Paper ID #27417Board 1: Introduction to Design Thinking and Human Centered Design inthe Biomedical Engineering freshman yearMr. Jorge E Bohorquez, University of Miami Dr. Jorge Boh´orquez received his bachelor degrees in Physics and Electrical engineering in 1984 and his Ph.D. degree in Biomedical Engineering in 1991. Currently Dr. Boh´orquez works as an Associate professor of Professional Practice at the Department of Biomedical Engineering of the University of Miami. His research interests are Engineering Education, Neural Engineering, Biosignal Processing and Instrumentation.Dr. Ram´on Benjamin Montero, University of
may haveimportant implications for student recruitment and retention.Introduction The establishment of undergraduate biomedical engineering (BME) programs in the late1960s makes it a relatively new educational option compared to traditional disciplines such asmechanical, electrical, or chemical engineering [1]–[3]. Despite slow growth through the 1990s,there has been a significant increase in the number of undergraduate BME programs and degreesconferred in recent years [1], [2], [4], [5]. Over that time, increasing numbers of BMEdepartments and educators have had to make important decisions regarding how best to educatestudents in this ever-evolving, interdisciplinary field. In perhaps the earliest report on BMEeducation, Harmon
approaches, and professionalism within design classes. Dr. Allen also serves as PI and director for an NSF-funded Multi-Scale Systems Bioengineering REU site at U.Va. c American Society for Engineering Education, 2019 Work in Progress: A clinical immersion program for broad curricular impactProblem identification remains a significant challenge in the education of biomedical engineerssince access to clinics and clinicians is limited. A popular approach to overcoming this limitationis the clinical immersion experience [1]–[6], which fall under the umbrella of “high-impacteducational practices” – activities that have especially significant effects on learning
course incorporates content fromthe previous courses in the sequence as well as from a fundamental statistics course in thecontext of experimental design and measurement. We anticipate that SBG will allow forfrequent, formative feedback throughout a single course as well as inform the instruction offaculty teaching subsequent courses building on these standards, including courses beyond thissequence such as Capstone. Our long-term goal will be to identify, align, and assess LO withinand across these courses in the curriculum using SBG. We will also review and assessimplementation of SBG in this context.This preliminary work focuses on implementation of SBG in the culminating course. Wehypothesize that Canvas-mediated SBG will 1) allow for
: JosseyBass Higher and Adult Education. CookSather, A., Matthews, K. E., Ntem, A., & Leathwick, S. (2018). What we talk about when we talk about Students as Partners. International Journal for Students As Partners , 2 (2), 19. https://doi.org/10.15173/ijsap.v2i2.3790 Healey, M., Flint, A., & Harrington, K. (2014, July). Engagement Through Partnership: Students as Partners in Learning and Teaching in Higher Education. The Higher Education Academy . MercerMapstone, L., Dvorakova, S., Matthews, K., Abbot, S., Cheng, B., Felton, P., & Knorr, K. (2017, May). A Systematic Literature Review of Students as Partners in Higher Education. International Journal for Students as Partners , 1 (1). (n.d.). In
project.Education of Engineering StandardsSince the 2001-2002 accreditation cycle, undergraduate engineering curricula approved by theEngineering Accreditation Commission of ABET are required to incorporate engineeringstandards [1]. Current criteria require that curricula include “a culminating major engineeringdesign experience that…incorporates appropriate engineering standards and multiple constraints”[2]. This requirement addresses demand from industry for engineering graduates to enter theworkforce with knowledge of technical standards, particularly as a generation of baby-boomerswith expertise in standardization retires. This demand encompasses a wide range of industries,including the medical field [3].Despite the ABET requirement and practical need
whether intentional, verticalalignment of engineering experiences ultimately better prepares BME undergraduates for theirsenior design capstone projects and their professional pursuits.IntroductionInductive teaching methods have encouraged higher levels of student cognition [1]-[2], improvedstudent teamwork and communication [3], and allowed increased student confidence duringengineering design prototyping [4]. Paired with a resurgence of hands-on learning in theengineering community [5], inductive teaching methods allow instructors to incorporate realproblems that require physical prototype solutions. Our work aims to incorporate one specificinductive teaching method, project based learning (PBL), into sophomore and junior levelBiomedical
integration of entrepreneurship education andtraining in the undergraduate biomedical engineering curriculum.MethodsInternship Selection and Program StructureApplications were solicited from biomedical engineering undergraduate students. Applicationsconsisted of a resume, transcript, and personal statement. Following in-person interviews, fourlower division and four upper division students were selected to participate in the inauguralseven week summer innovation internship (Figure 1).The internship began with a two-day workshop focused on needs-finding, needs statementdevelopment, conducting observations, ethics in observations, value exploration and designthinking. Over the course of seven weeks, students were immersed in full-time
