Paper ID #27591Board 4: Curriculum on Diversity and Ethics: Impact in an IntroductoryBioengineering CourseC Gunnarsson, Massachusetts Institute of TechnologyCamille Birch, University of Washington Camille Birch is a graduate of the Bioengineering and Computer Science departments at the University of Washington. She developed curriculum concerning the interplay of diversity and ethics for undergrad- uate engineering students at UW and is interested in the power of education to enact change in future generations of engineers. She currently works for Microsoft in the Bay Area.Dr. Dianne Grayce Hendricks, University of Washington
lecture intensive course with an objective to inculcate EM through activelearning techniques to improve student engagement. Students worked in groups to identify anopportunity and customer’s needs, create a business model, brainstorm and communicate anengineering solution to an open-ended question. The quantitative results from student surveysshowed significant advancement in technical and most of the EM skills. The qualitativeresponses indicated improved student engagement through hands-on product analysis. Therefore,improving the students’ ability to solve problems of societal relevance and work cohesively as ateam. After a successful implementation of this module, it is expected to make it morestakeholder centric for other engineering courses
as impacting the community through increased K-12 STEM awareness and education. Prior to joining UC Davis, Jennifer taught in the BME Department at Rutgers University, and was a postdoctoral fellow at Advanced Technologies and Regenerative Medicine, LLC. She received her doctoral degree in Biomedical Engineering from Tufts University, M.S. degree from Syracuse University, and B.S. degree from Cornell University. c American Society for Engineering Education, 2019 Works In Progress: Impact of a pilot summer innovation internship on student attitudes towards engineering design and entrepreneurshipIntroductionThe interdisciplinary nature of the senior design course requires students to possess
Design Program. Passionate about expanding engaged, active-learning experiences and clinical immersion opportunities for students that improve their ability to execute the design process, Dr. Schmedlen has developed an undergraduate capstone design course, biomedical engineering laboratory, and clinical observation and needs finding course.Dr. Jin Woo Lee, University of Michigan Jin Woo Lee received a Ph.D. in Mechanical Engineering from the University of Michigan. Jin’s research focuses on studying and developing design strategies, particularly in problem definition and concept gen- eration.Dr. Prateek Shekhar, University of Michigan Prateek Shekhar is an Assistant Research Scientist in the Biomedical Engineering
research areas include en- trepreneurship engineering education, impact and engaged learning. Aileen has a Bachelor’s of Science in Engineering from the University of Pennsylvania, a Doctorate of Philosophy from The Johns Hop- kins University School of Medicine, and a Masters of Business Administration from the University of Michigan Ross School of Business. Aileen is also a member of Phi Kappa Phi and Beta Sigma Gamma.Miss Cassandra Sue Ellen Woodcock, University of Michigan c American Society for Engineering Education, 2018Exploring Biomedical Engineering Students’ Self-Raised Motivations forEngaging in Instructional DesignAbstract Current research in the field of engineering education
of the program toward becoming physicians. At the end of the program,the Scholars were 90% ± 6 certain of becoming physicians (no significant change from thebeginning, p=0.4), and 81% ± 5 certain of becoming engineers (p=0.05). The effect size forincreasing interest in becoming an engineer was large (Cohen’s d=1.1). This is most easilydescribed as the program promoting the development of Clinician Engineers.We also asked participants to estimate the impact of the immersion experience on the abilitydimension of their engineering design self-efficacy – a measure of students’ self-perceived abilityto engage in nine different engineering tasks [10], to which we added “document technicalmatters,” “learn new things,” and “empathize.” There were
engineeringskills (e.g., computer aided design, manufacturing, and prototype testing) [4].Working in collaborative teams increases critical thinking, test scores, and student engagementwith the material. Additional positive outcomes are increased self-esteem, personal assetidentification, and a gained appreciation of diverse perspectives [5]. Providing students with theopportunity to reflect on key areas of teamwork, such as communication, task management, andcooperation, can increase the effectiveness of team work [6].Research Design and MethodsThis study evaluates the effect of a collaborative prototype design project on students’ learningoutcomes and engagement with course material at a large Hispanic-serving research university inthe Southwest. The
