Molecular animations in genomics education: designing for whom?

Molecular animations can be beneficial as teaching tools for genomics education; however, barriers to their effective implementation remain. This article proposes informed design guidelines from the perspective of the animator that may assist others to effectively communicate scientific concepts to their respective audiences and communities.

Understanding changes in genetic literacy over time and in genetic research participants.

As genomic and personalized medicine becomes mainstream, assessing and understanding the public's genetic literacy is paramount. Because genetic research drives innovation and involves much of the public, it is equally important to assess its impact on genetic literacy. We designed a survey to assess genetic literacy in three ways (familiarity, knowledge, and skills) and distributed it to two distinct samples: 2,050 members of the general population and 2,023 individuals currently enrolled in a large-scale genetic research study. We compared these data to a similar survey implemented in 2013. The results indicate that familiarity with basic genetic terms in 2021 (M = 5.36 [range 1-7], p < 0.001) and knowledge of genetic concepts in 2021 (M = 9.06 [56.6% correct], p = 0.002) are significantly higher compared to 2013 (familiarity: M = 5.08 [range 1-7]; knowledge: M = 8.72 [54.5% correct]). Those currently enrolled in a genetic study were also significantly more familiar with genetic terms (M = 5.79 [range 1-7], p < 0.001) and more knowledgeable of genetic concepts (M = 10.57 [66.1% correct], p < 0.001), and they scored higher in skills (M = 3.57 [59.5% correct], p < 0.001) than the general population (M = 5.36 [range 1-7]; M = 9.06 [56.6% correct]; M = 2.65 [44.2% correct]). The results suggest that genetic literacy is improving over time, with room for improvement. We conclude that educational interventions are needed to ensure familiarity with and comprehension of basic genetic concepts and suggest further exploration of the impact of genetic research participation on genetic literacy to determine mechanisms for potential interventions.

A national education program for rapid genomics in pediatric acute care: Building workforce confidence, competence, and capability.

PURPOSE: To develop and evaluate a scalable national program to build confidence, competence and capability in the use of rapid genomic testing (rGT) in the acute pediatric setting. METHODS: We used theory-informed approaches to design a modular, adaptive program of blended learning aimed at diverse professional groups involved in acute pediatric care. The program comprised 4 online learning modules and an online workshop and was centered on case-based learning. We evaluated the program using the Kirkpatrick 4-level model of training evaluation and report our findings using the Reporting Item Standards for Education and its Evaluation (RISE2) guidelines for genomics education and evaluation. RESULTS: Two hundred and two participants engaged with at least 1 component of the program. Participants self-reported increased confidence in using rGT, (P < .001), and quiz responses objectively demonstrated increased competence (eg, correct responses to a question on pretest counseling increased from 30% to 64%; P < .001). Additionally, their capability in applying genomic principles to simulated clinical cases increased (P < .001), as did their desire to take on more responsibility for performing rGT. The clinical interpretation of more complex test results (such as negative results or variants of uncertain significance) appeared to be more challenging, indicating a need for targeted education in this area. CONCLUSION: The program format was effective in delivering multidisciplinary and wide-scale genomics education in the acute care context. The modular approach we have developed now lends itself to application in other medical specialties or areas of health care.

Evaluation of two Massive Open Online Courses (MOOCs) in genomic variant interpretation for the NHS workforce.

