Paper ID #38218Value Methodology & Frugal Engineering: New frontiers in an engineeringcurriculum?Dr. Bopaya Bidanda, University of PittsburghGajanan Hegde ©American Society for Engineering Education, 2023Are Value Methodology & Frugal Engineering new frontiers in a collaborativeengineering and business curriculum?Bopaya Bidanda Gajanan G. HegdeErnest Roth Professor of Industrial Engineering Associate ProfessorUniversity of Pittsburgh Katz Graduate School of Businessbidanda@pitt.edu University of Pittsburgh
; Communication, 19(3), 238-258, 2020.[16] M.V. Mawn. “Science Online, Bringing the Laboratory Home in Teaching Science Online:Practical Guidance for Effective Instruction and Lab Work by Kennepohl”, Dietmar Karl. Vol.First edition, Stylus Publishing, 2016[17] L. Rosenberry. “Leveraging Interactive Tools in Zoom to Keep Students Engaged. OnlineSummer Workshop by Hawkes Learning,” https://blog.hawkeslearning.com/leveraging-interactive-tools-in-zoom-to-keep-students-engaged/ [Accessed on August 3, 2020][18] F.P Incropera and D.P. DeWitt, “Fundamentals of Heat and Mass Transfer,” John Wiley &Sons, New York, 2002.[19] M.N. Özışık. “Heat transfer: a basic approach (Vol. 1). McGraw-Hill Science, Engineering& Mathematics.” 1985[20] H. Abu-Mulaweh
action to make them happen. A habit of constantly seeking to improve their knowledge and skills; being open to feedback and willing to learn from their mistakes.Therefore, incorporating an entrepreneurial mindset into the engineering curriculum can helpstudents to become more well-rounded, adaptable, and effective problem-solvers. It can also opennew career opportunities and help engineers make a greater impact in their work [14].Bio-inspired design, also known as biomimicry or biologically inspired design, is an approach toinnovation that looks to nature for solutions to engineering and design challenges [15]. By studyingthese natural systems, engineers and designers can gain insights into new materials, structures, andprocesses
Paper ID #38720Poetry writing to enhance conceptual understanding of mathematicalmodels and approaches for inventory managementProf. Elif Akcali, University of Florida Dr. Elif Akcali is an Associate Professor in the Department of Industrial and Systems Engineering and an affiliate faculty member in the Engineering Innovation Institute at the University of Florida. She is an industrial engineer, a visual artist and an explorer of the interplay between engineering and the arts.Saron Getachew Belay Saron Belay is a Project Manager at Starbucks Technology and a recent graduate from the University of Florida with a
Engineering from North Carolina State Univer- sity. Zhang’s current research focuses on developing methodologies and solution approaches in medical decision making, especially advancing predictive and prescriptive analytics for disease prevention and treatment. Zhang teaches courses on probability and statistics, predictive analytics, stochastic processes, quality engineering and management, simulation, etc. ©American Society for Engineering Education, 2023 An Analysis of Data Analytics Curriculum Development through an NSF Research Experience for Teachers (RET) Program in ArkansasAbstractThe Arkansas Data Analytics Teacher Alliance (AR-DATA) Program, a Research Experience forTeachers (RET) Site
curriculum for ChemicalEngineering. This enables the engineering curriculum to be impacted because it can generatea cascading effect, modernizing all engineering courses. Therefore, under thesecircumstances, the impact of Teaching and Learning Centers is huge, and Brazilianuniversities should create their Teaching and Learning centers. Unfortunately, there are nospecialists in adduction and learning in each Brazil unit and Industrial Engineering unit. Thearea of knowledge is limited to education, so it is difficult to implement new learning systemsin engineering, including industrial engineering.Teaching industrial engineering poses significant challenges related to professor engagement,motivation, and skills to modernize the course. Adapting
assembly process for balance and flow. In a final round they do a design-for-manufacturing exercise to create a new, more buildable design, and use pull, kitting, andkanban tools to create a lean manufacturing system that can typically make five times as manyairplanes as the start state with basically the same resources.The product development simulation involves 7 students taking the roles of project management,design, analysis, systems engineering and verification and testing. They process several differentkinds of paper jobs that have different paths through the system. They perform abstract tasks,attaching labeling dots to the paper “jobs,” with time controlled by sand timers and success orfailure determined by dice. Failure can create rework
, practicing and applying each new stage of the life cycle together.The approach was intended to simulate how you would plan, manage, and execute a project inindustry. Previous research showed that experiential learning needed to happen in ProjectManagement to meet the needs and concerns of industry [10].Along with the topics and part of the redesign, the group project defined for the course includeda civically engaged project. The project defined for the course was to plan, manage and executean event called Girl Scout Engineering Day. The goal of the team project was to have studentsapply project management techniques using a structured approach to project management thatwas part of the theoretical learning in the class. The project was designed to
reinforced the connection between Lean principles and sustainability goals. Additionally,a final project with a biofuel company offered students hands-on experience in streamliningsustainable processes.Feedback from both students and the industry partner was positive, affirming the effectiveness ofintegrating sustainability into the curriculum. Student responses indicated a significant shift intheir perception of the role of engineers in addressing environmental challenges. Statisticalanalysis revealed a meaningful impact on student attitudes towards sustainability.Looking ahead, the author is spearheading initiatives to build on this momentum, including theformation of a sustainability consortium and pursuing grant opportunities to
