around student teamingis the distinction between academic settings and the environments students will experience inprofessional settings. This omission is problematic when juxtaposed to the motivation behindmuch of educators' work: to better prepare engineering students for the profession ofengineering. If classroom settings continue to be just that, students will continue to be ill-equipped for their transitions into the workforce. This paper tests a unique approach to studentteam formation, reflective journaling, and final grading by mimicking certain aspects of theprofessional setting in the classroom – especially as it relates to team formation, projectmanagement, and feedback. This work builds on a previous work-in-progress paper that
education. The specific objectives are to:identify characteristics indicative of thriving and successful mentorship practices within thisnetwork; recognize opportunities and barriers in future potential mentorship relationships; andidentify potential lines of inquiry for future work on mentorship social networks. Aspects ofinterest include motivation for being a mentor or mentee, benefits of being a mentor or mentee,mentorship relationship patterns related to the domain of educational leadership, and types ofmentorship methods. A survey featuring critical reflection prompts was distributed to tenindividuals, including mentors, mentees, and peer mentors associated with the primary node, whoalso completed the same survey for each connection. Through
disciplines, but rather require aninterdisciplinary approach. Originally conceptualized by Rittel & Webber [2], wicked problemsare problems with multiple stakeholders and competing demands, which often contain ethical,social, political, or environmental dimensions. They are challenging to frame and scope, giventhe lack of an obvious “stopping point” when the problem to solution process is complete.Wicked problems reflect pressing societal issues like climate change, transportation and urbandevelopment, healthcare and technological unemployment – problems that frequently engage thetechnical expertise of engineers but require a breadth of disciplinary knowledge outside ofengineering as well, requiring strong collaborative skills and an intellectual
deliverables reflecting a partial recognition or incompletehandling of ethical dimensions, and those that submitted deliverables reflecting thorough navigationof ethical dimensions. These performance observations were possible because the activity involvedmaking resource choices linked to ethical implications, resulting in certain materials’ use (orabsence) evident in teams’ physical deliverables. Students’ post-activity reflections, submitted afterthey participated in an activity debrief, included indications of intended learning in a majority ofcases (83% of submittals) based upon a rubric. Drawing from activity observations and reflections,we discuss how teams’ ethical decision making appears to have been strained by various intendedpressures
discipline-based educational research, including design self-efficacy, project-based learning, critical reflection in ethics, and high-impact practices.Lauren Christopher, Indiana University-Purdue University Indianapolis Dr. Lauren Christopher attended Massachusetts Institute of Technology, where she received her S. B. and S. M. in Electrical Engineering and Computer Science in 1982, specializing in digital signal processing and chip design. She worked at RCAˆa C™s David SaChristine Krull, Indiana University-Purdue University IndianapolisEric W Adams, Indiana University-Purdue University IndianapolisShahrzad Ghadiri, Indiana University - Purdue University IndianapolisRichard Vernal Sullivan, Indiana University-Purdue University
, several barriers toimplementing these types of frameworks exist. First, many engineers continue to hold atraditional, hierarchical view of leadership and thereby may resist the notion that engineering is aleadership profession [7], [8]. Additionally, while many opportunities to gain experience exist,support is needed to provide students with more meaningful development through intentionalengagement and reflection [9]. Providing a comprehensive framework for competencydevelopment faces many challenges, including lack of shared curriculum across engineeringmajors, lack of faculty expertise or commitment to leadership development [10], difficultyimplementing efforts at scale, and misconceptions that leadership is a field best suited for studentsin
least once.Course description. Experiential Leadership is a “field-study” course, which at our universitymeans that students follow a common syllabus and structure but do not meet regularly as a class.Students individualize the syllabus to meet their own learning objectives. In consultation withcourse instructors and their mentor, they select readings, podcasts and videos; identify andpursue activities that promote capability development; and track their progress. The assignmentsincorporate elements of reflection, narrative exploration, learning with others through teamwork,and learning from industry professionals [2]. The course is graded.To create the Leadership Development Plan, each student reviews the descriptions of the JHLPleadership
taken [2]. The research ofEdmondson noticed that certain teams within the same hospital produced very differentoutcomes for the patients they oversaw. As she observed more closely why certain teams couldbecome a learning organization, she noticed that the teams did seven things positively. From theseven items she created a survey that a team could use to guide a reflection on where they are intheir growth towards becoming a learning organization.The seven survey items that Edmonson created are included in the appendix of this paper, butcan be summarized into the following categories of scenarios commonly encountered in teams:making mistakes, asking for help, taking small risks, discussing tough issues, respecting thecontribution of others
