A Deep Learning-Based In Situ Analysis Framework for Tropical Cyclogenesis Prediction

Abir Mukherjee, Preeti Malakar
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Abstract

Tropical cyclone is one of the most violent natural disasters causing massive devastation. Accurate forecasting of cyclones with high lead times is an important problem. We propose a framework to predict tropical cyclogenesis (i.e. cyclone formation). This framework executes along with a parallel weather simulation model (WRF) and analyzes the simulation output as soon as they are generated. Our framework has two major components – a trigger function and a deep predictive model. The trigger function acts as a basic filter to identify cyclones from non-cyclones. The proposed deep learning model is based on convolutional neural networks (CNNs). The best track data from Indian Meteorological Department (IMD) is used as a reference for labeling data points into disturbances and tropical cyclones. The framework achieves a probability of detection (POD) value of approximately 95% with a false alarm ratio (FAR) of 21.69% overall. The predictions made by the framework have a lead time of up to 150 hours from the time that a disturbance transforms into a tropical cyclone.
基于深度学习的热带气旋形成现场分析框架
热带气旋是造成巨大破坏的最猛烈的自然灾害之一。准确预报提前期较长的气旋是一个重要问题。我们提出了一个预测热带气旋形成(即气旋形成)的框架。此框架与并行天气模拟模型(WRF)一起执行,并在模拟输出生成后立即对其进行分析。我们的框架有两个主要组成部分——一个触发函数和一个深度预测模型。触发函数作为一个基本的过滤器来识别气旋和非气旋。提出的深度学习模型基于卷积神经网络(cnn)。来自印度气象部门(IMD)的最佳轨迹数据被用作将数据点标记为扰动和热带气旋的参考。该框架的检测概率(POD)值约为95%,虚警率(FAR)为21.69%。从扰动转变为热带气旋开始,该框架所做的预测的提前时间可达150小时。
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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