A train-the-trainer approach to a shared pharmacogenomics curriculum for US colleges and schools of pharmacy

Pharmacogenomics education strategies in the United States pharmacy school curricula

BACKGROUND

Clinical pharmacogenomics is an expanding area in healthcare that relies heavily on pharmacists for advocacy and implementation. To support pharmacists' significant roles in clinical pharmacogenomics, pharmacy schools and colleges in the United States (US) have strived to incorporate pharmacogenomics education into their curricula, and various teaching strategies have been employed in recent years to meet pharmacogenomics educational outcomes. The six major strategies reported in the literature are described and compared in this review, which culminates in a proposed longitudinal curriculum design for pharmacogenomics education.

METHODS

Publications focused on pharmacogenomics education to pharmacy students within the US in the past decade were evaluated and summarized.

RESULTS

The major education strategies that have been studied are didactic lecture, personal genotyping or personal genomic testing, simulation laboratory activity, interprofessional education, practice-based activity such as clinical rotation, and combinational courses. Strengths and limitations of each teaching strategy are summarized and discussed.

IMPLICATIONS

Based upon each education strategy's strengths and weaknesses, the authors propose a longitudinal curriculum design to ensure that pharmacogenomics is taught multiple times to pharmacy students with diverse formats and teaching objectives conducive to long-term knowledge retention and practice readiness. Through this longitudinal curriculum design, pharmacy graduates will be well equipped to lead clinical pharmacogenomics in practice.

A systematic review of faculty development programs based on the Harden teacher's role framework model

BACKGROUND

Despite the changing roles of faculty in the health professions over the past two decades, none of the reviews has been paid enough attention to the impact of the faculty development programs on these roles. The objective of this review is to synthesize the existing evidence that addresses the questions: "What are the types and outcomes of faculty development programs based on the Harden teachers' role framework and which of the areas described by Harden and Crosby are the authors referring to?"

METHODS

This review was conducted according to the guidance for Preferred Reporting Items for Systematic Reviews and Meta-Analyses (PRISMA) framework. In 2020, a literature search was conducted in MEDLINE/PubMed, Scopus, ERIC, ScienceDirect, Google Scholar, Magiran and SID databases. The review included 119 studies (between 1990 and 2020) that met the review criteria. Data were extracted using a modified coding sheet. We used the modified Kirkpatrick model to assess the educational outcomes of faculty development programs.

RESULTS

The majority of faculty development programs were workshops (33.61%) with various durations. Most programs focused on the domain of information provider and coach (76.47%), followed by the facilitator of learning and mentor (53.78%) and assessor and diagnostician (37.81%). Only five faculty development programs focused on the domain of role model. The majority (83.19%) of outcomes reported were at level 2B, level 1 (73.95%) and level 2A (71.42%). Gains in knowledge and skills related to teaching methods and student assessment were frequently noted. Behavior changes included enhanced teaching performance, development of new educational curricula and programs, improved feedback and evaluation processes, new leadership positions, increased academic output and career development. The impact on the organizational practice continued to be underexplored.

CONCLUSION

Based on the review findings, broadening the scope of faculty development programs beyond the traditional roles of the faculty members by utilizing a competency-based framework for developing a comprehensive faculty development program is recommended. Attention to individualized form of faculty development programs and incorporating more informal approaches into the design and delivery of faculty development programs is also needed.

Pharmacogenomics elective focused on advanced lab techniques, game-based learning, and business plan development

BACKGROUND AND PURPOSE

Many medications contain labeling information related to pharmacogenomics. Effective education in this area is critical to ensure that future healthcare professionals are equipped with the skills needed to optimize patient therapy based on genetic testing results. This study focused on a novel elective course designed to educate students in pharmacogenomics.

EDUCATIONAL ACTIVITY AND SETTING

We developed a one credit hour pharmacogenomics elective course divided into three main content areas. The first section incorporated traditional lecture to review and cover new content not otherwise covered in the curriculum. The second section applied foundational content from the first session through an educational review game and simulated business plan. The third section of the course provided students an overview of laboratory techniques and sample collection procedures. To evaluate the effectiveness of these activities, students provided feedback through course evaluations and completed pre- and posttests on basic pharmacogenomics content.

FINDINGS

Overall, the course improved knowledge among students, and students provided positive feedback. Students averaged 9% higher on the posttest compared to the pretest (P = .03). Course evaluations trended positive with ratings close to "strongly agree." The most frequent comments stated an appreciation for the interactive components of the course and recommended increasing the elective to two credit hours.

