Integration of the WRF model and IoT sensors to develop an early cold snap warning system for inland fishponds

IF 6.3 Q1 AGRICULTURAL ENGINEERING
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Abstract

The cold weather-related economic losses in the aquaculture and fisheries industries are enormous and will only increase due to future climate change. Advancements in weather forecasting have increased the accuracy of predicting environmental factors like air temperature, solar radiation, and wind speed. However, the water temperature of fishponds, which affects the lives of fish, cannot be accurately predicted. As a result, fishermen are unable to implement early disaster mitigation and avoidance measures effectively. In this study, we developed an early warning system for extreme temperature events in fishponds by using a weather forecasting model in combination with local observations from a customized sensor placed in a pond. This system could provide water temperature forecasts with up to 120 h of lead time. A fishpond and multiple events were selected to assess the performance. Compared to the actual observations, the predicted water temperature difference had a root mean square error of <2 °C for up to 72 h of lead time. Furthermore, due to limited computational resources for weather forecasting models, the water temperature and depth data collected by the sensor improved the accuracy of temperature prediction specific to each pond. The results have confirmed that the integrated method can effectively predict the water temperature of farmed fishponds and assist fishermen in implementing precautionary measures in time.

整合 WRF 模型和物联网传感器,开发内陆鱼塘寒流预警系统
寒冷天气给水产养殖和渔业造成的经济损失是巨大的,而且由于未来的气候变化,这种损失只会越来越大。天气预报技术的进步提高了预测气温、太阳辐射和风速等环境因素的准确性。然而,影响鱼类生命的鱼塘水温却无法准确预测。因此,渔民无法有效地实施早期减灾和避灾措施。在这项研究中,我们利用天气预报模型,结合从放置在池塘中的定制传感器获得的本地观测数据,开发了鱼塘极端温度事件预警系统。该系统可提供长达 120 小时的水温预报。该系统选择了一个鱼塘和多个事件来评估其性能。与实际观测结果相比,在长达 72 小时的准备时间内,预测的水温差均方根误差为 2 °C。此外,由于天气预报模型的计算资源有限,传感器收集的水温和水深数据提高了每个池塘温度预测的准确性。结果证实,该综合方法可有效预测养殖鱼塘的水温,帮助渔民及时采取预防措施。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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