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Dr. Surya Kalidindi

This course aims to provide a succinct overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science. Attention is drawn to specific opportunities afforded by this new field in accelerating materials development and deployment efforts. A particular emphasis is placed on materials exhibiting hierarchical internal structures spanning multiple length/structure scales and the impediments involved in establishing invertible process-structure-property (PSP) linkages for these materials. More specifically, it is argued that modern data sciences (including advanced statistics, dimensionality reduction, and formulation of metamodels) and innovative cyberinfrastructure tools (including integration platforms, databases, and customized tools for enhancement of collaborations among cross-disciplinary team members) are likely to play a critical and pivotal role in addressing the above challenges.

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What's inside

Syllabus

Welcome
What you should know before you start the course
Accelerating Materials Development and Deployment
• Learn and appreciate historical paradigms of advanced materials development while emphasizing the critical need for new approaches that employ data sciences and informatics as the glue to connect computational simulation and experiments to speed up the processes of materials discovery and development. • Learn about the emergence of key national and international 21st century initiatives in accelerated materials discovery and development and how they are expected to bring about a disruptive transformation of new product capabilities and time to market.
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Materials Knowledge and Materials Data Science
• Understand property, structure and process spaces • Learn about Process-Structure-Property Linkages • Learn what does Materials Knowledge mean • Learn about a role of Data Science in Materials Knowledge System • Overview approaches and main components of Data Science • Learn about a new discipline - Materials Data Sciences
Materials Knowledge Improvement Cycles
• Learn material structure and its digital representation • Learn how to calculate 2-point statistics • Learn how Principal Component Analysis can be used to reduce dimensionality • Understand Homogenization and Localization concepts
Case Study in Homogenization: Plastic Properties of Two-Phase Composites
This module demonstrates a homogenization problem based on an example of two-phase composites
Materials Innovation Cyberinfrastructure and Integrated Workflows
• Learn about materials innovation system and cyberinfrastructure • Review Materials Databases, e-collaboration platforms and code repositories • Learn why integrated workflows are needed • Define Metadata, Structured and Unstructured data • Learn about available services for e-collaborations

Good to know

Know what's good
, what to watch for
, and possible dealbreakers
Suitable for individuals interested in understanding the intersection of materials science, computational science, and information science
Introduces key national and international initiatives in accelerated materials discovery and development, highlighting the potential for disruptive transformation
Involves instructors who are recognized for the course's core topics
Explores the role of data science in understanding materials knowledge systems
Develops an understanding of process-structure-property linkages, emphasizing the challenges and potential solutions
Utilizes case studies to demonstrate practical applications of the concepts, enhancing understanding

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Reviews summary

Informative and insightful materials data science course

Learners say that this intermediate to advanced course provides a solid foundation in materials data sciences and informatics.

Many positive reviews describe the engaging assignments and the well-presented lectures. Reviews mention how this course helps students bridge the gap between materials science and data science, covering topics such as data analysis, machine learning, and the use of computational tools like PyMKS. The knowledgeable instructor is also praised for their clear explanations and enthusiasm for the subject.
Students appreciate the course's engaging and informative content.
"Excellent presentation and content"
"Very informative course"
"This course is very informative and relevant"
Some students wish there was more emphasis on hands-on practice with software like PyMKS throughout the course.
"The course is great but sometimes it was entirely too wordy."
"Good theory lessons."
"The installation procedure could have been updated"
The course may be challenging for beginners or those without a background in statistics, computation, or materials science.
"This course is a little hard to understand."
"Pretty difficult for a beginner / Undergraduate"
"You require a good knowledge of statistics, computation, and material science to make it through it."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Materials Data Sciences and Informatics with these activities:
Review Linear Algebra and Statistics
Linear algebra and statistics are essential tools in materials informatics. Reviewing these concepts will strengthen your mathematical foundation and improve your understanding of the course material.
Browse courses on Linear Algebra
Show steps
  • Identify online resources or textbooks that cover linear algebra and statistics.
  • Review the basics of each subject.
  • Solve practice problems to test your understanding.
Review Book: Materials Science and Engineering: An Introduction
This book provides a solid foundation in materials science, covering essential concepts and principles that will be encountered throughout the course. Reviewing it will strengthen your understanding of the subject matter.
Show steps
  • Read the first three chapters of the book.
  • Complete the practice problems at the end of each chapter.
  • Summarize the key concepts covered in each chapter.
Form a Study Group with Classmates
Forming a study group with classmates will provide you with a collaborative environment to discuss course material, ask questions, and prepare for assessments.
Show steps
  • Identify classmates who are interested in forming a study group.
  • Set a regular time and place to meet.
  • Prepare an agenda for each meeting to ensure focused discussions.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Practice Process-Structure-Property (PSP) Linkages Problems
Solving PSP linkages problems will strengthen your ability to analyze and understand the relationships between material processing, structure, and properties.
Show steps
  • Identify a simple PSP linkage problem.
  • Gather the necessary data and information.
  • Apply the appropriate analysis techniques.
  • Interpret the results and draw conclusions.
Create a Presentation on a Materials Informatics Application
By researching and presenting a specific application of materials informatics, you will gain a deeper understanding of how this field is used in practice.
Browse courses on Materials Informatics
Show steps
  • Choose an application of materials informatics that interests you.
  • Research the application and gather relevant information.
  • Create a presentation that clearly explains the application and its benefits.
Follow Tutorials on Using Materials Data Science Tools
By following tutorials on using materials data science tools, you will develop practical skills in handling and analyzing materials data.
Show steps
  • Identify a reputable source for materials data science tutorials.
  • Select a tutorial that aligns with your interests and needs.
  • Follow the tutorial step-by-step and complete the exercises.
Compile and Review Course Materials
Regularly compiling and reviewing course materials will reinforce your understanding of key concepts and help you stay organized.
Show steps
  • Gather all lecture notes, slides, and assignments.
  • Organize the materials in a logical manner.
  • Review the materials regularly to identify areas that need additional attention.

