Pharmacogenomics Course Research Articles

Implementing a longitudinal poster project to engage pharmacy students beyond the classroom in a foundational sciences course

Introduction: Poster projects and presentations can provide engagement and skill-building opportunities for students. A group poster project was incorporated into a first-year required genetics and pharmacogenomics course. Rough drafts were due for the project throughout the term, which coincided with course topics. The objective of this study was to determine the impact of a longitudinal poster project on pharmacy students' perceptions of learning, presentation skills, and success in future presentations. Methods: Students in a Doctor of Pharmacy programme were surveyed via Google Forms in 2018 before and after completing the poster project. The original cohort of students were surveyed again in 2020. Data were analysed with Graphpad Prism software. Results: Students responded positively to survey questions gauging their perception of the project’s value as a learning tool, especially for reinforcing and applying course concepts. Overall, students saw the benefit of completing poster rough drafts and believed the poster was helpful in preparing and/or presenting future posters. Conclusions: A similar project could be built into any foundational course in a Doctor of Pharmacy programme. However, care should be taken to provide appropriate feedback and mentorship to students to optimise the benefits of learning and development of poster presentation skills.

Assessing the pharmacy students' knowledge of genetic counseling with genetic variants that are associated with inherited disease

Background and purposeTo assess pharmacy students' understanding of the importance of genetic counseling through a didactic lecture and active in-class learning exercise in a required pharmacogenomics course. Educational activity and settingDuring the second year, students are enrolled in a two-credit hour pharmacogenomics course which is taught by multiple faculty members from various disciplines. The pharmacy students were taught the clinical importance of genetic results and counseling patients on their individualized reports by a clinical laboratory geneticist and a clinical genetic counselor. After completion of the didactic portion of the class, students practiced genetic counseling skills through role playing with clinical cases involving genetic reports. Students' knowledge of clinical applications of pharmacogenomic data was assessed prior to and following the counseling experience. FindingsA paired sample t-test was chosen to analyze the data to determine if there was a difference in mean scores upon the completion of the lecture. There was a statistically significant mean difference between the total scores for the pretest (mean (M) = 37.89, SD = 6.66) and the total scores for the posttest (M = 48.33, SD = 5.24); t(140) = 17.53, P < .001, α = 0.05. The effect size for this analysis (d = 1.74) surpassed Cohen's determination for large effect (d = 0.8). SummaryThe genetic counseling lecture and activity increased the students' overall awareness of the importance of how sensitive genetic information is reported and delivered to patients.

Only pharmacists have signed up to postgraduate pharmacogenomics course

Only pharmacists have signed up to postgraduate pharmacogenomics course

A student initiative to implement peer-led study groups for a pharmacogenomics course: Evaluation of student performance and perceptions

IntroductionTo better elucidate the impact of cooperative learning outside the classroom, a student-initiated research project was conducted to explore the effects of participating in peer-led study groups (PLSGs) on student examination scores and perceptions. MethodsFirst-year pharmacy students were given the opportunity to participate in weekly PLSGs for a pharmacogenomics course during spring 2016 and spring 2017. Student exam performance was stratified by those who attended vs. those who did not. Optional pre- and post-course surveys examined student perceptions of PLSGs. ResultsNo significant differences were seen between the attendance groups in spring 2016. In spring 2017, student attendees were significantly more likely to pass two of their six exams (p = .04, p = .0029) and to have higher exam scores on one exam (p = .02) in comparison to non-attendees. Overall exam score averages were significantly different between attendees and non-attendees during spring 2017 (p = .03) but not during spring 2016 (p = .38). Perception surveys indicated students believed participation helped them to demonstrate competency and build confidence. Additionally, students reported they felt more comfortable clarifying questions during the study groups vs. during class time. ConclusionsThe impact of study group participation on student exam performance was minimal over the two years of data collection, but there were instances where exam scores were positively impacted. Students perceived value in study group participation even if it did not translate directly to improved exam performance on all exams.

Design, Implementation, and Assessment Approaches Within a Pharmacogenomics Course

Objective. To design and implement a pharmacogenomics course that focuses on analysis and integration of pharmacogenomic data into clinical practice and to explore how participation in the course influences student self-confidence. Design. The Basic and Clinical Pharmacogenomics course content was divided into three modules: genetic-based didactic sessions, genomic techniques and self-genotype/phenotype laboratory exercise, and clinical-based case studies. Student learning assessment included knowledge- and application-based tests and performance on a group project. Assessment. Effectiveness of the course was evaluated using results of student performance on coded test questions, student perceptions on pre- and post-course self-assessments, performance on a group project, and course evaluation results. Student pharmacists successfully demonstrated competency in pharmacogenomics knowledge-based learning, demonstrated their abilities to apply learned skills in clinical-based scenarios, and reported improved confidence in analyzing patient-based genomic testing results. Conclusions. This course appears to have contributed to student learning and positively influenced student self-confidence in pharmacogenomics.

