Computational materials modeling: Fast-tracking materials design - - PowerPoint PPT Presentation

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Computational materials modeling: Fast-tracking materials design - - PowerPoint PPT Presentation

McGill University Faculty of Engineering Mining & Materials Engr. Computational materials modeling: Fast-tracking materials design Jun Song 1 The University of Michigan Structural Dynamics Laboratory McGill University Faculty of


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The University of Michigan Structural Dynamics Laboratory McGill University Faculty of Engineering

Faculty of Engineering

McGill University

Mining & Materials Engr.

Computational materials modeling:

Fast-tracking materials design

Jun Song

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The University of Michigan Structural Dynamics Laboratory McGill University Faculty of Engineering

Faculty of Engineering

  • Associated with
  • 8 Nobel laureates
  • 2 Canadian prime ministers
  • 128 Rhodes Scholars
  • Ranked 17th in the QS World Universities ranking
  • Named Canada’s top medical-doctoral university in

Maclean's magazine's 2011 University Rankings issue

  • Students have the high average entering grades of any

Canadian university at 88.9%.

  • International students comprise 19% of McGill’s student

body, making it the most diverse in Canada.

  • Graduate students make up 22% of McGill’s 35,531

students, the highest proportion among Canada’s top ten research universities.

McGill University at a Glance

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McGill University Faculty of Engineering

Faculty of Engineering

McGill Engineering

Over 1000 Graduate Students

Photonic Systems Group

Departments

  • Chemical Engineering
  • Civil Engineering
  • Electrical & Computer Engineering
  • Mechanical Engineering
  • Mining & Materials Engineering
  • Bioengineering (launched May 2012)

Schools

  • Architecture
  • Urban Planning

Institutes

  • McGill Institute for Advanced Materials
  • McGill Institute for Aerospace Engr.
  • Institute for Sustainability in Engr. & Design

 WE ARE COMMITTED TO

  • Producing self-reliant engineers who will become the leaders of tomorrow
  • Defining the path of future discovery in engr. and technological research
  • Making innovative, socially responsible contributions to the engr.

community and society at large

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McGill University Faculty of Engineering

Faculty of Engineering

Strategic research areas

Aerospace Engineering Engineering and Design for Sustainability Broadband Communications Advanced materials and nanotechnology Bioengineering

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McGill University Faculty of Engineering

Faculty of Engineering

Mining & Materials Engr.

  • Prof. Stephen Yue, Department chair

Director of McGill Institute for Aerospace Engr.

Materials Engineering

  • In conjunction with Mining Engineering
  • The oldest Materials Engineering department in Canada

Traditional strength in materials processing Classical Metallurgy: one of the very few in North America

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McGill University Faculty of Engineering

Faculty of Engineering

Materials Engineering Programs

Undergraduate Program

 International reputation in Materials Engineering, particularly in materials processing  Laboratory ‘intensive’ education  Materials Co-op program (1yr industrial experience)

Graduate Program

 100 graduate students  Graduate programs leading to M.Eng., M.Sc. and Ph.D. research

 Mandatory, integrated into curriculum, allows students to acquire valuable work experience through 3 semesters of industrial training (6 credits)  The program design includes one 4-month (January - April) and one 8- month (May - December) work term in industrial field work.

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McGill University Faculty of Engineering

Faculty of Engineering

Research in Materials Engineering:

 Mineral Processing  Hydrometallurgy and Pyrometallurgy  Metal Processing and Process Engineering  Texture and Microstructure  Electron Microscopy  Automotive and Aerospace Materials  Thermodynamic and materials Modelling  Nanomaterials  Biomaterials

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McGill University Faculty of Engineering

Faculty of Engineering

Relevance to Today’s Research and Education

 Increasing capacity of computational modeling  Cost and time efficient  Complement experimental approaches

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 Necessity in curriculum

Computational Materials Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

Computational Expertise in Materials Engr. at McGill

 Computational thermodynamic modeling – Prof. In-Ho Jung  Electronic Materials Modeling (DFT) – Prof. Kirk Bevan  Atomistics based multi-sicale modeling – Prof. Jun Song

