SDL Materials Design presents

Machine Learning for Materials Science

Date: October 21 - 23, 2024, 9.00 am - 01.00 pm; Format: online

Short abstract:

Data Science and Machine Learning are seen as the “Forth Paradigm” in Materials Science and are reshaping the research direction in many areas. In this training,  the students/participants will gain an overview and obtain hand-on experience on the most relevant machine learning algorithms for theoretical simulations, experimental characterization, and in general statistical analysis in materials science. The participants will work with established packages within Python to develop their own simple machine learning based programs, and are going to tackle a challenging project. Though exemplary datasets, the participants will practice to apply appropriate methods to basic materials science problems, in particular Machine Learning assisted image segmentation, Machine-learning interatomic potentials, microstructure-property correlation analysis, and data-driven multiscale modeling.

Picture source.

 

 

Language: English

Capacity: 300

Requirement:  On day 2 and 3, own laptop with working Google Collab account/ Jupyternotebook installed.  A python installation with tensorflow, scikit-learn, ase, dscribe, and pacemaker

Further information: This training is organized in cooperation with the CRC FLAIR 1548 FLAIR – Start – FLAIR – TU Darmstadt and GRK 2561 MatCom-ComMat IAM – WerkstoffkundeKooperationen – GRK 2561.

Registration

 

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Agenda

October 21, 2024, Day 1, 9.00 am – 1.00 pm

9:00     Motivation and examples of machine learning (ML) in material science (MS)

10:00     Break

10:15     Fundamental of machine learning, shallow learning vs. deep learning (DL),

convolutional neural network (CNN)

11:15     Break

11:30     Gaussian process (GP), Bayesian optimization (BO), microstructure descriptors

12:45     Q&A and feedback round

 

 

 

 

October 23, 2024, Day 3, 9.00 am – 1.00 pm 

09:00      Motivation: Why do we need machine-learning in atomic simulations?

09:15      Introduction to atomic descriptors for machine learning on the atomic level

10:00      Break

10:15      Hands-on Tutorial: Make your own machine-learning model for NMR Shifts

11:00      Break

11:15      Machine Learning Potential: How to generate a database?

11:30      The Atomic Cluster Expansion: How to fit a potential?

12:45      Short feedback round

 

October 22, 2024, Day 2, 9.00 am – 1.00 pm

9:00      Introduction to Google Colab

9:15      Short refresher on Python and Introduction to PyTorch

9:50      Break

10:00      Fitting the Sine function with a polynomial: by NumPy arrays, PyTorch tensors,

Neural Network (NN) and Autograd from PyTorch

11:00      Break

11:10      Convolutional Neural Network (CNN) for predicting thermal conductivity of composites

12:00      Break

12:10      Gaussian Process (GP) and Bayesian Optimization (BO)

12:55      Q&A and short feedback round

Contact person

Aditi Mohadarkar

TU Darmstadt

Vasilios Karanikolas

TU Darmstadt

Prof. Dr. Bai-Xiang Xu

TU Darmstadt

Prof. Dr. Karsten Albe

TU Darmstadt