, requiring a level of background information tobe taught at the beginning. Similarly, the applicants selected are those they have a pre-existinginterest in engineering and a desire to learn more about the topic. To that end, the module shouldbe implemented in settings involving a pool of students with diverse interests so as to better gageits effectiveness.By implementing the modules twice, slight revisions and improvements to the material andactivities were made. In general though, the content remained constant from 2011 to 2012. Thefollowing module-specific lessons learned are discussed in detail.Liquefaction ModuleStudents were actively engaged in the lecture sections, the laboratory experiments, and the dataanalysis. They seemed to understand
the areas of recruitment and retention. A SWE and ASEE Fellow, she is a frequent speaker on career opportunities and diversity in engineering.Dr. Armando A. Rodriguez, Arizona State University Prior to joining the ASU Electrical Engineering faculty in 1990, Dr. Armando A. Rodriguez worked at MIT, IBM, AT&T Bell Laboratories and Raytheon Missile Systems. He has also consulted for Eglin Air Force Base, Boeing Defense and Space Systems, Honeywell and NASA. He has published over 200 tech- nical papers in refereed journals and conference proceedings – over 60 with students. He has authored three engineering texts on classical controls, linear systems, and multivariable control. Dr. Rodriguez has given over 70
recognize thatnew ways of thinking and being will likely come from outside the academy and not from withinit [42]. Already, we have found commonality with and taken inspiration from education andresearch exemplars such as the Zapatista movement’s Escuelas Populares [47], the Science Shopmovement [48], Highlander Education and Research Center [21], and the Civic Laboratory forEnvironmental Action Research (CLEAR) [49]. Our goal is to define a set of practices, based onthe methods of these and other successful experiences, in order to help us manifest SE in theworld. As we share our stories, support one another through our weekly trials and triumphs, andparticipate in our own liberatory praxis, we become community to one another. We start to liveout
- engineering-ethics[7] K. V. Treuren and S. Eisenbarth, “An Evaluation Of Humanities And Social Science Requirements In An Undergraduate Engineering Curriculum,” presented at the 2005 Annual Conference, Jun. 2005, p. 10.164.1-10.164.11. Accessed: Jul. 19, 2023. [Online]. Available: https://peer.asee.org/an-evaluation-of-humanities-and-social-science- requirements-in-an-undergraduate-engineering-curriculum[8] “Cat on a Hot Tin Roof.” https://www.playbillder.com/show/vip/South_Bend_Civic_Theatre/2015/Cat_on_a_Hot_Ti n_Roof_16401/page/15 (accessed Jul. 15, 2023).[9] A. Berry, P. Mulhall, R. Gunstone, and J. Loughran, “Helping students learn from laboratory work,” Aust. Sci. Teach. J., vol. 45, no. 1, p
, engineeringeducation1 IntroductionMicrofluidics is a versatile research tool for a wide variety of scientific and engineering disciplines[1,2]. Microfluidic devices manipulate fluids using channels with height or width at a micro- or © American Society for Engineering Education, 2023 2023 ASEE Midwest Section Conferencesub-millimeter scale. One of the most striking and promising applications of microfluidics is tocreate lab-on-a-chip (LoC) environments in which full laboratory-scale procedures can occur on afootprint smaller than a notecard. LoC devices can be used for detecting and manipulating specifictypes of cells, creating point-of-care diagnostic devices, and developing drugs [3,4
unprecedented.Approach & Methodologies The offshore platform must be robust and secure enough to withstand the various offshoreconditions while housing a VAWT and/or UCT. Our overall goal in this project was two-fold: (a)design a floating platform to house a VAWT and UCT, and (b) test the performance and stabilityof the floating structure under various wind and current conditions, experimentally. Experimentswere conducted at the Laboratory for Fluid Structure Interactions Studies (FSI Lab) at our homeinstitution, UMass Dartmouth, which was equipped with a recirculating water tunnel. In order tofully mimic concurrent wind and current simultaneously for our floating DTP, our team designedand made modifications to the water tunnel facility to house an
inserving broader goals of education [13, 16-18], such as the critical goal of augmenting first-yearengineering retention. Some institutions utilize makerspaces as a means to offer training and/orteaching new skills and/or knowledge [19]. For quite some time now, many colleges haveprovided makerspace-analogous functionalities, including assembly/testing areas, machineshops, Computer Aided Design laboratories, and/or classrooms.A common reason students pursue engineering is because they enjoy the process of creation andthe ability to work with their hands [20]. A formal, first-year makerspace experience could allowall students to engage in those activities, with the potential to address motivational barriers in away that traditional courses and labs
