Hyperchaotic System-Based PRNG and S-Box Design for a Novel Secure Image Encryption

A hyperchaotic system was analyzed in this study, and its hyperchaotic behavior was confirmed through dynamic analysis. The system was utilized to develop a pseudo-random number generator (PRNG), whose statistical reliability was validated through NIST SP800-22 tests, demonstrating its suitability for cryptographic applications. Additionally, a 16 × 16 S-box was constructed based on the hyperchaotic system, ensuring high nonlinearity and strong cryptographic performance. A comparative analysis revealed that the proposed S-box structure outperforms existing designs in terms of security and efficiency. A new image encryption algorithm was designed using the PRNG and S-box, and its performance was evaluated on 512 × 512 grayscale images, including the commonly used baboon and pepper images. The decryption process successfully restored the original images, confirming the encryption scheme's reliability. Security evaluations, including histogram analysis, entropy measurement, correlation analysis, and resistance to differential and noise attacks, were conducted. The findings showed that the suggested encryption algorithm outperforms current techniques in terms of security and efficiency. This study contributes to the advancement of robust PRNG generation, secure S-box design, and efficient image encryption algorithms using hyperchaotic systems, offering a promising approach for secure communication and data protection.

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Publication Details

Journal
Entropy
Published
2025-03-13
DOI
https://doi.org/10.3390/e27030299
Citations
7
Primary Topic
Chaos-based Image/Signal Encryption
Type
article
Field-Weighted Citation Impact
8.93

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article

Hyperchaotic System-Based PRNG and S-Box Design for a Novel Secure Image Encryption

Arif Gülten, Vedat Çelik, Erman Özpolat
7 citations
Entropy
Chaos-based Image/Signal Encryption
8.93
article

Hyperchaotic System-Based PRNG and S-Box Design for a Novel Secure Image Encryption

Arif Gülten, Vedat Çelik, Erman Özpolat
article en
7 citations

Abstract

A hyperchaotic system was analyzed in this study, and its hyperchaotic behavior was confirmed through dynamic analysis. The system was utilized to develop a pseudo-random number generator (PRNG), whose statistical reliability was validated through NIST SP800-22 tests, demonstrating its suitability for cryptographic applications. Additionally, a 16 × 16 S-box was constructed based on the hyperchaotic system, ensuring high nonlinearity and strong cryptographic performance. A comparative analysis revealed that the proposed S-box structure outperforms existing designs in terms of security and efficiency. A new image encryption algorithm was designed using the PRNG and S-box, and its performance was evaluated on 512 × 512 grayscale images, including the commonly used baboon and pepper images. The decryption process successfully restored the original images, confirming the encryption scheme's reliability. Security evaluations, including histogram analysis, entropy measurement, correlation analysis, and resistance to differential and noise attacks, were conducted. The findings showed that the suggested encryption algorithm outperforms current techniques in terms of security and efficiency. This study contributes to the advancement of robust PRNG generation, secure S-box design, and efficient image encryption algorithms using hyperchaotic systems, offering a promising approach for secure communication and data protection.

EntropyVol. 27(3)
Muş Alparslan University (TR), Fırat University (TR)
Firat Üniversitesi
Openalex Percentile: Top 2%
Chaos-based Image/Signal Encryption
8.93
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