system[67]
Fig. 7. GIIRS optical system[68]
Fig. 8. Response of an interferometer to Doppler shift of an incident spectral line
Fig. 9. Optical system principle of the WINDII[72]
Fig. 10. SWIFT optical system[73]
Fig. 11. Schematic of PAWS system composition[22]
Fig. 12. HRDI optical system[78]
Fig. 13. Field coupling fiber bundles and imaging schematic of CLIO system[83]
Fig. 14. MIGHTI optical system[90]
Fig. 15. SWIFT-DASH interferometer (grating unglued)[94]
Fig. 16. Prototype of spaceborne broad-band Doppler asymmetric spatial heterodyne interferometer
Fig. 17. Basic principles of space-based Doppler modulation gas correlation technology[96]
Fig. 18. Doppler wind temperature detector (DWTS) configuration based on gas correlation modulation technology[97]
|
|
Table 2. Parameters summary of representative infrared hyperspectrometer
|
Table 3. Parameters summary of representative spaceborne interferometer for atmospheric wind measurement
|
Table 4. Summary of spaceborne passive optical remote sensing wind measurement techniques
Set citation alerts for the article
Please enter your email address
© Copyright 2018-2021 | Chinese Laser Press. All Rights Reserved 沪ICP备15018463号-20