of the professional skills gap that existsbetween employer’s expectations and the qualifications of their new engineering hires. To dothis, a 2-part study examined both evidence in the literature regarding education methods andevidence of course work required of engineering professional graduates in their pursuit of abachelor’s degree. Based on the findings of this research, while engineering professionalprograms are making progress toward better professional skills, it appears that there is still muchwork to do to ensure that graduates are well qualified for professional practice. Evidence suggests that written communication skills are the most widely addressedprofessional skills in engineering professional curriculum. Many programs
Paper ID #42497Team Dynamics And Conflict Resolution: Integrating Generative AI in Project-BasedLearning to Support Student PerformanceEnas Aref, Western Michigan University Enas Aref is a Ph.D. Candidate in the Industrial Engineering Program at Western Michigan University. Ms. Aref is a researcher and a doctoral instructor assistant in the Industrial and Entrepreneurial Engineering and Engineering Management Department at Western Michigan University ©American Society for Engineering Education, 2024 Team Dynamics And Conflict Resolution: Integrating Gen AI in Project Based Learning to
at the University of Indianapolis. He received his Ph.D. in Industrial Engineering from Western Michigan University. His research interest lies in developing data-driven models within the fields of production systems, financial systems, decision sciences, and engineering education.Dr. Joseph B. Herzog, University of Indianapolis Joseph B. Herzog is an Assistant professor in the R.B. Annis School of Engineering at the University of Indianapolis. He chose to come to the University of Indianapolis because he is passionate about teaching, is excited about the direction of the new R.B. Annis School of Engineering, is glad to return to his engi- neering roots, and is happy to be close to his extended family. Previously
identifyopportunities for creating value in the sustainability engineering and design space. After thecompletion of this module, students integrate the sustainability engineering and analysis skillslearned in the course with product design principles and steps, and entrepreneurial mindsetprinciples in a final design project. Students are encouraged (by offering extra credits) tointegrate the knowledge from sustainability engineering, product design, and entrepreneurialmindset to propose a solution to a defined problem statement.ResultsStudents who took this class in the Fall of 2022 conducted a final project to apply the new skillsand tools learned. This project aimed to propose an innovative product design that wouldpotentially reduce the environmental load
competencies (disci-plinary and transversal) to help them tackle industry and organizational problems with aLean approach as future engineers. Implementing CBL is inherently challenging for pro-fessors since they must ensure a clear relationship between the learning objectives andthe challenge. In addition, professors encourage students in their learning commitment.Therefore, the evaluation relies not only on the theoretical concepts but also on the pro-posals, solutions, and how the concepts are applied to a real-world problem. The profes-sor’s role changes more towards being a mentor. Thus, there is more demand for facultytime to guide students in the decision-making process, prepare dynamic courses, and con-tinue training in CBL [29]. Table 3
impact of ECP on students' curiosity levels. Throughpre- and post-assessment surveys, it was observed that students exposed to ECP demonstrated amarked increase in their interest in exploring complex industrial engineering concepts.Moreover, class observation results indicated a heightened sense of engagement and participationduring classroom sessions.In conclusion, experiment-centric pedagogy offers a promising approach to enhancing curiosityin industrial engineering undergraduates. This innovative teaching methodology not only ignitesstudents' interest in the subject matter but also equips them with critical thinking skills necessaryfor success in the dynamic field of industrial engineering. This research sets the stage for atransformative
Paper ID #38763Impacting engineering students’ academic trajectories through a learningoutcomes enhancement cycleMrs. Javiera Espinoza, Pontificia Universidad Catolica de Valparaiso Javiera Espinoza von Bischhoffshausen is a lecturer and curriculum design specialist in the Department of Industrial Engineering at the Pontifical Catholic University of Valparaiso (PUCV). She has an M.A. in Higher Education from the University of Michigan (2020). In addition, she has a B.S. in Industrial Engineering from PUCV, Chile (2012). Her research interests include engineering education, particularly curricular design, quality
challenges. By employing tools like 3D printedsamples and Minitab software for interactive in-class activities, the boot camp equipsparticipants with a hands-on understanding of quality engineering that is both deep and practical.This rigorous training is not just about learning new concepts; it's about transforming participantsinto competent professionals capable of leading quality engineering initiatives within theirorganizations. The boot camp's structured approach provides a fast-track path to expertise inquality engineering, offering a competitive edge to those who complete it.3 Hands-On Activities, Learning Outcomes, and Skills DevelopmentShort-term intensive training programs, like the 10-day Quality Engineering Boot Camp, havesuccessfully
acompetency-based training model. According to a report published by the United NationsEducational, Scientific, and Cultural Organization [8], and a study by Erasmus andKnowledge Alliance, a new balance in the curriculum is required to develop the technical andbehavioral competencies required for engineers to work in the labor market and improve theiremployability [4], [9]. An important challenge of this training model is monitoring and evaluating students'competence development throughout the program, which requires the development of robustassessment methods [4], [9], [10]. One of the most commonly used approaches for assessingthe competencies of undergraduate students is unfolding these competencies in learningoutcomes, which are smaller
