Award Abstract # 1757837
REU Site: Frontiers in Biomedical Imaging

NSF Org: EEC
Division of Engineering Education and Centers
Recipient: UNIVERSITY OF ILLINOIS
Initial Amendment Date: February 28, 2018
Latest Amendment Date: February 28, 2018
Award Number: 1757837
Award Instrument: Standard Grant
Program Manager: Amelia Greer
agreer@nsf.gov
 (703)292-2552
EEC
 Division of Engineering Education and Centers
ENG
 Directorate for Engineering
Start Date: March 1, 2018
End Date: February 28, 2022 (Estimated)
Total Intended Award Amount: $360,000.00
Total Awarded Amount to Date: $360,000.00
Funds Obligated to Date: FY 2018 = $360,000.00
History of Investigator:
  • Andrew Smith (Principal Investigator)
    smi@illinois.edu
  • Marina Marjanovic (Co-Principal Investigator)
  • Jennifer Amos (Co-Principal Investigator)
Recipient Sponsored Research Office: University of Illinois at Urbana-Champaign
506 S WRIGHT ST
URBANA
IL  US  61801-3620
(217)333-2187
Sponsor Congressional District: 13
Primary Place of Performance: University of Illinois at Urbana-Champaign
1901 South First St.
Urbana
IL  US  61820-7406
Primary Place of Performance
Congressional District:
13
Unique Entity Identifier (UEI): Y8CWNJRCNN91
Parent UEI: V2PHZ2CSCH63
NSF Program(s): EWFD-Eng Workforce Development
Primary Program Source: 01001819DB NSF RESEARCH & RELATED ACTIVIT
Program Reference Code(s): 116E, 9178, 9250
Program Element Code(s): 136000
Award Agency Code: 4900
Fund Agency Code: 4900
Assistance Listing Number(s): 47.041

ABSTRACT

The REU site Frontiers in Biomedical Imaging at the University of Illinois at Urbana-Champaign (UIUC) provides a state-of-the-art, interdisciplinary research environment in biomedical imaging to inspire and train undergraduates from under-represented demographics in engineering to encourage their transition to graduate degree programs. Throughout education, images are used to clearly convey complex ideas and to stimulate curiosity and interest. Likewise, investigations in the biological sciences and in medicine invariably require clear pictures of cells, tissues, and organs to discover mechanisms of life and to detect and understand the complex pathological processes of disease. Therefore, imaging is the centerpiece for this REU Site, serving as a bridge between education, engineering, the biological sciences, and medicine. Students gain an advanced skillset in state-of-the-art imaging technologies and interdisciplinary research that they can carry with them to graduate school. They are exposed to the breadth of imaging techniques and medical applications while simultaneously focusing on a specific project at the forefront of biology and medical science. This program applies literature-supported mentorship and training strategies to directly address pipeline leaks for the transition of under-represented groups to graduate degree programs in engineering or related programs. The program also provides enrichment of technical skills, professionalism, and career-readiness. The program is assessed and refined in real-time to continually improve the student experience and value.

This REU Site is dedicated to inspiring and training undergraduates in STEM fields through a summer experience in biomedical imaging research. The goal is to create a coherent interdisciplinary program centered on the visualization of biology and human tissues at all scales, and for students to develop a network of role models, mentors, and peers to support and encourage their transition to graduate school. Undergraduate sophomores and juniors in a variety of STEM disciplines will be recruited with special efforts directed toward females and under-represented minorities at minority-serving institutions and small colleges with limited research opportunities. Students begin this 10-week summer program with a 3-day "Bioimaging Bootcamp" to provide foundational knowledge in biology, imaging, and microscopy through lectures, demonstrations, lab activities, and tours, together with social introductions. Students then engage in intensive research projects in imaging and biological visualization, closely mentored by a faculty member and graduate student. All research projects, ranging from imaging single molecules using fluorescence microscopy to MRI-based imaging of the brain in living mammals, have three essential elements: (1) imaging and/or microscopy, (2) a hypothesis-driven analysis of biological samples, and (3) an analytical or computational component. Students also have unique clinical medical imaging immersion experiences, share experiences with their cohort through biweekly social activities, attend research seminars and professional development sessions, and interact with participants in other REUs on campus to expand their network. Summer achievements culminate in poster and oral presentations at a campus undergraduate research symposium that draws undergraduate researchers from throughout the Midwest, as well as the submission of an abstract to the Biomedical Engineering Society (BMES) Annual Meeting, where they reconvene in the Fall for continued education, networking, and career-enriching opportunities.

