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11 - Applications

Published online by Cambridge University Press:  16 February 2023

Gary G. Gimmestad  and
David W. Roberts
Gary G. Gimmestad
Affiliation:
Georgia Institute of Technology
David W. Roberts
Affiliation:
MicroDynamics LLC
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Summary

This chapter covers some applications of the atmospheric optics and the engineering principles in the previous chapters as they are employed in operational and proposed lidars. Many of the previous examples involved elastic backscatter aerosol lidars, so this chapter also includes many of the other most common types: wind lidars of several kinds; Rayleigh temperature lidar; differential absorption lidar (DIAL); Raman lidar for profiling trace gases, aerosols, and temperature; high spectral resolution lidar (HSRL); and resonance fluorescence lidar. Descriptions of these techniques are presented here with appropriate references, along with comments on the engineering challenges of these various types of lidars and the ways that they illustrate the principles laid out in the previous chapters. The data analysis algorithms for most of these types of lidar are derived. The laser remote sensing technique known as integrated path differential absorption (IPDA) is also described, along with its data analysis.

Keywords

wind lidarDoppler lidarRaleigh lidarHSRLRaman temperature lidaraerosol lidartrace gas lidarresonance fluorescence lidarIPDA
Type
Chapter
Information
Lidar Engineering
Introduction to Basic Principles
 , pp. 297 - 323
Publisher: Cambridge University Press
Print publication year: 2023

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References

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