The significant meteorological parameter, air temperature (TP), is often measured with limited spatial resolution, which necessitates the prediction of them at places far from monitoring stations and in the cases of accidentally missing data from the data loggers of monitoring stations. This study supports a non-location-specific model for air temperature prediction by combining a three-layer backpropagation artificial neural network (ANN) and meteorological data. The partial mutual information (PMI) algorithm & cross-correlation method incorporated with the ANN model reveals density altitude (DA), heat index (HI), relative humidity (RH), and wet bulb temperature (WB) as potential input variables for the prediction of TP. DA and HI are strongly correlated to TP for the whole year for all types of land covers whereas the dependency of TP on RH varies seasonally. RH is always a topping variable for air temperature prediction, which undoubtedly enhances the prediction accuracy. In pre-monsoon and monsoon, there are only three dominant input variables for the prediction of air temperature, i.e., DA, HI, and RH. In the post-monsoon, WB comes into role as an additional predictor. Using the predictor set of potential input variables, the prediction shows a good agreement between ANN-estimated air temperature and measured air temperature, i.e. the coefficient of determination of 99.46%, 99.23%, 99.73%, and 99.18% for pre-monsoon, monsoon, post-monsoon, and winter season, respectively. ANN modeling is a reliable method for predicting air temperature.