Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

International Conference on Computing, Communication, and Intelligent Systems (ICCCIS)

Enhance Approach on Steganography Using Quantum Computing

Ayush V Jain, Ayush Singh, Ashirbad Satapathy, S. Prayla Shyry

Published Nov 3, 2023• 1 citation
Publisher

Abstract

Quantum computing combines computer science with quantum mechanics, and it is a fast-growing research field. The theory of quantum computing has become significant in the secure transmission of keys which can be achieved by implementing quantum mechanics such as polarization. It uses quantum states to permit the classical information and uses quantum entanglement to ensure reliable transmission creating a secure channel. The elementary unit of quantum information is a quantum bit (qubit). These qubits can be transmitted as a two-state system such as spin-half, a two-level atom. The qubits can also be manipulated using polarization techniques. One drawback of quantum computing is side channel attacks which make the information transmitted vulnerable, the attacker can eavesdrop, decline the integrity of the information or the attacker can target the physical implementation of quantum algorithms. Therefore, to prevent side-channel attacks, this paper focuses on developing a novel approach to detect the side-channel attack and rectify the same within a fraction of a second to improve resiliency. The paper initially converts the user-defined key into binary and applies an encryption algorithm to create an image, serving as cover data for the hidden message. After appropriate polarizer selection, the encrypted key is transmitted through a quantum channel. Verification ensures no tampering or eavesdropping, and the image with the hidden message is shared via a classical channel with the intended recipient. Comparative analysis with traditional key security methods, alongside monitoring for third-party eavesdropping using a quantum key simulator, demonstrates the proposed system's over 99% enhancement in secret key security.

DOI
10.1109/icccis60361.2023.10425760

Related papers

PREREQUISITES FOR THE ESTABLISHMENT OF A QUANTUM STEGANOGRAPHY COMMUNICATION

Veselka Stoyanova

Several approaches and techniques exist to make communication via the internet secure, one of these approaches is steganography. Computer steganography can be defined as a method of hiding data in cover media so that others are not aware of its existence. Quantum computers, built on the principles of quantum physics, have introduced new possibilities for researchers in security and computer science. This paper explores the fundamentals of quantum computing, its achievements, and the challenges and future prospects it presents in the field of cryptography and steganography. Quantum computers give us a new approach to different kinds of complicated problems in security fields by creating multi-state computing spaces. The article deals with the steganography system which hides text inside images and after that realize quantum communication. The secret message is hidden in the cover image using Least Significant Bit (LSB) algorithm. The paper proposes an information transmission scheme with a quantum channel enabled. Quantum key distribution (QKD) is a secure communication method that implements a cryptographic protocol involving components of quantum mechanics.

Environment Technology Resources Proceedings of the International Scientific and Practical Conference•Jun 8, 2025•0 citations

Possibilities of realizing a quantum steganography communication

Veselka Stoyanova, Georgi Kozarev

Several approaches and techniques exist to make communication via the internet secure, one of these approaches is steganography. Computer steganography is a technique used to conceal data within cover media, ensuring that its presence remains undetected by others. We investigate the steganography potential applications in quantum communication and assess its benefits in the context of secret information transmission. Quantum computers, built on the principles of quantum physics, have introduced new possibilities for researchers in security and computer science. This paper explores the possibilities of realizing a quantum steganography communication, the challenges and its achievements of quantum steganography to tackle a wide range of security and privacy challenges. The article deals with the steganography system which hides text inside images and after that realize quantum communication. The secret message is hidden in the cover image using Least Significant Bit (LSB) algorithm. The paper proposes an information transmission scheme with a quantum channel enabled and visualization of quantum steganography protocol.