BACKGROUND: The implementation of the National Genomic Medicine Service in the UK has increased patient access to germline genomic testing. Increased testing leads to more genetic diagnoses but does result in the identification of genomic variants of uncertain significance (VUS). The rigorous process of interpreting these variants requires multi-disciplinary, highly trained healthcare professionals (HCPs). To meet this training need, we designed two Massive Open Online Courses (MOOCs) for HCPs involved in germline genomic testing pathways: Fundamental Principles (FP) and Inherited Cancer Susceptibility (ICS). METHODS: An evaluation cohort of HCPs involved in genomic testing were recruited, with additional data also available from anonymous self-registered learners to both MOOCs. Pre- and post-course surveys and in-course quizzes were used to assess learner satisfaction, confidence and knowledge gained in variant interpretation. In addition, granular feedback was collected on the complexity of the MOOCs to iteratively improve the resources. RESULTS: A cohort of 92 genomics HCPs, including clinical scientists, and non-genomics clinicians (clinicians working in specialties outside of genomics) participated in the evaluation cohort. Between baseline and follow-up, total confidence scores improved by 38% (15.2/40.0) (95% confidence interval [CI] 12.4-18.0) for the FP MOOC and 54% (18.9/34.9) (95%CI 15.5-22.5) for the ICS MOOC (p < 0.0001 for both). Of those who completed the knowledge assessment through six summative variant classification quizzes (V1-6), a mean of 79% of respondents classified the variants such that correct clinical management would be undertaken (FP: V1 (73/90) 81% Likely Pathogenic/Pathogenic [LP/P]; V2 (55/78) 70% VUS; V3 (59/75) 79% LP/P; V4 (62/72) 86% LP/LP. ICS: V5 (66/91) 73% VUS; V6 (76/88) 86% LP/P). A non-statistically significant higher attrition rate was seen amongst the non-genomics workforce when compared to genomics specialists for both courses. More participants from the non-genomics workforce rated the material as "Too Complex" (FP n = 2/7 [29%], ICS n = 1/5 [20%]) when compared to the specialist genomics workforce (FP n = 1/43 [2%], ICS n = 0/35 [0%]). CONCLUSIONS: After completing one or both MOOCs, self-reported confidence in genomic variant interpretation significantly increased, and most respondents could correctly classify variants such that appropriate clinical management would be instigated. Genomics HCPs reported higher satisfaction with the level of content than the non-genomics clinicians. The MOOCs provided foundational knowledge and improved learner confidence, but should be adapted for different workforces to maximise the benefit for clinicians working in specialties outside of genetics.

A nationally agreed cross-professional competency framework to facilitate genomic testing.

PURPOSE: The study aimed to develop a nationally agreed, cross-professional competency framework outlining the knowledge, skills, and behaviors required to facilitate genomic tests. METHODS: Using principles of the nominal group technique, a consensus meeting with 25 experts mapped themes to an initial framework and voted on areas of inconsistency. A revised framework was open for consultation with health care professionals and patient communities before being published. An evaluation, using an online survey, was conducted to explore early use and factors to facilitate adoption of the framework. RESULTS: The framework identified 8 competencies required to facilitate genomic tests. The evaluation (239 survey responses from health care professionals) indicated that the framework addresses a timely need among users and identified ways to improve awareness and accessibility for different health care professional groups. CONCLUSION: This framework can be used as a guide for best practice by health care professionals who request genomic tests. It can also provide a foundation to identify learning needs and structure training such that conversations about genomic testing can be delivered in a consistent manner across specialties. These competencies can also be used as a reference to evaluate how consent is facilitated in different specialty areas to enhance the responsible delivery of genomic medicine.

Genomics Education in the Era of Personal Genomics: Academic, Professional, and Public Considerations.

Since the completion of the Human Genome Project in 2003, genomic sequencing has become a prominent tool used by diverse disciplines in modern science. In the past 20 years, the cost of genomic sequencing has decreased exponentially, making it affordable and accessible. Bioinformatic and biological studies have produced significant scientific breakthroughs using the wealth of genomic information now available. Alongside the scientific benefit of genomics, companies offer direct-to-consumer genetic testing which provide health, trait, and ancestry information to the public. A key area that must be addressed is education about what conclusions can be made from this genomic information and integrating genomic education with foundational genetic principles already taught in academic settings. The promise of personal genomics providing disease treatment is exciting, but many challenges remain to validate genomic predictions and diagnostic correlations. Ethical and societal concerns must also be addressed regarding how personal genomic information is used. This genomics revolution provides a powerful opportunity to educate students, clinicians, and the public on scientific and ethical issues in a personal way to increase learning. In this review, we discuss the influence of personal genomics in society and focus on the importance and benefits of genomics education in the classroom, clinics, and the public and explore the potential consequences of personal genomic education.

Genomic education for the next generation of health-care providers.