student learning, and illustrate how this process assistedIE faculty better understand student work and technical solutions.Revised instructional modelIn Spring 2023, a writing instructor was hired to co-teach the class with two IE faculty members.A team-teaching model was utilized to merge content and pedagogy from engineering andwriting to the capstone course. Team-teaching has been shown to provide a multifacedpedagogical approach and provide necessary skills for engineering students, as well as enhancethe instructors’ professional development [22], [23]. The co-teaching approach was helpful forour capstone class as well. While the curriculum did not change when the new instructor wasadded, we clarified the teaching roles and responsibilities
Paper ID #43463Methodology to implement project-based learning (PBL) within the contextof Operations Management.Dr. Mahesh Kumar Pallikonda, Austin Peay State University Dr. Mahesh Kumar Pallikonda is a faculty member in the Department of Engineering technology at Austin Peay State University (APSU). Prior to his academic career, he gained valuable industry experience in roles ranging from New Product Development to Process Control. He holds a Ph.D. and a Master’s degree in Mechanical Engineering from Cleveland State University, as well as a Bachelor’s degree in Manufacturing Engineering from the National Institute of
, andknowhow. By conceptualizing the college as a sociotechnical organization with a social and atechnical subsystem, we gain a sociotechnical systems lens. This lens can reveal both existing butlatent, and new, catalysts in the social system to enable people capital so we can leverage andconnect these catalysts in the social system with the catalysts in the technical system to enableresources like money and knowhow. We can then strengthen the processes and structures eitheralready in place or to be created anew for meeting expressed and latent unmet needs, and fordelivering transformative experiences for students. Our rationale for our approach is that byusing a systems lens to view and analyze the dynamics of the social and technical systemcatalysts
for further research and evaluation so that technology andautomation in the new innovative economy fueled by AI do not leave behind a whole generationof workers and students who will be part of the next generation of working professionals.The consensus from these courses was that the design of future work should carefully considerand balance the benefits of rapid and large-scale innovations that can be realized from emergingtechnologies such as AI, with the role of people and their future work and livelihoods wheninnovating future work and workplaces.4. ConclusionsIntegrating future-ready skills and the pedagogical principles and practices for teaching theseskills in the engineering curriculum can better prepare students to adapt to and
with in creating a poem in a technical course intheir engineering curriculum. To this end, the following research questions are considered:1. Do engineering students demonstrate more intrinsic or extrinsic creative motivations when developing their technical poem-writing assignments?2. How are the students approaching the process of developing their technical poem-writing assignments?The remainder of the paper is organized as follows: The course and poetry-writing assignmentsare discussed in-depth, before describing the data collection methods. After the data analysisapproach and results are presented in detail, preliminary insights are discussed. The last sectionsinclude limitations of the study with their shared potential exploration
energy cost (prosperity). Teachers Jocelyn Sigler and Rahsirearl Smallsparticipated with the Summer 2022 cohort, and teachers Laura Thomason and James Hoveyparticipated with the Summer 2023 cohort. They were guided by faculty mentors Drs. VictoriaChen and Erick Jones, Jr. and received research assistance from several IMSE graduate students. To conduct the research to answer this research question, this paper proposes theadaptation of methods from the Industrial Engineering curriculum towards our proposed researchtraining framework based on design and analysis of computer experiments (DACE [2-3]). Awell-known research approach in science and engineering is the use of statistical design ofexperiments [4]. However, this approach requires
andsafety. In addition to traditional teaching methods, the curriculum incorporates immersiveexperiences in virtual reality (VR) and introduces students to advanced techniques in gaze dataanalysis. This approach not only enriches students' understanding of contemporary technologiesbut also equips them with valuable skills in data analysis, aligning with the demands of modernindustries. By blending theoretical concepts with hands-on experiences in cutting-edgetechnologies, the educational component fosters a holistic learning environment, preparingstudents for the dynamic landscape of additive manufacturing and data-driven decision-making.Materials and MethodsA virtual learning environment was createdusing the Unity game engine, and studentswere
projects as he focused on toy design and theirindustrial design aspects. Even with these efforts, the authors saw a lack in incorporatingentrepreneurial mindset (EM) into the instructor’s curriculum along with art concepts. In addition,the instructor always wanted introduce bio-inspired design through open-ended design anddevelopment exercises in his “Rapid Prototyping and Reverse Engineering” course. Thus, an effortto incorporate EM, art, and bio-inspired design via a semester-long product development projectwas envisioned within a collaborative and interactive environment facilitated by a PurdueUniversity Polytechnic faculty member with support from the KEEN Institute. The lessons learnedfrom the first design and development cycle will be used