Ultrabroadband and band-selective TMEs by machine learning [Deprecate]

Code and dataset for inverse design of thermal meta-emitters [Deprecate] Publication version: Ultrabroadband and band-selective thermal meta-emitters by machine learning System requirments Dependencies Tensorflow > 2.7.4 Tested Environments Python 3.8, Tensorflow 2.7.4, CUDA 10.1,cuDNN 7.6 Python 3.9, Tensorflow 2.7.4, CPU devices Other softwares Lumerical FDTD and corresponding versions of MATLAB for joint simulation and validation screenin Installation Miniconda (3 mins) conda create -n design python=3.8 conda activate design conda install tensorflow-gpu==2.7.4 spyder Instrucstionas and demo This program does not provide an external API for calling. Adjustments to the target spectral parameters must be made within the script before running. Dataset colletion (~15 mins per model) Run model_generate.m in MATLAB to obtain random photonic structures and material sequences.Run model-generate.lsf in Lumerical FDTD to obtain simulation files for each photonic structure.Run ir_jobcontroller.lsf, vis_jobcontroller.lsf, and export-response.lsf in Lumerical FDTD to obtain the spectral responses for all models. K-S sampling (~120 mins) Run KS-sampling.py to obtain a subset of data with a more uniform spectral distribution. Dimensional reduction (~3 mins) Run autoencoder-respose-mae.py to obtain dimensionality-reduced spectral data.Run autoencoder-onlyparam.py to obtain dimensionality-reduced geometric parameter data.Run autoencoder-onlynk.py to obtain dimensionality-reduced material information.The concatenated dimensionality-reduced information will be used for subsequent training and generation of GANs. GAN (~8 hours) Run generator_pretrain.py to pretrain the generator.Run cgan.py to undergo the lengthy adversarial training process. You can use TensorBoard to monitor the training progress. Generation (TME-1 as demo) Run generat_TME1_MMs.py to obtain 2000 candidate models. Some of these models may have duplicates.