Teaching Modules Boost Scientific Reasoning Skills in Small and Large Lecture Introductory Psychology Classrooms
Becker-Blease K.; Stevens C.; Witkow M.R.; Almuaybid A.
2021
Scholarship of Teaching and Learning in Psychology
3
10.1037/stl0000173
In prior work, Courtney Stevens and Melissa R. Witkow (2014) and Courtney Stevens, Melissa R. Witkow, and Brenna Smelt (2016) showed that teaching modules designed to improve scientific reasoning are effective in community and small liberal arts colleges. These modules were specifically designed to teach research design and data-based reasoning skills assessed on the psychology portion of the Medical College Admissions Test. Here, we extend that work to small and large lecture introductory psychology courses at a large public university, which required developing instructor manuals with support for graduate teaching assistants, materials to reinforce concepts and support student engagement in large lecture halls where whole classroom discussion was infeasible, and exam questions to motivate student effort. The resulting 8 modules each required 30–40 min of class time. Instructors who were uninvolved in the development of materials each delivered 4 modules in each section (a quarter-length course representing half of the introductory psychology content). Using the same preand posttest measures of scientific reasoning as in prior research, in both small (50-seat) and large (100- to 400-seat) sections, 1,468 students in 11 sections (4 treatment and 7 control) showed greater gains in scientific reasoning in treatment conditions compared to control classrooms, where no modules were used. These results provide further evidence that high-level scientific reasoning skills can be taught in a variety of introductory psychology classes. © 2019. American Psychological Association
Critical thinking; Introductory psychology; Medical education; Scientific reasoning
Strengthening the common core of the introductory psychology course, (2014); Preview guide for MCAT2015, (2011); A roadmap to MCAT content in psychology and sociology textbooks; Batterham R. W., Hawkins M., Collins P. A., Bu-chbinder R., Osborne R. H., Health literacy: Applying current concepts to improve health services and reduce health inequalities, Public Health, 132, pp. 3-12, (2016); Becker-Blease K. A., Stevens C., Witkow M. R., Intro Psych Scientific Reasoning Modules, (2017); Bernstein D. A., Does active learning work? A good question, but not the right one, Scholarship of Teaching and Learning in Psychology, 4, pp. 290-307, (2018); Engel J., Statistical literacy for active citizenship: A call for data science education, Statistics Education Research Journal, 16, pp. 44-49, (2017); Fairweather J. S., Rhoads R. A., Teaching and the faculty role: Enhancing the commitment to instruction in American colleges and universities, Educational Evaluation and Policy Analysis, 17, pp. 179-194, (1995); Freeman S., Eddy S. L., McDonough M., Smith M. K., Okoroafor N., Jordt H., Wenderoth M. P., Active learning increases student performance in science, engineering, and mathematics, PNAS: Proceedings of the National Academy of Sciences of the United States of America, 111, pp. 8410-8415, (2014); Garcia-Retamero R., Cokely E. T., Designing visual aids that promote risk literacy: a systematic review of health research and evidence-based design heuristics, Human Factors, 59, pp. 582-627, (2017); Gibson J. P., Mourad T., The growing importance of data literacy in life science education, American Journal of Botany, 105, pp. 1953-1956, (2018); Gurung R. A. R., Hackathorn J., Enns C., Frantz S., Cacioppo J. T., Loop T., Freeman J. E., Strengthening introductory psychology: A new model for teaching the introductory course, American Psychologist, 71, pp. 112-124, (2016); Haak D. C., HilleRisLambers J., Pitre E., Freeman S., Increased structure and active learning reduce the achievement gap in in- troductory biology, Science, 332, pp. 1213-1216, (2011); Jhangiani R. S., Hardin E. E., Skill development in introductory psychology, Scholarship of Teaching and Learning in Psychology, 1, pp. 362-376, (2015); Landrum R. E., Gurung R. A. R., The memorability of introductory psychology revisited, Teaching of Psychology, 40, pp. 222-227, (2013); McKeachie W. J., Research on college teaching: A review (AAHE/ERIC Higher Education Research Report No. 6), (1970); McKeachie W. J., Research on college teaching: The historical background, Journal of Educational Psychology, 82, pp. 189-200, (1990); Mitchell K., Lewis R. S., Satterfield J., Hong B. A., The new Medical College Admission Test: Implications for teaching psychology, American Psychologist, 71, pp. 125-135, (2016); Mulryan-Kyne C., Teaching large classes at college and university level: Challenges and opportunities, Teaching in Higher Education, 15, pp. 175-185, (2010); Revisiting the STEM Workforce, (2015); Nayak J. G., Hartzler A. L., Macleod L. C., Izard J. P., Dalkin B. M., Gore J. L., Relevance of graph literacy in the development of patient-centered communication tools, Patient Education and Counseling, 99, pp. 448-454, (2016); Norcross J. C., Hailstorks R., Aiken L. S., Pfund R. A., Stamm K. E., Christidis P., Undergraduate study in psychology: Curriculum and assessment, American Psychologist, 71, pp. 89-101, (2016); Pennebaker J. W., Gosling S. D., Ferrell J. D., Daily online testing in large classes: Boosting college performance while reducing achievement gaps, PLoS ONE, 8, 11, (2013); Schacter D., Gilbert D., Wegner D., Nock M., Psychology, (2014); Schwartzstein R. M., Rosenfeld G. C., Hilborn R., Oyewole S. H., Mitchell K., Redesigning the MCAT exam: Balancing multiple perspectives, Academic Medicine, 88, pp. 560-567, (2013); Shortlidge E. E., Eddy S. L., The trade-off between graduate student research and teaching: A myth?, PLoS ONE, 13, 6, (2018); Silvestri M. M., Cox B. D., Buskist W., Keeley J. W., Preparing for the transition from graduate school to the academy: An exemplar from psychology, Effective college and university teaching: Strategies and tactics for the new professoriate, pp. 27-38, (2012); Stevens C., Witkow M. R., Training scientific thinking skills: Evidence from an MCAT2015-aligned classroom module, Teaching of Psychology, 41, pp. 115-121, (2014); Stevens C., Witkow M. R., Smelt B., Strengthening scientific reasoning skills in introductory psychology: Evidence from community college and liberal arts classrooms, Scholarship of Teaching and Learning in Psychology, 2, pp. 245-260, (2016); Stevens C., Witkow M. R., Smelt B., Good K., Hershman T., Where is psychology teaching and learning research conducted? Analysis of institution setting and class sizes, Teaching of Psychology; Stoloff M. L., Good M. R., Smith K. L., Brew-ster J., Characteristics of programs that maximize psychology major success, Teaching of Psychology, 42, pp. 99-108, (2015); Stoloff M., McCarthy M., Keller L., Varfolomeeva V., Lynch J., Makara K., Smiley W., The undergraduate psychology major: An examination of structure and sequence, Teaching of Psychology, 37, pp. 4-15, (2010); Strohmetz D. B., Dolinsky B., Jhangiani R. S., Posey D. C., Hardin E. E., Shyu V., Klein E., The skillful major: Psychology curricula in the 21st century, Scholarship of Teaching and Learning in Psychology, 1, pp. 200-207, (2015); Whisenhunt B. L., Cathey C., Visio M. E., Hudson D. L., Shoptaugh C. F., Rost A. D., Strategies to address challenges with large classes: Can we exceed student expectations for large class experiences?, Scholarship of Teaching and Learning in Psychology, 5, pp. 121-127, (2019)
American Psychological Association
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Scopus