. Often, thepedagogical approaches by each faculty may make it less than clear to students as to theconnections among and across classes and topic areas. Curricula generally balance introductorycornerstone courses, capstone design courses, and mezzanine engineering fundamentals andengineering depth coursework. The technical depth, especially in mechanical engineering, isspread across the sophomore engineering fundamentals and upper-level depth courses, withmany prerequisite chains covering multiple breadths.At the South Dakota School of Mines & Technology, the classes (and faculty research areas) areorganized around Design & Manufacturing/Systems Engineering, Dynamic Systems &Controls/Robotics, Solid Mechanics, and Thermal & Fluid
engaging inexperiential learning by their instructors. In order to better prepare students for the scenarios theywill be dealing with in their careers a more focused research integration mechanism would allowstudents to more easily identify the skills required to address their assignments in the field. Theimportance of early and consistent exposure to the research process is essential to moremeaningful work during training and while completing capstone research projects. If students areengaging in research processes and taught about the process early on, the projects and questionsthey will answer will be more meaningful to them.Conclusion/LimitationsEven though the student responses indicate a limited exposure and emphasis on researchmethodology
and professional development © American Society for Engineering Education, 2022 Powered by www.slayte.com Course-based Adaptations of an Ecological Belonging Intervention to Transform Engineering Representation at ScaleAbstractThis project uses an ecological belonging intervention approach [1] that requires one-class or one-recitation/discussion session to implement and has been shown to erase long-standing equity gapsin achievement in introductory STEM courses. However, given the wide social and culturalheterogeneity across US university contexts (e.g., differences in regional demographics, history,political climates), it is an open question if
safety.Figure 3 is an example of AR being utilized for developing a 3D digital parts catalog to enhanceuser’s experience. This application, an objective of a capstone project, includes interactivity witha virtual rotation button and consequent animation of rotation for true 3D viewing. Figure 3. AR app in development for a 3D parts catalog [2]AR devices and their technology originated in early 1900s, where a targeting mechanism waspatented to overlay a targeting reticle (focusing at optical infinity) on a distant object [7]. Thiswas followed by other sight reflector devices. The need for these devices stemmed from thehuman’s inability of focusing at two separate depth of fields. In the following decades, thesystems of military fighter
used the skills learned in her counseling program to create Mental Wellness Content for the First Year Program at the University of Kentucky where she is a lecturer in the First Year Program.Matthew Sleep (Lecturer) Matthew Sleep is an Associate Professor Educator at the University of Cincinnati. Previously he has held roles as Associate Professor at Oregon Tech and Lecturer at the University of Kentucky. Matthew currently instructs geotechnical engineering courses as well as capstone design. © American Society for Engineering Education, 2022 Powered by www.slayte.com Work in Progress: Creation and Implementation of Mental Wellness Initiatives in
)This course deals with the challenges associated with the variety and volume of information encountered in today’sworkplace, and working with others in a software development environment. Students will analyze and work with bothstructured and semi-structured data, using the python programming language. Students will learn about the types ofsoftware development environments they are likely to encounter in their careers. The capstone of the course is a small-group project that analyzes real-world data to answer a business or research question.ISE 225 Data Infrastructures ( 3 - 3 - 0 )This course provides an introduction to Data Engineering. Data Engineers gather and collect the data, store it, do batchprocessing or real-time processing on it
right).II.5 Programming & Sensor CalibrationThe Arduino platform has become very popular in college-level education in the past decade, andmost of the literature reports on its use by first-year or second-year engineering students (e.g.,[2], [3], [4], [10]). Our course is senior-level; as such the students are expected to have advancedknowledge about programming and control theory. They may even come across the Arduino plat-form in their senior capstone projects. Hence, we raised the complexity of the programming part inthis course. Instead of using open-source libraries offered by the Arduino community, the studentswere asked to write the code from scratch for most of their lab work. Also, sensor calibration wasadded to the curriculum to
