I. Introduction
The forecasting of weather involves predicting the state of the atmosphere at a specific location and time. It's a significant activity with several uses, such as in transportation, agriculture, and disaster relief. Conventional weather prediction techniques depend on atmospheric physics models, which can be intricate and costly to compute. The accuracy of traditional weather forecasting models has improved significantly, despite their frequent reliance on mathematical simulations and physical equations. However, it is difficult to provide regular and extremely precise forecasts due to the complexity of the Earth's atmosphere and the wide range of factors that affect weather patterns. Deep learning, an artificial intelligence discipline, has become a potent tool for weather prediction in recent years. Convolutional neural networks (CNNs), recurrent neural networks (RNNs), and hybrid models like ConvLSTM and GRU are examples of deep learning models that have proven their capacity to identify complex patterns in large datasets [1]–[3]. To forecast future weather conditions, these models use a variety of meteorological elements, satellite imagery, radar data, and historical weather information. The goal of this project is to create a deep-learning model for forecasting weather. A huge dataset of historical meteorological data, including radar, satellite, and surface measurements, will be used to train the model. Numerous meteorological parameters, such as temperature, precipitation, evaporation, and average wind speed, will all be predicted by the model. There are various possible benefits to using deep learning for weather forecasting. It makes it possible to automatically extract intricate patterns and features from big datasets, improving forecasts of a variety of meteorological phenomena, including precipitation, temperature swings, storm systems, and more. In addition to adapting and learning from real-time data, deep learning models are also capable of responding quickly to abrupt changes in weather patterns [4].