Prediction-Powered Communication with Distortion Guarantees
Journal article, 2026

The development of 6G wireless systems is taking place alongside the development of increasingly intelligent wireless devices and network nodes. The changing technological landscape is motivating a rethinking of classical Shannon information theory that emphasizes semantic and task-oriented paradigms. In this paper, we study a prediction-powered communication setting, in which devices, equipped with artificial intelligence (AI)-based predictors, communicate under zero-delay constraints with strict distortion guarantees. Two classes of distortion measures are considered: (i) outage-based metrics, suitable for tasks tolerating occasional packet losses, such as real-time control or monitoring; and (ii) bounded distortion metrics, relevant to semantic-rich tasks like text or video transmission. We propose two zero-delay compression algorithms leveraging online conformal prediction to provide per-sequence guarantees on the distortion of reconstructed sequences over error-free and packet-erasure channels with feedback. For erasure channels, we introduce a doubly-adaptive conformal update to compensate for channel-induced errors and derive sufficient conditions on erasure statistics to ensure distortion constraints. Experiments on semantic text compression validate the approach, showing significant bit rate reductions while strictly meeting distortion guarantees compared to state-of-the-art prediction-powered compression methods.

Data compression

Machine learning

Neural network compression

Rate-distortion

Prediction methods

Ultra reliable low latency communication

Author

Matteo Zecchin

King's College London

EURECOM

Unnikrishnan Kunnath Ganesan

Ericsson

Giuseppe Durisi

Chalmers, Electrical Engineering, Communication, Antennas and Optical Networks

Petar Popovski

Aalborg University

Osvaldo Simeone

King's College London

Northeastern University

IEEE Journal on Selected Areas in Information Theory

26418770 (eISSN)

Vol. In Press

Subject Categories (SSIF 2025)

Computer Sciences

DOI

10.1109/JSAIT.2026.3668947

More information

Latest update

3/12/2026