12 research outputs found

    The Undergraduate Training in Genomics (UTRIG) Initiative: Early & Active Training for Physicians in the Genomic Medicine Era

    Get PDF
    Genomic medicine is transforming patient care. However, the speed of development has left a knowledge gap between discovery and effective implementation into clinical practice. Since 2010, the Training Residents in Genomics (TRIG) Working Group has found success in building a rigorous genomics curriculum with implementation tools aimed at pathology residents in postgraduate training years 1-4. Based on the TRIG model, the interprofessional Undergraduate Training in Genomics (UTRIG) Working Group was formed. Under the aegis of the Undergraduate Medical Educators Section of the Association of Pathology Chairs and representation from nine additional professional societies, UTRIG\u27s collaborative goal is building medical student genomic literacy through development of a ready-to-use genomics curriculum. Key elements to the UTRIG curriculum are expert consensus-driven objectives, active learning methods, rigorous assessment and integration

    Training future physicians in the era of genomic medicine: trends in undergraduate medical genetics education

    No full text
    PURPOSE: Advances in genomic technologies are transforming medical practice, necessitating the expertise of genomically-literate physicians. This study examined 2013-2014 trends in genetics curricula in US and Canadian medical schools to ascertain whether and how curricula are keeping pace with this rapid evolution. METHODS: Medical genetics course directors received a 60-item electronic questionnaire covering curriculum design, assessment, remediation of failing grades, and inclusion of specific topics. RESULTS: The response rate was 74%. Most schools teach the majority of genetics during the first 2 years, with an increase in the number of integrated curricula. Only 26% reported formal genetics teaching during years 3 and 4, and most respondents felt the amount of time spent on genetics was insufficient preparation for clinical practice. Most participants are using the Association of Professors of Human and Medical Genetics Core Curriculum(1) as a guide. Topics recently added include personalized medicine (21%) and direct-to-consumer testing (18%), whereas eugenics (17%), linkage analysis (16%), and evolutionary genetics (15%) have been recently eliminated. Remediation strategies were heterogeneous across institutions. CONCLUSION: These findings provide an important update on how genetics and genomics is taught at US and Canadian medical schools. Continuous improvement of educational initiatives will aid in producing genomically-literate physicians

    An Anti-Racism Toolkit for the Genetics Educator

    No full text

    Project Inclusive Genetics: Protecting reproductive autonomy from bias via prenatal patient-centered counseling

    No full text
    Summary: Clinician bias negatively impacts the healthcare received by marginalized communities. In this study, we explored factors that influence clinician and trainee bias against individuals with intellectual disabilities and its impact on clinical judgment in prenatal genetic testing settings. Specifically, we examined bias toward a fetus with a higher chance of developing a disability. We compared genetics specialists with their non-expert counterparts. This web-based study included clinical vignettes, implicit association tests (IATs), and an educational module. 595 participants were recruited via their institution or professional society. We conducted statistical analyses, including regression models controlling for key demographic characteristics, to analyze recommendation patterns and degree of change after the module. Genetics expertise strongly correlated with appropriate testing recommendation when the patient would not consider pregnancy termination (r = 1.784 pre-module, r = 1.502 post-module, p < 0.01). Factors that influenced pre-module recommendation to test include increased age (r = −0.029, p < 0.05), high religiosity (r = 0.525, p < 0.05), and participant personal preference against testing (r = 1.112, p < 0.01). Responses among participants without genetics expertise improved after the educational module (Z = −4.435, p < 0.01). 42% of non-experts who answered inappropriately changed their answer to match guidelines after the module. Individual bias, along with structural and institutional bias, permeates family planning encounters and significantly decreases quality of care. We demonstrate here that anti-bias training is effective, particularly for non-expert providers, and it can improve the care provided to individuals with intellectual disability. Evidence-based training such as this one can help providers make appropriate genetic counseling recommendations

    Ordinal logistic regression models for improved performance in FiBS curriculum: Crude and adjusted values.

    No full text
    <p>Dependent variable ranked as: Fail/Pass/High performer, as previously defined. All variables included in adjusted model. Test of Parallel Lines = 0.57 for model. Significant correlations are indicated in bold.</p

    Demographic profile for graduate students enrolled in FiBS curriculum.

    No full text
    <p>Demographic profile for graduate students enrolled in FiBS curriculum.</p
    corecore