Historically, medical geneticists and genetic counselors have provided the majority of genetic services. Advances in technology, reduction in testing costs, and increased public awareness have led to a growing demand for genetic services in both clinical and direct-to-consumer spaces. Recent and anticipated changes in the workforce of genetic counselors and medical geneticists require a reexamination of the way we educate health-care providers and the means by which we provide access to genetic services. The time is ripe for rapid growth of genetic and genomic services, but to capitalize on these opportunities, we need to consider a variety of educational mechanisms to reach providers both within and beyond the traditional genetic counseling and medical genetics sectors, including nurses, physician assistants, and nongenetics physicians. This article summarizes the educational efforts underway in each of these professions.

Characteristics and evaluation outcomes of genomics curricula for health professional students: a systematic literature review.

PURPOSE: With the increased advances in genomics, leading health authorities have advocated the importance of incorporating genomics content into health professional school education to ensure those students achieve adequate genomic competencies. Yet, information regarding the genomics education status for this particular group is lacking. We conducted a systematic literature review to summarize the characteristics and evaluation outcomes of genomics curricula for health professional students. METHODS: Medline (OVID), EMBASE, CAB (EBSCO), Global Health, MedEdPORTAL, Google Scholar, and Web of Science were searched for relevant articles. RESULTS: Forty-one articles met our inclusion criteria. The majority were conducted in the United States and offered to pharmacy and medical students (the number of students ranged from 10 to 2674). The effects of genomics curricula on students' knowledge (n = 36), attitudes (n = 16), self-efficacy (n = 14), comfort level (n = 4), intention (n = 3), motivation (n = 3), and behavior (n = 2) were assessed. Although those results were generally positive, 68.3% of the genomics curricula were not theory-based, and most studies did not report follow-up data (85.4%). CONCLUSION: Our findings provided information on the existing genomics curricula available for health professional students.

Pairing a bioinformatics-focused course-based undergraduate research experience with specifications grading in an introductory biology classroom.

Introducing bioinformatics-focused concepts and skills in a biology classroom is difficult, especially in introductory biology classrooms. Course-based Undergraduate Research Experiences (CUREs) facilitate this process, introducing genomics and bioinformatics through authentic research experiences, but the many learning objectives needed in scientific research and communication, foundational biology concepts, and bioinformatics-focused concepts and skills can make the process challenging. Here, the pairing of specifications grading with a bioinformatics-focused CURE developed by the Genomics Education Partnership is described. The study examines how the course structure with specifications grading facilitated scaffolding of writing assignments, group work, and metacognitive activities; and describes the synergies between CUREs and specifications grading. CUREs require mastery of related concepts and skills for working through the research process, utilize common research practices of revision and iteration, and encourage a growth mindset to learning-all of which are heavily incentivized in assessment practices focused on specifications grading.

Implementation and evaluation of personal genetic testing as part of genomics analysis courses in German universities.

PURPOSE: Due to the increasing application of genome analysis and interpretation in medical disciplines, professionals require adequate education. Here, we present the implementation of personal genotyping as an educational tool in two genomics courses targeting Digital Health students at the Hasso Plattner Institute (HPI) and medical students at the Technical University of Munich (TUM). METHODS: We compared and evaluated the courses and the students' perceptions on the course setup using questionnaires. RESULTS: During the course, students changed their attitudes towards genotyping (HPI: 79% [15 of 19], TUM: 47% [25 of 53]). Predominantly, students became more critical of personal genotyping (HPI: 73% [11 of 15], TUM: 72% [18 of 25]) and most students stated that genetic analyses should not be allowed without genetic counseling (HPI: 79% [15 of 19], TUM: 70% [37 of 53]). Students found the personal genotyping component useful (HPI: 89% [17 of 19], TUM: 92% [49 of 53]) and recommended its inclusion in future courses (HPI: 95% [18 of 19], TUM: 98% [52 of 53]). CONCLUSION: Students perceived the personal genotyping component as valuable in the described genomics courses. The implementation described here can serve as an example for future courses in Europe.

Development and evaluation of an exome sequencing training course for medical interpreters.

