An implementation of a Sparse Denoising Autoencoder (SDAE)-based Deep Neural Network (DNN) for direction finding (DF) of small unmanned aerial vehicles (UAVs). It is motivated by the practical challenges associated with classical DF algorithms such as MUSIC and ESPRIT.
The proposed DF scheme is practical and low-complex in the sense that a phase synchronization mechanism, an antenna calibration mechanism, and the analytical model of the antenna radiation pattern are not essential. Also, the proposed DF method can be implemented using a single-channel RF receiver.
For more details, please see our Arxiv paper.
- Tensorflow (recommended below 1.5)
- Numpy 1.14.4
A partial dataset is provided to demonstrate our method training data : Dround_Data_New/Normalized testing data : Dround_Data_New/Normalized_test
data are categorized according to 45 degree sectors in training/testing data eg : 'deg_0_normalize.csv' data file represent the training data collected from the first sector and like wise there are 8 sectors considered for this study
For more details, please see our paper below.
- DNN_Ground_data_8sectors.py : Implementation without SDAE
- DenoisingAE.py : Implementation of SDAE for training it separately to learn denoising features.
- get_csv_data.py : Data handler
- main.py : combining SDAE with a neural network to perform DOA estimations
If this is useful for your work, please cite our Arxiv paper:
@article{abeywickrama2017rf,
title={RF-Based Direction Finding of UAVs Using DNN},
author={Abeywickrama, Samith and Jayasinghe, Lahiru and Fu, Hua and Yuen, Chau},
journal={arXiv preprint arXiv:1712.01154},
year={2017}
}This is released under the MIT license. For more details, please refer LICENSE.
"Copyright (c) 2018 Lahiru Jayasinghe"