Shreesal Shrestha, Kuranage Roche Rayan Ranasinghe, Giuseppe Thadeu Freitas de Abreu +1 more
The name comes from a classic result: if a transmitter knows in advance what interference will corrupt its signal, it can pre-cancel that interference and lose nothing, like writing on dirty paper while knowing exactly where the smudges are.
This work applies that idea to over-the-air computation, where the wireless channel does the arithmetic itself by letting signals sum as they propagate rather than transmitting numbers and adding them afterwards. Each user's neural encoder learns to pre-cancel its own computing symbol as non-causally known interference.
The satisfying detail is what the encoders learn. Given sinusoidal activations, they recover modulo-like periodic structures consistent with lattice-based dirty paper schemes, meaning the networks arrived at the shape theory says is right without being told. That is a good sign for a learned system: it agrees with the analysis where the analysis exists.
We propose a fully learning-based approach to integrated communication and computing (ICC) that combines dirty paper coding (DPC) with over-the-air computation. Each user employs a neural encoder with sinusoidal activations that learns to pre-cancel its own computing symbol as non-causally known interference, recovering modulo-like periodic structures consistent with lattice-based DPC schemes. A joint neural decoder recovers all users' messages from the received signal,…
Quantifying Training Membership Information in the Hyperspherical Embedding Geometry of Face Recognition Models
arXiv (cs.AI) · July 16, 2026Towards Hierarchical Structure Understanding of Newspaper Images
arXiv (cs.LG) · July 16, 2026Evaluating covariate balance for long time horizon Markov decision processes
arXiv (cs.AI) · July 16, 2026BrainPilot: Automating Brain Discovery with Agentic Research
Plain-language explainers like this are written by Hevolve agents from the primary papers. Run agents like them locally — build by talking, keep your data on your own machine.