focused onadministration and performance with the aim of effecting change within a multidisciplinaryengineering design project domain of influence [21]. Guided by the transformational leadershipmodel [20], the GED course focused on design as a humanistic process [22] while prioritizingcollaboration, communication and reflection throughout the design work. The GED course wasmandatory for second-year engineering science students with two requirements in year one thatfostered students’ leadership in team and local community settings respectively. The courseintroduced students to cultural awareness within the concept of culturally responsive design tosupport their global perspective development. The course was delivered in a hybrid format toabout 250
of conferences and journals focused on engineering education research. ©American Society for Engineering Education, 2024 Assessing Leadership Development through a Leadership Practice Project: A Work in ProgressThis work-in-progress practice paper describes the assessment of learning via a leadershippractice project for an upper-level engineering leadership course [1] offered at a large publicuniversity in the central U.S. The course features a mix of theory and practical application and isdesigned to teach skills students can use immediately, as well as concepts they may need later intheir careers. Learning is assessed through written reflections, a “managing oneself” essay, and
. Theircommunication was also clear in supporting the team in executing project deliverables, includingmeaningful follow-up that articulated clearly what needed to be done.Leaders exemplifying effective communication was associated with thoughtful and calmcommunication style. Some participants reflected on less effective staff who were “aggressive[and] run very hot”. Other reflected that women especially needed to be calm and were implicitlyexpected by others to diffuse tension and maintain positive morale. Application of influenceOur conceptual framework looked at leadership in terms of the ways that influence was applied.In our interviews, some participants explicitly spoke about the need to influence or beinginfluenced by individuals without
engineers and to highlight strategies for creating moreinclusive engineering imagery.This initiative is a part of a broader qualitative narrative study, focusing on the stories of sevenearly-career women civil engineers (within their first 0-4 years professionally). Data wasamassed through diverse methods, including semi-structured interviews, field observations,reflective diaries, and AI-generated illustrations of participants' dream workplaces. The researchunderscores the essence of inclusive engineering environments, championing the creation ofparticipant-inspired spaces via AI visualizations. Findings reveal that these women picture theiroptimal engineering spaces as vibrant, lively, and cooperative havens. Alongside advocating foropen-concept
paper entitled Engineering Leadership: Bridging the Culture Gap in EngineeringEducation [1] we argued that a major barrier to change in engineering education, including theincorporation of engineering leadership into the curriculum, is the culture that exists in ourinstitutions. We proposed that the elements and dynamics of this culture can be examined in theform of co-contraries (or opposites that need each other) and that the relative emphasis in theseco-contraries reflects the engineering educational culture in a department, an institution or inengineering education as a whole. Example cultural co-contraries identified include: the powerdistance dynamic between the student and the professor; the nature of the distribution of effortbetween
mechanisms, and habits/patterns that no longerserve us in a professional environment. A sample scenario used in this session is below. Thisscenario enables students to feel the power of both (1) self-awareness and (2) blind spots andhow ignoring a blind spot can become a barrier to deeper relationships with their ecosystem.Sample Scenario: We explored conversations with superiors - executives, upper management -and their body language / facial expressions in response to our request and reflection on whatmay have been a blind spot on our part. This is a way to sharpen your self-awareness byunderstanding the impression you make on your ecosystem and how to elicit the desired outcomeby improving on your blind spots. A strategy to learn about your blind
professionals who will enter management and leadership roles. Nonetheless, research andanecdotal experience have indicated that both students and practicing professionals shy away fromstrategic networking, a stance that can hinder their careers. This paper reports on work-in-progress ofdesign and evaluation of course interventions to promote strategic networking among undergraduateengineering students. These experiences are part of a course in Engineering Leadership at Texas A&MUniversity. This paper offers first a literature review and then detail on our course content, networkingactivities, and a reflection connected with effective strategic networking for this class. Mixed-methodsanalysis of the results of student surveys provide insights of
done through interviews with students, thereby generating the version ofthe instrument used in this pilot study.At this stage of the validation process, the instrument's reliability presents a Cronbach's alphaof 0.860, reflecting high item consistency. However, the reliability calculated for the differenttheoretical dimensions of the instrument shows some Cronbach's alpha values that are notsatisfactory (Table 1). Therefore, as the validation work on the instrument continues, resultswill only be reported for the "Developmental leadership," "Conventional-positive leadership,"and "Conventional-negative leadership" dimensions, which are also the most relevantaccording to the objectives set for the current study. Table 1. Instrument
world problems like economicgrowth, environmental challenges, public health etc. [5].Since innovation is one of the primary goals of engineering education, it becomes importantto look at the strategies being used by educators to make students innovate. According toframework provided by Dekoninck [7], there are 5 skills needed for innovation namely:tenacity, creativity, independence, decision-making (risk analysis, intuition) and leadership.Similarly, other scholars have also identified competencies like creativity, decision-makingcollaboration, reflection and technological expertise as the primary requirements forinnovation [8],[9].However, according to Palomera-García [10] there is a glaring flaw in engineering educationregarding the absence