Funding Agency: National Science Foundation
Summary: Undergraduate research experiences (URE) give engineering students the opportunity to contribute to their discipline through original research under the guidance of faculty and/or graduate student mentors. These experiences have shown positive effects on student understanding regarding the nature of science, motivation, retention, and academic performance. While UREs are very important, not all students are able to participate in these experiences, due to constraints on their time and resources. Our goal is to better understand the effects of UREs and develop a theoretical model that captures epistemic cognition and identity development. This model will identify key elements from UREs that influence students’ identity and epistemic cognition. We will work with engineering faculty to develop methods to incorporate these elements into a variety of learning environments so more students can benefit.
Collaborators: Marian (Molly) Kennedy (Clemson University), Katherine Ehlert (Clemson University), Dennis Lee (Clemson University), Courtney Faber (The College of New Jersey), Rachel Kajfez (The Ohio State University) and Penelope Vargas.
Funding Agency: National Science Foundation
Summary: My CAREER project focuses on the interactions between student motivation and their learning experiences, specifically those pertaining to their development of problem solving skills. Engineering students must become effective problem solvers, but they often have limited views of what problem solving entails in engineering. We are conducting a mixed methods study that involves an ongoing survey development and data collection and interviews with engineering students. We developed the Motivation and Attitudes in Engineering (MAE) survey based on the Future Time Perspective (FTP) theory, which examines how students perceive their future possible selves, their perceptions of what they are doing in the present (specifically, solving problems in engineering courses), and any perceived interactions between the future and the present (instrumentality). Based on results from our interviews with engineering students, the survey also includes items related to goal orientation (mastery versus performance), and problem solving self-efficacy. Survey data is being used for both a longitudinal study of how student motivation and perceptions of problem solving change over time, and for selection of interview participants. Interviews with second year bioengineering and mechanical engineering students focus on students’ FTPs and their approaches to solving engineering problems.
Results from our research are providing powerful evidence of how engineering students’ perceptions of problem solving are actually driven by their motivations across time scales; specifically, the way they view long-term goals and how goals affect their opinions about present tasks. All students in our study expressed the desire to solve problems that benefit society or help others, but not all students see connections between their futures and the work they are doing in their courses. Students with well-developed ideas about their futures seek relevance and structure in problems they solve. Guiding and encouraging these students when solving open-ended engineering problems may improve their attitudes towards these types of problems. Students with vague or broad future perceptions seek to create and explore. Problems that engage students in engineering practice may help them achieve their goal to explore a variety of contexts.
Supplemental funding for this project is supporting a Research Experience for Teachers (RET) intern and expansion of the project to include engineering students in southeast Asia.
Collaborators: Catherine McGough (Clemson University), Courtney Faber (Clemson University/The College of New Jersey), Justine Chasmar (Clemson University), Jeannine Turner (Florida State University), Jenefer Husman (Arizona State University), Adam Kirn (University of Nevada – Reno)
Funding Agency: Unfunded
Summary: This study seeks to understand how students who start in precalculus and struggle in their mathematics courses persist and complete an engineering degree program. The project began with a study of how student characteristics, such as background knowledge and skills in algebra and trigonometry, and their study habits in precalculus, affect students' success in precalculus and their subsequent math courses, and the likelihood of choosing engineering as a major. Few significant factors emerged, except that gender and taking AP calculus were significant predictors of choosing engineering as a major. A second quantitative study was conducted to determine effects of the first mathematics course in terms of level (precalculus versus calculus) and grade earned on the likelihood for students to persist in engineering. Our results showed that both the level and grade in students’ first college mathematics course are significant predictors of retention in engineering.
The project continues with two qualitative studies to examine the decision to major in engineering for students with poor mathematical performance/preparation, how these students cope with the difficulties they may have in mathematics courses, and factors that contribute to their persistence in engineering when they encounter difficulties in their college mathematics courses. Interview data were analyzed to build an evidence-based theory about engineering students’ mathematics self-efficacy and its relationship to their performance in college mathematics courses. Preliminary findings suggest that mathematics performance of students with high self-reported mathematics self-efficacy can differ depending on their actual mathematics knowledge, skills and abilities. Students who appear to have a small gap between self-efficacy and abilities work hard to overcome deficiencies; students who are overconfident (higher self-efficacy relative to actual abilities) procrastinated and put forth less effort when faced with difficulties. Students perceived their overall mathematics self-efficacy as being higher than their problem solving self-efficacy in mathematics.