Active-learning Strategies for Legal Topics and Substance Abuse in a Pharmacy Curriculum

Objective. To implement active-learning strategies to engage students in learning, applying, and teaching legal and substance abuse topics. Design. Medication Safety course student groups created films on a National Patient Safety Goal (NPSG) using a movie genre and presented them in film festival format. Pharmacogenomics course student groups taught ethical, legal, and social implications (ELSI) topics through presentation of short stories about comic book characters with genetic mutations. Students in the Drugs of Abuse course composed and performed dances depicting the mechanism of action of a drug in an in-class rave dance format. Assessment. Course evaluations revealed student engagement with subject material and enjoyment of the creative applications, critical thinking, and collaborative aspects of the activities. Students performed well on examination questions and graded assignments. Conclusion. These active-learning strategies facilitated students' abilities to learn, apply, and teach material in medication safety, pharmacogenomics, and substance abuse courses.

The Effects of Personal Pharmacogenetic Testing on the Effects of Pharmacy Student Perceptions of Knowledge and Attitudes Towards Precision Medicine

Objective: To evaluate if pharmacy students’ participation in personal pharmacogenetic (Pgx) testing enhances their knowledge and attitude towards precision medicine (PM). Methods: First-year pharmacy students were offered personalized pharmacogenetic testing as a supplement to a required curricular pharmacogenomics course. Ninety-eight of 122 (80%) students completed pre- and post-course surveys assessing knowledge and attitudes regarding PM; 73 students also volunteered for personal pharmacogenetic testing of the following drug metabolizing enzymes (CYP2C19, CYP2D6, UGT1A1) and pharmacodynamics-relevant proteins (interleukin (IL)-28B & human lymphocyte antigen HLAB*5701). Results: Among the 122 students, we found that incorporating pharmacogenetic testing improved mean knowledge and attitude by 1.0 and 0.3 Likert points, respectively. We observed statistically significant improvements in 100% of knowledge and 70% of attitude-related statements for students who decided to undergo personal pharmacogenetic testing. Students who were enrolled in the course but did not partake in personalized pharmacogenetic testing had similar gains in knowledge and attitude. Conclusion: This study demonstrates the feasibility and importance of educating future pharmacists by incorporating pharmacogenetic testing into professional school curricula. Students who opt not to participate in genotyping may still benefit by learning vicariously through the shared learning environment created by genotyped students. Conflict of Interest We declare no conflicts of interest or financial interests that the authors or members of their immediate families have in any product or service discussed in the manuscript, including grants (pending or received), employment, gifts, stock holdings or options, honoraria, consultancies, expert testimony, patents and royalties. Type: Student Project

Effects of Using Personal Genotype Data on Student Learning and Attitudes in a Pharmacogenomics Course

Objective. To evaluate the impact of personal genotyping and a novel educational approach on student attitudes, knowledge, and beliefs regarding pharmacogenomics and genomic medicine. Methods. Two online elective courses (pharmacogenomics and genomic medicine) were offered to student pharmacists at the University of Florida using a flipped-classroom, patient-centered teaching approach. In the pharmacogenomics course, students could be genotyped and apply results to patient cases. Results. Thirty-four and 19 student pharmacists completed the pharmacogenomics and genomic medicine courses, respectively, and 100% of eligible students (n=34) underwent genotyping. Student knowledge improved after the courses. Seventy-four percent (n=25) of students reported better understanding of pharmacogenomics based on having undergone genotyping. Conclusions. Completion of a novel pharmacogenomics elective course sequence that incorporated personal genotyping and genomic medicine was associated with increased student pharmacist knowledge and improved clinical confidence with pharmacogenomics.

Flipping Content to Improve Student Examination Performance in a Pharmacogenomics Course

Objective. To develop, implement, and evaluate active learning in a flipped class to improve student examination performance in the genetic foundations of pharmacogenomics. Design. The flipped classroom model was adopted in which a guided-inquiry learning activity was developed and conducted to complement recorded, previously viewed didactic lectures. The activity was constructed to focus on critical thinking and application of core principles of genetic crosses and pedigree analysis. A combination of independent work and active discussion with volunteer and guided student response provided student-facilitator interaction. Assessment. Student learning was evaluated by comparing pretest and posttest formative assessment results and by the comparison of prior years' examination performance on a subset of content for which no flipped classroom learning activities occurred. There was no significant difference between examination scores between the flipped classroom and previous approaches. An item-by-item analysis of the content reflected a significant change in performance on questions addressed in the flipped classroom exercise. Conclusion. The flipped class instructional model in this project included active-learning activities and formative assessments that provided students spaced and repetitive curricular engagement. The intervention transformed the classroom interactions of faculty members and students and contributed to improved student examination performance.

Clinical application of pharmacogenomics through clinical exercises and online resources

This article describes how to introduce pharmacy students to online pharmacogenomic resources and also to apply pharmacogenomics to clinical patient scenarios. This novel approach has been successful by integrating medical genomics into a core curriculum at a new school of pharmacy. To date, implementation of clinical exercises within a pharmacogenomics course has been well received by pharmacy students. The exercises have proven to be successful in enhancing students’ understanding of the clinical applicability of pharmacogenomic concepts. As pharmacogenomics is a topic of increasing importance in the health care field, it is crucial to continue to identify successful ways in which this concept can be integrated into the pharmacy curriculum.