especially crucial towards proper career development. The data attained fromlab assignments can remarkably improve students’ understanding of classroom concepts byallowing students to observe the strengths and weakness of various scientific theories.Compared to traditional engineering disciplines (civil, mechanical, etc.), biological engineering(BE) students have been found to have different motivations for entering the engineering field;therefore, it is paramount that the BE engineering education community capitalizes on thisdifference to address the systemically lackluster engineering student retention rate.[1] BE studentsare largely driven to the field for the opportunity to benefit society, which differs compared totraditional engineering majors
discussion focused on study strategies of two mock students (Figure 1C and 1D).To further illustrate the impact on study strategies in the class, one student commented that “Mystudy strategies focused more around completing a certain task, rather than just mindlessstudying. Rather than just sitting down for a couple of hours to mindlessly flip through notes orthe book, I set up my study times to accomplish a certain goal, like read and take notes of certainchapters or work on specific example problems.” Similarly, another student stated that “Afterthe first midterm, I focused more on actually understanding the concepts rather than just tryingto do a whole bunch of different problems hoping the methods will stick.”Figure 1. Students ranked the
creative physical products. Our campus Makerspace islocated within the College of Computing and Informatics. Since Fall 2016, it has been open forgeneral use by the entire university community (∼ 30K students), as well as the on-campusengineering early college high school (∼ 400 students). The Makerspace is equipped with a widevariety of fabrication tools and is a specialized laboratory to support peer-driven informal STEMlearning and foster a community of practice [2] around Making.We are investigating the educational impacts of our on-campus Makerspace through anexploratory research project that focuses on a socially-relevant challenge problem: designing andfabricating prosthetic hands for children. The project is in partnership with a regional
- AssessmentThis study was classified as exempt from IRB review, per University and federal guidelines.Our two main goals of this lab were to produce gains in student learning and interest.Specifically, an in-class, unannounced pre- and post-quiz on the concepts of series and parallelresistances, inlet and outlet flow (conservation of mass), and the analogy between hydraulicequations and electronic Ohm’s law equations (Appendix A) assessed short-term gains inlearning. The pre-quiz was administered after the lectures covering the topics but prior to thelab, in order to isolate the impact of the lab. The pre-quiz was not returned to students and nofeedback was given. The post-quiz was administered after completion of the lab. Data fromstudents who scored
stakeholders.Dr. David A. Delaine, Ohio State University Dr. David A. Delaine is an Assistant Professor at The Ohio State University Department of Engineering Education. Within this newly formed department he strives to creatively impact engineering education and society through investigating community-based learning and its potential impact on students and commu- nities. The goal of this research is to establish knowledge in how STEM CBL can support broadening participation and promote social justice and citizenship through evidence-based approaches.Tanya M. Nocera Ph.D., Ohio State University Tanya M. Nocera, PhD earned a BS in Physics from Allegheny College and a MS and PhD in Biomedical Engineering (BME) from The Ohio
can be “taught,” either deliberately or organically[5]. Sternberg and Williams recommend several approaches to promoting creativity throughpedagogy [6], among these being: 1. Building self-efficacy (self-perceived ability to successfully engage in a task) 2. Encouraging idea generation 3. Instructing and assessing creativity 4. Rewarding creative ideas and productsWe enacted in a design class the above four approaches to promoting the development ofcreative thinking. Students were enrolled in either a fall or a spring section of a BME designcourse based on development of software and fabrication skills. One of the sections includeddaily, brief creativity exercises with non-academic rewards. On the first day of class and
. 3. Delivered a course with strong student/student and student/instructor interaction and feedback. 4. Tailored communication methods to ensure clear and detailed information, reducing student frustration and anxiety, while challenging students to reach their highest potential. 5. Built appropriate, effective learning activities and assessments that measure objectives.I.5. OverviewThe paper focuses on lessons learned, work required, pedological comparisons of teachingapproaches, and changes if any in students’ assessments and reflections. The switch to remotewas not easy. The needed adaptations were: 1. Handwritten notebooks, tests and assessments morphed to Google Notes and thence to Moodle. 2. Whiteboard lectures and a
1998 by Walvoord and Anderson. Lage, Platt, and Treglia proposed a similar approach called theinverted classroom and applied it to an introductory economics course in 2000 [1]. Despite the growingpopularity of the flipped classroom model in higher education, this model has received less attention inengineering [2]. The need for engineering graduates to be able to solve real-world problems and work in teamssuggests the merit in flipping engineering courses. However, currently limited research exists on the impact ofthe flipped classroom model in engineering education [3].Recognized advantages of a flipped classroom include positive gains in problem-solving skills, conceptualunderstanding, student retention, and student satisfaction [4