SUMMARY

Through incorporation of novel lab techniques, game-based learning, and an innovative business plan process, the course increased student knowledge and received positive feedback. These new techniques could serve as a model for other pharmacogenomics training programs.

Implementation of a Shared Pediatric Pharmacy Elective During the COVID-19 Pandemic

During the COVID-19 pandemic, educators were forced to identify innovative teaching strategies to deliver high-quality learning experiences to students. In spring 2021, faculty at Butler College of Pharmacy and Health Sciences and Purdue University College of Pharmacy collaborated to successfully implement a shared pediatric pharmacy elective at both institutions.

The Implementation of Pharmacogenetics in the United Kingdom

There is considerable inter-individual variability in the effectiveness and safety of pharmaceutical interventions. This phenomenon can be attributed to a multitude of factors; however, it is widely acknowledged that common genetic variation affecting drug absorption or metabolism play a substantial contributory role. This is a concept known as pharmacogenetics. Understanding how common genetic variants influence responses to medications, and using this knowledge to inform prescribing practice, could yield significant advantages for both patients and healthcare systems. Some health services around the world have introduced pharmacogenetics into routine practice, whereas others are less advanced along the implementation pathway. This chapter introduces the field of pharmacogenetics, the existing body of evidence, and discusses barriers to implementation. The chapter will specifically focus on efforts to introduce pharmacogenetics in the NHS, highlighting key challenges related to scale, informatics, and education.

Mental health training programs for community pharmacists, pharmacy staff and students: A systematic review

BACKGROUND

Primary care is often the first point of contact for people living with mental disorders. Community pharmacists, pharmacy staff and students are increasingly being trained to deliver mental health care. However, there is still a gap in the literature exploring the characteristics of all available mental health training programs and their components and their influence on pharmacists, pharmacy staff and students' outcomes.

OBJECTIVES

To summarize the evidence evaluating mental health training programs completed by community pharmacists, pharmacy staff and students. More specifically, to explore the components of mental health training programs and identify those that facilitate significant improvements in outcomes.

METHODS

A systematic review was conducted following the Cochrane handbook and reported according to PRISMA guidelines. A search for published literature was conducted in three databases (PubMed, Scopus, and Web of Science) in July 2021. Eligible studies were included if they described and evaluated the impact of mental health training programs delivered to community pharmacists, pharmacy staff and pharmacy students regardless of design or comparator. The methodological quality of included studies was appraised using both the NIH quality assessment, to evaluate studies with an uncontrolled pre-post design, and the Cochrane EPOC risk of bias assessment, to evaluate studies with a controlled (randomized and non-randomized) study design.

RESULTS

Thirty-three studies were included. Most of the identified mental health training programs contained knowledge-based components and active learning activities. Changes in participants' attitudes, stigma, knowledge, confidence and skills were frequently assessed. An extensive range of self-assessment and observational instruments used to evaluate the impact of the training programs were identified. Positive improvements in participants' attitudes, knowledge and stigma were frequently identified following participation in training programs.

CONCLUSIONS

This systematic review highlights the importance of mental health training programs in increasing pharmacists', pharmacy staff and pharmacy students' skills and confidence to deliver mental health care in community pharmacy. Future research should build upon this basis and further focus on finding the most efficient measures to evaluate these training programs and assess their long-term effectiveness, allowing comparison between programs.

Impact of a Well-being Promotion Training Program on Advanced Pharmacy Practice Experience Conference Leaders

Objective. The objective of this pilot study was to evaluate the attitudes and self-efficacy of advanced pharmacy practice experience (APPE) conference leaders after completing the Well-being Promotion (WelPro) training program developed at the University of California, San Francisco (UCSF) School of Pharmacy.Methods. The WelPro training program was developed to equip participants with the knowledge and tools to assist APPE students in distress and promote student wellness. After completing the WelPro training program, a 20-item survey was administered to 10 conference leaders via a web-based survey tool to assess their attitudes about burnout and self-efficacy in assisting students in distress. Descriptive statistics were used to characterize attitudes and self-efficacy.Results. Ten conference leaders participated in the training program. Of these, nine reported experiencing burnout in their careers, and all believed burnout within the pharmacy profession could be avoided. After the WelPro training program, confidence levels of the conference leaders significantly improved in the following areas: identification of students in distress, identification of resources for students, and recognition of when and how to refer students in distress.Conclusion. Increased self-efficacy of conference leaders to identify and assist students in distress could be translated into their improved ability to support students' overall well-being. The WelPro training program can serve as a model for similar wellness training programs that directors and preceptors in experiential education can implement at their institutions.

