competencies, innovative pedagogy, andindustry-relevant skills into engineering education, which points out the necessity for rapidadaptation in educational institutions to match industry advancements. The study also exploresthe model’s transferability across various engineering disciplines to demonstrate its broadapplicability. Recommendations focus on enhancing industry-academia collaboration, clearpolicy interpretation, continuous professional development for engineering academics, andstrategic curriculum updates.Keywords—energy policy, industry demand, curriculum development, renewable energy.1. Introduction The evolving landscape of the energy sector presents new challenges and opportunities inengineering education, considering a significant
assessment and student feedback. We believe that the altREUmodel can be relatively easily replicated across institutions.I. INTRODUCTIONPromoting undergraduate students’ persistence in the Science, Technology, Engineering, andMathematics (STEM) fields is critical for meeting national calls to strengthen the future STEMworkforce. National data has shown that of all students who enter a STEM degree program, lessthan 40% earn a STEM degree within six years [1]. Calls have been made to produce anadditional one million STEM professionals to maintain the countries’ relevance in these fields,thus an annual increase in the number of students who graduate with a STEM degree is requiredto meet this demand [1]. These calls also emphasize the need to increase
community engagement programs for understanding the value propositionfor each stakeholder group. Such investigations can help researchers and practitioners betteroptimize programs to more closely meet their full potential.IntroductionLeading institutions in engineering education have been focusing on integrating experientiallearning into the undergraduate experience in recent years [1], which is a pedagogy that involveseducators purposefully engaging learners in direct experience and focused reflection [2]. Onesubset of the experiential learning approach is community-engaged learning, which is intended toincorporate the five elements of engagement, academic connection, reciprocal partnerships, mutuallearning, and reflection [3]. In engineering
1 awarded by the Associated Schools of Construction. She is geared toward modernizing the architecture, engineering, and construction management curricula by integrating VDC/BIM, AI, and other cutting-edge technologies into architecture and engineering education. ©American Society for Engineering Education, 2024 An Assessment of Students’ Perceptions in Curriculum Development Integrating Entrepreneurship and STEAM with Designing Green (Bio-inspired) RoofsSTRUCTURED ABSTRACTCONTEXT: Over the past several decades, sustainability has reshaped engineering educationand motivated scholars to implement it into academic curricula and research. Educatingengineering students
some type of participation in capstone design projects, as industrialcollaborators [1], sometimes as industry liaisons in real-world projects [2], or as industrialadvisors to meet with students and review their reports, or industrial partners pitching projectsfor students’ choice, attending, and grading final presentations, or invitees for special topics (i.e.,safety, team building, PI&Ds) [1].2.0 Project Description2.1 An initiative inserted in the capstone course for chemical engineers.Teaching the capstone course for chemical engineers (generally a process design course) isalways very challenging. Students come with the expectation of wrapping up all that they werelearning in college and projecting their application in the upcoming jobs
strategies to teamformation in capstone courses, highlighting the tradeoffs between student led and instructordesigned solutions [20]. Early on, it became evident that providing clear and consistentcommunication regarding roles and responsibilities was essential to ensuring students’ positiveexperience with the course. To address this, the course faculty introduced several interventionsinto the structure of the course to help improve team dynamics such as communication and workdelineation. A more thorough explanation of the design of this structure can be found in [1].These elements are intended, like scaffolding, to reside adjacent to the coursework but to supportstudents in understanding and navigating challenges should they arise [2,22,23
level becomes larger, with Micro leveldynamics generally changing fastest, while Macro level dynamics generally changing slowest. Inaddition, the Meso level holds a unique role in influencing Micro and Macro levels by being themost “fragile” level most susceptible to intervention. Overall, this work lays the foundation forfuture work that seeks to identify specific strategies and high-impact interventions to increasethriving across multiple levels of engineering education ecosystems.INTRODUCTIONShifting from pipeline and pathways models to an ecosystem model of engineering education is atestament that all factors related to engineering student thriving operate within complex systems[1], [2]. Benefits of the ecosystem model over prior models of
