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Biomedical Engineering Students’ Perceived Learning Through Co-Curriculars Cover

Biomedical Engineering Students’ Perceived Learning Through Co-Curriculars

Open Access
|Jun 2023

Figures & Tables

Table 1

Outcome category coding scheme synthesized from relevant literature (Fisher et al., 2017; Passow & Passow, 2017; Simmons et al., 2017a; White et al., 2020; Woodcock, 2019).

OUTCOME CATEGORYDESCRIPTION
Business CompetenceMake Decisions, Devise Process (Passow & Passow, 2017); Critical Thinking, Strategy (Fisher et al., 2017)
Career Direction OutcomesCareer and Professional Development (Simmons et al., 2017a); Networking (Fisher et al., 2017)
College OutcomesSatisfaction with College, College Belongingness and Connectedness (Simmons et al., 2017a)
Communication CompetenceCommunicate Effectively (Passow & Passow, 2017); Communication Skills, Academic and Social Engagement (Simmons et al., 2017a); Interpersonal Communication, Written Communication (Fisher et al., 2017; White et al., 2020); Public Speaking (Fisher et al., 2017); Technical Presentation (White etal., 2020); Communications Skills Across Domains (Woodcock, 2019)
Cultural CompetenceCross-cultural Skills, Global Awareness (Fisher et al., 2017); Intercultural Competence (Simmons et al., 2017a); Knowledge of Non-disciplinary Perspectives (Woodcock, 2019)
Data CompetenceInterpret Data, Measure Accurately (Passow & Passow, 2017); Statistics, Signal Processing, Instrumentation (White et al., 2020)
Design CompetenceGather Information, Define Constraints, Think Creatively, Design Solutions (Passow & Passow, 2017) Solve Problems (Fisher et al., 2017; Passow& Passow, 2017; White et al., 2020); Design Experience (White etal., 2020); Creativity (Fisher et al., 2017)
Disciplinary CompetenceExperience With Relevant Software, Regulatory Procedures, Biomaterials, Quantitative Biology, Biomechanics, Advanced Courses in Traditional Engineering, Advanced Courses in Traditional Engineering, Programming Skills (White et al., 2020); Apply Skills, Apply Knowledge (Passow & Passow, 2017); Disciplinary Knowledge (Fisher et al., 2017); Intellectual Development (Simmons et al., 2017a); Knowledge of Disciplinary Perspectives (Woodcock, 2019)
Ethical CompetenceCivic Responsibility, Ethics, Humanitarianism (Fisher et al., 2017); Take Responsibility (Passow & Passow, 2017)
Interdisciplinary CompetenceIntegration of Knowledge Domains, Reflective Behavior, Critical Awareness (Woodcock, 2019)
Leadership CompetenceCoordinate Efforts (Passow & Passow, 2017); Leadership Development (Simmons et al., 2017a); Organizational Management (Fisher et al., 2017)
Personal Attribute OutcomesSelf-confidence, Self-direction, Time Management, (Fisher et al., 2017); Take Initiative, Expand Skills (Passow & Passow, 2017); Persistence, Personal and Social Development (Simmonset al., 2017a)
Teamwork CompetenceTeamwork (Fisher et al., 2017); Team Projects (White et al., 2020)
Table 2

Participant demographic and participation information.

GenderFemale (11)Male (3)
Race/EthnicityAsian (6)Hispanic/Latinx (2)White/Caucasian (6)
Co-CurricularMDE Only (3)Research Only (7)Both (4)
Table 3

A non-comprehensive list of interview questions.

INTERVIEW SECTIONEXAMPLE QUESTIONS
Research or MDE

What would you say the goals of the lab/organization are in which you’re working?

  • What about the goals of the specific project you are on?

  • What kinds of personal or professional goals does the lab have for students?

Can you tell me about a project you are currently working on in ____?

  • What are you currently doing on the project?

  • What is the purpose of the project?

  • What resources do you and the people you are working with have available to you? Do you use some more than others?

  • Are there different/conflicting perspectives and expertise on the team? Or with others you engage with during your work?

  • What is your role in the project? Has it changed over time? Could it?

What are some of the BME concepts and skills your team is applying in the work that you do?

Are there non-BME concepts being used in your project currently?

Summary/Synthesis

Thinking about what you have gotten out of Research and/or MDE, what BME career preparation have you developed without it?

  • Where would you say you got exposure to that [skill, concept, ability]?

How is your experience in research and/or MDE helping you reach your professional goals in BME?

Have any other experiences you’ve had at [University] been helpful in preparing you for your professional goals?

  • What aspects of the experience have been helpful?

  • Why did you decide to participate in that experience?

Figure 1

Example of the causation coding approach using data examples.

Table 4

Definitions of terms used for causation coding approach.