Communication and Information Technologies (KIT)•Oct 8, 2025•0 citations

Integrating Q-Bit Generation via Quantum Computing for Enhanced AES Encryption and LSB Technique for Secure Image Steganography

B S Spoorthi

In the realm of cybersecurity, the demand for robust encryption and secure data hiding techniques has intensified with the proliferation of digital communication and sensitive information exchange. This paper explores integration of QC advancements for enhancing the security of two critical cryptographic applications: Advanced Encryption Standard (AES) encryption and Least Significant Bit (LSB) image steganography. Quantum computing introduces the concept of qubits, which harness quantum mechanical phenomena to perform computations that classical computers struggle to achieve efficiently. By leveraging qubits, AES encryption can potentially benefit from enhanced key generation and encryption processes, thereby strengthening data confidentiality against conventional and future quantum attacks. Additionally, this paper investigates the application of quantum-inspired techniques to optimize the LSB method in image steganography. LSB embedding involves hiding data within LSB of image pixels, technique vulnerable to statistical attacks. Quantum-inspired approaches aim to mitigate these vulnerabilities by improving embedding efficiency and robustness without compromising image quality. Through theoretical analysis and simulation studies, this research evaluates the feasibility and potential benefits of integrating quantum computing into AES encryption and LSB steganography. The findings underscore the promise of quantum-enhanced methods in fortifying data security across digital platforms, laying the groundwork for future advancements in quantum cryptography and information hiding techniques.

Journal of Information Systems Engineering & Management•Apr 8, 2025•2 citations

Quantum Image Encryption: A Review of Cryptographic Strengths and AI-driven Approaches

Harsh Awana, Arvind kumar Dangi Arvind kumar Dangi, Stuti Tandon

Quantum image encryption has become a promising direction to protect visual information stored or transmitted through cyberspace due to its cryptographic power and resilience that are under-researched. This survey makes a systematic study of the current advancement in the field of quan-tum image encryption concerning cryptographic security and AI-based approaches. We survey the state of quantum-based encryption, such as quantum key distribution, chaotic quantum systems, and AI methods, such as deep learning, to generate keys and detect attacks through a thorough literature review. The significant findings include that quantum encryption may provide unprecedented security levels through mechanisms such as superposition and entanglement, yet computational complexity and hardware constraints are obstacles to implementation. AI-based methods have improved efficiency and adaptability but have created adversarial attack risks. We can conclude that quantum image encryption has the potential to transform the secure transmission of data, but it is necessary to incorporate AI-powered optimizations into the proven quantum systems to ensure scalability and resistance to evolving threats. Hybrid models are the way of the future as they need to find a balance between security and realistic usage.

International Conference on Digital Innovations for Sustainable Solutions (ICDISS)•Nov 14, 2025•0 citations

Securing information flow in content delivery networks with visual and quantum cryptography

Nishat I Mowla, Inshil Doh, Kijoon Chae

Steganography, a science of visual cryptography, was historically originated from the times of war when in one country a messenger's head would be shaved to write a secret message on it and hair grown again before he was sent to the other country carrying the message in his head as it was impossible to be revealed unless the head was shaved again on the other end. Luckily the Steganography used these days learnt a lot from this concept but made sure no one needed to shave their heads. Though Steganography is an old concept it is a powerful one and can be practiced where long classical secret keys need to be avoided and sense of simplicity while strong cryptography is vital. However one of the biggest challenges of Steganography and other Visual Cryptography techniques is that an attacker in the middle can hijack the image and forward a fake image. This again means that we need large classical keys or so to secure the channel. However large keys are no longer going to be suitable for future next generation networks as they require light weight key distribution systems which are also free from eavesdropping. Besides, in recent studies it is suggested that in near future quantum computers would be able to break classical cryptographic techniques such as RSA. With quantum computers, quantum cryptography also came into light and now seems to be promising based on its unique features that make it free from eavesdropping or any other third party intrusion in the key distribution system. Our paper proposes a technique where we show how an old technique such as Steganography can be promising when we combine it with the unique key distribution mechanism of Quantum Cryptography with some other additional security features.

