was much more inclined toimplementing additional high-quality product increments for extra credit, even though they hadless need for extra credit, grade-wise, compared to the Vanilla cohort, and ii) the Scrum cohortoutperformed the Vanilla cohort in test topics practiced in the Scrum-based activities.The observed positive outcomes align well with and extend the numerous well-documentedbenefits of Scrum. These benefits–including self-organization, iterative development, andflexibility–typically lead to more incremental and faster product delivery. In our study, Scrumprinciples were first introduced through lectures, contextualizing the principles for an academicsetting. This was followed by a laboratory project, where students focused on
as a transformative force in higher education, fundamentallychanging how students engage with knowledge. While often simply defined as "learning bydoing," experiential learning encompasses a rich variety of approaches including project-basedwork, community engagement, design challenges, laboratory investigations, and problem-basedlearning. What distinguishes these educational experiences is their open-ended, authenticnature—they provide structured scaffolding but lack predetermined solutions or pathways,mirroring the complexity students will encounter in professional practice.The impact of experiential learning in engineering education is particularly significant, as itbridges the persistent gap between theory and practice. Research
coursethat includes twelve weeks of surveying laboratory, where students gain familiarization withfield surveying tasks and utilizing Autodesk® Civil 3D®. With the increase in the size andcomplexity in Autodesk® Civil 3D® Fundamentals software tutorial, course evaluations showeda decline in student self-efficacy. The 2024 tutorial is now just under 1000 pages, 18 chapters inlength. Students commented that the Civil 3D® tutorial was overwhelming due to the abundanceof tasks required for each chapter and that the tasks outlined in the tutorials were too advancedfor an entry level Civil 3D® user. In addition, students noted even when they completed thetutorial, they were not confident in their ability in using the program outside of the course.Students
their paid laboratory work. Development of this pathway also allows for standardization of student training andassessment of testing skills, making collected data quality more consistent. Upon completing thebadges and the overall pathway, students gain digitally curated credentials showing demonstratedmastery of mechanical testing concepts and skills, which can be presented to their professionalsupervisors at the ASCC and at their future employers. These pathways can also be used forworkforce development and continuing education, to update current worker skills and knowledgein a directed and efficient manner.1. Introduction and Objectives As advanced manufacturing continues to mature and evolve, the development of effectivetools
Paper ID #49425Bringing Supervisor-Subordinate Interaction Skills into the Classroom: AMissing Piece in Transitioning Students from Academia to the WorkplaceLynne P Cooper PhD, Vanderbilt University Lynne P. Cooper is an Assistant Professor of the Practice of Engineering Management at Vanderbilt University. She retired from NASA’s Jet Propulsion Laboratory where she (among other things) led the JPL Proposal Center, worked on multiple Mars missions, re-engineered the New Product Development process, and led applied Artificial Intelligence research. She managed the successful Mars Helicopter Proposal which led to the
program has diversified in terms of faculty, staff, funding sources, partner universitiesetc. to facilitate STEM retention and matriculation. Figure 1 shows the diversity in funding partnership whichhas allowed for the inclusion of various facilities, companies, faculty, staff. projects and student groups. Duringthe summer, students are partnered with laboratory principal investigators (PI’s), graduate mentors and researchassistants to assess, explore and contribute to real world engineering problems. Notably, students’ maininstitution of enrollment while participating in this program includes institutions across the U.S., withconsistent consideration to Minority Serving Institutions (especially Historically Black Colleges andUniversities) and
correlated with laboratory-based micro-Vickers hardness testing to understand the measurement differences and uncertainties. The project team was then tasked with establishing a tolerance range for portable hardness measurements. 2. Offshore Swing Rope Transfer Alternative (Williams Corporation) – in the petroleum industry, swing rope transfers are one of the most dangerous transfer methods of personnel in Session XXXXX offshore construction and operations. Yet, they remain one of the only viable methods for transferring personnel from a small offshore vessel to an unmanned structure. This team project was to develop a concept design for an alternate means of
?BackgroundProgram Context The broader project involved a partnership between a small Mid-Atlantic college and aNortheastern educational non-profit to design and execute an innovative, immersive engineeringeducation “study away” program. The focus on the pilot semester in Fall 2023 was to deliver aninnovative hands-on engineering curriculum and allow students to engage in career exploration.On the curriculum side, this was conducted through project-based learning and mastery-assessment. Students took five engineering courses during the semester including: CircuitsAnalysis, Circuits Analysis Laboratory, Statics, Calculus III, and Physics II. On the careerexploration side, the students engaged in site visits, called “career treks,” to local
Paper ID #46920Graduate Researchers as Educators: How Presenting to First-Year StudentsSparks Interest in Teaching CareersMiss Elisa Schlesner AlvesNathalie Lavoine, North Carolina State University at Raleigh Since 2018, Nathalie Lavoine has been an Assistant Professor in the Department of Forest Biomaterials at NC State University (Raleigh, North Carolina, US). She received her PhD degree in 2013 from the Laboratory of Pulp & Paper Sciences, and Graphic Arts under the supervision of Dr. Julien Bras and Dr. Isabelle Desloges, in Grenoble, France. She then conducted two postdoctoral research experiences under the
electrode surface oxidation-reduction reactions for sensor applications, material corrosion mechanisms, and electrochemical degradation. She is a strong advocate for integrating high-impact practices, such as problem-based learning, into lectures, laboratories, and outreach initiatives to enhance student and community engagement in STEM education.Melissa Karlin, St. Mary’s University Dr. Melissa Karlin serves as the Director of Office Student Research and Inquiry (OSRI) at St. Mary’s University (StMU), and is a Professor of Environmental Science and Sustainability. A StMU faculty member since 2012, Melissa teaches undergraduate courses in GIS, ecology, experimental design, and conservation biology. Her research focuses
evaluation of students’ performances that relate tospecific SOs. Evaluations of exams, laboratory reports, or project deliverables that are designedto address specific SOs link directly to numerical evaluation of those SOs.Indirect assessments provide insights into perceptions of learning and program effectiveness,which may be particularly valuable if gathered from third parties, such as internship mentors.However, the sources of indirect assessments are not usually designed for SO assessment. Forthese resources to be effective assessment tools, their composition must be evaluated and, wherepossible, their content must be mapped to specific SOs. Using both direct and indirectassessments as part of an ABET evaluation process improves program