simulation formatover the paper format for learning about AFM image artifacts, with students valuing the simula-tion’s interactive nature.Keywords: atomic force microscopy, image artifacts, educational simulation1 IntroductionNanoengineering brings together principles from physics, chemistry, biology, and engineer-ing to design and manipulate structures and devices with dimensions on the nanometer scale.As nanotechnology progresses, there is an increasing necessity to educate a workforce capableof effectively utilizing these advancing technologies, with the introduction to nanoengineer-ing ideally starting as early as middle school [1–3]. Nevertheless, there are numerous educa-tional challenges, notably the stark contrast between our intuitive
EngagementIntroductionAs defined by engineering accreditation agency ABET, engineering design is “a process ofdevising a system, component, or process to meet desired needs and specifications withinconstraints” [1]. One example constraint within this ABET definition is usability [1]. A relatedconcept to usability is empathy. Empathy can strengthen the design process, inspiring engineersto create products that are easy to use.In this study, we examine the use of human-centered design in an open-ended first-year designproject to increase student engagement and empathy. In a first-year design course with threecourse sections, student groups in two sections were randomly assigned projects with sponsorswho were nursing professors, and student groups in a third section
Bi3 1 Department of Electrical and Computer Engineering, Mississippi State University 2 National Taipei University, and Tainan National University of the Arts 3 Department of Civil and Mechanical Engineering, Purdue University Fort WayneAbstractIn the Computer Architecture curriculum, teaching the complex topics of single cycle andpipelined datapath to senior students is challenging, which this paper addresses through a hybridpedagogy combining Technological Pedagogical Knowledge with flipped learning (TPK-FL) andmultiple practice exercises. TPK explores the technology-pedagogy interaction, particularly indatapath design. This approach enables students to construct
, includingthe knowledge, activities, and deliverables required to solve the problem. Further, how ill-structuredness and complexity are represented within a particular problem [1], and how they mightbe resolved are supported through reflection.A central goal of this work is to discuss and share these reflective activities recognizing theirpotential to provide instructional support for the PBL design process, including problemdevelopment and facilitation. Our research team sought to explore what it means for an instructorto develop and facilitate a problem in a PBL environment, and what a reflection on this facilitationmight look like. This aim is motivated, in part, by what Wiggins and McTighe refer to as the “twinsins” of learning design – “activity
intricacies and depthof a student's development and progress. In contrast, capstone project data provides richqualitative, multidisciplinary, and context-driven information. However, they are morechallenging to quantify and assess, requiring a detailed rubric that aligns with the capstoneprojects’ objectives.Introduction:The mission of the Electrical and Computer Engineering (ECEN) Program is to equip studentswith a robust foundation in engineering fundamentals, instill the highest standards of professionaland ethical behavior, and prepare them to meet the complex technical challenges of society. Theprogram’s educational objectives (PEO) [1] are directly related to the student outcomes (SO),which describe skills, knowledge, and behavior that our
airborne presence of a UAV couldmean the difference between life and death. Furthermore, increased endurance minimizes thedowntime and logistical challenges associated with battery management, thereby reducingoperational costs, and enhancing the feasibility of UAVs for continuous, real-time applications.Consequently, pushing the boundaries of small multirotor endurance is not just a technicalchallenge, but a necessary stride toward unlocking the full potential of UAV technology inserving humanity.BackgroundWhile there are some documentations on breaking world records [1], there does not appear tobe any pedagogical efforts to document the process. The projected design predicts a flightendurance of 2 hours and 57 minutes, surpassing the current
in ECE Design Verification Curriculum Shruti Sharma, Mohamed Ghonim, Xiaoyu Song, Jin ZhangIntroductionVerification of modern-day computing systems is becoming a bottleneck, taking up to 70 % ofthe time and effort in the design cycle [1]. Traditional approaches to design verification includesimulation, where validation engineers create a test bench environment and develop test casesand checkers to monitor the behavior of the design. This presents several problems, includingthe long time taken to create the test bench infrastructure, long runtimes, and always posing thequestion of how many test cases would be enough to validate the design thoroughly. Longerruntimes for simulation are usually
curriculum incorporates design and design thinking concepts to emphasizecreative problem-solving skills and the importance of data storytelling.There is a need for educators to understand how to develop a curriculum for workingprofessionals which introduces novice programmers to 1) core data and computational concepts;2) tools and techniques; 3) data-driven problem-solving workflows; and 4) data storytelling. Thispaper presents these four “swim lanes” to define a framework for describing a cohesiveinterdisciplinary curricular experience for an applied master’s program.Through reflection, the authors conclude that learners initially struggle with new concepts, butwith sufficient support, they successfully learn and apply data science and computer