International Conference on Information Networking•Jan 1, 2016•2 citations

Quantum-Based Colour Image Steganography

R S Randhawa, Amey R Hasabnis, Sanghmitra Rai

This research delves into the realm of quantum steganography, where the concealment and encoding of secret messages within colored images are achieved through the ingenious integration of quantum gates and qubits. Using the Qiskit platform by IBM and Python, an innovative application was developed for the encoding and decoding of covert information. The study addresses the problem of bolstering data security in an era of advancing technology, where classical steganographic methods may become vulnerable to quantum threats. The approach leverages the unique quantum properties of qubits, their superposition, and entanglement, to ensure an unprecedented level of security. Key findings reveal the viability of quantum steganography is a powerful tool for secure data concealment and transmission. The research's significance lies in its potential to redefine data protection paradigms, safeguarding sensitive information in an increasingly interconnected and vulnerable digital landscape.

IEEE Uttar Pradesh Section International Conference on Electrical, Electronics and Computer Engineering (UPCON)•Dec 1, 2023•2 citations
Quantum computing combines computer science with quantum mechanics, and it is a fast-growing research field. The theory of quantum computing has become significant in the secure transmission of keys which can be achieved by implementing quantum mechanics such as polarization. It uses quantum states to permit the classical information and uses quantum entanglement to ensure reliable transmission creating a secure channel. The elementary unit of quantum information is a quantum bit (qubit). These qubits can be transmitted as a two-state system such as spin-half, a two-level atom. The qubits can also be manipulated using polarization techniques. One drawback of quantum computing is side channel attacks which make the information transmitted vulnerable, the attacker can eavesdrop, decline the integrity of the information or the attacker can target the physical implementation of quantum algorithms. Therefore, to prevent side-channel attacks, this paper focuses on developing a novel approach to detect the side-channel attack and rectify the same within a fraction of a second to improve resiliency. The paper initially converts the user-defined key into binary and applies an encryption algorithm to create an image, serving as cover data for the hidden message. After appropriate polarizer selection, the encrypted key is transmitted through a quantum channel. Verification ensures no tampering or eavesdropping, and the image with the hidden message is shared via a classical channel with the intended recipient. Comparative analysis with traditional key security methods, alongside monitoring for third-party eavesdropping using a quantum key simulator, demonstrates the proposed system's over 99% enhancement in secret key security.
Several approaches and techniques exist to make communication via the internet secure, one of these approaches is steganography. Computer steganography can be defined as a method of hiding data in cover media so that others are not aware of its existence. Quantum computers, built on the principles of quantum physics, have introduced new possibilities for researchers in security and computer science. This paper explores the fundamentals of quantum computing, its achievements, and the challenges and future prospects it presents in the field of cryptography and steganography. Quantum computers give us a new approach to different kinds of complicated problems in security fields by creating multi-state computing spaces. The article deals with the steganography system which hides text inside images and after that realize quantum communication. The secret message is hidden in the cover image using Least Significant Bit (LSB) algorithm. The paper proposes an information transmission scheme with a quantum channel enabled. Quantum key distribution (QKD) is a secure communication method that implements a cryptographic protocol involving components of quantum mechanics.
Several approaches and techniques exist to make communication via the internet secure, one of these approaches is steganography. Computer steganography is a technique used to conceal data within cover media, ensuring that its presence remains undetected by others. We investigate the steganography potential applications in quantum communication and assess its benefits in the context of secret information transmission. Quantum computers, built on the principles of quantum physics, have introduced new possibilities for researchers in security and computer science. This paper explores the possibilities of realizing a quantum steganography communication, the challenges and its achievements of quantum steganography to tackle a wide range of security and privacy challenges. The article deals with the steganography system which hides text inside images and after that realize quantum communication. The secret message is hidden in the cover image using Least Significant Bit (LSB) algorithm. The paper proposes an information transmission scheme with a quantum channel enabled and visualization of quantum steganography protocol.
