Data Hiding Techniques Using Prime and Natural Numbers
Sandipan Dey, Ajith Abraham, Bijoy Bandyopadhyay, Sugata Sanyal,

TL;DR
This paper introduces novel data hiding techniques based on prime and natural number decompositions, improving image quality and embedding capacity over classical LSB and Fibonacci-based methods.
Contribution
It generalizes virtual bit-plane generation and proposes two new embedding schemes using prime and natural number decompositions, enhancing stego-image quality and security.
Findings
Prime decomposition method outperforms Fibonacci decomposition in image quality.
Natural number decomposition further improves embedding performance.
Proposed techniques allow embedding in higher bit-planes with minimal distortion.
Abstract
In this paper, a few novel data hiding techniques are proposed. These techniques are improvements over the classical LSB data hiding technique and the Fibonacci LSB data-hiding technique proposed by Battisti et al. \cite{r1}. The classical LSB technique is the simplest, but using this technique it is possible to embed only in first few bit-planes, since image quality becomes drastically distorted when embedding in higher bit-planes. Battisti et al. \cite{r1} proposed an improvement over this by using Fibonacci decomposition technique and generating a different set of virtual bit-planes all together, thereby increasing the number of bit-planes. In this paper, first we mathematically model and generalize this particular approach of virtual bit-plane generation. Then we propose two novel embedding techniques, both of which are special-cases of our generalized model. The first embedding…
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Taxonomy
TopicsAdvanced Steganography and Watermarking Techniques · Chaos-based Image/Signal Encryption · Digital Media Forensic Detection
