6 research outputs found
296 Investing in Community-Led Research Capacity Building: New Seed Grant Type
OBJECTIVES/GOALS: We will describe the community-driven development and impact of the new Community Research Capacity-Building grants from the Alliance for Research in Chicagoland Communities, Northwestern University. Communities expressed that to enter equitably into partnerships with academics they need support to build their own community research capacity. METHODS/STUDY POPULATION: ARCC Seed Grants, since 2008, included Partnership Development and Research Pilots, which are both jointly submitted by a community-academic partnership. The new Community Grants are submitted only by community partners and don’t require an academic partner. These grants, $3,000 over 6 months, support the development or strengthening of organizational or community-level research capacity. This may include assessing community capacity to lead and/or collaborate on research; building research capacity of community organizations (staff, leadership, residents), developing community infrastructure (e.g. research principles; staff research responsibilities; process for assessing/ tracking researcher inquiries; template memorandum of understanding) or community research priorities, etc. RESULTS/ANTICIPATED RESULTS: Eight ARCC Community Research Capacity-Building Seed Grants have been awarded so far as a part of three cycles of applications over 2022-23 (2 in 2022, 6 in 2023). During this time period, data has been collected during the application process, in final reports, and in informal group and individual discussions. Information about the profile of grantees (community representation, health focus, etc.), the initial impact of grants, and feedback from grantees about the positive and challenging aspects of the grants will be shared. Grantees have informally shared that the awards have helped to address concerns that many low-income communities of color have their voices are not adequately included in research and other decision-making. The poster will be co-presented by a community grant recipient. DISCUSSION/SIGNIFICANCE: To ensure that research partnerships are community-driven & equitable, it is necessary to invest in community research capacity-building. More evaluation is needed to understand the grants impact, as well as other approaches to community research capacity and leadership development. Poster will be co-presented by a community grant recipient
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Women’s Night in Emergency Medicine Mentorship Program: A SWOT Analysis
Introduction: Women in emergency medicine (EM) at all career stages report gender-specific obstacles to satisfaction and advancement. Programs that facilitate longitudinal mentoring, professional development, and networking may ameliorate these barriers.Methods: We designed and implemented a program for female residents, faculty, and alumnae from our EM training program to enhance social support, leadership training and professional mentorship opportunities. An anonymous, online survey was sent to participants at the end of the academic year, using a SWOT (strengths, weaknesses, opportunities, and threats) format. The survey collected free-text responses designed to evaluate the program.Results: Of 43 invited participants, 32 responded (74.4%). Eight themes emerged from the free-text responses and were grouped by SWOT domain. We identified four themes relating to the “strength” domain: 1) creating a dedicated space; 2) networking community; 3) building solidarity; and 4) providing forward guidance. Responses to the “weaknesses” and “threats” questions were combined due to overlapping codes and resulted in three themes: 5) barriers to participation; 6) the threat of poorly structured events lapsing into negativity; and 7) concerns about external optics. A final theme: 8) expansion of program scope was noted in the “opportunity” domain.Conclusion: This program evaluation of the Women’s Night curriculum demonstrates it was a positive addition to the formal curriculum, providing longitudinal professional development opportunities. Sharing the strengths of the program, along with identified weaknesses, threats, and opportunities for advancement allows other departments to learn from this experience and implement similar models that use existing intellectual and social capital
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Women’s Night in Emergency Medicine Mentorship Program: A SWOT Analysis
Introduction: Women in emergency medicine (EM) at all career stages report gender-specific obstacles to satisfaction and advancement. Programs that facilitate longitudinal mentoring, professional development, and networking may ameliorate these barriers.Methods: We designed and implemented a program for female residents, faculty, and alumnae from our EM training program to enhance social support, leadership training and professional mentorship opportunities. An anonymous, online survey was sent to participants at the end of the academic year, using a SWOT (strengths, weaknesses, opportunities, and threats) format. The survey collected free-text responses designed to evaluate the program.Results: Of 43 invited participants, 32 responded (74.4%). Eight themes emerged from the free-text responses and were grouped by SWOT domain. We identified four themes relating to the “strength” domain: 1) creating a dedicated space; 2) networking community; 3) building solidarity; and 4) providing forward guidance. Responses to the “weaknesses” and “threats” questions were combined due to overlapping codes and resulted in three themes: 5) barriers to participation; 6) the threat of poorly structured events lapsing into negativity; and 7) concerns about external optics. A final theme: 8) expansion of program scope was noted in the “opportunity” domain.Conclusion: This program evaluation of the Women’s Night curriculum demonstrates it was a positive addition to the formal curriculum, providing longitudinal professional development opportunities. Sharing the strengths of the program, along with identified weaknesses, threats, and opportunities for advancement allows other departments to learn from this experience and implement similar models that use existing intellectual and social capital
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Creation and Implementation of a Mastery Learning Curriculum for Emergency Department Thoracotomy
