as aprerequisite course to the senior design capstone course. In addition, to better address the ABET2000 and new TAC ABET criteria, the professor for that course is leading an interdisciplinaryteam to develop an interdisciplinary, college-wide, project management course to serve as aprerequisite to an interdisciplinary, college-wide, senior design capstone course. Thedepartments involved are Electrical Engineering, Mechanical Engineering, and IndustrialEngineering, and the Department of Technology (which offers degrees in manufacturing andelectrical engineering technology and industrial technology). The Undergraduate Project Management CourseAlthough the Department of Technology offers a project management course for
the moment the outbreak occurred, the Ministry of Education of Indonesia had issuedcircular No. 36962 / MPK.A / HK / 2020, dated March 17, 2020, posits courageous educationand working from home [3]. This circular also applies to the aviation maintenance trainingorganization (AMTO) in Indonesia, both run by universities and maintenance, repair, andoverhaul (MRO) companies, which require a lot of practical skill training.AMTO in Indonesia is regulated by the Directorate General of Civil Aviation (DGCA) Indonesiaunder Civil Aviation Safety Regulation (CASR) Part 147. Training curriculum for aviationmaintenance includes theoretical and practical/hands-on training [4]; therefore, when the trainerswere forced to adjust instruction from in-person
for measurement, who will be involved, responsibilities.)Historically, students have displayed clearer understanding of welding and casting topics (seenon exam responses) compared to other course topics. I believe this is because welding andcasting activities are reinforced through lab exercises. Polymer manufacturing processes arenot currently covered in MET 142 lab. Two labs will be developed that will allow students toview and/or perform from six to ten common polymer manufacturing processes. Once the labshave been performed, student understanding will be evaluated through quizzes and exams andperformance will be compared to previous performance of students that did not participate inthe new labs.Results: (Describe the outcome of your
tactile activities as well as anypotential combinations of the three.The teaching styles of the instructor or educator can also impact the ability for students to learn.While taking into consideration traditional methods of teaching, the focus is placed upon theinstructor who follows a set curriculum with topics arranged in a linear fashion to meet pre-determined goals set forth for the course by the school or university [2]. This common lecturestyle is referred to as a “transmission approach,” one which most educators are familiar withbecause it is the general norm among academics according to Osborn and Nag [2]. However,they believe that a constructivist approach is more conducive to learning, because it removes thefocus from the instructor and
further expand somefields as we know them.There is also a growing body of work looking at data science applications in engineering [6].Although we know it may be applied or beneficial for the broader field and its subfields (e.g.,mechanical, industrial, chemical), we are limited in our understanding of how non-computingengineers may apply it in their work or practice. With that said, it is necessary to understand hownon-computing engineers may apply data science in their work, as this remains a challenge in thefield. In the context of engineering education and practice, Beck et al.’s article suggests addingdata science as a “competency” in chemical engineering both in “the university curriculum or ina professional development context.” They also
, where he is currently an Associate Professor. His research interests are in applying additive manufacturing processes to the production of tooling and the application of machine learning techniques to graduate admissions. American c Society for Engineering Education, 2021 10 Minute Labs: A Case Study in Teaching Spatial Visualization Strategies with Minimal InstructionAbstractIt has been recognized for many years that many students could benefit from remedial instructionin spatial visualization techniques. At Central Connecticut State University (CCSU) however, wehave found it difficult to incorporate this topic in our curriculum
Paper ID #18562Teaching Entrepreneurial Mindset in a First-Year Introduction to Engineer-ing CourseDr. Chao Wang, Arizona State University Chao Wang received her Ph.D. in Electrical Engineering from University of Wisconsin, Madison. She is currently a senior lecturer in Ira. A Fulton Schools of Engineering at Arizona State University. c American Society for Engineering Education, 2017 Teaching Entrepreneurial Mindset in a First Year Introduction to Engineering CourseAbstractWith a mission to graduate engineers who can create personal, economic, and societal valuethrough a lifetime