This award reflects NSF's statutory mission and has been deemed worthy of support through evaluation using the Foundation's intellectual merit and broader impacts review criteria.

PROJECT OUTCOMES REPORT

Disclaimer

This Project Outcomes Report for the General Public is displayed verbatim as submitted by the Principal Investigator (PI) for this award. Any opinions, findings, and conclusions or recommendations expressed in this Report are those of the PI and do not necessarily reflect the views of the National Science Foundation; NSF has not approved or endorsed its content.

Overview:

The RED team as part of the Department of Bioengineering at the University of Illinois had a primary objective to enable students to develop effective and impactful solutions that address critical societal concerns and balances individual needs for the 21st century. To execute our mission, we proposed the following goals: 1) reorganize courses and faculty teaching efforts into needs-driven curriculum tracks, 2) translate medical assessment practices into engineering education contexts to unify the clinical experiences and curriculum tracks into a holistic curriculum, and 3) organize faculty into communities of practice (CoPs) to provide faculty development.

Intellectual Merit:

In response to national and local studies of employers, our department decided to radically transform the undergraduate curriculum in both content and delivery methods to better meet the need of employers. Our program conducted faculty surveys and interviews, student surveys, and employer surveys to determine key knowledge and skills that are a priority for our program. These evidence-driven processes help to facilitate discussion about curricular reform and how curricular modules and assessment spanning across the department can impact the department culture around education across all levels. Several courses were modified or introduced to address these gaps identified, such as an intro course that focused on grand challenge learning, a clinical immersion course, a bioengineering ecosystems course that focused on bioengineering careers, and a clinically integrated capstone experience across the bioengineering undergraduate and masters students with medical students on our campus. Additionally, benchmarking studies were published as a result of these data for other bioengineering programs to use and inform their curricula.

As a further evidence-based approach to faculty development needs, all faculty in the department were invited to participate in an interview related to teaching practices inventory. These results served as a quantifiable baseline for the teaching practices in the department. Building upon previous research, there has been a nationwide push for the adoption of research-based teaching practices in STEM classrooms. We conducted a verbal survey interview with engineering faculty, using a modified “Teaching Practices Inventory,” to determine the teaching practices that are actively utilized in their respective classrooms. Each faculty received individual feedback and advice related to his or her responses and collective data was used to determine where improvements can be made on a departmental level for a more productive teaching and learning experience.

After seeing the results of the inventory survey, we offered a workshop on common evidence-based teaching practices that faculty could try in the classes. The team also provided additional year-round faculty support on pedagogical training, teaching exercise development, and fluid communication and continuity among faculty throughout all levels of the curriculum, which is especially important considering that target skills and content are threaded longitudinally and coordinated throughout curriculum. Additionally, to foster sharing of course related materials developed, this project engaged all faculty in a human-centered design approach to building a curriculum repository that would allow for storing and sharing of course materials and notes.

Another mission was to align assessment and evaluation methods to support students’ identities as holistic engineers. Our department realized that collection of data from courses is cumbersome for faculty, so we are explored technology solutions to assist with the collection of course level data. Using commercially available systems, individual questions were tagged with concepts or skills for tracking and use in the assessment models for both program and individual student assessment tracking.  Use of these integrated tools and our tagging algorithm in our curriculum was instrumental to help us gather data in our move from cohort level program assessment to individual level competency assessment.   

Through several research projects, we were able to show that tag organized assessment data can be visualized to identify underrepresented learning goals in assessments for instructors to address. Faculty perceived tag-organized assessment as helpful to address important needs in the classroom, including improving feedback to students, accurately covering learning goals in assessments, communicating learning objectives to students, and driving self-regulated learning.

Throughout the change process, faculty, staff, and students participated in a justice survey to track changes in justice within the department as the project moved forward. Additionally, the surveys provided input on new ideas, proposals, and activities. These survey results were instrumental in guiding the research team and department leadership on incorporating faculty, staff, and student input, pacing change, and communicating change.

Broader Impacts:

The project produced many replicable products including the tag-organized assessment models, justice focused survey instrument used to minor changes in department culture and practice, and the benchmarking studies provided to the community as an outcome of the industry, faculty, and alumni surveys. Further, the approach of using assessment to gather data for evidence-based decision making and human-centered design approaches to design and implement a curriculum can be widely replicated and adopted. 


Last Modified: 08/01/2022
Modified by: Jennifer R Amos

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