Introduction: Emergency department thoracotomy (EDT) is a lifesaving procedure within the scope of practice of emergency physicians. Because EDT is infrequently performed, emergency medicine (EM) residents lack opportunities to develop procedural competency. There is no current mastery learning curriculum for residents to learn EDT. The purpose of this study was to develop and implement a simulation-based mastery learning curriculum to teach and assess EM residents’ performance of the EDT.Â
Methods: We developed an EDT curriculum using a mastery learning framework. The minimum passing standard (MPS) for a previously developed 22-item checklist was determined using the Mastery Angoff approach. EM residents at a four-year academic EM residency program underwent baseline testing in performing an EDT on a simulation trainer. Performance was scored by two raters using the checklist. Learners then participated in a novel mastery learning EDT curriculum that included an educational video, hands-on instruction, and deliberate practice. After a three-month period, residents then completed initial post testing. Residents who did not meet the minimum passing standard after post testing participated in additional deliberate practice until mastery was obtained. Baseline and post-test scores, and time to completion of the procedure were compared with paired t-tests.Results: Of 56 eligible EM residents, 54 completed baseline testing. Fifty-two residents completed post-testing until mastery was reached. The minimum passing standard was 91.1%, (21/22 items correct on the checklist). No participants met the MPS at the baseline assessment. After completion of the curriculum, all residents subsequently reached the MPS, with deliberate practice sessions not exceeding 40 minutes. Scores from baseline testing to post-testing significantly improved across all postgraduate years from a mean score of 10.2/22 to 21.4/22 (p <0.001). Mean time to complete the procedure improved from baseline testing (6 minutes [min] and 21 seconds [sec], interquartile range [IQR] = 4 min 54 sec - 7 min 51 sec) to post-testing (5 min 19 seconds, interquartile range 4 min 17sec - 6 min 15 sec; p = 0.001).Conclusion: This simulation-based mastery learning curriculum resulted in all residents performing an EDT at a level that met or exceeded the MPS with an overall decrease in time needed to perform the procedure
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Creation and Implementation of a Mastery Learning Curriculum for Emergency Department Thoracotomy
Introduction: Emergency department thoracotomy (EDT) is a lifesaving procedure within the scope of practice of emergency physicians. Because EDT is infrequently performed, emergency medicine (EM) residents lack opportunities to develop procedural competency. There is no current mastery learning curriculum for residents to learn EDT. The purpose of this study was to develop and implement a simulation-based mastery learning curriculum to teach and assess EM residents’ performance of the EDT.Â
Methods: We developed an EDT curriculum using a mastery learning framework. The minimum passing standard (MPS) for a previously developed 22-item checklist was determined using the Mastery Angoff approach. EM residents at a four-year academic EM residency program underwent baseline testing in performing an EDT on a simulation trainer. Performance was scored by two raters using the checklist. Learners then participated in a novel mastery learning EDT curriculum that included an educational video, hands-on instruction, and deliberate practice. After a three-month period, residents then completed initial post testing. Residents who did not meet the minimum passing standard after post testing participated in additional deliberate practice until mastery was obtained. Baseline and post-test scores, and time to completion of the procedure were compared with paired t-tests.Results: Of 56 eligible EM residents, 54 completed baseline testing. Fifty-two residents completed post-testing until mastery was reached. The minimum passing standard was 91.1%, (21/22 items correct on the checklist). No participants met the MPS at the baseline assessment. After completion of the curriculum, all residents subsequently reached the MPS, with deliberate practice sessions not exceeding 40 minutes. Scores from baseline testing to post-testing significantly improved across all postgraduate years from a mean score of 10.2/22 to 21.4/22 (p <0.001). Mean time to complete the procedure improved from baseline testing (6 minutes [min] and 21 seconds [sec], interquartile range [IQR] = 4 min 54 sec - 7 min 51 sec) to post-testing (5 min 19 seconds, interquartile range 4 min 17sec - 6 min 15 sec; p = 0.001).Conclusion: This simulation-based mastery learning curriculum resulted in all residents performing an EDT at a level that met or exceeded the MPS with an overall decrease in time needed to perform the procedure
Optical Imaging of Cellular Immunotherapy against Prostate Cancer
The purpose of this study was to track fluorophore-labeled, tumor-targeted natural killer (NK) cells to human prostate cancer xenografts with optical imaging (OI). NK-92-scFv(MOC31)-zeta cells targeted to the epithelial cell adhesion molecule (EpCAM) antigen on prostate cancer cells and nontargeted NK-92 parental cells were labeled with the near-infrared dye DiD (1,1-dioctadecyl-3,3,3,3-tetramethylindodicarbocyanine). The fluorescence, viability, and cytotoxicity of the labeled cells were evaluated. Subsequently, 12 athymic rats with prostate cancer xenografts underwent OI scans before and up to 24 hours postinjection of DiD-labeled parental NK-92 cells or NK-92-scFv(MOC31)-zeta cells. The tumor fluorescence intensity was measured and compared between pre- and postinjection scans and between both groups using t -tests. OI data were confirmed with fluorescence microscopy. In vitro studies demonstrated a significant increase in the fluorescence of labeled cells compared with unlabeled controls, which persisted over a period of 24 hours without any significant change in the viability. In vivo studies demonstrated a significant increase in tumor fluorescence at 24 hours postinjection of tumor-targeted NK-92-scFv(MOC31)-zeta cells but not parental NK cells. Ex vivo OI scans and fluorescence microscopy confirmed a specific accumulation of NK-92-scFv(MOC31)-zeta cells but not parental NK cells in the tumors. Tumor-targeted NK-92-scFv(MOC31)-zeta cells could be tracked to prostate cancer xenografts with OI