in teams is a critical skill recognized bothby employers [1] and by our accreditation board [2] (Criterion 3.5). Undergraduate biomedicalengineering (BME) majors at the University of Virginia work extensively in teams in multiplecore courses: not only in an introductory design course and in the senior capstone designsequence, but also in a yearlong junior-level integrative laboratory course sequence. The labsequence is noteworthy because of its intensive nature (4 hours/week in lab, plus 10-20hours/week outside of lab on analysis and writing of reports, as self-reported by students onevaluations). As our program grew rapidly very soon after it was established (from ~35 studentsin the first graduating class of the major 15 years ago to ~90
and in experiential learning for undergraduates in science and engineering. c American Society for Engineering Education, 2019 Specifications Grading in an Upper-Level BME Elective CourseRecent trends in BME education emphasize aspects of the engineering profession such as designprocess, entrepreneurial mindset, and active problem-solving. However, the grading strategy inmost traditional BME courses revolves around assigning points to student work based onapparent quality or degree of completion. Awarding “partial credit” is time-consuming and oftenis not closely mapped to learning objectives [1]. As a result, students often focus on how manypoints they earned relative to their perceived level of effort
Acquisition, and Influence on Career PathIntroductionBiomedical engineering (BME) students aspiring to careers in healthcare and medical productdevelopment are better prepared when they possess a solid understanding of the clinical setting.However, industry-bound BME students have few opportunities to acquire an understanding ofhow clinical units operate or the challenges within that environment, nor meaningful interactionswith health care providers in the space. Without this realism, BME students are unable toaccurately define user needs in medical device development, something the FDA is increasinglyemphasizing to improve safety and efficacy [1]. On the other hand, BME students interested inmedicine rarely receive shadowing experiences at the
1,2 Christa M. Wille, PT, DPT 1 Naomi Chesler, PhD Departments of Biomedical Engineering and 2Orthopedics and Rehabilitation 1 University of Wisconsin-Madison, Madison, WI, USACorresponding Author:Christa Wille, PT, DPTDepartment of Biomedical EngineeringUniversity of Wisconsin-Madison2135 Engineering Centers Building1550 Engineering DriveMadison, WI 53706cmwille@wisc.eduAbstractApplications and outcomes of a flipped classroom in an engineering setting continue to be limited despiterecognized advantages including positive gains in problem-solving skills
engineering majorsIntroductionUnderstanding and addressing the diversity gap in engineering is of critical importance to the current and rapidlygrowing U.S. workforce needs [1]–[3]. This is particularly true within Biomedical Engineering (BME), a fieldthat is amid a 10-year estimated 23% employment growth (2014-2024) [4]. Gender and ethnic diversity inparticular have been studied to develop interventions aimed to support, graduate, and retain a larger and morediverse population into the engineering workforce [1]. Despite these efforts, diversity in both the biomedical andthe general engineering workforce as a whole has remained low [2]. This paper aims to further the knowledge ofthe diversity gap by exploring the relationship between diversity and
StudentsIntroductionDuring the past two decades, active learning techniques have received a growing attention ineducational research. Particularly in science, technology, engineering, and mathematics (STEM)fields, traditional lecturing has indicated a 55% increase in failure rates of undergraduate students,compared to active learning methods [1]. Furthermore, active learning has proven to significantlyenhance students’ examination performance and educational achievements compared to passivelearning [1, 2]. In Biomedical Engineering (BME), active learning can be incorporated throughvarious techniques such as problem- and project-based learning [3]. Such approaches lead studentsto a deeper and more efficient retention of new concepts. Moreover, these methods
,aswellaswiththeSpanishculturecoursethatallstudentswereenrolledin.Thissummerstudyabroadprogramhasbeenavaluableandpopularadditiontothestudyabroadoptionsforouruniversityandthebiomedicalengineeringdepartment,offeringourengineeringstudentsawaytoexperiencestudyabroadthatfitswiththeirneedsandincreasestheflexibilityofourprogram.MotivationforEngineeringStudyAbroadProgram:Studyabroadprogramsallowstudentstoexploreothercultures,developtheirlanguagefluency,improveempathy,andalteranindividualstudent’sworldviews.Recentstudieshaveindicatedthatstudyabroadcanincreasegraduationrates(1)andalsoincreasestudents’salarieswhentheyapplyforjobs(2).Culturalcompetency,languagefluency,andempathydevelopmentareskillsthatengineersneedtodevelop,yetmostengineeringprogramsaresoengineeringfocused,withsignificantemphasisoncoursecontentandcoverage,thattheyhavenolanguagerequirement.Thus,manyengineersgraduatewithoutlanguagefluency.Forthisreason