Development of the pharmacogenomics and genomics literacy framework for pharmacists

BACKGROUND

Pharmacists play a unique role in integrating genomic medicine and pharmacogenomics into the clinical practice and to translate pharmacogenomics from bench to bedside. However, the literature suggests that the knowledge gap in pharmacogenomics is a major challenge; therefore, developing pharmacists' skills and literacy to achieve this anticipated role is highly important. We aim to conceptualize a personalized literacy framework for the adoption of genomic medicine and pharmacogenomics by pharmacists in the United Arab Emirates with possible regional and global relevance.

RESULTS

A qualitative approach using focus groups was used to design and to guide the development of a pharmacogenomics literacy framework. The Health Literacy Skills framework was used as a guide to conceptualize the pharmacogenomics literacy for pharmacists. The framework included six major components with specific suggested factors to improve pharmacists' pharmacogenomics literacy. Major components include individual inputs, demand, skills, knowledge, attitude and sociocultural factors.

CONCLUSION

This framework confirms a holistic bottom-up approach toward the implementation of pharmacogenomics. Personalized medicine entails personalized efforts and frameworks. Similar framework can be created for other healthcare providers, patients and stakeholders.

Long-term evaluation of a train-the-trainer workshop for pharmacy faculty using the RE-AIM framework

BACKGROUND

Although two thirds of tobacco users express interest in quitting, few pharmacists address tobacco use as part of routine practice. Historically, pharmacy schools provided inadequate tobacco cessation training for students. To address this educational gap, train-the-trainer workshops were conducted between 2003 and 2005 to train pharmacy faculty (n = 191) to teach a shared, national tobacco cessation curriculum at their academic institutions.

OBJECTIVE

To characterize faculty perceptions of the train-the-trainer workshops and estimate the long-term reach, effectiveness, adoption, implementation, and maintenance (RE-AIM) of the shared curriculum at pharmacy schools.

METHODS

This study is the second phase of a sequential mixed methods study. Results from Phase 1, a qualitative study, informed the development of survey items for Phase 2. Applying the RE-AIM framework, a web-based survey was developed and administered to train-the-trainer participants.

RESULTS

Of 191 trainees, 137 were locatable; of these, 111 completed a survey (81.0%). Most (n = 87; 78.4%) reported current employment in academia. The most highly rated reason for attending a workshop was to improve teaching of tobacco cessation content, and 98.1% reported moderate or high confidence for teaching tobacco cessation. Among those who practice in a clinical setting, 70.6% reported asking their patients about tobacco use all or almost all the time. Just over three fourths of faculty respondents who work in academia believe that shared curricula should be more broadly considered for use in pharmacy schools, and 79.0% agreed that shared curricula are a cost-effective approach to teaching.

CONCLUSION

Evidence is provided for long-term reach, effectiveness, adoption, implementation, and maintenance of the Rx for Change shared tobacco cessation training program. Participants perceived that the workshop resulted in long-term, positive effects on their careers as well as their teaching and clinical practice.

The Ripple Effect: A Train-the-Trainer Model to Exponentially Increase Organizational Faculty Development

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INTRODUCTION

Faculty development is a key component of undergraduate and graduate medical education and is required for accreditation. Many institutions face the challenges of training large numbers of faculty at multiple locations on a recurring basis. In order to meet the faculty development demands of our organization, we implemented a train-the trainer model of faculty development.

METHODS

A train-the-trainer program was created using deliberate practice as the theoretical framework. The primary goals of the program were to enhance content knowledge and develop facilitation skills of the participants (called faculty trainers). Two separate cohorts received 40 hours of in-person training consisting of attending the faculty development workshops as a learner, providing feedback to course faculty, facilitating and participating in journal club sessions on relevant content, and practicing facilitation and receiving feedback on the workshops. Cohorts 1 and 2 were trained on how to deliver 6 and 7 workshops, respectively. An additional 16 hours of training and further feedback occurred when faculty trainers delivered the workshops at outside institutions.

RESULTS

Twenty-nine faculty trainers from 15 specialties and subspecialties were trained, including 18 in the first cohort (January 2018) and 14 in the second cohort (February 2019) with 3 who participated in both cohorts. From January 2018 to January 2020, faculty trainers delivered 298 workshops to 3742 attendees at 25 locations. For the faculty trainers, 1477 evaluations were completed with 1031 (88.1%) rated as excellent, 141 (9.5%) rated as good, and 8 (0.5%) as average. There were no fair or poor ratings.

