Inquiry-based laboratory instruction has been shown to actively engage students in the content and skills being taught. These courses are further intended to teach students not only what is known, but also the process by which investigators come to know it. We sought to take this approach one step further and incorporate novel research questions into an inquiry-based laboratory model early in the undergraduate course of study. In this research-based introductory laboratory course, first-year students acquired basic lab skills not just for their own sake, but rather within the context of a research question of a member of the faculty. Student projects investigated potential neuroanatomical changes in animal models of dyslexia and aging and included measurements of neuron numbers and levels and distribution of neuronal proteins. Students played an active role in designing and implementing an experimental plan, explored data analysis techniques, and reflected on the results that they obtained in scholarly forms such as research papers and a departmental poster session. Student feedback on this approach has been extremely positive, and the data collected were research quality preliminary data that are being actively pursued for further study. Based on our encouraging experiences, we conclude that designing an introductory course around novel research, including some assessments modeled after scholarly practices, provides motivation and excitement for the students, instills good scientific habits, and can potentially benefit departmental research.
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J Chem Educ
January 2025
Department of Chemistry, University of Iowa, Iowa City, Iowa 52242, United States.
Inquiry-based laboratory experiments, in comparison to traditional "cookbook" style laboratory experiments, more accurately model the work scientists do and engage students in the skills they use. Students who participate in inquiry-based laboratory experiments engage in science practices and develop skills such as critical thinking and argumentation. Despite the abundance of literature surrounding the benefits of inquiry-based laboratory learning approaches, adoption of these instructional approaches has been slow.
View Article and Find Full Text PDFJ Chem Educ
June 2024
Department of Chemistry, University of Illinois at Chicago, Chicago, Illinois, 60607, United States.
This paper presents a phenomenographic investigation on students' experiences about research and poster presentations in a workshop-based undergraduate research experience with a focus on how the experience connects to the Science and Engineering Practices (SEPs) of the NRC and the principles of CUREs. This provides insight into how these structured research experiences reflect particular SEPs and also elements of scientific practice that are not captured in the SEPs as they have been formulated previously. This work showcases the importance of future applications, failure, and creativity as additional science practices necessary for students to engage in authentic science.
View Article and Find Full Text PDFMed Sci Educ
June 2024
Center for Life Sciences Education, The Ohio State University, Columbus, OH USA.
Introduction: Persistence in Science, Technology, Engineering, and Mathematics (STEM) may be promoted in underrepresented student populations by implementing an authentic inquiry-team-based learning (ITBL) STEM laboratory course design.
Methods: Between Spring 2021 and Spring 2022, the research team compared junior and senior undergraduates enrolled in an ITBL-based pharmaceutical science lab course to a comparative student population enrolled in a traditionally designed biology lab course. At the end of either STEM lab course, students completed the experimentally validated Persistence in the Sciences (PITS) survey and an open-ended question asking them to recount a moment that validated or questioned their science identity determined the effect of the ITBL STEM lab course design on factors that may impact underrepresented students' indicators of science identity formation and persistence in STEM.
J Chem Educ
June 2024
Department of Chemistry, Oxford College of Emory University, Oxford, Georgia 30054, United States.
This paper describes the development of a first- and second-year inquiry-based laboratory course focused on the development of a meaningful application of intermolecular forces (IMFs). Instead of broad expository coverage of topics, we used backward design: the techniques and concepts for the course were structured around what students are expected to be able to do at the end-individually isolate caffeine from a consumer product as a culminating lab practical, using IMFs to justify solvent choices and determining procedural details. We have found that instructors can select a challenging multilevel experiment that incorporates the application of IMFs in multiple ways and backward design the course so that students are able to complete this experiment individually and autonomously at the end of the semester.
View Article and Find Full Text PDFJ Chem Educ
May 2024
Department of Chemistry, Xavier University of Louisiana, New Orleans, Louisiana 78125, United States.
The topic of ionic liquids is typically not taught at the undergraduate level. Many properties, such as conductivity, vapor pressure, and viscosity, of these so-called "green solvents" are unique compared to traditional molecular solvents. Using active learning techniques, we introduced an ionic liquid module in the physical chemistry laboratory where their structures and physical properties, namely, viscosity, conductivity, and vapor pressure, were explored in relation to molecular solvents.
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