Take What You Need: Flexible Multi-Task Semantic Communications with Channel Adaptation
Xiang Chen, Shuying Gan, Chenyuan Feng, Xijun Wang, and Tony Q. S., Quek

TL;DR
This paper presents a flexible, multi-task semantic communication framework that adapts to channel conditions using a masked auto-encoder architecture, optimizing meaningful data transmission for diverse tasks.
Contribution
It introduces a novel channel-adaptive, multi-task-aware framework that dynamically prioritizes and transmits semantically significant information based on real-time conditions.
Findings
Outperforms conventional methods in image reconstruction and object detection.
Demonstrates robustness across heterogeneous channel environments.
Ensures minimal performance loss under resource constraints.
Abstract
The growing demand for efficient semantic communication systems capable of managing diverse tasks and adapting to fluctuating channel conditions has driven the development of robust, resource-efficient frameworks. This article introduces a novel channel-adaptive and multi-task-aware semantic communication framework based on a masked auto-encoder architecture. Our framework optimizes the transmission of meaningful information by incorporating a multi-task-aware scoring mechanism that identifies and prioritizes semantically significant data across multiple concurrent tasks. A channel-aware extractor is employed to dynamically select relevant information in response to real-time channel conditions. By jointly optimizing semantic relevance and transmission efficiency, the framework ensures minimal performance degradation under resource constraints. Experimental results demonstrate the…
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Taxonomy
TopicsFerroelectric and Negative Capacitance Devices · Robotics and Automated Systems