DISCUSSION

Our train-the-trainer program effectively developed a community of national faculty developers. Faculty trainer output was substantial and early evaluations of performance were positive. The model outlined in this paper serves as a potential sustainable model for other institutions desiring to train a cadre of faculty developers for their organization.

Assessment of healthcare professionals' knowledge, attitudes, and perceived challenges of clinical pharmacogenetic testing in Egypt

Aim: We evaluated healthcare practitioners' perspectives regarding clinical pharmacogenetics in Cairo, Egypt. Materials & methods: We administered a paper-based survey to pharmacists and physicians practicing at Children's Cancer Hospital Egypt. The survey assessed practitioners' knowledge, attitudes, and perspectives about pharmacogenetic testing. Results: The study included 184 respondents (67.9% pharmacists; 32.1% physicians. Overall, the pharmacogenetic knowledge was low (mean = 41.7%) but attitudes toward pharmacogenetic testing and its potential clinical application were generally positive. Pharmacists responded more favorably than physicians to statements attributing the responsibility of applying pharmacogenetics in the clinical setting to their profession. However, several challenges were identified; the most common being: lack of pharmacogenetic knowledge and skill, lack of pharmacogenetic testing devices, and limited funding. Conclusion: Future efforts to promote pharmacogenetic implementation should focus on foundational education, practical training, and exploration of potential funding sources.

Pharmacogenomic Testing: Clinical Evidence and Implementation Challenges

Pharmacogenomics can enhance patient care by enabling treatments tailored to genetic make-up and lowering risk of serious adverse events. As of June 2019, there are 132 pharmacogenomic dosing guidelines for 99 drugs and pharmacogenomic information is included in 309 medication labels. Recently, the technology for identifying individual-specific genetic variants (genotyping) has become more accessible. Next generation sequencing (NGS) is a cost-effective option for genotyping patients at many pharmacogenomic loci simultaneously, and guidelines for implementation of these data are available from organizations such as the Clinical Pharmacogenetics Implementation Consortium (CPIC) and the Dutch Pharmacogenetics Working Group (DPWG). NGS and related technologies are increasing knowledge in the research sphere, yet rates of genomic literacy remain low, resulting in a widening gap in knowledge translation to the patient. Multidisciplinary teams—including physicians, nurses, genetic counsellors, and pharmacists—will need to combine their expertise to deliver optimal pharmacogenomically-informed care.

Pharmacogenomics courses in pharmacy school curricula

Aim: The appropriate use and integration of pharmacogenetic (PGx) testing will pivot on provider preparation and training. Pharmacists have been recognized as one of the key providers in the delivery of PGx testing and as such, professional organizations have recommended inclusion of PGx content in pharmacy curricula. Methods: We reviewed the curriculum of 132 US pharmacy schools for information about PGx courses. Results: A total of 70 core curriculum courses were identified. 55 (42%) pharmacy schools included at least one PGx course as part of the core curriculum, and ten (8%) schools that offered a PGx course elective. Conclusion: While many pharmacy schools have responded to the accreditation standards to include PGx, less than half of the schools have developed a standalone course.

Community pharmacists' educational needs for implementing clinical pharmacogenomic services

OBJECTIVES

Pharmacist leadership and knowledge of pharmacogenomics is critical to the acceleration and enhancement of clinical pharmacogenomic services. This study aims for a qualitative description of community pharmacists' pharmacogenomic educational needs when implementing clinical pharmacogenomic services at community pharmacies.

METHODS

Pharmacists practicing at Rite Aid Pharmacy locations in the Greater Pittsburgh Area were recruited to participate in this qualitative analysis. Pharmacists from pharmacy locations offering pharmacogenomic testing and robust patient care services were eligible to participate in a semistructured, audio-recorded interview. The semistructured interview covered 4 domains crafted by the investigative team: (1) previous knowledge of pharmacogenomics; (2) implementation resources; (3) workflow adaptation; and (4) learning preferences. Interviews were transcribed verbatim and independently coded by 2 researchers. A thematic analysis by the investigative team followed. Supporting quotes were selected to illustrate each theme.

RESULTS

Eleven pharmacists from 9 unique pharmacy locations participated in this study. The average length of practice as a community pharmacist was 12 years (range, 1.5-31 years). Pharmacist's pharmacogenomic educational needs were categorized into 5 key themes: (1) enriched pharmacogenomic education and training; (2) active learning to build confidence in using pharmacogenomic data in practice; (3) robust and reputable clinical resources to effectively implement pharmacogenomic services; (4) team-based approach throughout implementation; (5) readily accessible network of pharmacogenomic experts.

