Epileptic seizure detection using electroencephalogram (EEG) signals has received considerable attention because of the potential of automated systems to support continuous neurological monitoring and clinical decision-making. Among focal epilepsies, temporal lobe epilepsy is particularly important because the temporal lobe is a common site of focal seizure activity. However, many existing EEG-based approaches process all available channels simultaneously, potentially introducing redundant information and reducing the interpretability of the resulting models. This paper investigates a region-specific deep learning approach for automated seizure detection using EEG signals obtained from the temporal lobe. The study is derived from a broader brain-region-based seizure detection framework in which EEG channels are grouped according to anatomical regions and informative channels are selected using the Lion-Mapped Chaotic Whale Optimization (LMC-WWO) algorithm. The selected EEG signals are normalized, filtered, artifact-reduced, segmented, and transformed using Gramian Angular Summation Field (GASF) and Continuous Wavelet Transform (CWT) representations. Four deep learning architectures, namely Long Short-Term Memory (LSTM), One-Dimensional Convolutional Neural Network (CNN1D), Temporal Convolutional Network-1 (TCN1), and Temporal Convolutional Network-2 (TCN2), are evaluated for temporal-lobe seizure classification. A weighted ensemble of CNN1D and TCN2 is also investigated. Experimental results show that the LSTM model achieves the highest temporal-lobe classification accuracy of 97.62%, outperforming CNN1D (93.45%), TCN1 (91.67%), TCN2 (72.02%), and the weighted ensemble (78.57%). The findings indicate that temporal-lobe EEG signals contain sequential characteristics that can be effectively captured by recurrent temporal modeling. The study demonstrates the potential of region-specific EEG analysis for developing accurate and clinically interpretable seizure detection systems