In the realm of cybersecurity, the demand for robust encryption and secure data hiding techniques has intensified with the proliferation of digital communication and sensitive information exchange. This paper explores integration of QC advancements for enhancing the security of two critical cryptographic applications: Advanced Encryption Standard (AES) encryption and Least Significant Bit (LSB) image steganography. Quantum computing introduces the concept of qubits, which harness quantum mechanical phenomena to perform computations that classical computers struggle to achieve efficiently. By leveraging qubits, AES encryption can potentially benefit from enhanced key generation and encryption processes, thereby strengthening data confidentiality against conventional and future quantum attacks. Additionally, this paper investigates the application of quantum-inspired techniques to optimize the LSB method in image steganography. LSB embedding involves hiding data within LSB of image pixels, technique vulnerable to statistical attacks. Quantum-inspired approaches aim to mitigate these vulnerabilities by improving embedding efficiency and robustness without compromising image quality. Through theoretical analysis and simulation studies, this research evaluates the feasibility and potential benefits of integrating quantum computing into AES encryption and LSB steganography. The findings underscore the promise of quantum-enhanced methods in fortifying data security across digital platforms, laying the groundwork for future advancements in quantum cryptography and information hiding techniques.
Quantum image encryption has become a promising direction to protect visual information stored or transmitted through cyberspace due to its cryptographic power and resilience that are under-researched. This survey makes a systematic study of the current advancement in the field of quan-tum image encryption concerning cryptographic security and AI-based approaches. We survey the state of quantum-based encryption, such as quantum key distribution, chaotic quantum systems, and AI methods, such as deep learning, to generate keys and detect attacks through a thorough literature review. The significant findings include that quantum encryption may provide unprecedented security levels through mechanisms such as superposition and entanglement, yet computational complexity and hardware constraints are obstacles to implementation. AI-based methods have improved efficiency and adaptability but have created adversarial attack risks. We can conclude that quantum image encryption has the potential to transform the secure transmission of data, but it is necessary to incorporate AI-powered optimizations into the proven quantum systems to ensure scalability and resistance to evolving threats. Hybrid models are the way of the future as they need to find a balance between security and realistic usage.
Steganography, a science of visual cryptography, was historically originated from the times of war when in one country a messenger's head would be shaved to write a secret message on it and hair grown again before he was sent to the other country carrying the message in his head as it was impossible to be revealed unless the head was shaved again on the other end. Luckily the Steganography used these days learnt a lot from this concept but made sure no one needed to shave their heads. Though Steganography is an old concept it is a powerful one and can be practiced where long classical secret keys need to be avoided and sense of simplicity while strong cryptography is vital. However one of the biggest challenges of Steganography and other Visual Cryptography techniques is that an attacker in the middle can hijack the image and forward a fake image. This again means that we need large classical keys or so to secure the channel. However large keys are no longer going to be suitable for future next generation networks as they require light weight key distribution systems which are also free from eavesdropping. Besides, in recent studies it is suggested that in near future quantum computers would be able to break classical cryptographic techniques such as RSA. With quantum computers, quantum cryptography also came into light and now seems to be promising based on its unique features that make it free from eavesdropping or any other third party intrusion in the key distribution system. Our paper proposes a technique where we show how an old technique such as Steganography can be promising when we combine it with the unique key distribution mechanism of Quantum Cryptography with some other additional security features.
This research delves into the realm of quantum steganography, where the concealment and encoding of secret messages within colored images are achieved through the ingenious integration of quantum gates and qubits. Using the Qiskit platform by IBM and Python, an innovative application was developed for the encoding and decoding of covert information. The study addresses the problem of bolstering data security in an era of advancing technology, where classical steganographic methods may become vulnerable to quantum threats. The approach leverages the unique quantum properties of qubits, their superposition, and entanglement, to ensure an unprecedented level of security. Key findings reveal the viability of quantum steganography is a powerful tool for secure data concealment and transmission. The research's significance lies in its potential to redefine data protection paradigms, safeguarding sensitive information in an increasingly interconnected and vulnerable digital landscape.