assisting in curriculum development and accreditation efforts. She is currently in a one-year lectureship position with Shantou University to continue this accreditation work before starting as an assistant professor of biomedical en- gineering at West Chester University (Wester Chester, PA, USA) in the fall of 2021. Her engineering education interests include student engagement strategies, student perceptions of engineering disciplines, and program accreditation.Dr. Aileen Huang-Saad, Northeastern University In February 2021 Dr. Huang-Saad joined the Bioengineering faculty at Northeastern University and be- came the Director of Life Sciences and Engineering Programs at The Roux Institute (Portland, Maine). Dr. Huang
and how this will inform future actions as a leader.*Verbal and nonverbal Reflecting after team-based presentations: Students reflect on their experience of the visual and oral communication decisions made during theircommunication own presentations, as well as those of their peers.*Note: Table 1 is modified from authors’ previous work [1].Assessment. Assessment includes student self-reported data obtained by surveys examining 1)how reflection contributed to identification and development of students’ individual leadershipcompetencies, 2) the perceived impact of reflection on students’ ability to utilize and refine theirindividual leadership strengths, and 3) student
investigate the impact of an emotional experience coupled with a targeted ethical intervention,we used a sophomore level Experiential Learning Seminar (ExpLS) over the course of two years,Spring 2017 and Spring 2019, for a total of 50 students with 35 participating in the survey. Thesestudents had declared or were planning to declare their major in biomedical engineering. Thecourse met once a week for 50 minutes and was focused on building professional skills in areflective environment including team-building, communication, and leadership. Each year thecourse was run, there was a slightly different line up of topics ranging from the biodesign process,personal values, listening and empathy, future career plans, and ethics based on the faculty
guide students towards crafting stronger, morepersuasive resumes tailored specifically for their post-graduation goals in an objective manner[1].Literature ReviewMany studies and reviews display the importance of teaching writing skills to developingengineers [5]–[8]. The ability to communicate clearly and concisely, especially within theconfines of a one-page resume, displays writing skill and professionalism. Many of these articlesalso recommend practice exercises for strengthening qualitative resume writing skills and theirimpact on student writing quality. For example, addition of written assignments to upper-levelengineering courses and learner-centered instructional strategies have been shown to increasemultiple aspects of a student’s
to make educational and career choicesbased on opportunities for service to their communities [24]. Finally, although ethics anddiversity are critical components of engineering training and practice, mostundergraduate engineering programs do not address these issues in-depth [25-26].We launched “Science and Engineering for Social Justice” as a 5-credit course selected ina competitive process through the University Honors Program. We chose to offer thecourse through the honors program to reach a diverse audience of students who wereaccustomed to high-level engagement with course material.By offering the course through the honors program was that we wanted the class to becomposed of both STEM and non-STEM students to cultivate a more rich
discussed potentialcosts of engaging in the MDE; the only code associated with perceived cost was the amount oftime required to engage fully. Despite that acknowledgement, participants described the timeinvestment as worth it. Exemplar quotes are provided in Table 4.Table 3. MDE Inductive Coding Descriptions SVT Dimension Codes Participants describe… having people they can count on, finding their Attainment Value Having a Community “group”, or gaining a community. Helping Others Through the ability to help, influence, positively impact Attainment Value My Work others through
feel safe to seek care, and ensuring healthcareworkers feel safe to provide care. Each team had a healthcare worker who worked directly withthe undergraduate students as part of the design team. At the end of the event, each team gave ashort presentation about their problem and solution and received feedback from a panel ofjudges. Projects were scored in terms of impact, innovation, marketability, andusability/intuitiveness (Table 1). These criteria were developed through collaboration with theinstructors of the UCI senior design program and the Innovation Institute, a healthcare incubatorthat provides services to several healthcare systems including the Children’s Hospital of OrangeCounty. In particular, the scoring criteria were developed to
