Simulating the invisible: how quantum mechanics models our material world
In short: Explore how researchers use atomistic quantum modeling to predict the behavior of materials at their most fundamental level. This introduction sets the stage for understanding the computational methods that power modern materials science.
Taught by Professor Jeffrey Grossman, this module transitions from general simulation into the specific realm of atomistic quantum modeling. It provides a foundational overview of the history of quantum mechanics and introduces core mathematical frameworks like the Schrödinger equation and density functional theory.
The course highlights how these complex models are applied to real-world challenges, such as developing new materials for energy storage. By mastering these methods, scientists can simulate material properties that are otherwise impossible to observe directly.
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Sources
- Summary by Intellect · source: 0. Introduction to Part II: Quantum mechanical methods
- Also: Lecture 0: Introduction to Part II: Quantum Mechanical Methods | MIT Learn
- Also: ocw.mit.edu — Lecture 0: Introduction to Part II: Quantum Mechanical Methods | Introduction to Modeling and Simulation | Materials Science and Engineering | MIT OpenCourseWare
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