-specific capstone sequence, utilizing and emphasizing the Human-Centered Design framework.Mr. Saadeddine Shehab, University of Illinois Urbana-Champaign I am currently the Associate Director of Assessment and Research team at the Siebel Center for Design (SCD) at the University of Illinois at Urbana-Champaign. I work with a group of wonderful and talented people at SCD’s Assessment and Research Laboratory to conduct research that informs and evaluates our practice of teaching and learning human-centered design in formal and informal learning environments. My Research focuses on studying students’ collaborative problem solving processes and the role of the teacher in facilitating these processes in STEM classrooms.Ms
, University of Illinois Urbana-Champaign Dr. Blake Everett Johnson is a Teaching Associate Professor and instructional laboratory manager in the Department of Mechanical Science and Engineering at the University of Illinois Urbana-Champaign. His research interests include experimental fluid mechanics, measurement science, engineering education, engineering leadership, and professional identity development.Prof. Yuting W. Chen, University of Illinois Urbana-Champaign Dr. Yuting W. Chen received the B.S. degree from the University of Illinois Urbana-Champaign in 2007, and the M.S. and Ph.D. degrees from Rensselaer Polytechnic Institute in 2009 and 2011, all in Electrical Engineering. She is currently a Teaching Associate
experience in Quito, students immerse themselves inTa culturally rich setting, applying engineering design to local water quality and pollution challenges. The program emphasizes practical application of engineering concepts through hands-on laboratory experiments, guest lectures, and multiple industry site visits, facilitated in partnership with Universidad San Francisco de Quito (USFQ). Students also deepen their understanding of Ecuadorian culture through excursions such as a Quito city tour, a USFQ campus tour, a visit to Quito’s artisanal market, and a visit to the Papallacta hot springs. Combined with classroom discussions and extensive First-Year Engineering Design (FEDD) project experimentation and work
-basedcollaborative tools 11 and virtual laboratories 12, are critical for its effectiveness. When thoughtfullyapplied to courses like tool design, where hands-on learning and collaboration are essential, theflipped classroom model has the potential to revolutionize engineering education 13.1.2. Balancing Traditional and Modern PedagogiesTraditional teaching methods in Tool Design courses, while effective for foundational theoreticallearning, often emphasize rote memorization and isolated problem-solving, limiting creativity andteamwork development. The rigid separation of theory from practical application further hindersstudents' ability to connect abstract concepts to real-world scenarios, particularly in diversesettings like HSIs, where traditional
. These terms were then reinforced in the protocol.Figure 6. In-class Material Preparation and Student Results for Workshops 2 and 6. (A) Classroomsetup for communal materials and reagents for the DNA workshop. (B) Material organization for group distribution and strawberry DNA extraction results. (C) Students used an Arduino, a breadboard, and a motor to spin a fan after building their blinking LED circuit.Gel Electrophoresis SimulationAs this experiment was the closest to a research laboratory in terms of technique and materials,many of the students were ecstatic to participate. Students struggled with using the plastictransfer pipettes to add the solution to the wells, often resulting in a broken gel. Because of this,we
. 6. Nolte, H., Huff, J., & McComb, C. (2022). No time for that? An investigation of mindfulness and stress in first-year engineering design. 7. Tellez-Bohorquez, F., & Gonzalez-Tobon, J. (2019). Empathic Design as a Framework for Creating Meaningful Experiences.Cognition, Psychology 1. Alzayed, M. A., Miller, S. R., & McComb, C. (2021). Empathic creativity: Can trait empathy predict creative concept generation and selection? 2. Bellinger, D. B., DeCaro, M. S., & Ralston, P. A. S. (2015). Mindfulness, anxiety, and high-stakes mathematics performance in the laboratory and classroom. 3. Berenguer, J. (2007). The Effect of Empathy in Proenvironmental Attitudes and Behaviors 4
grading Structural design courses paths Adaptative feedback G4. REMOTE LEARNING G5. IN-PERSON TEACHING G6. BLENDED LEARNING TECHNOLOGIES STRATEGIES APPROACHES E-learning platforms Active learning Hybrid courses Virtual classrooms Collaborative learning Flipped classroom Online laboratories Hands-on training Online and offline integration Distance learning tools. Face-to-face interaction Synchronous and asynchronous Web-based education Classroom engagement learning
minimize institutional resource requirements,such as test equipment. Since a common set of components and tools are used throughout thecurriculum, student progress can be streamlined in later courses by skipping introductorymaterial and the mechanics of the tools already covered in previous classes. The consistent useof components and tools allows for a better use of course time and for an overall increase inthe material presented to students. To illustrate this process, this paper presents the use ofstate-of-the-art low cost components in the laboratory assignments of a sequence of embeddedand digital systems design courses. Representative components are presented, showing how aflexible and cost effective kit of components is built over several
standards for a laboratory science course.History and 3 Units Including U.S. History and World History.Social Science World Language 2 Units Of the same language. Physical As required by law “Physical education shall be taught as a required subject in all Education (4 units) grades for all students” (M.G.L. c.71 §3). Arts 1 Unit Additional Core 5 Units Other additional coursework (including Career and Technical Courses Education) or any of the above.Massachusetts has invested in expanding CS opportunities by providing credit-bearingopportunities, teacher licensure pathways and grant opportunities to districts to
BackgroundThe entrepreneurial mindset (EM), defined as an “inclination to discover, evaluate, and exploitopportunities” [2], is a key focus of the Kern Entrepreneurial Engineering Network (KEEN), aconsortium of over 50 engineering schools aimed at fostering entrepreneurial thinking inengineering students. Central to this effort is the Entrepreneurially Minded Learning (EML)educational framework, which is founded on the 3C principles of curiosity, connections, andcreating value[3], [4]. While EML has been successfully implemented in design courses, open-ended assignments, and laboratory experiences[5], these approaches often require extensive classtime and significant instructor feedback, limiting their applicability in core engineering courses.To
MIT and a Bachelor’s degree in Aerospace Engineering from Auburn University. Her research centers on integrating sustainability into engineering curricula, aligning with her commitment to fostering holistic engineering education. Before transitioning to academia, Joany worked for over five years as an engineer at the National Renewable Energy Laboratory, where she contributed to advancing renewable energy technologies. ©American Society for Engineering Education, 2025 Electric Vehicle Weights and Infrastructure in Civil Engineering CoursesAbstractElectric vehicles are significantly heavier than their petroleum counterparts, some weighing anadditional 3,000 pounds. In addition to the electric
laboratories before faculty select their hiring choices.However, this is not typical in other engineering disciplines, with some students connecting withand committing to advisors before even starting graduate school and others attempting to matchwith an advisor through their first semesters in graduate school. The wide variation perpetuates theopaque nature of the process, especially for students who are first generation undergraduate orgraduate students in engineering disciplines. Most work in graduate education focuses on doctoral students, leaving master’s studentslargely understudied. Sallai et al [33] has noted that master’s and doctoral students differ in theirreasons for pursuing graduate study and reasons why they persist in their programs
-Champaign I am currently the Associate Director of Assessment and Research team at the Siebel Center for Design (SCD) at the University of Illinois at Urbana-Champaign. I work with a group of wonderful and talented people at SCD’s Assessment and Research Laboratory to conduct research that informs and evaluates our practice of teaching and learning human-centered design in formal and informal learning environments. My Research focuses on studying students’ collaborative problem solving processes and the role of the teacher in facilitating these processes in STEM classrooms. ©American Society for Engineering Education, 2025 WIP: Assessing Aerospace Students’ Human-Centered Engineering Design
-working-paper-no.-2013-01[28] M. Sabat et al., “Current teaching methods in STEM departments – A road map for fundamental university educational reform: evidence from Lebanon,” J. Appl. Res. High. Educ., vol. 14, no. 1, pp. 41–58, Jan. 2022, doi: 10.1108/JARHE-09-2020-0307.[29] C. Wieman, “A Better Way to Evaluate Undergraduate Teaching,” Change Mag. High. Learn., vol. 47, no. 1, pp. 6–15, Jan. 2015, doi: 10.1080/00091383.2015.996077.[30] E. L. Gottfried, M. Kamoun, and M. D. Burke, “Laboratory Medicine Education in United States Medical Schools,” Am. J. Clin. Pathol., vol. 100, no. 6, pp. 594–598, Dec. 1993, doi: 10.1093/ajcp/100.6.594.[31] E. Jacobson and A. Izsák, “Knowledge and motivation as mediators in
emphasizes on the process of exploration and questioning, whileconstructivist learning focuses on the outcomes of building knowledge through experiences. Thetwo approaches often complement each other and are frequently used together in studentcentered classrooms to foster both curiosity and deep understanding. In our work, since thesetools are integrated to promote the learning outcome, it feels more appropriate to use theconstructive learning tag. In a laboratory setting, inquiry-based learning is the prominent modal.This means virtual immersive laboratory simulations are heavily focused on both of theselearning styles.Figure 1 – Browser-based PhET Simulation: Build a Nucleus. User can alter the number of subatomicparticles to create different
equations becomes a cumbersome task often deterringstudents from understanding and applying these concepts to get a broader understanding of theirsignificance in engineering applications.The use of computational tools and software has been theorized to greatly simplify numericalanalysis while also being able to graphically visualize output for further analysis [1].Furthermore, the benefits of using computer‐assisted tools to improve student learning arewidely tested, in laboratories [2, 3, 4, 5], and learning teaching [6, 7, 8, 9]. In order to enhancethe teaching and learning of thermodynamics, the approach to teaching thermodynamics hasprogressed from the traditional method to a more sophisticated method such as using computertechnology and
completing her doctoral work jointly in the Multiphase Flow Laboratory and the Wind Energy Center at UMass Amherst. Her teaching and research focuses on ocean hydrodynamics and offshore wind energy. ©American Society for Engineering Education, 2025Longitudinal Examination of Gender Differences in Engineering Self-Efficacy and the Impact of COVID-19: A Six-Year StudyAbstractThis paper presents a longitudinal analysis of gender differences in undergraduate engineeringstudents’ feeling of self-efficacy across a six-year period, including the impact of the COVID-19pandemic. Engineering self-efficacy was measured by the Longitudinal Assessment ofEngineering Self-Efficacy (LAESE) instrument, while pandemic
Paper ID #47492An Entrepreneurial Mindset-Based Early-Curriculum Exposure to UndergraduateResearchDr. Blake Everett Johnson, University of Illinois at Urbana - Champaign Dr. Blake Everett Johnson is a Teaching Associate Professor and instructional laboratory manager in the Department of Mechanical Science and Engineering at the University of Illinois Urbana-Champaign. His research interests include experimental fluid mechanics, measurement science, engineering education, engineering leadership, and professional identity development.Dr. Irene Reizman, Rose-Hulman Institute of Technology Irene M.B. Reizman is an Associate
developed a module for a third-year MaterialsScience course where material selection for a straw was used to engage students in consideringsocial aspects of sustainability, specifically who benefits and who pays for a given material [21].Finally, Ruzycki explored material selection and screening, along with Life Cycle Analysis(LCA) in a sophomore laboratory course of a materials science department [22]. In the designproject for this laboratory course students determined the material composition of a givenproduct, conducted an LCA to assess the product’s eco and social footprint, and were encouragedto focus on materials solutions to a problem statement they developed.However, many of these publications have not explored students’ processes for
backwards design principles alongside Universal Designfor Learning [39], our program is distinctive in its dual innovation: the reverse engineeringdevelopment approach and deliberate alignment with faculty professional developmentprogramming. Recent applications of backwards design in STEM education have shown promisein specific disciplines, such as molecular biology course-based undergraduate researchexperiences [40] and chemistry laboratory instruction [41], but few programs have applied thisapproach specifically to graduate student inclusive teaching preparation across STEM fields. Wefind this particularly useful, as we are providing professional development to individuals (bothfaculty and graduate students) in instructional or instructional
program lies in our curricular redesign plan which combines all first-year physics, math and engineering lectures and laboratory instruction in a single, year-longstudio-style course that accounts for twenty-one of the thirty-two credit hours completed by first-year engineering students. The redesigned curriculum satisfies ABET and HLC accreditationrequirements while also keeping our students on the usual 4-year trajectory for an engineeringdegree. The studio teaching approach in physics instruction, or “studio physics”, was pioneeredby the Rensselaer Physics Education Group in the 1990s as an innovative method to improvestudent engagement and conceptual understanding in physics [38]. This approach integratestraditional lectures with laboratory
Paper ID #49217Work-in-Progress: Aerospace Engineering Faculty’s Perspective on the WritingSySTEM for Increasing Self-Efficacy of Graduate Student WritersDr. Russell William Mailen, Auburn University Dr. Russell W. Mailen is an Associate Professor in the Department of Aerospace Engineering at Auburn University. Dr. Mailen leads the Polymer Mechanics Research Laboratory, which focuses on the characterization of the thermal and mechanical properties polymers (including viscoelasticity), self-folding origami, and mechanical metamaterials. His research group has a significant number of undergraduate researchers, and the group
Congregation of Holy Cross in 2024. He now teaches mechanical engineering at the University of Portland in Oregon. His research interests include developing student self-efficacy and engagement in mechanical engineering, specifically in design and engineering graphics contexts.Mr. Chris James Hainley Jr, University of Portland C.J. Hainley is an Engineering Instructor at the University of Portland with over 15 years of combined experience in industry and academia. He specializes in CAD, manufacturing, and human-centered design, and directs student-led electric vehicle and UAV design competition projects. A former design engineer at ESCO Corporation and research fellow at Draper Laboratories, he holds an M.S. in Aeronautics