PySciDON:用于开发海洋网络应用程序的python科学框架

Nathan Vandenberg, Maycira P. F. Costa, Y. Coady, T. Agbaje
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引用次数: 4

摘要

遥感反射率由海洋彩色卫星测量,并被用作估算海洋生产力的替代指标。然而,卫星反射率数据需要验证,以便检索准确的生产力数据。为了实现这一目标,大量的水面反射数据由大西洋公司开发的SAS太阳能跟踪器收集,并安装在移动的船上。这提供了大量需要校准的数据,标记错误的测量,并进一步处理以正确验证卫星测量反射率。在本文中,我们将自己的系统PySciDON与最先进的商业软件进行比较。PySciDON根据经度、气象和错误视角旗标过滤数据,并根据输入风速和不同海洋颜色卫星波段的模拟进一步计算反射率。作为案例研究,我们使用2016年在加拿大西海岸使用FOCOS (Ferry Ocean Colour Observation Systems)采集的数据测试PySciDON输出,并与大西洋公司的专有软件Prosoft进行比较。分析表明,在早期处理阶段,PySciDON产生与Prosoft相似的数据。然而,后期处理阶段显示出微小的差异,这可能与插值模型或我们在Prosoft中发现的一些问题有关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
PySciDON: A python scientific framework for development of ocean network applications
Remote sensing reflectance is measured by ocean colour satellites, and is used as a proxy for estimation of ocean productivity. However, satellite reflectance data needs to be validated so accurate productivity data is retrieved. To accomplish this, large amounts of in situ above-water reflectance data are collected by the SAS Solar Tracker developed by Satlantic, and installed in moving ships. This provides a large amount of data that needs to be calibrated, flagged for erroneous measurements, and further processed for proper validation of satellite measure reflectance. In this paper we compare our own system, PySciDON, with state-of-the-art commercial software. PySciDON filters data based on longitude, meteorological, and erroneous viewing angle flags, and further calculates reflectance based on input wind speeds, and simulation of different ocean colour satellite bands. As a case study, we tested PySciDON output with data acquired in 2016 on the west coast of Canada with FOCOS (Ferry Ocean Colour Observation Systems) and compared with Prosoft, a proprietary software by Satlantic. The analysis shows that in the early processing stages, PySciDON produces similar data as Prosoft. However, later processing stages show small differences, which could be associated with the interpolation model or some issues we have uncovered with Prosoft.
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