heavily emphasized throughout undergraduate engineering educationvia first-year engineering courses, project-based courses, and capstone, current approaches toteaching the design process are largely centered around developing a physical artifact [7], [8].However, a lot of problems that need to be solved by today’s graduating engineers are data-driven [9] – and with data-driven problems comes ambiguity. Students will need to understandthe contextual factors surrounding data sets, deal with incomplete information, and deal withproblems that have more than one right answer. They will need to understand how to chooseamong options for analytical techniques and appropriately apply them. It is also critical that theydevelop the skills needed to
implications of their future work is an extremely important topic. There are many pitfallswith the traditional large lecture format in which ethics is taught to engineering freshmen. It istaught as an abstract philosophical topic, rather than an act of personal decision making situatedin the nuances of complex real-world contexts [1]. Often, engineering ethics instruction is taughtby a philosophy professor rather than an engineer. It is usually included late in the undergraduatecurriculum, such as during a senior capstone project, and is a relatively short subtopic (module)within a larger array of engineering content. As a result, students often do not see ethics as equallyimportant as other topics. They do not see it consistently integrated
In someinstitutions, this service involvement has fueled the creation of courses and programs thatoffer Learning Through Service (LTS) which seems to attract a wider range of students toengineering. A growing body of evidence advocates that LTS may provide significantadvantages to engineering students, but studies to date are quite limited.11-15 Asuniversities play catch-up to these trends, a fundamental question remains unexplored:What motivates engineering students to be engaged in service?2. ObjectivesThis paper presents findings to the above question of student motivation from two LTSprograms at Michigan Technological University: (1) iDesign, an international senior-level capstone design program, and (2) Peace Corp Master s International
has been official Technical Teacher at Ministry of Education in Iran from 2007 to 2018, and received many certificate in education such as Educational Planning, Developing Research Report, and Understanding School Culture. Mr. Beigpourian currently works in the CATME project, which is NSF funding project, on optimizing teamwork skills and assessing the quality of Peer Evaluations.Dr. Matthew W. Ohland, Purdue University-Main Campus, West Lafayette (College of Engineering) Matthew W. Ohland is Associate Head and Professor of Engineering Education at Purdue University. He has degrees from Swarthmore College, Rensselaer Polytechnic Institute, and the University of Florida. His research on the longitudinal study of
Paper ID #30113Work-in-Progress: A Delphi Study of Skills and Competencies for theHydrocarbon IndustryDr. Jennifer Cole, Northwestern University Jennifer Cole is the Assistant Chair in Chemical and Biological Engineering in the Robert R. McCormick School of Engineering and Applied Science at Northwestern University and the Associate Director of the Northwestern Center for Engineering Education Research. Dr. Cole’s primary teaching is in capstone and freshman design, and her research interest are in engineering design education.Dr. Allison Godwin, Purdue University at West Lafayette Allison Godwin, Ph.D. is an Assistant
learningare collaborative learning, co-operative learning, and problem-based learning. Various studies,from using interactive, hands-on lessons and activities designed to teach research process toundergraduate engineering students 1 , to preparing manufacturing engineering students throughcompetitions, projects sponsored by industry, capstone projects, laboratory exercises or projectssimulating real-life scenarios 2 , have shown that active learning increases student performance inSTEM subjects.Critical thinking, identified by The U. S. Department of Labor as the raw material of a number ofkey workplace skills such as problem solving, decision making, organizational planning, and riskmanagement, is highly coveted by employers of engineering graduates
–A Summary of a Focused Visit in 2010,”American Society for Engineering Education, 2011. [10] Y. Rong, “Ten Year Experience of Global Capstone Design Projects in China,” ASEE International Forum,Seattle, WA, 2015. [11] E. J. Sandell, “Impact of International Education Experiences on the Undergraduate Students,” Delta KappaGamma Bulletin, 73(4): 12–39, 2007. [12] S. I. Segalewitz, “Seven Years of Success in Implementation of a 3+1 Transfer Program in EngineeringTechnology Between Universities in China and the United States,” 2013 ASEE Annual Conference & Exposition,Atlanta, GA. [13] I. Smith, L. Thenault, and Y. Zhang, “Realising student potential through a truly international experience: Thecollaborative programme in civil engineering
five of the lab experiments in the course. In light of Page 14.1306.7the very positive results, it is planned to extend the KSB approach to the otherexperiments in the course and ultimately to other courses (e. g., capstone design courses).Bibliography1. MSTP Project: Mathematics Across the Middle School MST Curriculum. Retrieved fromwww.hofstra.edu/mstp on March 5, 2009.2. Hunter, Margaret A. and Forsberg, Charles H.; Experiences of Engineering University Faculty in aMiddle School Math, Science and Technology Partnership (MSTP), Proceedings of the ASEE Mid-AtlanticSpring 2005 Conference; April 15 & 16, 2005; Fairleigh Dickinson University