. Frey and L.J. Leifer. 2005. Engineering design, thinking, teaching and learning. Journal of Engineering Education, 94(3): 103-20.9. Godfrey, E. and R. Hadgraft. 2009. Engineering education research: Coming of age in Australia and New Zealand. Journal of Engineering Education, 98(4): 307-8.10. Field, B. and D. Ellert. 2010. Project-based curriculum for thermal-science courses. In Proceedings of American Society for Engineering Education, Louisville, KY.11. Pan, J., A. Liddicoat, J. Harris and D. Dalbello. 2008. A project-based electronics manufacturing laboratory course for lower division engineering students. In Proceedings of American Society for Engineering Education, Pittsburgh, PA.12. Asa, E. and Z. Gao. 2007. Designing a
problems[7]. As another example, educational researchers at the Virginia Polytechnic Institute and StateUniversity used a problem-based learning approach related to a wastewater project [8]. Theirwork combined engineering and behavioral science to provide their students with a deeperunderstanding of complex problems related to sustainability. In comparison, educators at theUniversity of Puerto Rico used project-based learning across a curriculum on sustainable andresilient infrastructure [9]. The implementation of this effort was motivated by recentdevastation to the local infrastructure resulting from hurricanes.While these examples of partnership opportunities and delivery methods for course materialsdemonstrate flexibility in course development
capstone project, and what they knew about how instructors developed labcourses. One student reported being completely unaware of the scholarship of teaching andlearning. Another had completed a previous project on the “benefits of experiential learning in anengineering curriculum”. The student further explained that “I hadn’t done much specificresearch into laboratory learning, but when doing research I was able to refer back to myexperience with experiential learning.” The third student had initially been a neuroscience major,and thus had taken a psychology course where he had been exposed to various learning andcognition theories. However, the idea of using these theories to design lab experiments hadn’toccurred to him.Perhaps the most
; Hirleman note widespread consensus about thedifficulty of “integrating global education into the engineering curriculum to impact all students”[1, p. 23], in no small part due to the “curricular rigidity” of most engineering degree programs[1, p. 11]. The present work responds to this challenge by describing a training approach thatinvolves the use of short scenario-based exercises that can easily be folded into existingcoursework. This technique has some semblance to Davis’ “micro-insertion” approach to ethicspedagogy in science and engineering courses [25]. Our scenario-based approach also resonateswith case-based approaches to engineering education [26]. Below we offer further discussion ofsome specific pedagogical strategies relevant to
amount of other material that must be learned, often overlaid with learning computer-aided design (CAD) software, there is not likely to be room for more than an introduction of theconcept of GD&T and a glimpse into its capabilities. While the topic of GD&T is included in acontemporary graphics textbook such as Bertoline,3 it is the last chapter and therefore unlikely tobe covered in any detail. Unfortunately, GD&T is dry and dull, particularly when compared tothe glamour of CAD.In this paper, I describe a method for students to gain insight into GD&T by using virtualmeasurement techniques. In a first-year graphics course, students learn solid modeling usingSolidWorks4 CAD software. To understand the meaning of manufacturing
me with actualengineering experience before I have even graduated and entered the work force. This experience will stand outon my resume and separate me from students who have only studied what I have actually done. The PV projecthas exposed me to the design of technology that plays a vital role in environmental sustainability which is ahuge global issue. Being acquainted with sustainable design and renewable energy will help me in my future asa civil engineer. My experience with renewable energy will make me much more marketable once I graduate.One of the reasons I chose Rowan over other schools is because of the Clinic portion of the curriculum that theyadvertised during their open house for prospective engineering students. Although I
Timing Analysis. Advisor: Dr. Mark Bocko, GPA: 4.0/4.0 Tsinghua University, Beijing, China B.E., Information Electronics and Engineering, 2008 Academic Appointments Iowa State University, Dept. of Industrial and Manufacturing Systems Engineer- ing (IMSE) Assistant Professor, Fall 2018 – present University of Wisconsin-Madison, Dept. of Statistics Visiting Assistant Professor, Jan 2016 – May 2018Rebecca Mort, Iowa State University American c Society for Engineering Education, 2020 Paper ID #32158Rebecca is a doctorate seeking student advised by Dr. Shan Jiang in the Materials
studentsachievement of the 2015 ABET student outcomes3 (d) through (g), (i), and (k).ResultsConsistent assessment tools have been used to evaluate the performance of our studentsregistering for cooperative education and internship credits over the last two decades. Using thetraditional approach, students submitted a final written report and delivered in person a finalpresentation on their industry experience. The department also conducted surveys of the studentsand employers. The employer survey included a question to rank the perceived importance ofthe outcomes. The rubrics for each outcome have four levels of scoring (zero to four) with Level1 = Unsatisfactory and Level 3 = Satisfactory. The graded reports, presentations and surveysindicated the student’s
