Progress of near-surface PM<sub>2.5</sub> concentration retrieve based on satellite remote sensing

XIANG Juan; TAO Minghui; GUO Ling; CHEN Liangfu; TAO Jinhua; GUI Lu

doi:10.11834/jrs.20210438

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Progress of near-surface PM_2.5 concentration retrieve based on satellite remote sensing
Vol. 26, Issue 9, Pages: 1757-1776(2022)
Received：02 October 2020，

Published：07 September 2022
DOI： 10.11834/jrs.20210438
稿件说明：

移动端阅览

向娟，陶明辉，郭玲，陈良富，陶金花，桂露.2022.2022_.5浓度反演进展.遥感学报，26（9）： 1757-1776 DOI： 10.11834/jrs.20210438.

Xiang J，Tao M H，Guo L，Chen L F，Tao J H and Gui L. 2022. Progress of near-surface PM_2.5 concentration retrieve based on satellite remote sensing. National Remote Sensing Bulletin， 26（9）：1757-1776 DOI： 10.11834/jrs.20210438.

摘要

细颗粒物PM

2.5

（Fine Particulate Matter）是影响空气质量和公共健康的关键因素之一。高时空分辨率的PM

2.5

数据是公共健康风险评估和流行病学研究的基本需求。相较于地面站点，卫星遥感技术具有连续观测、宽覆盖和低成本的优势，基于卫星气溶胶光学厚度AOD（Aerosol Optical Depth）反演PM

2.5

质量浓度的方法已成为热点。本研究概述了卫星AOD产品反演PM

2.5

浓度的原理，介绍了用于PM

2.5

反演的主要卫星AOD产品及其反演精度；总结了现有的PM

2.5

估算方法及其优缺点，指出目前PM

2.5

反演研究存在的问题；提出未来PM

2.5

反演方向主要集中在高时空分辨率的PM

2.5

浓度重建、基于激光雷达数据的三维PM

2.5

浓度反演及PM

2.5

化学组分反演等方向。比例因子法、物理机理模型和统计模型这3种方法都能在不同时期不同程度地准确估算PM

2.5

浓度，代表了那个时期较为前沿的研究热点，但比例因子法和物理机理模型因其自身的局限性而应用较少，而统计模型因其独特的时间或时空异质性的可描述性和强大的非线性描述能力的优势而被广泛应用并不断改进。目前PM

2.5

反演研究存在的问题主要有3种：（1）卫星AOD的非随机缺失问题造成估算的PM

2.5

数据缺失；（2）反演模型的精度问题；（3）PM

2.5

的化学成分估算问题。基于此，本文为了准确揭示近地面PM

2.5

的时空变化趋势，提高基于卫星AOD产品的近地面PM

2.5

反演研究的准确性，提出了几点未来的研究方向：首先，新型的高空间（如风云四号、高分五号）、高时间分辨率（Himawari-8/9）卫星AOD产品在PM

2.5

的精细化估算研究上具有很大优势，这对于高时空分辨率的PM

2.5

浓度重建具有重要意义；其次，随着大气探测技术的发展，星载、机载及地基激光雷达都能够获取垂直分布信息，搭载在无人机上的颗粒物传感器可实现PM

2.5

垂直方向上的监测，将其与光学遥感卫星数据及地面监测数据结合，可实现三维的PM

2.5

浓度反演；最后，PM

2.5

化学组分信息对于分析污染成因、暴露特征等尤其重要，其时空变化趋势研究是一个重要的发展方向，然而，地面PM

2.5

组分观测站网仍不完善，如何克服卫星遥感估算中对地面站网的依赖，实现PM

2.5

化学成分的高精度反演需要进一步研究。通过本研究，有助于进一步了解不同PM

2.5

估算方法的原理机制及其优缺点，为基于卫星AOD产品反演近地面PM

2.5

浓度的新的发展方向提供启示，提升近地面PM

2.5

浓度反演的精度及时空分辨率。

Abstract

Fine particulate matter (PM

2.5

) is a dynamic and complex mixture of particle matter with an aerodynamic diameter equal or less than 2.5 µm that can seriously affect the air quality and public health. High spatial and temporal resolution PM

2.5

data is a basic requirement for public health risk assessment and epidemiological research. Compared with ground-based datasets

satellite remote sensing provides continuous

wide space coverage and low-cost observation

and the PM

2.5

mass concentrations retrieval based on the satellite aerosol optical depth (AOD) has become a popular topic. This paper systematically scrutinizes the research on the near-surface PM

2.5

concentration retrieved based on satellite AOD products. The basic method of estimating the PM

2.5

concentration based on satellite AOD products is introduced

and the main satellite AOD products used for PM

2.5

retrieval and their accuracy are described in detail. The existing PM

2.5

estimation methods and their pros and cons are also discussed. Finally

the problems identified in PM

2.5

retrieval research and the development direction of PM

2.5

retrieval research are presented in the future.

The scale factor method and the physical mechanism and statistical models can accurately estimate the PM

2.5

concentrations at different degrees in different periods

but the scale factor method and the physical mechanism model are less used than the statistical model because of their limitations. Statistical models have been widely used and improved due to their unique descriptive ability of temporal or spatiotemporal heterogeneity and strong nonlinear description ability. However

the current PM

2.5

retrieve research has three main limitations: 1. the non-random missing problem of satellite AOD causes missing PM

2.5

data; 2. inaccuracy of retrieval models

and 3. Poor chemical composition estimation of PM

2.5

. Therefore

to accurately reveal the spatial and temporal trends of near-ground PM

2.5

and improve the accuracy of the near-ground PM

2.5

calculated from satellite AOD products

we predict several future research directions. First

the AOD products of new high-spatial-resolution (such as FY-4 and GF-5) and high-temporal-resolution (HIMAWARI-8/-9) satellites could greatly promote the research on PM

2.5

estimation

which is of great significance to the reconstruction of PM

2.5

concentrations with high spatial-temporal resolutions. Second

with the development of atmospheric detection technology

satellite-based

airborne

and ground-based lidar can obtain vertical distribution information

and the particle matter sensor carried on UAVs can achieve the vertical monitoring of PM

2.5

which can be combined with optical remote sensing satellite and ground monitoring data to achieve three-dimensional PM

2.5

concentration retrieval. Finally

2.5

chemical component information is particularly important for analyzing the cause of pollution and exposure characteristics

and its space–time change trend research is an important development direction. However

the ground PM

2.5

component observation network is still imperfect

and overcoming the dependence on ground station network in satellite remote sensing estimation and achieving the high-precision retrieval of chemical composition need further study.

This study is helpful in further understanding the principles

advantages

and disadvantages of different PM

2.5

estimation methods

providing inspiration for the new development direction of near-surface PM

2.5

concentrations retrieval based on satellite AOD products

and improving the accuracy and spatial-temporal resolution of near-surface PM

2.5

concentrations retrieval.

关键词

Keywords

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