science and 1.0 credit hour to engineering design. Thecourse builds upon the foundations from the basic engineering mechanics course in statics anddynamics, and the basic electrical engineering course covering electrical circuits andcomponents. The course provides the background, experience, and fundamental designknowledge to complete capstone design projects requiring dynamic modeling and controlexpertise. The course is multidisciplinary and is conducted as a joint offering with theDepartment of Electrical Engineering and Computer Science and the Department of Civil andMechanical Engineering.The course provides an overview of classical control theory as the foundation for controlapplications in electrical, mechanical, chemical and aeronautical
professional development tool.Dr. Peter T. Savolainen, Iowa State University Dr. Peter Savolainen is an Associate Professor in the Iowa State University (ISU) Department of Civil, Construction and Environmental Engineering. His research includes fundamental and applied projects focused on traffic operations, safety, and driver behavior, as well pedagogical approaches to improve transportation engineering education. Dr. Savolainen currently serves on the editorial advisory boards of Accident Analysis and Prevention and Analytic Methods in Accident Research. Dr. Savolainen’s peda- gogical efforts are reflected by his selection as a fellow by the American Society of Civil Engineers(ASCE) Excellence in Civil Engineering
innovationprojects. Sally had over 30 encounters with faculty and other students, and upon reflection wasconvinced that she could talk about her project with her eyes closed.The following semester, not only was she able to present her solar panel on Industry Day, but herclear explanation and enthusiasm led a company representative to contact her faculty member todiscuss sponsoring her capstone project. Sally was also made leader of the school-based servicelearning project in which she had to contact teachers to set-up attendance days, email teammembers to ensure they could attend, and act as the spokesperson and reporter for her group(experiential leadership). The teachers all knew Sally from her great work and positive outcomesand were eager to work with
the study of the skeletal response to mechanical loading. As a Mechanical Engineer, she worked on facility design projects involving mechanical systems that included heating, ventilation, air conditioning, and energy conservation systems, as well as R&D of air conditioning equipment for Navy ships. Additional research interests have included the investigation of relationships among components of the indoor environment, occupants, and energy usage. Specifically, the effects of the indoor environment on occupant health and well-being and in parallel, how socially-mediated energy-saving strategies can increase awareness of energy use and/or in- crease energy saving behaviors. Dr. Lang’s current research interests
students, not just GE students. As such, it isbeing developed by faculty within and outside GE.1st Year: User-Centered DesignOne major challenge that engineers universally face is the disconnect of their work from itsusers. In this first year class, we stress that designs cannot be based simply on the designers’ ownunderstanding, and we emphasize the need to develop empathy for users, who may have differentassumptions and experiences. In an effort to better integrate social justice into engineering, thiscourse aims to help students understand their own privileges, which we achieve throughreflection journals, activities such as a trip to a local museum with an exhibit on race, andclassroom discussion. The course project entails a community
and the director of Missouri’s Dam and Reservoir Safety Program. Since 1993, he has been at the University of Evansville, serving as a professor, department chair, and interim dean. He continues to work as a consultant on projects involving the design and construction of new dams, modifications to existing dams, and the investigation of dam failures.Dr. Matthew K. Swenty, Virginia Military Institute Matt Swenty obtained his Bachelors and Masters degrees in Civil Engineering from Missouri S&T then worked as a bridge designer at the Missouri Department of Transportation. He went to Virginia Tech to obtain his Ph.D. in Civil Engineering and upon completion worked at the Turner-Fairbank Highway Research Center
Paper ID #27563Collaborative Autoethnographic Study of a Large-Scale Flipped ClassroomImplementation with Multiple InstructorsRobyn Paul, University of Calgary Robyn Paul PhD student at the Schulich School of Engineering, University of Calgary where she also works as the Program Evaluation and Planning Specialist. She is the team lead for the faculty on all matters related engineering education including teaching and learning, curriculum development, Capstone design and engineering accreditation. Robyn just completed master’s degree in engineering education where she is looking at the impact of engineering leadership
University’s Board of Trustees. At Virginia Tech, he also serves as Graduate Research Assistant in the Department of Engineering Education. His research interests are: Higher Education Finance and Administration; STEM Education; Migration and Immigration issues in education; and Quality Assurance.Mr. Tahsin Mahmud Chowdhury, Virginia Tech Tahsin Mahmud Chowdhury is a PhD student at Virginia Tech in the department of Engineering Edu- cation. Tahsin holds a BSc. degree in Electrical and Electronics Engineering from IUT, Dhaka and has worked as a manufacturing professional at a Fortune 500 company. He is actively engaged in differ- ent projects at the department involving teamwork, communication and capstone design with a
