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1. Best Practices for the Implementation of Home-based, Hands-on Lab Activities to Effectively Engage STEM Students During a Pandemic

   Owolabi, O. A. (July 2021, 2021 ASEE Virtual Annual Conference)

   null (Ed.)

   The current COVID-19 pandemic has forced many colleges and universities to remain on a completely online or remote educational learning environment for the 2020 Spring and Fall semesters, however there is a growing concern in STEM fields about how students will be able to achieve one of the major ABET learning outcomes without conducting physical, hands on laboratory exercises as many STEM disciplines are switching to virtual laboratory; an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering/scientific judgment to draw conclusions. In addition to the limited achievement of the ABET outcomes, roughly half of the population of a historically black university communicated their anxieties during the pandemic to the University President via Change.org. The students’ main anxiety is portrayed in a statement culled from the petition as follows: “Most classes are very hands-on, and we are not able to do those from home because of the limited resources available at home”. This paper highlights the best practices for the implementation of home-based hands-on activities across multiple STEM fields. The paper further elaborates on the impact of remote and virtual labs on students’ attitude, interest, and performance in STEM over the home-based hands-on experimentation. Home-based hands-on laboratory activities were performed in biology, electrical engineering, industrial engineering, transportation system, and civil engineering. The results of a Motivated Strategies for Learning Questionnaires (MLSQ) survey that was administered to about 100 STEM students revealed better gains in key constructs associated with student success, such as motivation, critical thinking, and metacognition. 

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2. A systematic literature review of student evaluation of peer exemplars and implications for design, Technology, and Engineering Learning

   https://doi.org/10.1007/s10798-023-09874-2  

   Thorne, Scott; Mentzer, Nathan; Bartholomew, Scott; Strimel, Greg J (September 2024, International Journal of Technology and Design Education)

   In design courses, reviewing how others have solved design problems or completed projects is common practice and often encouraged by educators. Using student work as examples can provide context for assessment criteria and help students approach new design problems. While studies have explored the use of exemplars in various disciplines, little research has focused on which exemplars to use (e.g., high-quality, low-quality) in design, technology, and engineering fields. To address this gap, researchers conducted a literature review of 33 articles on exemplar use in secondary and post-secondary education. The analysis revealed nine themes related to exemplar use and their impact on student learning, including (1) Clarity of instruction, (2) Learner focus, (3) Motivation for learning, (4) Student reflection on learning, (5) Building student self-efficacy, (6) Identifying instructional challenges, (7) Providing contrasting cases, (8) The relationship between exemplar quality and student work quality, and (9) Raising the bar for learning outcomes. Findings suggest that simply providing an exemplar is not enough and that the selection of an exemplar can have positive or negative impacts on student motivation, understanding, and application. Carefully selecting exemplars and engaging in dialogue with students can help them identify expectations, recognize quality work, and identify potential misconceptions. These findings have implications for those involved in design, technology, and engineering education. Educators can use these findings to guide their selection of exemplars and engage students in meaningful dialogue to aid their learning. Researchers can also use these findings to further investigate the use of exemplars in these fields. 

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3. Preparing Early Engineers through Context, Connections, and Community

   Davishahl, Eric; Booker, Anna Fay; McDonnell-Ingoglia, Petra; Burnett, Pat (June 2024, 2024 ASEE Annual Conference)

   This NSF-IUSE project began in fall 2022 and features cross-disciplinary collaboration between faculty in engineering, math, history, English, and physics to design, pilot, and assess a new learning community approach to welcome precalculus level students into an engineering transfer degree program. The learning community spans two academic quarters and includes six different courses. The place-based curriculum includes contextualized precalculus and English composition, Pacific Northwest history, orientation to the engineering profession, and introductory skills such as problem-solving, computer programming, and team-based design. The program also features community-engaged project-based learning in the first quarter and a course-based undergraduate research experience in the second quarter, both with an overarching theme of energy and water resources. The approach leverages multiple high-impact educational practices to promote deep conceptual learning, motivate foundational skill development, explore social relevance and connection, and ultimately seeks to strengthen our students’ engineering identity, sense of belonging, and general academic preparation for success in an engineering major. Fall 2023 marked the first quarter of piloting the new learning community with a cohort of 19 students out of a capacity limit of 24. This paper reports on the demographics of the first cohort and compares them to enrollment in a parallel section of our Introduction to Engineering course that is not linked. We also share some of the students’ reasons for enrolling and their feedback on the experience. We found that students in populations with intensive entry advising such as International Programs and Running Start (a high school dual-enrollment program) appear to be overrepresented in the first cohort. This finding correlates with a theme in nearly all student responses that they learned about the program through advising. Finally, we describe some example activities and student projects that illustrate how the curriculum design integrates content across the academic disciplines involved. 

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4. Reinforcing student learning by MATLAB simscape GUI program for introductory level mechanical vibrations and control theory courses

   https://doi.org/10.1177/03064190221085038  

   Pena, Paul; Utschig, Tristan; Tekes, Ayse (March 2022, International Journal of Mechanical Engineering Education)

   The highly mathematical nature of introductory level vibrations and control theory courses results in students struggling to understand the concepts. Hands-on activity demonstrated in class can help them better understand the concepts. However, there is still an ongoing effort to lower the currently substantial cost of educational laboratory equipment for undergraduate-level engineering courses. Also, with the COVID-19 crisis, the Spring 2020 academic year took an unexpected turn for academics and students all over the world. Engineering faculty who teach laboratories had to move online and instruct from home. Online course preparation takes more time and effort compared to traditionally designed face-to-face courses and was compounded considering the unprecedented situation where many instructors didn't have time to record data from existing lab equipment or record video in their laboratories. In this paper, we present a Matlab Simscape GUI program designed to simulate modeling and control of dynamical systems for vibrations and control theory courses, and their associated laboratories, as one potential solution for online instruction. To complement the simulation program, online classroom and homework activities were designed using a learning sciences approach connecting several critical educational theories which can bolster student motivation, engagement with the material, and overall learning performance. The simulation is presented along with data from 19 students who completed the associated classroom and homework activities. Survey results probing student perceptions about the value of the learning tasks for the simulation were overwhelmingly positive and indicate this approach holds promise in supporting student learning. 

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5. Consequential agency in chemical engineering laboratory courses

   Wilson-Fetrow, M.; Chi, E.; Brown, J.; Wettstein, S.; Svihla, V. (January 2022, Proceedings of the ASEE Annual Conference and Exhibition)

   In contrast to the dynamic treatment of other aspects of the curriculum, and despite being at the center of chemical engineering education, laboratory experiments have remained largely unchanged for decades. To characterize the potential impact changes to laboratory courses could have, we explored student perceptions across a department and characterized the kinds of opportunities students have to use their agency in these courses across universities. We used a survey to measure students’ sense of agency across several laboratory courses in a chemical engineering department. We found students in laboratory courses across the chemical engineering laboratory sequence, including those engaged in authentic course-based research did not perceive the experiments as agentive or authentic. We infer students draw upon abundant low-agency experiences in laboratory experiments. We report on the agency that instructors report students possessing across two chemical engineering departments to understand variation across institutions. Maximizing learning in laboratory courses may hinge on clearer communication about authentic experiments or systematic redesign of earlier courses. 

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