Enhanced Laplace integral transform based image encryption technique and its analysis

The demand for image encryption with the advent of technology is increasing rapidly. In this paper we leverage chaos-based methods for image encryption and decryption to enhance the digital image security. The system’s strong suit is its sophisticated approach that starts with data scrambling and includes chaotic permutations, bitwise operations, and XOR substitution. The security features are further enhanced through the incorporation of additional complexity levels brought by Laplace transforms and series expansions. Applications needing strict security measures might choose the cryptosystem because of its complete approach, which guarantees the integrity and confidentiality of digital images. The proposed approach provides a flexible and efficient solution by combining advanced cryptographic algorithms, mathematical transformations, and chaos theory to create a strong foundation for image encryption in wide range of security-sensitive situations. The proposed system uniquely combines chaos theory, Laplace transforms, and series expansions to create a highly secure and advanced framework for image encryption. This innovative method significantly strengthens resistance to cryptographic attacks, marking a notable advancement in secure digital communication. The proposed technique demonstrate good performance in terms of information entropy, histogram, correlation of adjacent pixels, unified average changing intensity (UACI), number of pixel change rate (NPCR), and peak signal to noise ratio (PSNR), demonstrate the security and robustness of the suggested algorithm.