CONCLUSION

This study describes the educational needs and preferences of community pharmacists for the successful provision of clinical pharmacogenomic services in community pharmacies. Pharmacists recognized their needs for enriched knowledge and instruction, practice applying pharmacogenomic principles with team-based approaches, robust clinical resources, and access to pharmacogenomic experts. This deeper understanding of pharmacist needs for pharmacogenomic education could help to accelerate and enhance the clinical implementation of pharmacogenomic services led by community pharmacists.

Clinical dashboard development and use for academic detailing in the U.S. Department of Veterans Affairs

OBJECTIVE

To describe the U.S. Department of Veterans Affairs (VA) Academic Detailing Service's (ADS) experience with the development and use of clinical dashboards across the VA's national clinical campaigns. We focused only on dashboards developed by the VA ADS national clinical program managers.

SETTING

U.S. Department of Veterans Affairs Pharmacy Benefits Management National Academic Detailing Service.

PRACTICE DESCRIPTION

Academic detailing is a multifaceted, educational outreach intervention that services providers through interactions with academic detailers (at the VA, these are specially trained clinical pharmacy specialists) using evidence-based research, educational brochures, and clinical dashboards to align prescribing behavior with best practices. The VA ADS developed clinical dashboards to benchmark and monitor academic detailing activities and performance and to identify opportunities for redistributing resources. We used the opioid crisis as an example to highlight key steps in the development of a clinical dashboard.

EVALUATION

Testing is an important part of clinical dashboard development. Evaluations of the users perceptions contributed to lessons learned.

RESULTS

Data validation, missing data, data availability, standardization, user engagement, and technical limitations were among several challenges the VA ADS encountered during dashboard development. Stakeholder engagement, communication, and flexibility with development time allowed us to develop efficient dashboards.

CONCLUSIONS

Health care data and health analytics have transformed the type of clinical care that can be practiced by creating the ability to implement system-wide processes for both population management and quality improvement processes. End users of these VA ADS clinical dashboards can generate priority panel reports and data visualization of key performance indicators to identify areas for improvement or action.

Pharmacogenomics Education Improves Pharmacy Student Perceptions of Their Abilities and Roles in Its Use

Objective. To assess whether a required first-year course, Principles in Genetics and Pharmacogenomics, and integration into subsequent courses affected pharmacy students' perceptions of pharmacogenomics. Methods. A survey was distributed to Professional Year (PY) 1 students during the first and last weeks of the course from 2014 to 2016. A follow-up survey was distributed to PY2, PY3, and PY4 students. Results. Respondents consistently agreed that pharmacogenomics is clinically relevant. After the course, PY1 students are more comfortable in their knowledge and role in the application of pharmacogenomics. Although their comfort reverts to some degree, PY2-PY4 students believe that they should be able to apply pharmacogenomics clinically. Most PY2-PY4 students indicate that later courses review pharmacogenomics. Conclusion. A required course in genetics and pharmacogenomics can promote a perception that pharmacists should have knowledge of, and be involved in the use of genetic information clinically. Inclusion of pharmacogenomic concepts in subsequent curricular components may help in maintaining these perceptions.

Challenges and Solutions for Future Pharmacy Practice in the Era of Precision Medicine

As precision medicine research and its clinical applications continue to advance, it is critical for pharmacists to be involved in these developments to deliver optimal, tailored drug therapies for patients. To ensure pharmacists remain leaders in the field, the annual Pharmaceutical Sciences Conference convened by the University of North Carolina at Chapel Hill Eshelman School of Pharmacy focused on the role of pharmacy within precision medicine. This is a summary of the conference, highlighting the major challenges and solutions that will help advance individualized pharmacological methods within practice and research.

Pharmacogenomics: From classroom to practice

Perceptions and challenges connecting Pharmacogenomics taught in classrooms and translationing it to advance pharmacy practice rotations and healthcare settings and potential areas of development.

Pharmacist training in suicide prevention

OBJECTIVE

Suicide in the United States is a major preventable public health problem. Pharmacists need to be educated on suicide prevention strategies so that they can increase their own awareness and identify patients at-risk. A training program for pharmacists was used to provide skills necessary to recognize a crisis and the warning signs of suicide. The program's effect on the participant's general perception, self-efficacy, and attitude towards suicide prevention was examined.

SETTING

Various academic, health care, and professional meetings throughout San Diego County.

