华塔巴拉那山Junín, Perú地表温度的估算

K. Santos, M. Poma, J. Nole, M. Quispe, R. Adriano
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引用次数: 0

摘要

全球气候变化是本世纪人类面临的主要问题之一[1]。空气中二氧化碳和水蒸气的含量正在增加,这增加了湿度、平均降雨量和温度,并直接影响了冰川融化的速度。本文对利用Landsat TM和Landsat OLI卫星图像(分别为6波段和10波段)计算曼塔罗河谷Huaytapallana山地表温度的方法进行了验证。首先,从数字数值(DN)中提取大气上层的辐射(TOA)。考虑研究区的辐射率为0.97,采用参考通道辐射率(RCE)法将TOA辐射值转换为地表辐射值。在提取表面亮度后提取表面温度。在此基础上,利用Google Earth Engine (eecflux)的数据进行相关性分析,相关性在0.97 ~ 0.98之间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Estimation of the surface temperature in the Huaytapallana mountain in Junín, Perú
Global climate change is one of the main problems that humanity faces in this century [1]. The amount of carbon dioxide and water vapor in the air is increasing which increases humidity, average rainfall and temperature and directly affect the speed of melting glaciers. In the present work, a method of calculating surface temperatures from satellite images of Landsat TM and Landsat OLI (band 6 and band 10 respectively) for the Huaytapallana Mountain at the Mantaro valley is validated. Initially, the radiance of the upper part of the atmosphere (TOA) is extracted from the digital number (DN) values. The TOA radiance is then converted into surface radiance applying the Reference Channel Emissivity (RCE) method considering that the emissivity of the study area is constant (0.97, the glacial ice emissivity). The surface temperature is extracted after the surface radiance. Based on this data, the correlation was made from data from Google Earth Engine (EEFlux), showing a high correlation between 0.97 to 0.98.
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