Aim: As genomic medicine reaches more diverse populations, there is an increased need for healthcare interpreters who understand and can effectively interpret genomics concepts. Methods: We designed a course for healthcare interpreters on exome sequencing to enhance their preparedness for genomic results disclosure appointments in the Cancer Health Assessments Reaching Many (CHARM) study and beyond. The course was evaluated via pre/post surveys and qualitative interviews. Results: 23 interpreters completed the course; 87% rated it as excellent/very good. Improved pre/post confidence interpreting for genetics appointments was statistically significant; pre/post knowledge was not. Interviews highlighted the need for more discussion time. Conclusion: While the course increased confidence interpreting for exome sequencing results appointments, suggested modifications could enhance knowledge and retention of key concepts.

BarcodingGO: A problem-based approach to teach concepts related to environmental-DNA and bioinformatics.

In this paper, we propose and describe a new approach, named BarcodingGO, to teach environmental DNA and bioinformatics concepts to undergraduate or graduate students in molecular biology-related fields. The learning pipeline proposed here aims to solve a simulated environmental monitoring problem, in which a biodiversity survey of a particular region is needed to assess the impact of an environmental disaster. Biological surveys, in the context of environmental DNA studies, are performed by analyzing the DNA released by organisms living in a specific environment. We proposed a scenario in which quick response (QR) codes represented a given environmental DNA, and they were positioned in a scattered pattern across two regions of the classroom (representing pre and post scenarios for a particular environmental disaster). The QR codes redirect to a page that contained a fictional representation of an animal or a plant. Students then survey the region's biodiversity using QR code scanning applications on their cell phones by "capturing" these organisms as an analogy to the Pokémon GO game of the international Pokémon franchise. We believe this method (or even an adaptation of it) can be an essential tool to engage students in molecular biology classes. Moreover, this approach can help to teach how modern genomics and bioinformatics tools can be applied to solve real problems in conservation biology.

Supporting teachers to use genomics as a context in the classroom: an evaluation of learning resources for high school biology.

As genomics becomes embedded into healthcare, public genomic health literacy is critical to support decision-making for personal and family health decisions and enable citizens to engage with related social issues. School science education has the potential to establish the foundations of genetic and genomic literacy. The concept of literacy extends beyond conceptual understanding of biological principles to familiarity with the applications and implications of genetics, critical thinking skills, and socioscientific reasoning. We developed and evaluated a suite of resources for teaching genetics and genomics in the Australian senior biology syllabus for students aged 16-18 years. The aim was to increase teachers' knowledge and confidence to teach genetic and genomic content, and their capacity to develop robust genetic literacy in their students. Resources, including an inquiry-based task and five associated lesson plans, were developed and made freely available to teachers online. Evaluation was undertaken between December 2019 and March 2020 with a post-use survey emailed to teachers who had accessed the resources. The 56 teachers who responded rated the resources as high quality, engaging, and well-aligned with the syllabus. Teachers who used the resources self-reported increases in their knowledge and confidence in teaching. They also perceived positive outcomes in their students, reporting that the resources deepened their students understanding of genetic concepts, helped them to consider social and ethical issues, and developed their higher order thinking skills. Findings may inform future interactions with high schools to improve genetic literacy.

Primary Care Physician Experiences with Integrated Population-Scale Genetic Testing: A Mixed-Methods Assessment.

The scalable delivery of genomic medicine requires collaboration between genetics and non-genetics providers. Thus, it is essential to investigate and address the perceived value of and barriers to incorporating genetic testing into the clinical practice of primary care providers (PCPs). We used a mixed-methods approach of qualitative interviews and surveys to explore the experience of PCPs involved in the pilot DNA-10K population genetic testing program. Similar to previous research, PCPs reported low confidence with tasks related to ordering, interpreting and managing the results of genetic tests, and identified the need for additional education. PCPs endorsed high levels of utility for patients and their families but noted logistical challenges to incorporating genetic testing into their practice. Overall PCPs were not familiar with the United States' Genetic Information Nondiscrimination Act and they expressed high levels of concern for patient data privacy and potential insurance discrimination. This PCP feedback led to the development and implementation of several processes to improve the PCP experience with the DNA-10K program. These results contribute to the knowledge base regarding genomic implementation using a mixed provider model and may be beneficial for institutions developing similar clinical programs.

Design, Development, and Evaluation of a Teacher Workshop Enhanced with DNA Instructional Cases to Impact Content Knowledge and Confidence.