PRACTICE INNOVATION

First Question, Persuade, and Refer training program targeting pharmacists.

EVALUATION

A self-administered presurvey, postsurvey and, Program Outcome Evaluation were given to participants of the suicide training program. Items included demographics, general perception, self-efficacy, and attitude toward suicide prevention. Descriptive statistics were used to describe participants' demographics. t tests were used to compare general perception, attitudes, and self-efficacy scores between pretest and post-program evaluation survey responses. Nonparametric Wilcoxon signed rank analyses for matched pairs were used to compare survey responses that asked about attitudes before and after trainings. Regression analyses were conducted to assess factors associated with general perception, self-efficacy, and attitudes.

RESULTS

Participants were more likely to update knowledge after training and reported more confidence to make an intervention for a patient at risk for suicide.

CONCLUSION

Our findings suggest that a suicide prevention training program helped pharmacist respondents build confidence in several self-efficacy areas relating to detection of suicide signs, response to patients with suicidal thoughts, reassurance for patients, and provision of resources and referrals.

Knowledge, Attitude, and Perceptions of Pharmacists and Pharmacy Students towards Pharmacogenomics in Zimbabwe

The potential of pharmacogenomics (PGx) to positively impact health outcomes and quality of healthcare is well-established. However, the application of available evidence into clinical practice is still limited due to limited knowledge among healthcare professionals, including pharmacists. As a start towards building capacity for PGx education, we assessed knowledge, attitudes, and perceptions about PGx among practising pharmacists and pharmacy students. A cross-sectional study was conducted among pharmacists and undergraduate pharmacy students selected using a convenient sampling method-a 37-question survey instrument was used to obtain information regarding PGx among the participants. Out of a total of 131 participants, 56% of respondents showed fair-to-good PGx knowledge. Respondents' self-reported assessment indicated that 88% had average and above knowledge scores in PGx. Practising pharmacists in Zimbabwe have positive attitudes towards PGx and would support its application to improve treatments. However, there were concerns about security and discrimination when genomics data is used by those who do not understand its meaning. Participants agreed that they would play a leading role in PGx testing if provided with appropriate training. The interest in PGx is challenged by their limited knowledge and understanding of genetics, suggesting a need to update curricula for pharmacy students and for continuing health education programmes.

Advancing precision medicine in healthcare: addressing implementation challenges to increase pharmacogenetic testing in the clinical setting

The incorporation of precision medicine into the clinical setting is becoming increasingly feasible with the availability of more affordable genetic sequencing technologies and successful genetic associations with phenotypes, especially in the pharmacogenomic field. Although substantial progress has been made to ensure successful uptake of pharmacogenomic testing in the clinical setting already, many challenges still remain for sustainable implementation. The importance of pharmacogenomic information in patient care, identifying key barriers, and proposed solutions for advancing pharmacogenomic implementation will be discussed.

Assessing feasibility of delivering pharmacogenetic testing in a community pharmacy setting

AIM

To describe the rationale and design of a study evaluating the delivery of pharmacogenetic (PGx) testing in community pharmacies. Study rationale: Pharmacists have expressed interest in offering PGx testing; however, their lack of knowledge and experience, patients' acceptance and feasibility are unknown in this setting.

STUDY DESIGN

Through a cluster randomized trial, we will assess pharmacist and patient experiences with delivery of PGx testing as a standalone service or integrated into medication therapy management services. Anticipated results: We anticipate that PGx testing can be delivered in a community pharmacy setting and accepted and valued by patients.

CONCLUSION

This study is expected to provide valuable evidence about the real-world feasibility and acceptance of a community pharmacist-delivered approach of PGx testing.

Educational strategies to enable expansion of pharmacogenomics-based care

PURPOSE

The current state of pharmacogenomics education for pharmacy students and practitioners is discussed, and resources and strategies to address persistent challenges in this area are reviewed.

SUMMARY

Consensus-based pharmacist competencies and guidelines have been published to guide pharmacogenomics knowledge attainment and application in clinical practice. Pharmacogenomics education is integrated into various pharmacy school courses and, increasingly, into Pharm.D. curricula in the form of required standalone courses. Continuing-education programs and a limited number of postgraduate training opportunities are available to practicing pharmacists. For colleges and schools of pharmacy, identifying the optimal structure and content of pharmacogenomics education remains a challenge; insufficient numbers of faculty members with pharmacogenomics expertise and the inadequate availability of practice settings for experiential education are other limiting factors. Strategies for overcoming those challenges include providing early exposure to pharmacogenomics through foundational courses and incorporating pharmacogenomics into practice-based therapeutics courses and introductory and advanced pharmacy practice experiences. For practitioner education, online resources, clinical decision support-based tools, and certificate programs can be used to supplement structured postgraduate training in pharmacogenomics. Recently published data indicate successful use of "shared curricula" and participatory education models involving opportunities for learners to undergo personal genomic testing.

