Turbulent Lidar Measurement Technique and Comparison with Ground-Based Observations

IF 0.9 Q4 OPTICS
I. A. Razenkov
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引用次数: 0

Abstract

The history of the creation of a turbulent lidar at V.E. Zuev Institute of Atmospheric Optics, Siberian Branch, Russian Academy of Sciences, began 11 years ago, when a bulky laboratory setup enabled experimentally detecting the backscatter enhancement (BSE) effect in a turbulent atmosphere for the first time. Subsequently, a number of design solutions were suggested to improve the lidar, which made it possible to reduce its size and increase its reliability. The main design features of the turbulent lidar, which is a new type of laser locator, are the coincidence of the optical axes of the transmitter and receiver, the presence of an additional receiving channel, and operation in the photon counting mode with the accumulation of echo signals. In this work, the lidar sounding technique is described; an algorithm for retrieving the profile of the structural characteristic of turbulent fluctuations of the refractive index of air from the ratio of lidar echoes is developed; the experimental technique is verified and the lidar data are compared with the readings of a solar radiometer and a scintillometer. Further development of the turbulent lidar sounding technique is to enable ground-based remote monitoring of the turbulence intensity in the atmospheric boundary layer, e.g., along glide paths at airports, distant early detection of clear air turbulence from an aircraft, etc.

湍流激光雷达测量技术及其与地面观测的比较
俄罗斯科学院西伯利亚分院V.E. Zuev大气光学研究所湍流激光雷达的创建历史始于11年前,当时一个庞大的实验室装置首次实现了在湍流大气中实验检测后向散射增强(BSE)效应。随后,提出了许多设计方案来改进激光雷达,从而可以减小其尺寸并提高其可靠性。紊流激光雷达是一种新型的激光定位器,其主要设计特点是发射器和接收器的光轴重合,存在额外的接收通道,在光子计数模式下工作,回波信号积累。在这项工作中,描述了激光雷达探测技术;提出了一种从激光雷达回波比中提取空气折射率湍流波动结构特征剖面的算法;对实验技术进行了验证,并将激光雷达数据与太阳辐射计和闪烁计的读数进行了比较。湍流激光雷达探测技术的进一步发展是使地面能够远程监测大气边界层的湍流强度,例如在机场的滑行路径上,从飞机上远距离早期探测晴空湍流等。
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来源期刊
CiteScore
2.40
自引率
42.90%
发文量
84
期刊介绍: Atmospheric and Oceanic Optics  is an international peer reviewed journal that presents experimental and theoretical articles relevant to a wide range of problems of atmospheric and oceanic optics, ecology, and climate. The journal coverage includes: scattering and transfer of optical waves, spectroscopy of atmospheric gases, turbulent and nonlinear optical phenomena, adaptive optics, remote (ground-based, airborne, and spaceborne) sensing of the atmosphere and the surface, methods for solving of inverse problems, new equipment for optical investigations, development of computer programs and databases for optical studies. Thematic issues are devoted to the studies of atmospheric ozone, adaptive, nonlinear, and coherent optics, regional climate and environmental monitoring, and other subjects.
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