YoVDO

Modelling Physical Phenomena in Alloys and Polymers with Quantum Mechanical Accuracy

Offered By: Cambridge Materials via YouTube

Tags

Materials Science Courses Quantum Mechanics Courses Active Learning Courses Polymers Courses

Course Description

Overview

Save Big on Coursera Plus. 7,000+ courses at $160 off. Limited Time Only!
Explore a Lennard-Jones Centre discussion group seminar on data-driven interatomic potentials and their applications in modelling physical phenomena in alloys and polymers. Delve into the Atomic Cluster Expansion (ACE) framework, which enables quantum mechanical accuracy at reduced evaluation times. Learn about Hyperactive Learning (HAL), a method for rapidly building ACE potentials from scratch. Discover how these techniques are applied to determine polymer density and predict alloy phase transitions, providing insights into precipitate formation and chemical ordering in alloys. Gain understanding of linear regression, Bayesian linear regression, and the comparison between hyperactive learning and active learning. Examine case studies involving longer molecules, titanium, and tungsten, concluding with a comprehensive summary of the seminar's key points.

Syllabus

Introduction
Linear regression
Bayesian linear regression
Hyperactive learning
Hyperactive learning vs active learning
Longer molecules
Alloys
Ace model
Nested sampling
Titanium
Tungsten
Summary


Taught by

Cambridge Materials

Related Courses

Quantum Mechanics and Quantum Computation
edX
Introduction to Astronomy
Duke University via Coursera
Exploring Quantum Physics
University of Maryland, College Park via Coursera
La visione del mondo della Relatività e della Meccanica Quantistica
Sapienza University of Rome via Coursera
Classical Mechanics
Massachusetts Institute of Technology via edX