Advances in Wireless Communication and Sensing

The field of wireless communication and sensing is rapidly evolving, with a focus on developing innovative solutions for accurate radio map construction, indoor localization, and environment-aware communication systems. Recent research has explored the use of machine learning and deep learning techniques to improve the accuracy of radio map construction and wireless channel prediction. Additionally, there has been a growing interest in developing flexible and scalable solutions for multi-robot systems and optical wireless communication networks.

Noteworthy papers in this area include RadioDiff-Inverse, which proposes a diffusion-enhanced Bayesian inverse estimation framework for radio map construction, and NeRF-APT, which presents a novel NeRF framework for wireless channel prediction. FERMI is also noteworthy as it introduces a flexible radio mapping framework that combines physics-based modeling with a neural network to capture environmental interactions with radio signals.

Sources

An Addendum to NeBula: Towards Extending TEAM CoSTAR's Solution to Larger Scale Environments

RadioDiff-Inverse: Diffusion Enhanced Bayesian Inverse Estimation for ISAC Radio Map Construction

MILUV: A Multi-UAV Indoor Localization dataset with UWB and Vision

FERMI: Flexible Radio Mapping with a Hybrid Propagation Model and Scalable Autonomous Data Collection

Validation of 3GPP TR 38.901 Indoor Hotspot Path Loss Model Based on Measurements Conducted at 6.75, 16.95, 28, and 73 GHz for 6G and Beyond

RadioDiff-$k^2$: Helmholtz Equation Informed Generative Diffusion Model for Multi-Path Aware Radio Map Construction

NeRF-APT: A New NeRF Framework for Wireless Channel Prediction

LiDAL-Assisted RLNC-NOMA in OWC Systems

A Statistical Evaluation of Indoor LoRaWAN Environment-Aware Propagation for 6G: MLR, ANOVA, and Residual Distribution Analysis

Antenna Near-Field Reconstruction from Far-Field Data Using Convolutional Neural Networks

Lessons from Deploying Learning-based CSI Localization on a Large-Scale ISAC Platform

DTECM: Digital Twin Enabled Channel Measurement and Modeling in Terahertz Urban Macrocell

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