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Dart, Sarah; Pickering, Edmund; Dawes, Les – Advances in Engineering Education, 2020
Blended learning is becoming increasingly prevalent in engineering education due to its flexibility and enhanced learning outcomes, however it can face challenges in maintaining student engagement and satisfaction. This study investigates the impact of worked example videos (WEVs) as a blended learning approach within undergraduate engineering,…
Descriptors: Problem Solving, Video Technology, Blended Learning, Undergraduate Students
Saterbak, Ann; Volz, Tracy; Wettergreen, Matthew – Advances in Engineering Education, 2016
Faculty at Rice University are creating instructional resources to support teaching first-year engineering design using a flipped classroom model. This implementation of flipped pedagogy is unusual because content-driven, lecture courses are usually targeted for flipping, not project-based design courses that already incorporate an abundance of…
Descriptors: Engineering Education, Educational Technology, Technology Uses in Education, Teaching Methods
Le Doux, Joseph M.; Waller, Alisha A. – Advances in Engineering Education, 2016
This paper describes the problem-solving studio (PSS) learning environment. PSS was designed to teach students how to solve difficult analytical engineering problems without resorting to rote memorization of algorithms, while at the same time developing their deep conceptual understanding of the course topics. There are several key features of…
Descriptors: Problem Solving, Apprenticeships, Engineering Education, Teaching Methods
Rais-Rohani, Masoud; Walters, Andrew – Advances in Engineering Education, 2014
A lecture-based engineering mechanics course (Statics) is redesigned using the Emporium model. Whereas students study the material outside of class via asynchronous online delivery of the content and instructional videos, they do all the other activities (e.g., assignments, tests) either individually or in groups inside the classroom. Computer-…
Descriptors: Engineering, Engineering Education, Mechanics (Physics), Educational Change
Clark, Renee M.; Besterfield-Sacre, Mary; Budny, Daniel; Bursic, Karen M.; Clark, William W.; Norman, Bryan A.; Parker, Robert S.; Patzer, John F., II; Slaughter, William S. – Advances in Engineering Education, 2016
In the 2013-2014 school year, we implemented the "flipped classroom" as part of an initiative to drive active learning, student engagement and enhanced learning in our school. The flipped courses consisted of freshman through senior engineering classes in introductory programming, statics/mechanics, mechanical design, bio-thermodynamics,…
Descriptors: Engineering Education, Technology Uses in Education, Educational Technology, Homework
Webster, Donald R.; Majerich, David M.; Madden, Amanda G. – Advances in Engineering Education, 2016
A flipped classroom approach was implemented in an undergraduate fluid mechanics course. Students watched short, online video lectures before class, participated in active in-class problem solving sessions (in pairs), and completed individualized online quizzes weekly. In-class activities were designed to develop problem-solving skills and teach…
Descriptors: Mechanics (Physics), Undergraduate Students, Electronic Learning, Multimedia Materials
Velegol, Stephanie Butler; Zappe, Sarah E.; Mahoney, Emily – Advances in Engineering Education, 2015
Engineering students benefit from an active and interactive classroom environment where they can be guided through the problem solving process. Typically faculty members spend class time presenting the technical content required to solve problems, leaving students to apply this knowledge and problem solve on their own at home. There has recently…
Descriptors: Engineering Education, Blended Learning, Educational Technology, Homework
El-Zein, Abbas; Langrish, Tim; Balaam, Nigel – Advances in Engineering Education, 2009
Many engineering schools include computer programming as part of a first-year course taught to large engineering classes. This approach is effective in rationalizing resources and improving the cost-effectiveness of course delivery. In addition, it can lead to wholesale improvements in teaching and learning. However, class sizes and the variety of…
Descriptors: Blended Learning, Engineering Education, Web Based Instruction, Programming