
In this article, we introduce a generalization of one-way superdense coding to two-way communication protocols for transmitting classical bits by using entangled quantum pairs. The proposed protocol jointly addresses the provision of entangled pairs and superdense coding, introducing an integrated approach for managing entanglement within the communication protocol. To assess the performance of the proposed protocol, we consider its data rate and resource usage, and we analyze this both in an ideal setting with no decoherence and in a more realistic setting where decoherence must be taken into account. In the ideal case, the proposal offers a 50% increase in both data rate and resource usage efficiency compared to conventional protocols. Even when decoherence is taken into consideration, the quantum protocol performs better as long as the decoherence time is not extremely short. Finally, we present the results of implementing the protocol in a computer simulation based on the NetSquid framework. We compare the simulation results with the theoretical values.
Comment: 8 pages. Identical to published journal paper
Metadata, Quantum Physics, Computer Science - Information Theory, Quantum channels, Quantum communication; superdense coding; time-division duplexing; two-way communication, 81P45, 94A40, Throughput, Quantum entanglement, Photonics, two-way communication, Repeaters, time-division duplexing, Encoding, TA401-492, Proposals, superdense coding, Qubit, Quantum communication, Atomic physics. Constitution and properties of matter, Materials of engineering and construction. Mechanics of materials, Protocols, QC170-197
Metadata, Quantum Physics, Computer Science - Information Theory, Quantum channels, Quantum communication; superdense coding; time-division duplexing; two-way communication, 81P45, 94A40, Throughput, Quantum entanglement, Photonics, two-way communication, Repeaters, time-division duplexing, Encoding, TA401-492, Proposals, superdense coding, Qubit, Quantum communication, Atomic physics. Constitution and properties of matter, Materials of engineering and construction. Mechanics of materials, Protocols, QC170-197
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