response to self-reported vulnerabilities and concerns of engineeringstudents. This paper presents data from practical efforts to identify and mitigate anxiety amongengineering students. A group of twenty-seven engineering and engineering technology studentswho were part of a scholarship program was asked to submit journal entries in which theyreflected on their fears and anxieties related to their participation in their degree program.Prominent themes which emerged from student reflection included time management and itseffects on academics and social activities, the likelihood of degree completion and success inengineering-specific coursework (e.g. senior capstone projects), and aspects of life followinggraduation such as handling accumulated
management, from the University of Missouri-Rolla. As the author or coauthor of over 100 technical papers, his research interests include supply chain management, humanitarian and healthcare logistics, healthcare/medical in- formatics, and data standards. He has directed several projects funded by the National Science Foundation, Air Force Research Lab, and Wal-Mart Stores.Prof. Corey Kiassat, Quinnipiac University Dr. Corey Kiassat is an Assistant Professor of Industrial Engineering at Quinnipiac University and has a BASc and a PhD degree in Industrial Engineering from the University of Toronto. He has an MBA, majoring in Marketing and International Business, from York University. Corey is a Professional Engineer and
is adjunct faculty at Brigham Young University in the Ira A. Fulton College of Engineering and Technology. She is a Coordinator for Women in Engineering and Technology (WE@BYU), teaches and advises numerous Mechanical Engineering Capstone senior design teams, teaches Global Engineering Outreach with study abroad to Peru, and researches with the Compliant Mechanisms Research Group. She received her bachelor’s and master’s degrees in Mechanical Engineering from BYU and also worked at Ford Motor Company as a manufacturing and design engineer in Automatic Transmission Operations. Terri received the Adjunct Faculty Excellence Award from Brigham Young University in 2016. She is the mother of four children and is married
Mechanical Engineering at Northern Arizona University. His educa- tional responsibilities are primarily in Engineering Design and Manufacturing. Dr. Tester has conducted funded research projects in biomechanics and engineering education. Dr. Tester’s scholastic interests frequently integrate Undergraduate Engineering Education topics, typically in the area of the design of interdisciplinary engineering courses and curricula. c American Society for Engineering Education, 2019 Improving Machine Design Instruction by Developing Computational Design ToolsAbstractIn a traditional machine design course, the analysis of machine components and systems involvelengthy, multi
, University of Delaware Dr. Joshua Enszer is an associate professor in Chemical and Biomolecular Engineering at the University of Delaware. He has taught core and elective courses across the curriculum, from introduction to engineering science and material and energy balances to process control, capstone design, and mathematical modeling of chemical and environmental systems. His research interests include technology and learning in various incarnations: electronic portfolios as a means for assessment and professional development, implementa- tion of computational tools across the chemical engineering curriculum, and game-based learning.Dr. Julia A Maresca, University of Delaware Microbiologist in Civil and Environmental
to real flows and structures.Digital signal processing also became accessible on PCs, transferring experimental techniquesfrom the research laboratories into the undergraduate curriculum. These capabilities enabledproject-oriented courses where students learned theory and applied it immediately to projects.We discovered that students could handle courses where several topics were learned in parallel,and where they created the “manuals” for their experiments. Project teams could interact throughthe computer. This was a far cry from the traditional model of undergraduates just beingobservers, or at best just operators following precise instructions.The capabilities demonstrated by 1993 were used to revamp the junior-level Low SpeedAerodynamics
Departments of Electrical andComputer Engineering or Mechanical Engineering. They have developed a set of courses thatform a complementary suite of technical skills intimately coupled with practice in the field ofelectric drives and power electronics. A list of courses regularly offered by WEMPEC faculty islisted in Table I. The pedagogic approach in all the courses strongly follows a behaviorist model,in keeping with the nominal academic traditions within the university education. Clearlyarticulated course objectives, task-oriented homework assignments, term projects, and gradingthough examinations are the norm in the courses. However, in addition to the classroom studies