are highly valued in engineering are psychological or pseudo-cognitiverather than purely cognitive: self-efficacy, curiosity, and grit (perseverance). Creativity, apseudo-cognitive construct, is likewise cited as a desirable trait among engineers. In previouswork we showed that a project-based design course rich in brainstorming activities resulted in asemester-long improvement in certain aspects of creativity compared to a course that wasrelatively poor in brainstorming activities [1]. Not all design courses, however, are equal in thedegree to which they are project-based. This led us to question whether overt training increativity could yield even greater improvements in creativity than are already gained in a skills-based design course.A
technical definitions, instructions, rules, guidelines, orcharacteristics set forth to provide consistent and comparable results” [1]. In the medical deviceindustry, standards are important for regulatory approval processes. For example, the UnitedStates Food & Drug Administration (FDA) maintains a database of recognized consensusstandards [2], and the Center for Devices and Radiological Health (CDRH) of the FDAencourages voluntary use of these consensus standards in premarket submissions to expeditereview and promote quality [3]. Engineering standards serve as frameworks to define designinputs, develop verification and validation methods, and interpret results.Affirming the value of standards, the American National Standards Institute (ANSI
, over6,000 bachelor degrees are awarded in BME/BioE every year. Due to the broad nature of thediscipline, there is a large variability in BME curricula [1]. Despite this variability, there arecommon features that are shared within BME education. Specifically, it is common to see coretopics in materials science, mechanics, fluid mechanics, transport, thermodynamics, signals andsystems analysis, instrumentation/electronics, and imaging [2,3]. Thus, the goal with our BMEconcentration area is to expand our current integrated engineering curricular offerings to producewell-rounded engineering graduates that are exposed to these topics in a biomedical context.Our Biomedical Engineering Concentration Overview. Our BME concentration uses a multi-scale
), MechanicalEngineering (BSME), Electrical Engineering (BSEE), and Civil Engineering (BSCE). The studentsparticipate in an introductory course, however, as a result of the available degrees, biomedicalengineering (BME) is only discussed briefly throughout their education.To inform students of the possibilities in BME, an Introduction to Biomedical Engineering Coursewas developed. Introducing the emphasis areas within BME is conducted by using the Introduction toBiomedical Engineering by Enderle and Bronzino [1] as a guide. The text divides emphasis areas ofBME (Biomechanics, Biomaterials, Bioelectricity) into chapters and takes students through theseareas and supplies examples. In the courses first iteration, students used the book as a starting pointand then
University of Texas at Austin. c American Society for Engineering Education, 2019 Work in Progress: Curriculum on Diversity and Ethics: Impact in an Introductory Bioengineering CourseEthics and diversity are critical components of engineering training and practice, but mostundergraduate engineering programs do not address these issues in-depth [1-3]. In this work-in-progress, we describe the design and implementation of a novel curriculum focused on theinterplay of diversity and ethics.We launched this curriculum through an honors section in a large introductory bioengineeringcourse at the University of Washington. The creation of an honors section builds on our previouswork, where we discussed
their biomedical engineering (BME) hires. TheBureau of Labor Statistics projected BME to be the fastest growing engineering occupation from2016 to 2026 with a predicted employment growth of seven percent [1], and the World HealthOrganization highlighted regulation and standards of medical devices among the BMEdisciplines required for careers in industry and government [2]. It was also contended that qualityengineering concepts that include device regulation, standards and safety engineering may beeven more important than product development (design) in BME education [3]. In preparationfor an institution-wide curriculum revision, in May of 2014 we conducted our own survey of theBME stakeholders consisting of our program alumni, typical employers
engineering students tosucceed in a wide variety of careers. This necessity is recognized by ABET in student outcome 3“an ability to communicate effectively with a range of audiences” [1]. Despite this, students maynot view written communication skills as an important skill for engineers. Technical writinginstruction and practice is often implemented in undergraduate laboratory courses where studentswrite standard lab reports (abstract, introduction, materials and methods, results, discussion) thatmost closely resemble a scientific journal article. In an effort to demonstrate to students how theymight communicate about experimental data in different ways and to prompt them to considercommunicating data to a range of audiences and for varying purposes
