2025 ASEE Annual Conference & Exposition

Work in Progress: Delivering Flexible, Relevant, and Demonstrably Effective Online Education to Working Professionals

Presented at Graduate Education, Artificial Intelligence

Many professional engineers are being called upon to incorporate the latest technologies and associated skill sets into their work (e.g., artificial intelligence). But they have little time or opportunity to obtain such knowledge and skill at the depth required for real-world application. The challenge for continuing education providers is: How to create learning experiences that are both rigorous enough to address working engineers’ practical needs and flexible enough to fit into their busy lives? Furthermore, when online education is the chosen modality, how can we create learning opportunities that are equivalent to in-person – in terms of quality, outcomes, and experience – and that work for cutting-edge technologies requiring physical interaction (e.g., additive manufacturing)?

Our team is focused on one piece of the solution: applying our signature approach, called Learning Engineering, to build online, graduate-level certificates that are targeted to industry needs, efficient and flexible for professional learners, and (most importantly) demonstrably effective and applicable. Learning Engineering has three key elements: (1) leverage learning science research to design effective, engaging instruction; (2) align educational technologies to the needs of the teaching/learning context; and (3) systematically collect learning data to guide ongoing improvement. The resulting online courses are much more than just video with a discussion board or “Zoom in the room;” they enable students to authentically interact with the material, the instructional team, and each other.

In this paper, we illustrate the elements of Learning Engineering in the context of two online courses drawn from different graduate programs and engineering disciplines:
* In biomedical engineering, students learn to modify an off-the-shelf 3D printer, making it 3D-bioprinting-enabled, and propose a novel application of 3D printing – from selecting a material, modifying it to better suit their biomedical application, testing it, and preparing it for FDA approval.
* In mechanical engineering, students use tools of the trade to complete homework and learn-by-doing practice activities where they (a) apply machine learning strategies to real-world problems and (b) implement fundamental machine learning algorithms in Python. We prioritized integrating the programming environment into our Learning Management System, so students can focus on learning the key skills rather than navigating technology hurdles, thereby easing their cognitive load.

In addition to discussing how we apply Learning Engineering in each case, we describe the multi-faceted assessment strategy we are using to compare the outcomes and experience of our online learners to those of matched in-person students. As of now, we have several data sources showing similar quality between online and in-person performance. This is an important part of the work given that each of our graduate certificates is an official university credential and that learners may “stack” a particular sequence of online certificates together to earn a Master’s degree.

Authors
  1. Dr. Marsha Lovett Carnegie Mellon University [biography]
  2. Levent Burak Kara Carnegie Mellon University [biography]
  3. Prof. Rachelle Palchesko Carnegie Mellon University [biography]
  4. Judy Brooks Carnegie Mellon University
  5. Avi Chawla Carnegie Mellon University [biography]
  6. Mr. Martin van Velsen Carnegie Mellon University [biography]
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