interaction with simulationprograms can vary from something as simple as text input to more advanced methods such assoftware-implemented sliders or graphical “what-you-see-is-what-you-get" input interfaces.Computer-based simulations as an augmentation to traditional narrative course materials (e.g.print or digital textbooks) can be an important resource in an active learning environment. GenAlpha students (those born in or after 2010), often referred to as “digital natives,” have neverknown a world without an iPad. Many have also experienced education with one-to-one (1:1)device or technology programs in place. A 2017 report [1] found that more than 50% of K-12teachers taught in 1:1 classroom environments and a meta-analysis of 15 years of
. The overall survey data indicatedhigh rates of correctness and helpfulness in the Bot responses. We found that hallucination wasnot common, and most incorrect responses were identifiable by students. The Bot also performedbetter than general purpose bots for project-specific help.Our experience can provide insights for faculty using GenAI to assist students in their courses. Acustomized chatbot can be helpful to students and augment traditional course resources.2 Introduction and Related WorkGenerative AI tools, such as ChatGPT [1], have become increasingly prevalent for studentsthroughout the past year [2][3]. A study has shown that the use of ChatGPT in education has had apositive impact on students’ learning and educators’ teaching, with
pathways for yoTehama Lopez Bunyasi, George Mason UniversityDr. Leigh S McCue, George Mason University Leigh McCue is a Professor and Chair of George Mason University’s Department of Mechanical Engineering.Dr. Girum Urgessa, George Mason University Dr. Girum Urgessa is an Associate Professor of Civil Engineering at George Mason University. ©American Society for Engineering Education, 2024 Work-in-progress: A data gathering effort on STEM versus non- STEM faculty for assessing equity in recruitment, retention, and promotion at a large R1 institutionAbstractThis work-in-progress submission is a follow-on to a work-in-progress paper presented at ASEE2023 [1], supported under a
tenure or non-tenure status, and their professional title withinengineering education departments at U.S. institutions. It also identified which engineeringdisciplinary expertise among faculty was more prevalent in engineering education departments.This exploratory study has significant implications as it paints an initial landscape into theworkforce composition of faculty members in the discipline of engineering education that couldserve as a potential guide for engineering graduate students, postdocs, faculty, departments, orcolleges who may want to include engineering education careers in their futures.Keywords: engineering education, faculty, disciplines, academic backgroundsIntroductionAccording to Froyd & Lohmann [1], engineering
simulation of environmental systems, introduction to geographic information systems, and regression and stochastic methods.Elizabeth O’Connell, Stevens Institute of TechnologyMuhammad R. Hajj, Stevens Institute of Technology ©American Society for Engineering Education, 2024 A Holistic Approach to Civil Engineering Capstone DesignAbstractWe present a holistic approach that culminates the senior design course as a uniqueopportunity/outcome for the civil engineering undergraduate program. The objectives are todeliver a capstone senior design that, in addition to meeting design educational requirements, (1)enhances the professional skills of the students, as necessary for them to thrive in their
but also provides empirical evidence of its effectiveness, offering avaluable contribution to the field of educational research and the development of ASAC systems.IntroductionIn the dynamic landscape of education research, the evaluation of student experiences andperspectives is integral for fostering effective learning environments. Short answer questions insurveys and assessments provide valuable insights, capturing student perspectives on support,learning outcomes, and satisfaction. Traditional qualitative methods, while valuable for theirdepth and nuance, often struggle to efficiently handle the vast amount of textual data generatedby student surveys and assessments [1]. This data, typically collected through short answerquestions
1 Department of Electrical and Computer Engineering, Mississippi State University 2 National Taipei University, and Tainan National University of the Arts 3 Department of Civil and Mechanical Engineering, Purdue University Fort WayneAbstractComputer Architecture course can be a particularly challenging and intimidating subject forcomputer science, electrical and computer engineering students in engineering and computerscience disciplines. It mainly addresses structures in modern microprocessor and computersystem architecture design. Among them, MIPS instruction set design is a challenging portion inthe learning curve. In this paper, our recent experiences in applying an