designing a medical device and its pathway to market.Students learned engineering design principles, hands on skills, and built a medical deviceprototype in a course-long project. Teams with common interests but varied technical skillsetswere deliberately created to encourage discussion and collaboration. The course also includedfield trips and guest lecturers to demonstrate the interdisciplinary nature of BME, as well asmultiple oral presentations. At the beginning and end of this initial course offering, evaluationswere completed to gauge the course’s effectiveness in teaching students about BME. Theseresults demonstrate successful approaches and provide feedback for improving futureintroductory summer high school BME courses.1. IntroductionThe
ProcessIntroductionGraduates from ABET accredited engineering programs are expected to demonstrate an ability tocommunicate effectively [1-2]. Developing students’ technical writing skills are particularlydifficult to teach and more time consuming to assess [3], often limiting the number of opportunitiesstudents have to practice and improve throughout their undergraduate education. While recentstudies have shown positive impacts of using rubrics to measure student scientific writing skills[2-5], little has been reported regarding the cumulative impacts of a structured student writingproces. Here we expand on previous work, which introduced a student technical writing processand presented preliminary data supporting improvements in students’ technical writing skills
organizing and participating in the educational outreach programs such as science summer camps for middle school and high school girls. Before coming to UIUC, she was Associate Pro- fessor at the Eastern Illinois University where she mentored female and minority students in science and mathematics. She was Founding Chair and Mentor for the Women in Science and Mathematics (WISM) Initiative and Minority Mentoring in Mathematics and Sciences (M3S). c American Society for Engineering Education, 2019 Work in Progress: Introducing Bioengineering Approaches through Healthcare Grand ChallengesIntroductionAs the landscape of health and medicine is changing [1-2], we seek to
partially funded by the National Science Foundation that provides resources for the research and development of distributed medical monitoring technologies and learning tools that support biomedical contexts. His research focuses on (1) plug-and-play, point-of-care medical monitoring systems that utilize interoperability standards, (2) wearable sensors and signal processing techniques for the determination of human and animal physiological status, and (3) educational tools and techniques that maximize learning and student interest. Dr. Warren is a member of the American Society for Engineering Education and the Institute of Electrical and Electronics Engineers. c American Society for Engineering
KSU in August 1999, Dr. Warren was a Principal Member of the Tech- nical Staff at Sandia National Laboratories in Albuquerque, NM. He directs the KSU Medical Component Design Laboratory, a facility partially funded by the National Science Foundation that provides resources for the research and development of distributed medical monitoring technologies and learning tools that support biomedical contexts. His research focuses on (1) plug-and-play, point-of-care medical monitoring systems that utilize interoperability standards, (2) wearable sensors and signal processing techniques for the determination of human and animal physiological status, and (3) educational tools and techniques that maximize learning and
accommodate this growing body ofknowledge, as well as growth in our student population, we went from a completely lecture-based course to a blended model using well documented active learning strategies [1-4]. Theformat we employed utilizes online lectures covering the foundational materials science,immunology, and traditional application of biomaterials. The in-class time was then repurposedfor three activities: 1. lectures on the latest research and applications in the field, 2. groupdiscussions around case-studies, and 3. hands-on laboratories. While the online material receivedmixed reviews, the repurposed activities were appreciated and improvements were seen in finalexam scores.IntroductionOur biomaterials course had been developed as a purely
effectiveness of the lab sequence was evaluated in both a qualitative and quantitativemanner. The performance of students in the lab course (n=21) can be compared to performanceof a control group of students who did not opt into the lab course (n=7) and only attended thetraditional lecture course. Assessment of learning was evaluated in three ways: 1) self-perceivedaccomplishment of lab learning objectives reported by students in the lab course through ananonymous survey, 2) instructor evaluation of learning objectives assessed via lab reports, and 3)student performance on the final exam in the traditional style course, ~10 weeks after the labexperiences concluded. The third assessment technique allows us to evaluate the effect ofparticipating in the
education.Prof. Henry Hess, Columbia University Henry Hess received the Dr.rer.nat. in Physics from the Free University Berlin, Germany, in 1999. He is currently a Professor of Biomedical Engineering at Columbia University, New York, a member of the External Advisory Board of Nano Letters since 2010, and serves as the Editor-in-Chief of the IEEE Transactions on NanoBioscience since 2014. c American Society for Engineering Education, 2019 A hybrid engineering course combining case-based and lecture-based teaching 1. Abstract Engineering and business school courses both aim to teach students to solve problems, but theapproaches they use to reach that objective are traditionally perceived as