RadioDiff-FS: Physics-Informed Manifold Alignment in Few-Shot Diffusion Models for High-Fidelity Radio Map Construction
Base BackBone, Paper Link: RadioDiff, Code Link: GitHub, IEEE TCCN, 2025
PINN Enhanced with Helmholtz Equation, Paper Link: RadioDiff-$k^2$, Code Link: GitHub, IEEE JSAC, 2026
Efficiency Enhanced RadioDiff, Paper Link: RadioDiff-Turbo, IEEE INFOCOM wksp, 2025
Dynamic Environment or BS Location Change, Paper Link: RadioDiff-Flux, IEEE TCCN, 2026
Few-Shot Learning, Paper Link: RadioDiff-FS, Code Link: GitHub
Indoor RM Construction with Physical Information, Paper Link: iRadioDiff, Code Link: GitHub, IEEE ICC, 2026
3D RM with DataSet, Paper Link: RadioDiff-3D, Code Link: GitHub, IEEE TNSE, 2025
Sparse Measurement for RM ISAC, Paper Link: RadioDiff-Inverse, IEEE TWC, 2026
Sparse Measurement for NLoS Localization, Paper Link: RadioDiff-Loc
For more RM information, please visit the repo of Awesome-Radio-Map-Categorized
- install torch
conda create -n radiodiff python=3.9
conda avtivate radiodiff
pip install torch==1.12.1+cu113 torchvision==0.13.1+cu113 torchaudio==0.12.1 --extra-index-url https://download.pytorch.org/whl/cu113
- install other packages.
pip install -r requirement.txt
- prepare accelerate config.
accelerate config # HOW MANY GPUs YOU WANG TO USE.
We used the RadioMapSeer dataset for model training and testing.
- The data structure should look like:
|-- $RadioMapSeer
| |-- gain
| |-- |-- carsDPM
| |-- |-- |-- XXX_XX.PNG
| |-- |-- |-- XXX_XX.PNG
| ...
| |-- png
| |-- |-- buildings_complete
| |-- |-- |-- XXX_XX.PNG
| |-- |-- |-- XXX_XX.PNG
| ...
- train the first stage model (AutoEncoder):
accelerate launch train_vae.py --cfg ./configs/first_radio.yaml
- train latent diffusion-edge model:
accelerate launch train_cond_ldm.py --cfg ./configs/radio_train.yaml
- fine-tune the pretrained model on IRT4 few-shot data:
accelerate launch train_cond_ldm_finetune.py --cfg ./configs/radio_train_irt4_finetune.yaml
python sample_cond_ldm.py --cfg ./configs/radio_test_finetune.yaml