One of the very popular deep learning-based techniques for classifying hyperspectral image (HSI) is convolutional neural networks (CNNs). However, extensive spatial-spectral infor-mation with several continuous bands is one of HSIs' main characteristics; this invariably leads to issues with large computing costs and computational complexity for network opti-mization. Additionally, current CNN-based classification techniques are only partially able to extract deep semantic characteristics. In response to these problems, this paper presents a novel HSI classification framework, a large selective kernel network, associated with a to-kenization transformer, namely LSKTT, which mainly includes three parts: First, HSI's spectral dimensions are decreased via principal component analysis, and a model for char-acterizing abstract feature representations by cascading a 3-D convolution layer and a 2-D convolution layer is employed. Second, to better model the ranging context of various ob-jects, the large selective kernel network is utilized by modifying its vast spatial receptive field dynamically. Third, a feature tokenization transformer is further utilized to exploit deeper semantic characteristics by converting and learning abstract spatial-spectral features. Experiments with three genuine HSIs show that the proposed LSKTT architecture beats many cutting-edge techniques in both qualitative and quantitative performance.