Collaborators: Jennifer Van Dyken (Clemson University) and Gustavo Moran (Clemson University)
Funding Agency: National Science Foundation
Summary: The TigersTeach Noyce Scholarship Initiative is a partnership among Clemson University’s Eugene T. Moore College of Education, College of Engineering, Computing and Applied Sciences, and College of Agriculture, Forestry, and Life Sciences in collaboration with partner school districts in South Carolina. TigersTeach recruits students presently majoring in engineering, the sciences, and mathematics (STEM) and/or recent graduates with these degrees to become secondary science and mathematics teachers. In addition, TigersTeach provides co-curricular support mechanisms to create a vibrant learning community of scholars, teachers, and professors in STEM disciplines, including conference attendance and presentations, teacher panels, and field trips. Paid internships provide relevant experience for students who are considering teaching as a career. Interns are placed in local high schools to work with students individually, co-plan and co-teach lessons with their cooperating teachers, and participate in faculty-led seminars.
Collaborators: Michelle Cook (PI), Megan Che, Molly Kennedy (Clemson University)
Funding Agency: National Science Foundation
Summary: We are building a mechanism to mentor and support mid-career faculty across distributed locations who have limited administrative or leadership experience. Our goal is to develop advocates and future leaders for this emerging discipline by focusing on three themes:
Through face-to-face workshops, monthly virtual “book club” discussions and conference presentations, our community of rising leaders in EER can articulate goals, share resources, identify barriers and develop ways to overcome barriers to allow us to fulfill a stewardship role within engineering education systems.
Collaborator: Rebecca Bates (Minnesota State University-Mankato)
Funding Agency: National Science Foundation
Summary: This study is investigating the intersectionality of students’ identities to understand how non-normative groups in engineering form an engineering identity and navigate a culture dominated by heteronormativity and limited diversity. Cutting-edge analytic methods based on the mathematical field of topology, which has not been previously used in this area, and a longitudinal study of students as they progress from the freshman to senior year are being applied to understand how students develop their identities as engineers and their feelings of belongingness in their chosen major. By using these advanced mathematical analyses to study students' attitudes and beliefs, without the prior imposition of our own biases about 'normative' identities in engineering, we seek to understand how students cluster together in terms of their attitudes, career intentions, and other motivations. Our results will inform ways to increase diversity in engineering programs through recruitment and teaching strategies that take into account how students identify themselves within engineering. This in turn will help initiate a much-needed shift toward a more diverse population of engineers so as to benefit from the rich range of perspectives, talents and skills they offer.
Collaborators: Geoff Potvin (Florida International University), Allison Godwin (Purdue University), Adam Kirn (University of Nevada – Reno)
Funding Agency: National Science Foundation
Summary: International experiences are increasingly viewed as important components of undergraduate engineering education. For accreditation, every engineering program must demonstrate that its graduates possess “the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context.” While it is left to each individual program to define what this outcome means and how it would be measured, implied is a requirement that engineering programs begin to address “global preparedness.” Yet little has been done to define global preparedness, specify alternatives for achieving it, or determine to what degree being globally prepared is the result of personal attributes, prior experiences, or curricular and co-curricular experiences. We are investigating how international experiences both in and outside of formal curricula impact engineering students’ global preparedness by assessing the nature and effectiveness of the diverse international opportunities available to U.S. engineering undergraduates. We are identifying ways to measure changes in global awareness, knowledge and thinking to address our research questions. Our results and tools will provide insight to engineering administrators and faculty as they consider how to better prepare their students for the global economy.
Collaborators: Randy Collins and Erin McCave (Clemson University); Mary Besterfield-Sacre and Larry Shuman (University of Pittsburgh), Cheryl Matherly (University of Tulsa); Gisele Ragusa (University of Southern California)