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Gorbett, Luke J.; Chapamn, Kayla E.; Liberatore, Matthew W. – Advances in Engineering Education, 2022
Spreadsheets are a core computational tool for practicing engineers and engineering students. While Microsoft Excel, Google Sheets, and other spreadsheet tools have some differences, numerous formulas, functions, and other tasks are common across versions and platforms. Building upon learning science frameworks showing that interactive activities…
Descriptors: Spreadsheets, Computer Software, Engineering Education, Textbooks
Solnosky, Ryan; Fairchild, Joshua – Advances in Engineering Education, 2017
Many engineering faculty have limited skills and/or assessment tools to evaluate team dynamics in multidisciplinary team-based capstone courses. Rapidly deployable tools are needed here to provide proactive feedback to teams to facilitate deeper learning. Two surveys were developed based on industrial and organizational psychology theories around…
Descriptors: Curriculum, Surveys, Engineering, Engineering Education
Morelock, John R.; Salado, Alejandro; Lakeh, Arash Baghaei; Richards, Trevor K. – Advances in Engineering Education, 2021
In undergraduate engineering education, students are often overexposed to problem-solving methods that are unrepresentative of how engineers solve problems in practice. For decision-making problems, in particular, students are commonly taught to compare alternative solutions using known and provided information. However, many real-world…
Descriptors: Engineering Education, Teaching Methods, Educational Games, Simulation
Grohman, Magdalena G.; Gans, Nicholas; Lee, Eun Ah; Tacca, Marco; Brown, Matthew J. – Advances in Engineering Education, 2020
Engineering ethics education typically focuses on decisions by individual engineers and case studies of disasters. This does not reflect the everyday decisions that practicing engineers must make, and neglects the fact that most engineers work on teams rather than alone. The focus on safety and disaster prevention leaves little time for discussing…
Descriptors: Ethics, Engineering Education, Decision Making, Safety
Shirazi, Arezoo; Behzadan, Amir H. – Advances in Engineering Education, 2015
Recent studies suggest that the number of students pursuing science, technology, engineering, and mathematics (STEM) degrees has been generally decreasing. An extensive body of research cites the lack of motivation and engagement in the learning process as a major underlying reason of this decline. It has been discussed that if properly…
Descriptors: Engineering Education, Physical Environment, Simulated Environment, Synthesis
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
Liberatore, Matthew W.; Morrish, Rachel M.; Vestal, Charles R. – Advances in Engineering Education, 2017
The utility of Just-In-Time-Teaching (JITT) is compared across course topics and groups of students not receiving JITT exercises in class. JITT feedback incorporated various active learning exercises based on students' performance on online homework problems from Sapling Learning. With over 200 students in two sections participating in the…
Descriptors: Academic Achievement, Thermodynamics, Introductory Courses, Teaching Methods
Wettstein, Stephanie G. – Advances in Engineering Education, 2018
In-class example problems that students work out on their own using active problem-solving are typically well received and help the students better learn the material; however, they are difficult to enact in large classes with limited resources due to the number of questions received and the speed at which different students work through the…
Descriptors: Pacing, Independent Study, Active Learning, Problem Solving
Marshall, Jill; Bhasin, Amit; Boyles, Stephen; David, Bernard; James, Rachel; Patrick, Anita – Advances in Engineering Education, 2018
Our study used a natural experiment to compare a project-based cornerstone course with the traditionally-taught introductory course in civil engineering. During the study, two sections of the course were organized around an overarching project, the design of an event center, and the remaining sections used guest lectures, a textbook, and…
Descriptors: Active Learning, Student Projects, Civil Engineering, Student Attitudes
Douglas, Elliot P.; Chiu, Chu-Chuan – Advances in Engineering Education, 2013
This paper describes implementation and testing of an active learning, team-based pedagogical approach to instruction in engineering. This pedagogy has been termed Process Oriented Guided Inquiry Learning (POGIL), and is based upon the learning cycle model. Rather than sitting in traditional lectures, students work in teams to complete worksheets…
Descriptors: Active Learning, Teaching Methods, Team Teaching, Engineering
Dalrymple, Odesma; Sears, David A.; Evangelou, Demetra – Advances in Engineering Education, 2013
Inherently a discovery-based pedagogy, Disassemble/Analyze/Assemble (DAA) activities start with the artefact--an instance of a typically well-engineered solution. Through systemized disassembly and the subsequent analysis of components, students engage in an iterative process of observation and follow-up probing. In-turn, this process helps…
Descriptors: Engineering Education, Engineering, Control Groups, Experimental Groups
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
Clark, Renee M.; Kaw, Autar; Besterfield-Sacre, Mary – Advances in Engineering Education, 2016
Blended, flipped, and semi-flipped instructional approaches were used in various sections of a numerical methods course for undergraduate mechanical engineers. During the spring of 2014, a blended approach was used; in the summer of 2014, a combination of blended and flipped instruction was used to deliver a semi-flipped course; and in the fall of…
Descriptors: Engineering Education, Undergraduate Students, Blended Learning, Educational Technology
Schrlau, Michael G.; Stevens, Robert J.; Schley, Sara – Advances in Engineering Education, 2016
Flipped classrooms support learner-centered approaches to improve conceptualization, comprehension, and problem solving skills by delivering content outside the classroom and actively engaging students inside the classroom. While literature in engineering and science education supports and encourages the use of inverted instruction, many core…
Descriptors: Engineering Education, Heat, Thermodynamics, Technology Uses in Education
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
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