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Journal of Physics Conference Series

Efficient Quantum Text Transfer Using Teleportation and Entropy-based Compression

Basma Abdullah Al Kharusi, Hafiz M. Asif

Published Apr 1, 2026• 0 citations
Publisher

Abstract

Abstract In classical computing systems, the physical transfer of data (i.e., bits) is essential to transfer information from one place to another through a suitable channel (wired/wireless, etc.). Unlike classical systems, Quantum communication can take place between distant users without the physical transfer of the data, i.e., quantum bits or qubits. This paper presents how a classical compression protocol, when integrated with a quantum teleportation technique, can be utilized to transfer data between spatially distant users. The quantum text teleportation protocol (QTTP) aims to enable efficient and secure transfer of text-based data over quantum channels. Simulation programs have been carried out to gauge the performance of the proposed system under different conditions and noise levels. The simulation results indicate successful teleportation between distant users. Furthermore, the performance is enhanced when QTTP was used with Huffman coding. It has been demonstrated that the protocol is reliable especially in terms of reducing the error rate under 10% bit-flip noise from 10% to 1.11%.

DOI
10.1088/1742-6596/3191/1/012102

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Abstract In classical computing systems, the physical transfer of data (i.e., bits) is essential to transfer information from one place to another through a suitable channel (wired/wireless, etc.). Unlike classical systems, Quantum communication can take place between distant users without the physical transfer of the data, i.e., quantum bits or qubits. This paper presents how a classical compression protocol, when integrated with a quantum teleportation technique, can be utilized to transfer data between spatially distant users. The quantum text teleportation protocol (QTTP) aims to enable efficient and secure transfer of text-based data over quantum channels. Simulation programs have been carried out to gauge the performance of the proposed system under different conditions and noise levels. The simulation results indicate successful teleportation between distant users. Furthermore, the performance is enhanced when QTTP was used with Huffman coding. It has been demonstrated that the protocol is reliable especially in terms of reducing the error rate under 10% bit-flip noise from 10% to 1.11%.
In this work, the authors present Quantum Text Teleportation Protocol (QTTP) that uses Quantum Teleportation (QT) technique and Huffman Coding for secure text transfers. The QTTP enables the teleportation of quantum states of text (for example, email) in a secure manner, while simultaneously encrypting and decrypting them using Huffman Coding since data can only be retrieved or decoded if the prefix codes are known. The Huffman Coding approach offers the benefit of compressing the entire text, resulting in faster transmission of large amounts of information. For proof of concept, the authors experimentally evaluated both of the proposed QTTPs (Standard QTTP and QTTP with Huffman Coding) using Quantum Information Science Kit (QISKit), a quantum computing platform and simulated on IBM QASM Simulator and on IBM real quantum hardware.
In this work, the authors present Quantum Text Teleportation Protocol (QTTP) that uses Quantum Teleportation (QT) technique and Huffman Coding for secure text transfers. The QTTP enables the teleportation of quantum states of text (for example, email) in a secure manner, while simultaneously encrypting and decrypting them using Huffman Coding since data can only be retrieved or decoded if the prefix codes are known. The Huffman Coding approach offers the benefit of compressing the entire text, resulting in faster transmission of large amounts of information. For proof of concept, the authors experimentally evaluated both of the proposed QTTPs (Standard QTTP and QTTP with Huffman Coding) using Quantum Information Science Kit (Qiskit), a quantum computing platform and simulated on IBM QASM Simulator and on IBM real quantum hardware.
In order to transmit images and audio securely, the authors present the Quantum Image Teleportation Protocol (QITP) and Quantum Audio Teleportation Protocol (QATP), which utilizes the Quantum Teleportation (QT) technique combined with Huffman Coding. The QITP secures the teleportation of quantum states of an image while simultaneously encrypting and decrypting them using Huffman Coding since it is only possible to recover or decode data if the prefix codes are known. To test their approach, the authors transformed pixels or RGB values from digital images into text, which was then fed into the Huffman Coding Technique. It has the advantage of compressing the entire text, which makes it faster to transmit vast amounts of information. This work also demonstrates the Quantum Audio Teleportation Protocol (QATP) with and without Huffman coding. For proof of concept, experimental evaluations were performed for both suggested QITPs and QATPs (Standard QITP, QITP with Huffman Coding, Standard QATP, QATP with Huffman Coding), using IBM Quantum Assembly Language (IBM QASM) Simulator and real quantum hardware using the Quantum Information Science Kit (Qiskit), a quantum computing platform.
Quantum Key Distribution protocols have been essential for the purpose of creating secure channels for long-distance transmission of quantum information. On the basis of ideas of quantum teleportation, this paper presents a novel quantum communication protocol utilizing the quantum entanglement and classical communication channels. Also, this paper aims to increase key generation rate and distance, achieve longer communication distances and higher key production compared to traditional QKD methods, improve resilience against eavesdropping and optimize system performance. Quantum teleportation ensures the secure transfer of quantum states without exposing them to potential eavesdropping or interception, offering a higher level of security compared to traditional qubit-based protocols. This involves a thorough investigation of the Qiskit circuit implementations, operational procedures, and mathematical underpinnings of the protocol. Also, a thorough study of the protocol’s performance with respected to some of the existing protocols like BB84, E91 and others using various metrics like QBER, key generation rate, adversarial resilience and. This project advances Quantum Key Distribution systems and established the foundation for secure quantum communication networks.
This paper presents a novel protocol for secure distributed data transmission leveraging the principles of quantum teleportation. The core claim of this protocol is to achieve secure data transmission utilizing quantum teleportation technology. The proposed mechanism relies on quantum entanglement to facilitate the instantaneous transfer of quantum states and incorporates classical communication for error correction, thereby ensuring both the security and reliability of the transmission process. The significance of this work lies in its potential to provide a higher level of security compared to traditional data transmission methods. The protocol details the necessary steps, including entanglement distribution, state transfer, and classical communication phases, with a focus on minimizing the impact of noise and maintaining the integrity of the transmitted information. This protocol offers a viable pathway for building quantum networks capable of secure data exchange, contributing to advancements in quantum cryptography and distributed quantum computing.
This paper investigates the potential of quantum entanglement for data compression and transmission, aiming to surpass the limitations of classical methods. We propose a novel entanglement protocol that utilizes instantaneous correlations to represent data bits, incorporating quantum error correction to enhance reliability. The core mechanism focuses on encoding information via entangled particle states, suggesting a pathway for transmitting data across significant distances with enhanced efficiency and security. This work explores the theoretical foundations, algorithm design, and preliminary experimental results demonstrating the feasibility of this approach. The potential implications for data security and efficient information transfer are significant, representing a potential paradigm shift in data storage and communication technologies.