Current courses with computational components

 Undergraduate level

  • Mathematical Applications

 Graduate level

  • Computational Thermodynamics
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Computational Materials Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

Close collaboration with industry for process

  • ptimization and new materials design

 Thermodynamic modeling

  • Oxides (ferrous/non-ferrous extractive); light alloys (Mg, Al);
  • Recycling of RE magnet

 Phase diagram measurement  Process simulations  Development of FactSage software

In-Ho Jung, PhD (2003) École Polytechnique de Montréal Assistant Professor, Hatch Faculty Fellow

(SiO2)

weight fraction

1 6 1500 1 5 1400 1400 1350

weight fraction weight fraction weight fraction

1300

weight fraction weight fraction weight fraction weight fraction weight fraction weight fraction

1 2 5 1 3

weight fraction

1270

weight fraction weight fraction weight fraction weight fraction CaSiO3 Anor

1 3

weight fraction weight fraction weight fraction weight fraction weight fraction weight fraction

1550

weight fraction

1600

Melilite Spinel Olivine Ca2SiO4 Clino-py Clino-py

1353 1353 1354 1664 1659

weight fraction weight fraction weight fraction weight fraction weight fraction

1300 1450 1 6 1600 1330 1362 1365

weight fraction weight fraction

1 8

weight fraction weight fraction weight fraction

2 2

weight fraction

2 4

weight fraction

2 6

MgO(Mono) CaO(mono)

1490 1440 1235

Cristo

1645 1676 1444 1275 1272 1256 1465 1536

Tridy

1662 1560

Mull

1465

(CaO) (MgO)

2000 1 5

5 10 15 20 25 30 35 40 45 50 55 60 65 70 75 80 80 75 70 65 60 55 50 45 40 35 30 25 20 15 10 5 80 75 70 65 60 55 50 45 40 35 30 25 20 15 10 5

Thermodynamic modeling

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Computational Thermodynamic Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

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Electronic Materials Modeling – DFT

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McGill University Faculty of Engineering

Faculty of Engineering

Assistant Professor at McGill since 2011 PhD (2008) Princeton University Post-doc (2008-11) Brown University

Research interests

  • Multi-scale modeling
  • f embrittlement in

metals

  • Nanoscale adhesion/

contact mechanics

  • Dynamics and

mechanics of dislocations

  • Strengthening and

failure mechanisms in metals & alloys

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Atomistics based Multi-scale Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

New undergraduate course

 Title: Computational materials modeling

  • Starting on fall 2012
  • In the process of being integrated as a core course in

undergraduate curriculum (expected on fall 2013)

 Objective*

  • Convey the fundamental methods and concepts

applicable to materials modeling and computational materials design

  • Help students be familiar with various simulation tools

and “bottom-up” computational design approach

*The course is intended for materials engineering students with no background in

numerical methods.

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Computational Materials Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

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New undergraduate course

 Syllabus

  • Introduction (3 weeks)
  • Basics of quantum mechanics and solid-state

physics

  • Bonding and structure in materials
  • Concepts of different modeling techniques in

materials engineering and examples of applications

  • Density functional theory (4 weeks)
  • Midterm review + exam (1 week)

Computational Materials Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

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New undergraduate course

 Syllabus (continued)

  • Molecular dynamics (4 weeks)
  • Brief intro to phase field method (1-2 weeks)
  • Computational thermodynamics (2 weeks)
  • Term project (2 weeks)

 Notes

  • Minimized coding/programming requirements
  • Implement small simulation modules
  • Projects

 individual projects + term project

Computational Materials Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

High-level courses for senior UG and graduates

 Existed course

Computational Thermodynamics by In-Ho Jung

 Courses coming soon

Computer simulations of defects in solids by Jun Song Density functional theory and electronic structure by Kirk Bevan

Other relevant courses

Numerical methods in materials modeling (expected 2013)

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Computational Materials Modeling

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McGill University Faculty of Engineering

Faculty of Engineering

Mining & Materials Engr.

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Questions?