Paper ID #11901Development and Implementation of a Long-Term Freshmen Service Project:The Design and Deployment of an Engineering Outreach Experience for Un-derserved PopulationsDr. James M Widmann, California Polytechnic State University Jim Widmann is a Professor of Mechanical Engineering at California Polytechnic State University, San Luis Obispo. He received his Ph.D. in 1994 from Stanford University. Currently he teaches mechanics and design courses. He conducts research in the areas of machine design, fluid power control and engineering education. He is a past Chair of the ASEE-DEED Division and a U.S. Fulbright
activities into their curriculums 4,5,6. In response, institutions of higher education are developing a variety of methodologiesfor introducing teamwork in their classrooms. Collaborative learning, cooperative learning andother forms of active learning are being used in classrooms as ways to promote teamwork amongstudents and enhance their learning 7,8. Studies on cooperative and collaborative learning, as well as on the use of groups inclassroom prove that trying to incorporate teams into the classroom is a highly complex task 9.Difficulties with implementing teams have led researchers and practitioners to look forcharacteristics that make the difference between an effective and an ineffective team. Teamperformance and teaming process
. ©American Society for Engineering Education, 2024 Link Element Design for a Landing Gear Mechanism in a Statics and Mechanics of Materials CourseAbstractIn this work, we describe a project involving a link element design for a landing gear mechanismas part of our Statics and Mechanics of Materials I course. During this project, students are askedto design a safe and lightweight linkage that will allow the landing gear to safely and slowlyretract from a vertical position to a nearly horizontal one without breaking or stretching more than10% of its original length. This project is introduced at the halfway point of the 10-week term, atwhich point students are familiar with the 2D equilibrium of rigid bodies and the concepts
. This approach separates the processcontrol system from the remote-control software, resulting in several advantages. The processcontrol system can be developed without worrying about the complexities involved in remote-process control. The remote-control system can be developed independently of the processinvolved, making it useful for many applications. Educators need not worry about integratingremote-control computing into process design and development curriculum, as remote-controlcomputing can be taught as a computer literacy subject, like word processing or spread sheetcomputing.Remote-control computingRemote-control computing refers to the ability of one computer system to control anothercomputer system from a remote location. It is
justice issues in New York City. His 2010 Ph.D. from Arizona State University was the nation’s first in sustainability. His research, which has been widely published, focuses on renewable energy systems and sustainable building strategies to reduce the negative impacts of urbanization.Gabrielle Grace Hershey, Illinois State UniversityDaniel Patrick Gibson ©American Society for Engineering Education, 2024Utilizing the Solar District Cup Competition as a Case Study for a Renewable Energy Capstoneto Enhance Students' Learning ExperienceA team of faculty and students at Illinois State University participated in the U.S. Department ofEnergy (USDOE) Solar District Cup Competition as part of their renewable energy
engineering andcomputer science fields as viable and exciting choices for a career for themselves.Within the UNM School of Engineering (SOE), students generally do not have an opportunity towork in project management teams until they are nearing completion of the program. TheInstructors designed the team collaboration introductory course to provide a grounding in themost essential skills needed in the engineering work world. The course curriculum goal was: 1)to lay a foundation in general engineering project principles; 2) expose students to engineeringdesign phases; 3) develop an understanding of concurrent engineering and design manufacturing;and 4) use the small task group to analyze best product solutions. Recognizing that small taskteams are
Organic Chemistry Environmental Chemistry Manufacturing Processes Lab Physics I Page 22.113.10 Geometry and Computer Networks Precalculus Measurement StaticsFigure 2. Example of CBI Design and Lecture Content Posted on CBI Website. Figure 3 UTPA STEM Website using Wiki-Media Platform Page 22.113.11 Figure 4 Example of CBI Courses in UTPA STEM Website Figure 5 Examples of Challenges in Introduction to STEM CourseFaculty Development Plan
