在气候变化之前,对温带水库的遥感藻蓝蛋白经验模型在热带水库的测试

X. Sòria-Perpinyà, E. Vicente, M. Pompêo, V. Moschini-Carlos, J. Soria, J. Delegido
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引用次数: 0

摘要

遥感是陆地和水生生态日益常用的一种工具。对于内陆水域,大多数工作集中在开发经验或分析模型来估计与水质有关的光学活性变量。越来越多的研究将遥感作为生态系统过程的支持工具,但开发本地特定模型耗时耗力。开发模型最常用的方法是经验方法,它使用统计技术将遥感信号与感兴趣的变量直接联系起来,以便为导出这些模型的地区和数据集产生可靠的结果。经验算法只能在其推导范围内和推导区域内表现良好。因此,为了便于使用,有必要建立适用于不同气候带和不同类型水的模型。这就是为什么我们要将从温带不同类型水的数据开发的经验模型应用于热带地区不同类型水的原因。这将使我们能够对算法进行校准,以适应将导致温带气候变化的未来情景:降水减少,温度升高,蒸发和水保持时间增加。为了实现这一目标,在2021年10月至12月期间,对Tiete河流域(巴西圣保罗)的13个水库进行了采样,并获得了41个样本。采样点参照地理位置,使用Turner Design C3潜水荧光计原位测量藻蓝蛋白,螺旋藻标准纯度为40% (Sigma-Aldrich CAS 11016-15-2, San Luis, MO, USA)。利用Sentinel应用平台(欧洲空间局)对7幅Sentinel-2图像进行了重采样处理,并利用C2X-C神经网络进行了大气校正。算法应用的估估值与来自这些储层的数据进行了验证,这些储层覆盖了藻蓝蛋白。M.P.;方法学,e.v., j.d., v.m.c;val-idation X.S.-P。、J.M.S.和M.P.;形式分析、V.M.-C;数据管理;写作-原稿准备,x.s.p;写作-评论与编辑,法学硕士,法学博士,E.V.;项目管理,e.v., M.P.;资金
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Testing in Tropical Reservoirs a Remote Sensing Phycocyanin Empirical Model Performed for Temperate Reservoirs: Ahead of Climate Change
: Remote sensing is a tool that is being used increasingly often for both terrestrial and aquatic ecology. For inland waters, most works focus on developing an empirical or analytical model to estimate optical active variables related to water quality. More and more studies use remote sensing as a support tool for ecosystem processes, but developing local specific models is time and resources consuming. The most used method for developing models is the empirical one, which directly relates the remote-sensed signal to the variables of interest using statistical techniques so as to produce robust results for the areas and data sets from which they are derived. Empirical algorithms can be expected to perform well only inside their range of derivation and for the area in which they are derived. Thus, to facilitate their use, it is necessary to have models that are applicable in different climatic zones and types of water. That is why we are going to apply empirical models developed with data from different types of water at temperate zone to different types of water at tropical areas. This will allow us to have algorithms calibrated for the future scenarios that will cause climate change in temperate zones: a decrease in precipitation and an increase in temperature, evaporation and water retention time. To achieve this, between October and December 2021, thirteen reservoirs of the Tiete River basin (Sao Paulo, Brazil) were sampled, and 41 samples were obtained. The sampling points were georeferenced and phycocyanin was measured in situ using a Turner Design C3 Submersible Fluorometer calibrated with Spirulina Standard 40% purity (Sigma-Aldrich CAS 11016-15-2, San Luis, MO, USA). Seven Sentinel-2 images were processed with Sentinel Application Platform (European Space Agency) for resampling, and for atmospheric correction using the neural net C2X-C. The estimated values to be tested from algorithms application were validated with data from these reservoirs, covering a phycocyanin Author Contributions: Conceptualization, X.S.-P., and M.P.; methodology, E.V., J.D., V.M.-C.; val-idation, X.S.-P., J.M.S. and M.P.; formal analysis, X.S.-P., V.M.-C.; data curation, M.P.; writing—original draft preparation, X.S.-P.; writing—review and editing, J.M.S., J.D., E.V.; project administration, E.V., M.P.; funding
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