CONCLUSION

The pharmacy profession has taken a leadership role in expanding student and practitioner education to meet the demand for increased pharmacist involvement in precision medicine initiatives. Effective approaches to teaching pharmacogenomics knowledge and driving its appropriate application in clinical practice are increasingly available.

Pharmacogenomics competencies in pharmacy practice: A blueprint for change

The emerging use of genomic data to inform medication therapy populates the medical literature and provides evidence for guidelines in the prescribing information for many medications. Despite the availability of pharmacogenomic studies, few pharmacists feel competent to use these new data in patient care. The first pharmacogenomics competency statement for pharmacists was published in 2002. In 2011, the Pharmacogenomics Special Interest Group of the American Association of Colleges of Pharmacy led a process to update this competency statement with the use of a consensus-based method that incorporated input from multiple key professional pharmacy organizations to reflect growth in genomic science as well as the need for pharmacist application of genomic data. Given the rapidly evolving science, educational needs, and practice models in this area, a standardized competency-based approach to pharmacist education and training in pharmacogenomics is needed to equip pharmacists for leadership roles as essential members of health care teams that implement clinical utilization strategies for genomic data.

Advancing Pharmacogenomics Education in the Core PharmD Curriculum through Student Personal Genomic Testing

OBJECTIVE

To develop, implement, and evaluate "Test2Learn" a program to enhance pharmacogenomics education through the use of personal genomic testing (PGT) and real genetic data.

DESIGN

One hundred twenty-two second-year doctor of pharmacy (PharmD) students in a required course were offered PGT as part of a larger program approach to teach pharmacogenomics within a robust ethical framework. The program added novel learning objectives, lecture materials, analysis tools, and exercises using individual-level and population-level genetic data. Outcomes were assessed with objective measures and pre/post survey instruments.

ASSESSMENT

One hundred students (82%) underwent PGT. Knowledge significantly improved on multiple assessments. Genotyped students reported a greater increase in confidence in understanding test results by the end of the course. Similarly, undergoing PGT improved student's self-perceived ability to empathize with patients compared to those not genotyped. Most students (71%) reported feeling PGT was an important part of the course, and 60% reported they had a better understanding of pharmacogenomics specifically because of the opportunity.

CONCLUSION

Implementation of PGT in the core pharmacy curriculum was feasible, well-received, and enhanced student learning of pharmacogenomics.

Academic and professional pharmacy education: a pharmacogenomics certificate training program

Aim: The aim of this study was to evaluate a pharmacogenomics certificate training program relative to pharmacist competencies in basic genetic concepts, genetics and disease, pharmacogenetics/pharmacogenomics and ethical, legal and social implication. Methods: Participants, including pharmacists, pharmacy students and pharmacy educators completed a survey related to to the competency statements. Following the pre-program survey, participants completed a 6-week home self-study with subject matter including basic science (three chapters) and clinical application of pharmacogenomics (eight chapters). The participants completed a quiz for each of the self-study chapters. Following the self-study, participants completed a day-long, 7-h live program which included a review of the competency statements and counseling sessions with seven different simulated patients (primarily pharmacy students). Participants then completed a post-program survey which included the same items as the pre-program survey. Results: Specifically, for the pharmacist participants, the average score of the self-study quizzes was 91%. For the pharmacists specifically, there was a statistically significant increase in self-assessed perception of competence related to pharmacogenomics. Additionally, it was observed that recommendations related to specific drug–gene interactions for the simulated patients were addressed correctly 95% of the time across all participant–patient encounters. Conclusion: Self-study and a live, interactive component in the certificate training program led to increased self-understanding of defined pharmacogenomics competencies. Additionally, pharmacy students, in the role of simulated patients gained knowledge during the live component of the program. This type of program, especially if made available through electronic-based platforms can serve to educate pharmacists and increase the uptake of pharmacogenomics in various healthcare settings.

