Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication

With the advancement of technology worldwide, security is essential for online information and data. This research work proposes a novel image encryption method based on combined chaotic maps, Halton sequence, five-dimension (5D) Hyper-Chaotic System and Deoxyribonucleic Acid (DNA) encoding. Halton...

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Main Authors: Sakshi Patel, Thanikaiselvan Veeramalai
Format: Article
Language:English
Published: MDPI AG 2022-06-01
Series:Entropy
Subjects:
Online Access:https://www.mdpi.com/1099-4300/24/6/803
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author Sakshi Patel
Thanikaiselvan Veeramalai
author_facet Sakshi Patel
Thanikaiselvan Veeramalai
author_sort Sakshi Patel
collection DOAJ
description With the advancement of technology worldwide, security is essential for online information and data. This research work proposes a novel image encryption method based on combined chaotic maps, Halton sequence, five-dimension (5D) Hyper-Chaotic System and Deoxyribonucleic Acid (DNA) encoding. Halton sequence is a known low-discrepancy sequence having uniform distribution in space for application in numerical methods. In the proposed work, we derived a new chaotic map (HaLT map) by combining chaotic maps and Halton sequence to scramble images for cryptography applications. First level scrambling was done by using the HaLT map along with a modified quantization unit. In addition, the scrambled image underwent inter- and intra-bit scrambling for enhanced security. Hash values of the original and scrambled image were used for initial conditions to generate a 5D hyper-chaotic map. Since a 5D chaotic map has complex dynamic behavior, it could be used to generate random sequences for image diffusion. Further, DNA level permutation and pixel diffusion was applied. Seven DNA operators, i.e., ADD, SUB, MUL, XOR, XNOR, Right-Shift and Left-Shift, were used for pixel diffusion. The simulation results showed that the proposed image encryption method was fast and provided better encryption compared to ‘state of the art’ techniques. Furthermore, it resisted various attacks.
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spelling doaj.art-f340baf5637a484da490205341f74c9b2023-11-23T16:33:24ZengMDPI AGEntropy1099-43002022-06-0124680310.3390/e24060803Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image CommunicationSakshi Patel0Thanikaiselvan Veeramalai1School of Electronics Engineering, Vellore Institute of Technology (VIT), Vellore 632014, IndiaSchool of Electronics Engineering, Vellore Institute of Technology (VIT), Vellore 632014, IndiaWith the advancement of technology worldwide, security is essential for online information and data. This research work proposes a novel image encryption method based on combined chaotic maps, Halton sequence, five-dimension (5D) Hyper-Chaotic System and Deoxyribonucleic Acid (DNA) encoding. Halton sequence is a known low-discrepancy sequence having uniform distribution in space for application in numerical methods. In the proposed work, we derived a new chaotic map (HaLT map) by combining chaotic maps and Halton sequence to scramble images for cryptography applications. First level scrambling was done by using the HaLT map along with a modified quantization unit. In addition, the scrambled image underwent inter- and intra-bit scrambling for enhanced security. Hash values of the original and scrambled image were used for initial conditions to generate a 5D hyper-chaotic map. Since a 5D chaotic map has complex dynamic behavior, it could be used to generate random sequences for image diffusion. Further, DNA level permutation and pixel diffusion was applied. Seven DNA operators, i.e., ADD, SUB, MUL, XOR, XNOR, Right-Shift and Left-Shift, were used for pixel diffusion. The simulation results showed that the proposed image encryption method was fast and provided better encryption compared to ‘state of the art’ techniques. Furthermore, it resisted various attacks.https://www.mdpi.com/1099-4300/24/6/803Halton sequencechaotic maps5D hyper-chaotic systemDNA computationLyapunov exponent spectrumspectral entropy
spellingShingle Sakshi Patel
Thanikaiselvan Veeramalai
Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication
Entropy
Halton sequence
chaotic maps
5D hyper-chaotic system
DNA computation
Lyapunov exponent spectrum
spectral entropy
title Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication
title_full Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication
title_fullStr Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication
title_full_unstemmed Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication
title_short Image Encryption Using a Spectrally Efficient Halton Logistics Tent (HaLT) Map and DNA Encoding for Secured Image Communication
title_sort image encryption using a spectrally efficient halton logistics tent halt map and dna encoding for secured image communication
topic Halton sequence
chaotic maps
5D hyper-chaotic system
DNA computation
Lyapunov exponent spectrum
spectral entropy
url https://www.mdpi.com/1099-4300/24/6/803
work_keys_str_mv AT sakshipatel imageencryptionusingaspectrallyefficienthaltonlogisticstenthaltmapanddnaencodingforsecuredimagecommunication
AT thanikaiselvanveeramalai imageencryptionusingaspectrallyefficienthaltonlogisticstenthaltmapanddnaencodingforsecuredimagecommunication