current research areas include entrepreneurship engineering education, impact and engaged learning. Aileen has a Bachelor’s of Science in Engineering from the University of Pennsylvania, a Doctorate of Philosophy from The Johns Hopkins University School of Medicine, and a Masters of Business Administration from the University of Michigan Ross School of Business.Dr. Shanna R. Daly, University of Michigan Shanna Daly is an Associate Professor in Mechanical Engineering at the University of Michigan. She has a B.E. in Chemical Engineering from the University of Dayton and a Ph.D. in Engineering Education from Purdue University. Her research characterizes front-end design practices across the student to practitioner
impact and repositories, scheduling, and online communications tools. would be defined as a product thatonly benefits the student personally or members of the class. In comparison, a high impactdeliverable would be defined as a product, activity, or work that has received an expert reviewand has been shared publicly. Examples of high impact deliverables, shown above in Table 2,include but are not limited to: referred conferences and/or journal manuscripts, patents, businesspitches, awards, scholarships or fellowships, invited outreach activities, or invention disclosures.Ultimately, grades were assigned to students based on the submitted evidence’s level of impact.The
form comments). Mid-semester feedback included the following: 1. What aspects of class are working well? What are the strengths of the class? What aspects of the class are having a positive impact on your learning? 2. What aspects of the class are working poorly? What are the weaknesses of the class? What aspects of the class are having a negative impact on your learning? 3. What aspects of the class do you believe should be changed? How should these aspects be changed? (Please be as specific as possible.)Discussion: Data on student perceptions and feedback of the course has been collected and beinganalyzed. Based on preliminary examination, modifications are being incorporated for the Spring 2020semester course including
, effective introductorycourses are important for students’ future success in their program of study, and therefore,careers [1], [3], [8]–[11]. As summarized by Temple et al. [3]: “[F]irst year courses can improve academic performance, stimulate interest and improve retention, and better prepare students for future coursework. It is important that students acquire the qualities that prepare them to be successful engineers in the changing workplace, including the ability to work on and communicate with members of a multidisciplinary and professional team.”Research on high-impact educational practices has shown that in-class active or collaborativelearning in introductory science, technology, engineering, and math (STEM
organizations, and industry partners / potential employers.Unfortunately, the perspectives of the foremost of these stakeholders have largely been ignoredin conversations of cultivating a BME identity as no previous study has examined howundergraduate students define BME. Therefore, to contribute another important voice to these on-going conversations, thispaper presents a qualitative analysis of definitions of BME written by 115 undergraduatestudents at a large R1 public university in the Midwest. In vivo qualitative coding andcategorization revealed five main features of these definitions exemplified by “impact”,“design”, “apply/use”, “understand/combination”, and “undefined” labels. Comparison of pre-BME students (those who had not previously
2 4 Post Class Activity Week Figure 5: Impact of class activity on student engagement, Figure 6: Students readily transferred the relative to lecture. n=426 observations. Presented as GIM to biomechanics problems by the end of regression coefficient ± standard deviation. Group work the course (4/6 students, week 4), and and challenge problem solving significantly enhanced
procedures and clinician/patientinteractions during each session; and (iii) reflecting on why it is important for engineers to interactwith clinicians and patients. Table 2 summarizes the common responses from the students writtenreflections.Table 2: Summary of participant’s responses to shadowing experience reflection questions Reflection Question Summary of Responses What was an interesting • Speed and proficiency of clinicians, their ability to simultaneously aspect of this shadowing execute a technical therapy session, adapt the session using patient experience for you? feedback, and communicate with their patients to keep them engaged and at-ease
engineering, for example: it is already guiding research in rehabilitation engineering[15–17], the development of electronic health records [18], the placement of automated externaldefibrillators [19,20], and supporting evidence-informed decision-making in softwareengineering [21].Graduate students need to be able to communicate the implications of their work effectively anddescribe how their work will have meaning and impact. To these objectives, criteria (based onthe principles of knowledge translation) and basic questions [22] can be posed to graduatestudents, for example: For whom is my research meaningful? How can I involve these people in my research to improve outcomes? How can I ensure that the right people know about my