Transformer-based Joint Source Channel Coding for Textual Semantic Communication
Shicong Liu, Zhen Gao, Gaojie Chen, Yu Su, Lu Peng

TL;DR
This paper introduces a Transformer-based framework for robust textual semantic communication over challenging wireless channels, leveraging neural networks and attention mechanisms to improve transmission reliability and semantic fidelity.
Contribution
It presents a novel joint source-channel coding scheme using Transformers for semantic transmission, enhancing robustness and efficiency in integrated space-air-ground-sea networks.
Findings
Outperforms traditional methods in semantic similarity metrics
Effective in various channel conditions including erasure and deletion
Demonstrates improved sentence reconstruction accuracy
Abstract
The Space-Air-Ground-Sea integrated network calls for more robust and secure transmission techniques against jamming. In this paper, we propose a textual semantic transmission framework for robust transmission, which utilizes the advanced natural language processing techniques to model and encode sentences. Specifically, the textual sentences are firstly split into tokens using wordpiece algorithm, and are embedded to token vectors for semantic extraction by Transformer-based encoder. The encoded data are quantized to a fixed length binary sequence for transmission, where binary erasure, symmetric, and deletion channels are considered for transmission. The received binary sequences are further decoded by the transformer decoders into tokens used for sentence reconstruction. Our proposed approach leverages the power of neural networks and attention mechanism to provide reliable and…
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Taxonomy
TopicsUnderwater Vehicles and Communication Systems · Opportunistic and Delay-Tolerant Networks · Robotics and Automated Systems
MethodsWordPiece