after-school care: Are there beneficial effects of after-school programs?” Child Development, Vol. 65, pg. 440-456. 1994.14. Schinke, S., Cole, K. C., and S. R. Poulin. “Evaluation of Boys and Girls' Club of America's Educational Enhancement Program”. Atlanta, GA: Author. 1998.15. Tierney, J., Grossman, J., and N. Resch. “Making a Difference: An Impact Study of Big Brothers/Big Sisters.” Philadelphia: Public/Private Ventures. November, 1995.16. Wilson, Z. S., Iyengar, S. S., Pang, S. S., Warner, I. M., and C. A. Luces. “Increasing Access for Economically Disadvantaged Students: The NSF/CSEM & S-STEM Programs at Louisiana State University.” Journal of Science Education and Technology, 1-7. 2011.17. Herrera, F. A., and S
production design, the impact of technology paired with active learning pedagogies on student learning, and effective strategies for increasing gender diversity in STEM disciplines.Prof. Jeanne Christman, Rochester Institute of Technology Dr. Jeanne Christman is an Associate Professor and Associate Department Chair in the Department of Electrical, Computer and Telecommunications Engineering Technology. She holds a BS in Electrical En- gineering, an MS in Computer Science and a PhD in Curriculum, Instruction and the Science of Learning. Utilizing her educational background, her teaching specialty is digital and embedded system design and her research areas include engineering education culture, equity in engineering education
- riety of projects including the development of new processes & equipment, the design & build of pilot & demonstration facilities, as well as the construction and start-up of large manufacturing facilities. He has worked internationally in Europe and China. He is a published author, conference speaker and inventor with multiple patents. Mike is currently an Associate Professor of the Practice at Villanova University. American c Society for Engineering Education, 2021 Project Management Implementation in a Capstone Design Course Mike Simard, PE
Paper ID #40015Redesign of an Engineering Failure Course to Incorporate LearningObjectives in Diversity, Ethics and InclusivityDr. Gary P. Halada, Stony Brook University Dr. Halada, Associate Professor in Materials Science and Chemical Engineering at Stony Brook Uni- versity, directs an interdisciplinary undergraduate degree program in Engineering Science. He designs educational materials focused on nanotechnology, advanced manufacturing and engineering adaptation for climate change. He also works with faculty from other disciplines to explore the integration of STEM and liberal arts education
organizations, while striving to contribute value for stakeholders. An internship alsoprovides an immersive experience in the messiness of the real world, where a student willobserve situations that highlight inevitable distinctions between theory and practice. In addition,topics and issues that may not have been part of their formal academic curriculum make eachinternship unique and enriching, as each student becomes deeply knowledgeable concerning bothtechnical and social concerns specific to their internship context.The experiential learning from internships can support three changes that have been promotedfor professional education for many decades: “First, a new philosophy and new outlook whichwill comprehend the human and social as well as the
. Page 8.844.9References[1] Michael J. Batchelder, Daniel F. Dolan, Sriniviasa L. Iyer , “Center for Advanced Manufacturing and Production: Enhancing Engineering Education Through Team-based Multidisciplinary Projects”, Presented at 2000 ASEE Annual Conference, St. Louis, 2000[2] Katzenbach and Smith, The Wisdom of Teams, Harperbusiness, March 1994.[3] A.L. Riemenschneider, M.J. Batchelder, "Development of a Campus-wide Program for Microprocessor Education", . Presented at 1983 ASEE Annual Conference, RIT, 1983.[4] M.J.Batchelder and D.S. Meliksetian, "PEL: the 'Personal Electronics Laboratory'", ASEE 1994 Annual Conference, Edmonton, Canada June 1994[5] ABET (Accrediatation Board for
Industrial Engineering and Management at Oklahoma State University As I Saw It.”Paper prepared by H.G. Thuesen in 1966-67. Archives Oklahoma State University Library catalogued with otherH.G. Thuesen papers.3. E. Paul DeGarmo Web page http://www.me.berkeley.edu/faculty/degarmo/bio.html4. Lesser, Arthur Jr., Reminiscences of the Founder and Editor of “The Engineering Economist”, The EngineeringEconomist, Vol. 20, No. 4, Summer 1975.5. History of the Engineering Economy Committee of the American Society For Engineering Education,” Paperprepared by Arthur Lesser, Jr., Stevens Institute of Technology, Oct. 1952.GERALD J. THUESENGerald J. Thuesen is Professor Emeritus in the School of Industrial and Systems Engineering at the GeorgiaInstitute of
, and manages Junior and Senior level laboratories in Mechanical Engineering. He develops innovative laboratory experiences based on lessons-learned from the maker movement and real-world industrial challenges, and is building an ”ecosystem” of academic laboratory equipment and curriculum resources which allows universities to collaborate on the development and execution of effective undergraduate laboratory experiences. Dr. MacNair joined the Woodruff School in 2015 after working for the Georgia Tech Research Institute, and as an Educational Consultant for Enable Training and Consulting and National Instruments before that. He received his BS in Mechanical Engineering in 2008 and his PhD in Robotics in 2013, both