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Certificate in AI & Machine Learning for Engineering

The Graduate Certificate in Artificial Intelligence and Machine Learning for Engineering equips engineers to use modern data-driven AI and ML methods.

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Program features

Flexible learning options

This program is offered mostly asynchronously. It can be completed fully online, part-time, in 9 months.

Application-focused

Learn how to apply modern AI and ML methods, particularly for applications with physical constraints, such as manufacturing, chemical processes, or robotics.

Stackable towards a master’s degree

You can complete the certificate independently or combine it with another eligible certificate to obtain the Master of Science in AI & Machine Learning for Engineering.

Cost

$18,000 (estimated)

Explore the certificate

This certificate is designed for engineers who want to apply modern AI and ML methods to their field, particularly for applications with physical constraints, such as manufacturing, chemical processes, or robotics. Students will advance their careers by building on their traditional engineering expertise and learn how to apply data-driven techniques to engineering use cases.

Not sure which program is right for you? Visit our AI/ML graduate programs at a glance.

Implement and evaluate AI & ML methods: choose and implement the appropriate AI and ML methods for specific engineering applications, and learn how to evaluate the results of using these methods.

Build foundational AI & ML skills: strengthen math and coding skills, creating a foundation that enables you to adapt to changing AI and ML tools throughout your career.

Communicate methods and results: practice and receive feedback on communicating your work using data visualization, verbal presentations, and written reports.

Designed for working engineers looking to enhance their skills or advance their careers, stacked degrees offer a flexible, strategic pathway with industry application in mind.

Students begin by enrolling in a stackable graduate certificate, then "stack" additional graduate certificates, and an applied capstone project to earn a master's degree.

The Certificate in AI and Machine Learning for Engineering is a key component of the Master of Science in AI & Machine Learning for Engineering.

All stackable certificates are available part-time.

The Graduate Certificate in Artificial Intelligence and Machine Learning for Engineering is an online 16-credit graduate certificate. It includes:

  • 5-credit foundations course
  • 4-credit math course
  • 3-credit physics-informed machine learning course
  • 2-credit AI & machine learning project
  • 2 credits of seminar or electives

Except for the electives, these courses are designed in a modular format, combining required modules, core modules, and elective modules. This structure allows students to specialize in techniques based on their initial skill level and engineering discipline.

Course examples

Foundations of Machine Learning for Engineering: The first course in the certificate builds foundational skills for using artificial intelligence and machine learning techniques in engineering. This includes mathematical and coding skills, an introduction to types of artificial intelligence and machine learning algorithms, and an overview of how artificial intelligence and machine learning can be applied to engineering applications. Also includes a brief introduction to ethics in AI. This is a required course. Offered in Fall. 5 credits.

Data-Driven Optimization: Applied optimization is the backbone of modern data-driven modeling and machine learning. This course covers optimization techniques used across modern engineering, including in machine learning and control theory. This course covers both optimization fundamentals and deep-dives into relevant topics, such as convex vs. nonconvex optimization, constrained optimization, high-dimensional and stochastic techniques for big data, and computational techniques. This course satisfies the certificate math requirement. Offered in Winter. 4 credits.

Physics-Informed Machine Learning: This course covers core machine learning algorithms as they apply to scientific and engineering problem solving. Examples include how to enforce known, or partially known physics into machine learning algorithms and how to discover new physics with machine learning. Topics include physics-informed neural networks, digital twins, interpretable and generalizable models, and reinforcement learning. Coursework includes case studies that incorporates skills learned throughout the certificate. This is a required course. Offered in Spring. 3 credits.

Machine Learning for Engineering Project: This course covers core provides students the opportunity to apply skills learned during previous graduate work in our program. Students practice end-to-end implementation of learned methods to solve intermediate and advanced problems and evaluate their work from the perspectives of efficacy, accuracy, safety, and ethics. This is a required course. Offered in Spring. 2 credits.

Admission and cost

Featured faculty

Steve Brunton

Professor, Mechanical Engineering
Adjunct Professor, Applied Mathematics

Steve Brunton is a Professor of Mechanical Engineering at the University of Washington. He serves as the Director of the NSF AI Institute in Dynamic Systems and is a Data Science Fellow at the eScience Institute. His research combines techniques in dimensionality reduction, sparse sensing, and machine learning for data-driven discovery and control of complex dynamical systems. Additionally, he develops adaptive controllers using machine learning within an equation-free framework. His work spans applications in many different fields.

Read more about Steve
Steve Brunton

Gian-Gabriel Palaci Garcia

Assistant Professor
Department of Industrial & Systems Engineering

Gian-Gabriel Garcia is an Assistant Professor of Industrial & Systems Engineering (ISE) at the University of Washington. His research interests are in the design, analysis, and optimization of data-driven frameworks at the intersection of optimization, machine learning, and artificial intelligence. His work is motivated by high-impact problems in medical decision-making, health policy, and healthcare operations. This work draws applications from many areas of healthcare, including concussion, cardiovascular disease, diabetes, maternal health, pediatric health, mental health, the opioid crisis, and surgical scheduling.

Read more about Gian-Gabriel
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Michelle Hickner

Assistant Teaching Professor,
Department of Mechanical Engineering

Michelle Hickner is an Assistant Professor in Mechanical Engineering at the University of Washington. She has served in a variety of teaching roles at the University of Washington, focusing on hands-on and experiential learning. Her scholarly interests include engineering education, sensing and control in animal flight, and data-driven system identification. Her past work has included running the UW mechanical engineering composite shop, and research and development of devices for airborne particle handling.

Read more about Michelle
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Stefania Fresca

Assistant Professor
Department of Mechanical Engineering

Stefania Fresca is an Assistant Professor in Physics-based AI at the Department of Mechanical Engineering, University of Washington. She is also a visiting Professor at the Department of Computer Science at the University of Cambridge. Her research interests and expertise include scientific machine learning, reduced-order modeling, digital twins, structure-preserving neural networks, multiscale deep learning, and numerical approximation of PDEs, with several applications in engineering.

Read more about Stefania
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This program was developed with funding support from The Boeing Company.

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