Abstract
In the field of meteorology, temperature forecasting is a significant task as it has
been a key factor in industrial, agricultural, renewable energy, and other sectors. High accuracy
in temperature forecasting is needed for decision-making in advance. Since temperature varies
over time and has been studied to have non-trivial long-range correlation, non-linear behavior,
and seasonal variability, it is important to implement an appropriate methodology to forecast
accurately. In this paper, we have reviewed the performance of statistical approaches such as
AR and ARIMA with RNN, LSTM, GRU, and LSTM-RNN Deep Learning models. The models
were tested for short-term temperature forecasting for a period of 48 hours. Among the statistical
models, the AR model showed notable performance with a r2 score of 0.955 for triennial
1 and for the same, the Deep Learning models also performed nearly equal to that of the statistical
models and thus hybrid LSTM-RNN model was tested. The hybrid model obtained the
highest r2 score of 0.960. The difference in RMSE, MAE and r2 scores are not significantly different
for both Statistical and Vanilla Deep Learning approaches. However, the hybrid model
provided a better r2 score, and LIME explanations have been generated for the same in order to
understand the dependencies over a point forecast. Based on the reviewed results, it can be
concluded that for short-term forecasting, both Statistical and Deep Learning models perform
nearly equally.
Keywords:
ARIMA, LSTM, RNN, XAI, auto regression, GRU.
Graphical Abstract
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