effectively improve underrepresented students’ engagement and attention to theelectrical engineering discipline.1. IntroductionIn today’s rapidly evolving technological landscape, STEM education is the foundation forfuture advancements, economic growth, and societal progress. It prepares students for careers infields like engineering and computer science. It equips them with the skills necessary to thrive ina technology-driven world. It also fosters innovation and problem-solving abilities to addressglobal challenges like the energy crisis, climate change, and healthcare. According to the Bureauof Labor Statistics, employment in STEM areas in the United States is projected to grow by 9.5%from 2019 to 2029, which is a much faster growth compared to
Paper ID #42620A introductory-level, student-taught biomedical neuroengineering course for1st year undeclared engineering undergraduate studentsNyota Prakash Patel, University of VirginiaDeepika Sahoo, University of VirginiaDr. Shannon Barker, University of Virginia Dr. Shannon Barker is an Associate Professor and Undergraduate Program Director at UVA BME ©American Society for Engineering Education, 2024Background and MotivationEngineers are required to conceive, design, and maintain products, processes, and systems acrossmany sectors to meet societal needs [1]. Projects often require training in fundamentals andacross
confidence and competence in handling the complexity andchallenges of an open-ended problem with a long time frame.In October 2012, the instructor attended the first ever National Effective Teaching Institute 2(NETI-2) workshop which was held in Seattle, WA. While NETI-1 provides “instruction andhands-on practice in the elements of effective teaching,” NETI-2 is for “STEM instructors whoare already familiar with the topics of NETI-1 and are looking for more advanced active learningstrategies to engage students at a higher level” [1]. During the Workshop, Dr. Michael Princefrom Bucknell University, a co-leader of the workshop, shared his experience of using aproblem-based learning approach in his heat transfer course for several years and offered to
identifies undergraduate researchexperiences (UREs) as a high impact practice for increasing student success and retention inSTEM (science, technology, engineering and math) majors [1] [2]. Studies credit undergraduateresearch with benefiting students’ sense of belonging, increasing their interest in graduatestudies, and contributing to their development of attitudes and thinking habits important tosuccess in STEM curricula.The implementation of undergraduate research in a community college engineering transferprogram presents several challenges. Most community college faculty do not lead a technicalresearch program and generally lack the facilities and equipment necessary to do so. Communitycollege students typically have limited availability to
Inventory, and he is a co-author of Vector Mechanics for Engineers: Dynamics, by Beer, Johnston, Cornwell, and Self. ©American Society for Engineering Education, 2024 Work in Progress: A Rigid Body Dynamics Concept InventoryIntroduction The Dynamics Concept Inventory (DCI) has been around for over 20 years [1], [2], [3], [4].Since its release, it has been both downloaded over 150 times and used by faculty through the ConceptWarehouse website [1]. The DCI started out as a paper-only version using a locked PDF and an answerkey that had to be requested from the authors. In the 20 years since, the DCI has been added to theConcept Warehouse where faculty can deploy it and get student response
of improvement for future offerings.1 IntroductionThe modern urbanization surge has placed cities at the forefront of global challenges, with morethan half of the world’s population now living in urban areas. These urban areas contributeapproximately 70% of the planet's greenhouse gas emissions [1]. This growth presents a paradoxas cities are crucial for economic development and growth yet significantly negatively impact theenvironment. Related to this issue, Canada faces a severe housing crisis, requiring an additional3.5 million homes by 2030 to meet anticipated demand [2]. This goal far exceeds the current rateof new construction. This situation highlights the urgent need for innovative solutions thatbalance economic growth, societal
businessstudents and professionals rather than other engineering students, which may be due to theirexposure to working in a business and research setting in tandem. This study identifies theimpacts of exposing biomedical engineering students to entrepreneurial research experiencesduring their undergraduate years to assist in development of the necessary understanding of EMand identify areas of potential further development to assist in better preparing biomedicalengineering students for the roles that they will serve in their profession.IntroductionBiomedical engineering (BME) programs tend to emphasize students developing skills frommany different disciplines such as competencies in chemistry, physics, and electronics [1], [2].However, this curricular
theory to the field of engineering,considering how these frameworks can inform career paths, transitions, and professionaldevelopment within this specialized domain.Maslow's Hierarchy of Needs: A Lens for Understanding Career MotivationsWhile not explicitly a career theory, Abraham Maslow's Hierarchy of Needs [1], [2] sheds lighton the motivational forces driven by different levels of human needs. Maslow's model proposes apyramid structure, where individuals progress through five levels of needs, each requiringfulfillment before moving to the next: • Physiological Needs: These fundamental survival needs include air, food, water, shelter, and warmth. • Safety and Security Needs: This level focuses on the desire for protection