In an effort to address K-8 teacher confidence in STEM and increase basic genetics knowledge to a level consistent with its importance in society, we have developed, implemented, and evaluated a 7-day teacher professional development workshop. The overarching goal of our workshop is to facilitate the implementation of innovative DNA-based classroom activities in K-8 classrooms by (i) increasing teacher content knowledge, (ii) increasing teacher confidence in teaching STEM, and (iii) developing teacher interest in using engaging activities, so they are empowered to teach new content in compelling ways. We relied on case-based learning to provide relevance and context to scientific content that was not initially familiar to many of the teachers. Here we describe the workshop and its evaluation. Overall results suggest positive gains in teacher learning, confidence, and interest in the scientific content, as well as the intention to incorporate the scientific content and activities into their teaching.

MySeq: privacy-protecting browser-based personal Genome analysis for genomics education and exploration.

BACKGROUND: The complexity of genome informatics is a recurring challenge for genome exploration and analysis by students and other non-experts. This complexity creates a barrier to wider implementation of experiential genomics education, even in settings with substantial computational resources and expertise. Reducing the need for specialized software tools will increase access to hands-on genomics pedagogy. RESULTS: MySeq is a React.js single-page web application for privacy-protecting interactive personal genome analysis. All analyses are performed entirely in the user's web browser eliminating the need to install and use specialized software tools or to upload sensitive data to an external web service. MySeq leverages Tabix-indexing to efficiently query whole genome-scale variant call format (VCF) files stored locally or available remotely via HTTP(s) without loading the entire file. MySeq currently implements variant querying and annotation, physical trait prediction, pharmacogenomic, polygenic disease risk and ancestry analyses to provide representative pedagogical examples; and can be readily extended with new analysis or visualization components. CONCLUSIONS: MySeq supports multiple pedagogical approaches including independent exploration and interactive online tutorials. MySeq has been successfully employed in an undergraduate human genome analysis course where it reduced the barriers-to-entry for hands-on human genome analysis.

Medical genetics and genomics training in obstetrics and gynecology residencies: are we ready for the future?

OBJECTIVE: The primary objective of this study is to evaluate the availability and duration of formal medical genetics and genomics (MGG) education during obstetrics and gynecology (OB/GYN) residency training in the United States compared to other noncore OB/GYN rotations. METHODS: We performed a review of rotation schedules published in all American Council for Graduate Medical Education (ACGME)-accredited OB/GYN residency programs' websites during the month of December 2016. Information regarding availability and duration of MGG rotation and other noncore OB/GYN rotations (ultrasound, breast health, and family planning) were collected. RESULTS: Among 256 ACGME-accredited OB/GYN residency programs, rotation schedule was available for 238 (93%). Only 34 programs (14.3%) had some form of MGG rotations. In the GLM, when compared to other noncore OB/GYN rotations, the mean duration of MGG rotation was significantly less than ultrasound (0.07 versus 0.57 months, p < .05) and family planning (0.07 versus 0.42 months, p < .05). The number of residents was the only variable significantly correlated with the availability of an MGG rotation (OR 1.07, 95%CI 1.02-1.13). CONCLUSIONS: Despite the growing importance of MGG in day-to-day OB/GYN practice, only a limited number of ACGME-accredited OB/GYN residency programs offer an MGG rotation. When compared to other noncore OB/GYN rotations, such as, ultrasound and family planning, any MGG rotation was significantly shorter. With clear evidence that MGG will continue to radically change practice of OB/GYN in the future, it is imperative that steps need to be taken to address this deficiency in training.

Using the Findings of a National Survey to Inform the Work of England's Genomics Education Programme.