TERMDEFINITION AND EXAMPLES
experience elementThe term used as equivalent to an antecedent condition as described by Saldaña (2016). Experience elements described features of a co-curricular setting that spanned across categories of co-curricular activities. For example, having a formal mentor relationship could be present in multiple categories of co-curricular experiences.
participant actionThe term used as equivalent to mediating variables as described by Saldaña (2016). In our data, we focused on the active role students could play in influencing their development of a particular professional outcome category given the presence of specific experience elements. This emphasizes the importance of student engagement in the development process.
outcome categoryOutcome categories were used to explore the various professionally relevant outcomes of students’ engagement. The term outcome aligns with Saldaña’s causal analysis approach, and the professional focus stems from prior focus on professional outcomes in engineering co-curricular literature.
types of co-curricular activitiesThis terminology refers to a common strategy used to study co-curricular learning, which buckets opportunities into categories based on archetypes like research, design teams, professional societies, etc.
Figure 2

Graphic depiction of data analysis process.

Figure 3

Relationships found between the experience element Independent Project Work and multiple participant actions connecting to a variety of outcome categories.

Figure 4

Relationships found between the experience element Project Work that Engages Multiple Disciplines and two different participant actions connecting to the outcome category Interdisciplinary Competence.

Figure 5

Relationships found between the experience element STEM Education Opportunities and multiple participant actions that connected to a variety of outcome categories.

Figure 6

Relationships found between the experience element Mentorship from a Skilled Other and multiple participant actions connecting to a variety of outcome categories.

Figure 7

Demonstrated relationship starting with Mentorship from a Skilled Other leading to Participating in Broader Organization Functions and in some cases Presenting Disciplinary Material in relation to the development of Communication and Disciplinary Competence.

Figure 8

Relationships found between multiple experience elements that connect to a variety of outcome categories through the participant action Reflecting on Experience.

Table 5

Considerations for educators and mentors based on the connections found in this study.

EXPERIENCE ELEMENT OR PARTICIPANT ACTIONCONSIDERATIONS PROPOSED
Independent Project Work

To support Business Competence:

To support Leadership Competence:

  • Create opportunities for students to engage with multiple stakeholders during development and implementation of a project.

Project Work that Engages Multiple Disciplines

To support Interdisciplinary Competence:

  • Incorporate multiple disciplines in student project work. Examples of this in elective curricular project work are discussed in Atman and colleagues’ (2014) chapter on engineering design education in The Cambridge Handbook of Engineering Education Research (i.e., Purdue’s EPICS program and Northwestern University’s IDEA model).

  • Encourage current project team members to recruit other majors or encourage research students to work with graduate students in multiple disciplines during their research projects.

STEM Education Opportunities

To support Leadership and Disciplinary Competence:

  • Consider opportunities for students to create artifacts or participate in activities that allow them to review, contextualize, or summarize material with peers. This finding appears to relate closely with literature describing the benefits of near peer teaching (Anderson etal., 2019). A recent review on active learning in engineering education by Hernández-de-Menéndez and colleagues (Hernández-de-Menéndez et al., 2019) includes descriptions of learning activities like think-pair-share, one-minute-paper, and the jigsaw method that could help facilitate these peer-to-peer interactions.

Mentorship from a Skilled Other

To support Career Direction Outcomes:

  • Consider seeking out resources that can improve and structure the mentorship of direct-report students. Advise graduate students on how to structure their mentorship of undergraduate students working on a project. One example of these resources is a recent article by Mondisa, Packard, and Montgomery (2021) that describes STEM mentoring as an ecosystem.

To support Communication and Disciplinary Competence:

  • Consider including undergraduate students in broader organization functions like lab meetings, project meetings, or socials so they can learn about communication norms and get comfortable talking about disciplinary material. Allowing students to participate in these settings does not have to require large amounts of time or effort but has the potential for big impact on the student according to our findings.

Reflecting on Experience

To support Cultural Competence and Career Direction Outcomes:

  • Consider structuring periodic opportunities for students to reflect on the relevance of their experiences for their future endeavors. Some engineering education researchers have begun to consider what reflection activities targeting competence development could look like when integrated into engineering education broadly (Sarwari, 2019; Woodcock et al., 2021).

DOI: https://doi.org/10.21061/see.94 | Journal eISSN: 2690-5450
Language: English
Page range: 46 - 68
Submitted on: May 4, 2022
Accepted on: Apr 26, 2023
Published on: Jun 6, 2023
Published by: Virginia Tech Publishing
In partnership with: Paradigm Publishing Services

© 2023 Cassandra Jamison, Lisa R. Lattuca, Shanna R. Daly, Aileen Huang-Saad, published by Virginia Tech Publishing
This work is licensed under the Creative Commons Attribution 4.0 License.