Generative AI for Robust Communication and Efficient Networking

Overview

Generative AI is rapidly reshaping the future of communication by enabling systems to automatically and intelligently produce content in a variety of formats, from natural language text to rich multimedia outputs. By leveraging deep learning models and sophisticated pattern recognition, generative AI can synthesize information with remarkable speed and accuracy, leading to more efficient message delivery and reduced human oversight. This approach not only fosters novel ways of expressing ideas but also enhances the robustness of information exchange through context-aware error correction and personalized adaptation. In domains ranging from customer service and content creation to scientific collaboration and real-time translation, generative AI provides scalable and flexible tools to meet diverse communication needs. As research continues to advance in areas such as transformer architectures and reinforcement learning, generative AI holds the potential to further revolutionize how we interact, share knowledge, and collaborate across global networks.

Under this project, we introduce LoRaFlow, a novel approach that leverages advanced generative modeling techniques, specifically diffusion transformers and rectified flow, to perfectly reconstruct the original LoRa signal from noisy inputs (see Figure 1), thereby enhancing LoRa signal demodulation. The key components of the LoRaFlow framework include a neural signal enhancement module seamlessly integrated with existing LoRa infrastructure as shown in Figure 2 that that can be summarized into three main components: Signal Reception and Initial Processing, LoRaFlow Signal Denoising, and Standard Demodulation. LoRaFlow offers several advantages: the ability to recover high-fidelity signals under extremely low SNR conditions, compatibility with existing LoRa systems, and minimal hardware changes. This method has the potential to extend the range and reliability of LoRa networks, thereby improving overall communication performance in IoT deployments. 

 

People

Faculty

PhD Students

  • Mohamed Osman
  • Mohammed Ayyat
  • Mohamed Kamel

Publications

  • LoRaFlow: High-Quality Signal Reconstruction using Rectified Flow (under submission)

Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation.