Paper ID #9776Facilitating the Teaching of Product DevelopmentDr. Claes Fredriksson, Granta Design, Cambridge (UK) Currently working as Senior Materials Education Consultant at Granta Design in Cambridge, UK. Until recently Program Director for a Master’s Programme in Manufacturing Engineering at University West in Sweden. Experience in teaching subjects like Materials Science & Technology and Environmental Technology to students of mechanical engineering at the department of Engineering Science since 1999.Mr. Mats Eriksson, Univeristy WestMs. Hannah Melia, Granta Design, Ltd. Hannah Melia is the leader of the Teaching
+ Construction at Washington State Uni- versity. Her research focuses on improving construction coordination efforts through the use of building information modeling (BIM) and emerging collaboration technologies. Page 26.932.1 c American Society for Engineering Education, 2015 Improving the Understanding of BIM Concepts Through a Flipped Learning Lab Environment: A Work in ProgressAbstractThis works-in-progress study explores the instructional design of a BIM software skills lab thatuses problem solving in a flipped classroom instructional environment to enhance studentlearning
AC 2007-787: PAUL REVERE IN THE SCIENCE LAB: INTEGRATINGHUMANITIES AND ENGINEERING PEDAGOGIES TO DEVELOP SKILLS INCONTEXTUAL UNDERSTANDING AND SELF-DIRECTED LEARNINGRobert Martello, Franklin W. Olin College of Engineering Robert Martello is an Associate Professor of the History of Science and Technology at the Franklin W. Olin College of Engineering.Jonathan Stolk, Franklin W. Olin College of Engineering Jonathan Stolk is an Associate Professor of Mechanical Engineering and Materials Science at the Franklin W. Olin College of Engineering. Page 12.1147.1© American Society for Engineering Education, 2007
provides insights about youth or studentlearning as well as the environment in which learning occurs. To test its usability, we appliedthe scoring matrix to examine 39 video pitches. The results indicate an explicit understanding ofan engineering design challenge and an implicit understanding of specifications and constraints.IntroductionWISE Guys and Gals (WGG) is an innovative blended STEM learning environment created tohelp middle school age youth develop competences in the day-to-day application of STEMknowledge and engineering design thinking. WGG was created through a collaboration betweenHofstra University’s Center for STEM Research in conjunction with Brookhaven NationalLaboratory (BNL), The CUNY Graduate Center’s Center for Advanced Study
Understanding Student and Faculty Attitudes With Respect to Service Learning: Lessons from the Humanitarian Engineering Program E. Heidi Bauer, Barbara Moskal, Joan Gosink, Juan Lucena, David Muñoz Colorado School of Mines, Golden, ColoradoAbstractNow entering its second year, the Humanitarian Engineering Program, which is sponsored by theHewlett Foundation, at the Colorado School of Mines is creating curriculum that will supportengineering students in developing an understanding of their responsibility for solvinghumanitarian problems that exist throughout the world. As part of this effort, baseline data hasbeen collected on both the faculty and student
achieved when a logical procedure is followed to meet a specific need.The procedure, called the design process, is similar to the scientific method with respect to astep-by-step routine. In the engineering mechanics course the design process encompasses thefollowing activities, all of which must be completed [11]:(a) Problem definition and understanding the objectives. By this step students need tounderstand the required tasks without any misinterpretations. Students usually spend a weekafter posting the design problem studying the objectives they need to achieve.(b) Market analysis and literature search. Students must perform a market and literature searchbefore their first meeting with the instructor who acts as consultant for all groups. The
level ofcomplexity of the models must be tailored to the learners' current levels of knowledge and skills”(NRC, 1999). Treating these as guidelines, the learning objectives of the course were organized asfollows -1) Developing understanding the process of Engineering Design – understanding the problems,and constraints of design, collecting relevant information about the problem, its scope and resourcesneeded, research and document multiple approaches to the solution of problem and select anappropriate approach for solving the problem2) Developing proficiency in using the SolidWorks Design Suite - present the design ideas bycreating virtual prototypes (3D parts and assemblies) and by means of clear and industry standard 2D-drawings3
Paper ID #37214IN-PERSON INSTRUCTION OR REMOTE LEARNING?:UNDERSTANDING STUDENTS’ LEARNINGEXPERIENCES DURING COVID-19Eleazar Marquez (Dr.) Dr. Marquez is a Lecturer in the Department of Mechanical Engineering at The University of Texas Rio Grande Valley. His research efforts focus on dynamics and vibrations of mechanical systems under various loads. The mathematical models developed include deterministic and stochastic differential equations that incorporate finite element methods. Additionally, Dr. Marquez research efforts focus on developing and implementing pedagogical methods in engineering education.Samuel
Deconstructing Engineering Design Steven H. VanderLeest Department of Engineering, Calvin College, Grand Rapids, MI1 AbstractPostmodernism has swept through disciplines from literature to philosophy, from politics tosociology. But what does postmodernism have to do with engineering or more specifically,engineering education? Postmodernism may be the cure to several common ills, such asstudents becoming overly reliant on engineering models or computer simulations, lack ofdiversity (both in design teams and in the designs themselves), and lack of accountability due toa belief that technology is ethically neutral. However, postmodernism also presents some
AC 2012-2998: EDGE DETECTORS IN ENGINEERING AND MEDICALAPPLICATIONSDr. John Schmeelk, Virginia Commonwealth University, Qatar Page 25.489.1 c American Society for Engineering Education, 2012 Edge Detectors in Engineering and Medical ApplicationsAbstract Image edge detection is an integral component of image processing to enhance theclarity of edges and the type of edges. The current paper compares two methods forfinding the edges of an image. One method developed by the author is to define specialmatrices and applying them to the image using approximations for gradients
design (in relation to technology) with "blueprints and drawings from which you construct something" rather than "a creative process for solving problems." (p. 16)Like CtC, the MCE report listed lack of PUE as the main reason for insufficient public support.It again called for messaging that will improve public understanding of engineering to garnergreater public support for engineering that could translate into greater engineering relatedresearch funding, greater diversity in the workforce, and ultimately a greater ability to innovateamong other things.29 Both the MCE and CtC, as well as many other examples such as EngineersWeek initiatives, ultimately aimed to bring the public in closer contact with engineering.However many scholars
chapters and self-assessingcurrent understanding via a follow-up assessment makes for more productive educationalactivities in-class.10The inverted Bloom’s taxonomy captures the essence of the flipped format12 and its focus on thehigher order stages of thinking in face-to-face class sessions that create time for effectivepractice of engineering design. Figure 1. Flipped format for an engineering design classroom12.Advantages of a flipped classroomFlipped classrooms are credited with many learning benefits,12 such as more rigorous studentpre-class preparation, in which independent content mastery is tied to student ability to self-manage, self-assess and recognize connections between previous and new knowledge; respectinga student’s own pace
students will have a much better understanding of analysis,synthesis, and design. They will have the ability to model and parameterize simple engineeringsystems, enumerate the design variables available within the system, undertake sensitivitystudies on design variables and constraint boundaries, proceed with an optimization process, andprovide an assessment of the quality of their final solution. Overall, the student will be muchbetter at the process of formulating and solving design problems.Finite Element Analysis for Practicing EngineersThe ‘Finite Element Analysis for Practicing Engineers’ module focuses on the analysis aspectsof engineering design. Industry has been using finite element analysis extensively for decades.However, most large
Paper ID #9657”Increasing students’ conceptual understanding of AC circuits: An applica-tion of Licht’s model”Miss Nicole P Pitterson, Purdue University, West Lafayette I am currently a second year PhD student in the Engineering Education Department at Purdue University. My highest level of education so far is a MSc in Manufacturing Engineering which I attained at Western Illinois University. My research interest is eliciting conceptual understanding of AC circuit concepts using active learning strategies.Dr. Ruth A. Streveler, Purdue University, West Lafayette Ruth A. Streveler is an Associate Professor in the School
Session 3230 Coaching Engineering Design Teams D. Knight, W. Poppen, J.E. Seat, J. Parsons, G. Klukken, A. Glore The University of Tennessee College of Education/College of EngineeringIntroduction At an increasing rate, teams are becoming the primary unit of performance in industrialorganizations.1 In line with this trend, representatives from industry have requested, andengineering educators have responded, that graduating seniors in engineering need to have agreater ability to work in teams2, 3. Although the University of Tennessee, Knoxville provides
understanding,and agility as areas of improvement for engineering graduates. The design component of anengineering curriculum is well positioned to address most of these. Innovation andentrepreneurship are emphasized in a special capstone course at University Nevada Reno [60].An ancillary benefit of entrepreneurship education may be improved retention [61]. U.S. Proceedings of the 2007 ASEE North Midwest Sectional Conferenceuniversities are developing partnerships with universities across the globe, and global studentdesign teams may become a trend. Downey, et al. note that global competency means being ableto work with people who define problems differently [62]. They recommend internationalprojects, travel abroad for study/work
well.As we advance further into the digital age, virtual engineering teams may become thenorm for engineering teams; a key imperative for modern business proceedings. As a Page 14.1348.2result, more research as to be undertaken in order to understand the dynamics of theseteams along with the other key characteristics.The aim of this paper is to present a thorough literature review of the research that hasbeen done in this area. Specifically we will look at the drivers of global design teams, theeffectiveness and challenges of global design teams, including communication,technology, and geographical, social and cultural complexities. The result of this
AC 2009-448: DEFINING ARCHITECTURAL ENGINEERING DESIGNJames Mitchell, Drexel University Prof. Mitchell has been Director of Drexel University's Architectural Engineering program since 1988. He was trained originally as an engineer (AB and MS Harvard) and has practiced as a licensed architect. Throughout AY2008-9 he has used a sabbatical year to visit all the US AE programs to explore the teaching of AE Design. Page 14.402.1© American Society for Engineering Education, 2009 Defining Architectural Engineering DesignAbstractThe question of what constitutes “Architectural Engineering Design
department head of Engineering Science and Mechanics and as Interim Associate Dean for Academic Affairs within the College of Engineering. c American Society for Engineering Education, 2016 Understanding the Effects of Transferring In Statics Credit on Performance in Future Mechanics CoursesIntroductionThe demand for graduating additional engineers who come from diverse backgrounds hasincreased over the past several years. These calls have been accompanied by the emergence of aglobal society beset with complex, interdisciplinary problems that are best addressed byinnovative technology-based solutions.1 Thus, it has become imperative for engineeringinstitutions to formulate strategies towards
c American Society for Engineering Education, 2011 Engineering Persisters and Non-Persisters: Understanding Inflow and Outflow Trends between Middle School and CollegeKeywords: engineering pipeline, persistence, science identityAbstractA science identity framework was applied to discern how pre-college science experiences canaffect persistence in engineering career trajectories. Engineering persisters (n=751) and non-persisters (n=528) were isolated from a nationally-representative dataset, and groups werecompared against a number of self-reported factors associated with performance, competence,recognition, and interest in science. Results demonstrated that persisters reported significantlyhigher values for factors that
engineering design process as equivalent to understanding technology. A Page 15.1324.3third approach eschews formal engineering or scientific methodologies and instead aims toexplain how things work to the non-technically trained public by using everyday vocabulary,exceptional quality graphics and other visual aids.Engineering Design ProcessDesign is frequently recognized as one of the defining characteristics of the discipline ofengineering.4-6 Since the engineering design process is viewed as a distinct activity from thehypothesis testing that characterizes the scientific method, this leads to an equating ofunderstanding technology with being able
focusgroup protocol. Furthermore, the elements in Bragg’s model are more within the locus ofinfluence for engineering programs and educators with a focus on the college experience. Futurework could employ a more contemporary and comprehensive model of socialization tounderstand ESI in engineering education.Project ContextThis study is part of a larger project exploring ESI education. The mixed methods project beganwith an online survey that was designed to understand educators’ practices and perspectivesrelated to ESI (for more information, see [23],[24]). Respondents (n=1448) were asked if theyintegrate ESI topics in the courses they teach or the co-curricular activities they mentor and wereprompted to indicate the characteristics of the setting
listed below: Outcome a: "an ability to apply knowledge of mathematics, science, and engineering" Outcome b: "an ability to design and conduct experiments, as well as to analyze and interpret data" Outcome c: "an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability" Outcome d: "an ability to function on multi-disciplinary teams" Outcome e: "an ability to identify, formulate, and solve engineering problems" Outcome f: "an understanding of professional and ethical responsibility" Outcome g: "an ability to communicate
used if the deflection orslope is required at only a few locations. Numerical methods, such as successive numericalintegration or FEA are recommended for detailed analysis and understanding. Students areexposed to all the different methods for stepped shaft deflection calculations with an emphasis onFEA. Students are introduced to steps involved in FEA: Pre-analysis, geometry, mesh, physicssetup, numerical simulation, mesh convergence, and verification and validation. Student teams(2 to 4 students per team) are asked to develop FEA skills using online video tutorials (viaLynda.com) and apply it to design problems form Shigley’s Mechanical Engineering Design 10e.Instructor’s experience with the self-learning team project in a machine design
previous funded research has explored the effects of implicit bias on ethical decision making in the engineering classroom.Dr. Kevin D. Dahm, Rowan University Kevin Dahm is a Professor of Chemical Engineering at Rowan University. He earned his BS from Worces- ter Polytechnic Institute (92) and his PhD from Massachusetts Institute of Technology (98). He has pub- lished two books, ”Fundamentals of Chemical Engineering Thermodynamics” and ”Interpreting Diffuse Reflectance and Transmittance.” He has also published papers on effective use of simulation in engineer- ing, teaching design and engineering economics, and assessment of student learning.Dr. Daniel D. Burkey, University of Connecticut Daniel Burkey is the Associate
Paper ID #16989From Assessment to Intervention: Conceptual Understanding of Rate andAccumulation ProcessesMs. Carli Denyse Flynn, Syracuse University Carli Flynn is a PhD candidate in the Civil and Environmental Engineering Department at Syracuse Uni- versity. She has a MS degree from Carnegie Mellon University and a BS degree from Cornell University. Her engineering research interests include studying green infrastructure adoption for stormwater manage- ment in U.S. municipalities. Her education research interests extend to understanding how learners make sense of complex problems that require coordinating knowledge from
Paper ID #37087Work in Progress: Designing a Survey Instrument to Assess GraduateStudent Motivation Towards Degree CompletionEduardo Rodriguez Mejia, Rowan University Hi, my name is Eduardo, I am a Rover Scout and professional Electronic Engineer with a Masters degree in Electronic Engineer from Bogot´a-Colombia. I am pursuing my PhD in Engineering with a Concentra- tion in Engineering Education within the ExEEd department. I am interested in new teaching methodolo- gies that involve a hands on experience that let students feel the things that they are learning about.Dr. Cheryl A. Bodnar, Rowan University Dr. Bodnar is an
such empirical evidence, faculty and administrators are often left with little more thananecdotal insights to guide the development of curricula and programs. To address this gap, inS. Claussen and S. Howland contributed equally to this paper and share joint first-authorship.2015 we initiated an NSF-sponsored, mixed-methods study that used multiple measures andtheoretical frameworks to explore how understandings of social and ethical responsibility changeamong undergraduate engineering students during a four-year engineering degree program, bothin general and in relation to specific learning environments and experiences.Our study design included interviews and surveys in Year 1, a repeat survey administration in thestudents’ fifth semester
-quality learning opportunities. Additionally, she studies techniques to validate findings from machine-generated educational data.Prof. Heidi A. Diefes-Dux, University of Nebraska, Lincoln Heidi A. Diefes-Dux is a Professor in Biological Systems Engineering at the University of Nebraska - Lincoln. She received her B.S. and M.S. in Food Science from Cornell University and her Ph.D. in Food Process Engineering from the Department of Agricultural and Biological Engineering at Purdue University. She was an inaugural faculty member of the School of Engineering Education at Purdue University. Her research focuses on the development, implementation, and assessment of modeling and design activities with authentic
Walsh is an Associate Professor of Philosophy at Iowa State University. She received a B.A. from Middlebury College, an M.A. from the University of Wisconsin-Milwaukee, and a Ph.D. from Northwestern University. Her research focuses on ethics and the history of ethics, including the ethics of debt and finance, as well as the scholarship of teaching and learning.Michaela Leigh LaPatin P.E., University of Texas at Austin Michaela LaPatin is pursuing her MS and PhD in Civil Engineering at The University of Texas at Austin. Her current research focuses on macroethics education in undergraduate engineering programs.Dr. Scott Grant Feinstein Dr. Scott Feinstein is an expert in research design and comparative and identity