Strategies for implementation of an effective pharmacogenomics program in pharmacy education

Sequencing of the human genome and the evidence correlating specific genetic variations to diseases have opened up the potential of genomics to more effective and less harmful interventions of human diseases. A wealth of pharmacogenomics knowledge is in place for the practice of precision medicine. However, this knowledge is not fully realized in clinical practice. One reason for this impasse is the lack of in-depth understanding of the potential of pharmacogenomics among the healthcare professionals. Pharmacists are the point-of-care providers and are expected to advise clinicians on matters relating to the implementation of pharmacogenomics in patient care. However, current pharmacogenomics instruction in pharmacy schools fails to produce pharmacists with the required knowledge or practical training in this discipline. In this perspective, we provide several strategies to overcome limitations faced by pharmacy schools. Once implemented, pharmacy schools will produce precision medicine-ready pharmacists.

Challenges to integrating pharmacogenetic testing into medication therapy management

Some have proposed the integration of pharmacogenetic (PGx) testing into medication therapy management (MTM) to enable further refinement of treatments to reduce risk of adverse responses and improve efficacy. PGx testing involves the analysis of genetic variants associated with therapeutic or adverse response and may be useful in enhancing the ability to identify ineffective and/or harmful drugs or drug combinations. This "enhanced" MTM might also reduce patient concerns about side effects and increase confidence that the medication is effective, addressing 2 key factors that impact patient adherence: concern and necessity. However, the feasibility and effectiveness of the integration of PGx testing into MTM in clinical practice has not yet been determined. In this commentary, we consider some of the challenges to the integration and delivery of PGx testing in MTM services.

Evaluation of a shared pharmacogenomics curriculum for pharmacy students

Aim: This national dissemination study evaluated pharmacy students’ self-reported overall ability, self-efficacy and attitudes toward applying pharmacogenomics and perceptions of Pharmacogenomics Education Program, a shared pharmacogenomics curriculum. Patients & methods: Following a series of train-the-trainer programs for pharmacy faculty, pre- (n = 2674) and post-training surveys (n = 2542) were administered to Doctor of Pharmacy students (n = 43 pharmacy schools). Results: Students reported increased (pre- vs post-training) overall ability to educate patients about pharmacogenomics (17 vs 63%; p < 0.0001) and pharmacogenomic testing (11 vs 60%; p < 0.0001) and increased self-efficacy for identifying therapeutic areas for which pharmacogenomic testing is required (20 vs 75%; p < 0.0001). Most (92%) agreed that students at other schools would benefit from receiving the same, or similar, pharmacogenomics education. Conclusion: A shared curriculum is an effective approach for broadscale curricular dissemination.

Original submitted 17 October 2014; Revision submitted 19 December 2014

Critical appraisal of the views of healthcare professionals with respect to pharmacogenomics and personalized medicine in Greece

Aim: In the postgenomic era, in many European countries, very little is known regarding the level of awareness of healthcare professionals with respect to pharmacogenomics and personalized medicine. Methods: Here, we report the findings of an in-depth study, involving 86 pharmacists and 208 physicians, to assess their level of awareness of pharmacogenomics and personalized medicine. Results: Our findings indicate that approximately 60% of pharmacists consider their level of knowledge of personalized medicine to be very low, while over half of the pharmacists and physicians intimate that they would be unable to explain the results of pharmacogenomic tests to their customers or patients, respectively. This situation may be directly related to the low level of their undergraduate education in genetics and pharmacogenomics. Conclusion: These findings provide the basis for assessing the views of healthcare professionals in relation to personalized medicine in Greece, and should help to facilitate the integration of genomics into the medical decision-making process.

Implementation and outcomes of a live continuing education program on pharmacogenomics

Aim: This study evaluated the implementation and outcomes of a pharmacogenomics education program among pharmacists. Materials & methods: Continuing education lectures were presented at local, state and national pharmacy conferences. Results: Six hundred and seventy three pharmacist participants (mean ± standard deviation: 45 ± 14 years of age with 19 ± 13 years of practice experience) completed program evaluations. Participants’ knowledge and overall ability to address pharmacogenomics testing significantly improved (p < 0.001). More than 50% rated self-efficacy for putting pharmacogenomics knowledge into clinical practice to be likely or very likely. Attitudes toward increasing the number of patients to educate, updating pharmacogenomics knowledge, and providing advice were 39, 76 and 64%, respectively. Participants rated program components to be useful or very useful, and the quality of the program format, program content and audience response system as good, very good or excellent. Conclusion: Through live continuing education presentations at pharmacy conferences, participants showed significant increases in knowledge and their overall ability to address pharmacogenomics testing with patients.

Original submitted 30 January 2013; Revision submitted 10 April 2013