Career center

Learners who complete Materials Data Sciences and Informatics will develop knowledge and skills that may be useful to these careers:
Materials Informatics Engineer
A Materials Informatics Engineer develops and uses computational tools to analyze and interpret materials data. This course is a perfect fit for Materials Informatics Engineers as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Materials Data Scientist
A Materials Data Scientist collects, analyzes, and interprets materials data to identify trends and patterns. This course is a perfect fit for Materials Data Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Data Scientist
A Data Scientist collects, analyzes, and interprets data to identify trends and patterns. This course may be useful for Data Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Statistician
A Statistician collects, analyzes, and interprets data to identify trends and patterns. This course may be useful for Statisticians as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Information Scientist
An Information Scientist collects, analyzes, and interprets information to identify trends and patterns. This course may be useful for Information Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Computational Materials Scientist
A Computational Materials Scientist uses computer simulations to study the properties of materials. This course may be useful for Computational Materials Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Data Engineer
A Data Engineer builds and maintains data pipelines for organizations. This course may be useful for Data Engineers as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Computer Scientist
A Computer Scientist researches, designs, and develops computer systems and applications. This course may be useful for Computer Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Materials Scientist
A Materials Scientist researches, develops, and tests new materials for use in a variety of products, including electronics, aerospace components, and medical devices. This course may be useful for Materials Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Materials Engineer
A Materials Engineer designs and develops new materials for use in a variety of products, including electronics, aerospace components, and medical devices. This course may be useful for Materials Engineers as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Materials Characterization Scientist
A Materials Characterization Scientist uses a variety of techniques to characterize the properties of materials. This course may be useful for Materials Characterization Scientists as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Operations Research Analyst
An Operations Research Analyst uses mathematical and statistical techniques to solve problems in business and industry. This course may be useful for Operations Research Analysts as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Data Architect
A Data Architect designs and develops data architectures for organizations. This course may be useful for Data Architects as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Software Engineer
A Software Engineer designs, develops, and maintains software applications. This course may be useful for Software Engineers as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.
Database Administrator
A Database Administrator manages and maintains databases for organizations. This course may be useful for Database Administrators as it provides an overview of the emerging discipline of Materials Informatics at the intersection of materials science, computational science, and information science.

Reading list

We've selected nine books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Materials Data Sciences and Informatics.
Provides a practical guide to using data science techniques to solve problems in materials science. It covers topics such as data mining, machine learning, and artificial intelligence. It valuable resource for anyone interested in using data science to accelerate materials discovery and development.
Provides a comprehensive overview of the field of materials science and engineering. It covers topics such as the structure of materials, the properties of materials, and the processing of materials. It valuable resource for anyone interested in learning more about the field of materials science and engineering.
Provides an overview of statistical methods for materials science. It covers topics such as data acquisition, processing, analysis, and modeling. It valuable resource for researchers and practitioners in this field.
Provides an overview of the field of materials science and engineering. It covers topics such as data acquisition, processing, analysis, and modeling. It valuable resource for researchers and practitioners in this field.
Provides an overview of the field of materials science and engineering. It covers topics such as data acquisition, processing, analysis, and modeling. It valuable resource for researchers and practitioners in this field.
Provides an overview of the field of materials science and engineering. It covers topics such as data acquisition, processing, analysis, and modeling. It valuable resource for researchers and practitioners in this field.

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