A national coordinated approach to workforce education and training in genomics is essential for the successful implementation of whole genome sequencing and, more broadly, genomic medicine within the National Health Service (NHS) in England. However, there have been no workforce wide assessments of genomics education and training needs that can be used to inform the strategic approach to be taken. In order to assess these needs the Genomics Education Programme (GEP) undertook a cross-professional training needs analysis. Responses from 2,814 individuals allowed the identification of four themes related to NHS staff's perceived education and training needs in genomics, those who: a) have a role in genomics and are competent; b) have a role in genomics but identified a specific learning need; c) could not identify whether genomics is relevant, but want to know more, and; d) do not see genomics as relevant to their role and do not believe they need to learn about it. Individuals are motivated to undertake training for their own continuing professional development and if they perceive training to have a direct impact on patient care. Overall, online learning is the preferred mode of delivery, but there are still many individuals who value face-to-face teaching. This paper demonstrates how the GEP has used these findings to provide an evidence base to inform the ongoing strategy for genomics education and training in the NHS, including the development of competency frameworks and a range of resources to address the diverse genomics learning needs of the healthcare workforce.

Impacts of incorporating personal genome sequencing into graduate genomics education: a longitudinal study over three course years.

BACKGROUND: To address the need for more effective genomics training, beginning in 2012 the Icahn School of Medicine at Mount Sinai has offered a unique laboratory-style graduate genomics course, "Practical Analysis of Your Personal Genome" (PAPG), in which students optionally sequence and analyze their own whole genome. We hypothesized that incorporating personal genome sequencing (PGS) into the course pedagogy could improve educational outcomes by increasing student motivation and engagement. Here we extend our initial study of the pilot PAPG cohort with a report on student attitudes towards genome sequencing, decision-making, psychological wellbeing, genomics knowledge and pedagogical engagement across three course years. METHODS: Students enrolled in the 2013, 2014 and 2015 course years completed questionnaires before (T1) and after (T2) a prerequisite workshop (n = 110) and before (T3) and after (T4) PAPG (n = 66). RESULTS: Students' interest in PGS was high; 56 of 59 eligible students chose to sequence their own genome. Decisional conflict significantly decreased after the prerequisite workshop (T2 vs. T1 p < 0.001). Most, but not all students, reported low levels of decision regret and test-related distress post-course (T4). Each year baseline decisional conflict decreased (p < 0.001) suggesting, that as the course became more established, students increasingly made their decision prior to enrolling in the prerequisite workshop. Students perceived that analyzing their own genome enhanced the genomics pedagogy, with students self-reporting being more persistent and engaged as a result of analyzing their own genome. More than 90% of respondents reported spending additional time outside of course assignments analyzing their genome. CONCLUSIONS: Incorporating personal genome sequencing in graduate medical education may improve student motivation and engagement. However, more data will be needed to quantitatively evaluate whether incorporating PGS is more effective than other educational approaches.

Adopting clinical genomics: a systematic review of genomic literacy among physicians in cancer care.

BACKGROUND: This article investigates the genomic knowledge of oncology care physicians in the adoption of clinical genomics. We apply Rogers' knowledge framework from his diffusion of innovation theory to identify three types of knowledge in the process of translation and adoption: awareness, how-to, and principles knowledge. The objectives of this systematic review are to: (1) examine the level of knowledge among physicians in clinical cancer genomics, and (2) identify potential interventions or strategies for development of genomic education for oncology practice. METHODS: We follow the PRIMSA statement protocol and conduct a search of five relevant electronic databases. Our review focuses on: (1) genomic knowledge of oncogenomics or genomic services in oncology practices among physicians, and (2) interventions or strategies to provide genomic education of oncogenomics for physicians. RESULTS: We include twenty-one studies in our analysis. Nine focus on interventions to provide genomic education for cancer care. Overall, physicians' knowledge of oncogenomics among the three types is limited. The genomic literacy of physicians vary by their provider specialty, location, years of practice, and the type of genomic services. The three distinctions of knowledge offer a sophisticated and helpful tool to design effective strategies and interventions to provide genomic education for cancer treatment. In the nine educational intervention studies, the main intervention outcomes are changes in awareness, referral rates, genomic confidence, and genomic knowledge. CONCLUSION: Rogers' diffusion of innovation model allows us to differentiate three types of knowledge in the development and adoption of clinical genomics. This analytical lens can inform potential avenues to design more effective strategies and interventions to provide genomic education for oncology practice. We identified and synthesized a dearth of high quality studies that can inform the most effective educational outcomes of these interventions. Future research should attend to improving applications of genomic services in clinical practices, along with organizational change engendered by genomics in oncology practice.