a. Custom resin formulations 5. Industrial Quality Assurance a. Control charting of results from testing i. Cpk studies ii. Measurement Systems Analysis 6. Capstone Projects a. Senior projects i. Resin formulating ii. Process ImprovementsAs a hands-on development tool for students through use in demonstrations or labs, studentscould experience a process not used by many at an undergraduate or even graduate level.9. SummaryThe research team was able to successfully automate the lab scale prepreg treater into acontinuous system within the prescribed budget. The treater was qualified through a processingrun that produced 23 feet of prepreg which
needles.Kamal Abdulla Ahmed, University of WashingtonDavid Schipf, University of Washington David is currently a Ph.D. Candidate in Mechanical Engineering at the University of Washington in Seat- tle, WA. He is focusing on optical communications and other applied optics topics, as well as sensors and micro-systems. He has become increasingly interested in engineering education research and practical improvements to undergraduate and graduate education in the science and engineering fields. c American Society for Engineering Education, 2018WIP: Promoting group work for learning: Student characterizations of exemplary project groupmembersIntroductionThis Work-in-Progress paper details our extensive experience
publications and journals as well as electronic databases to find information for help withprojects or research papers5,6. In some cases, alumni have strongly encouraged their universitiesto incorporate the use of such resources, realizing that they themselves would have benefitedfrom an earlier introduction to using these resources.Several studies have evaluated the role of confidence as a facilitator of or inhibitor to learning.McElhoe, Kamberelis, and Peters7 found that in teaching computer skills to non-traditionalstudents, the confidence that the students gained in using computers was more important to thestudents than the actual skills that they learned. Norman and Hyland8 examined the role ofconfidence in lifelong learning with a group of
multiple courses provides many opportunities to study the impact of ECP on transfer oflearning from one course to another and several other research questions including whether ornot personal instrumentation makes it easier for students to learn the fundamentals ofmeasurement. Possibly the most powerful outcome of ECP is that learning experiences can besignificantly more authentic. In the intro Circuits course, for example, students are offered theoption of either doing traditional, step-by-step procedural labs or a new type of design-based lab,with both sequences addressing all course content. Finally, the general engineering electronicscourse provides a compressed version of the ECSE sequence which permits transfer to beaddressed quickly for
-disciplinary design space at University of Colorado Boulder. She is also the Design Center Colorado Director of Undergraduate Pro- grams and a Senior Instructor in the Department of Mechanical Engineering. She received B.S. and M.S degrees in mechanical engineering from The Ohio State University and a Ph.D. in mechanical engineering from the University of Colorado Boulder. Kotys-Schwartz has focused her research in engineering stu- dent learning, retention, and student identity development within the context of engineering design. She is currently investigating the impact of cultural norms in an engineering classroom context, performing comparative studies between engineering education and professional design practices
ofcommunication has been improved after they completed the course. Survey also showed thatstudents had a mix feeling about the teamwork after they completed the project. The surveysshowed that students had a better understanding of the breadth of engineering through the designproject.9. References1. Daniel Frey, “Project Based learning, The Importance of Freshman-Year Projects,” MIT Faculty Newsletter, Vol. XIX, No. 4, February 2007.2. Manufacturing Studies Board of the National Research Council Report “Improving Engineering Education,” National Research Council, Washington, D. C., 1991.3. John W. Pierre, et al., “A One Credit Hands-On Introductory Course in Electrical and Computer Engineering Using a Variety of Topic Modules,” IEEE Transactions on
, and C. Alarcón, “Flipped classroom in engineering: The influence of gender,” Computer Applications in Engineering Education, vol. 28, no. 1, pp. 80–89, 2020, doi: 10.1002/cae.22176.Appendix 1: Distributed Survey Study: Flipping the Engineering Mechanics Classroom: A Survey of Instructional ApproachesThis study seeks to explore the use of flipped classroom strategies in the engineering mechanicsclassroom. The general idea behind a flipped classroom is that it moves the lecture outside ofclass time, by having students watch a video lecture or complete a reading before class, and thenuses class time to actively engage in problem solving, effectively moving homework into theclassroom. Research has shown multiple advantages to this
; Material Handling, and Capstone. She is the Director of Senior Capstone Design in Industrial Engineering as well as the Founding Director of the Galante Engi- neering Business Program at NU. Dr. Jaeger-Helton has also been an active member of Northeastern’s Gateway Team, a select group of teaching faculty expressly devoted to the first-year Engineering Program at NU. In addition, she serves as a Faculty Advisor for Senior Capstone Design and graduate-level Chal- lenge Projects in Northeastern’s Gordon Engineering Leadership Program. Dr. Jaeger-Helton has been the recipient of over 15 awards in engineering education for both teaching and mentoring and has been involved in several engineering educational research
predominantly African American (AA), Limited English Proficient (LEP) and Economically Disadvantaged (ED) populations. One of the earliest successful and widely reported projects was the Valle Imperial Project in El Centro, CA. The implementation of inquiry based science kits using the National Science Resources Center (NSRC) model of exemplary science education (research based curriculum, ongoing professional development, 2 authentic assessment, community support and materials support) resulted in significant 3 increases in not only science achievement, but also reading, math and writing
project can be used as an effective educational Page 13.1103.23tool to further enhance the students understanding of the subject matter. The student canconveniently alter the problem input and analyze and interpret the obtained results. Theeffectiveness of this project can be evaluated by tracking the academic success of the students intheir future studies and professional careers. The proposed methodology enhances the interest ofstudents in performing research, and encourages them to possibly pursue graduate studies.Bibliography1. Navaee, S., Das, N.K., “Utilization of MATLAB in Structural Analysis,” Proceedings of the ASEE Annual
AC 2011-731: LEARNING IN LABORATORY COMPLIMENTS TO LEC-TURE COURSES VIA STUDENT DESIGNED AND IMPLEMENTED EX-PERIMENTSJohn M Mativo, University of Georgia Taught and researched at university level for 16 years of which 6 served as department chair. Subject area involvement in teaching and research were in engineering education; product development and manufac- turing; and energy systems. Member of ASME, ASEE, ITEEA and Sigma Xi.Natasha Smith, University of Southern Indiana Page 22.1005.1 c American Society for Engineering Education, 2011 Learning in Laboratory Compliments to
those that are targeting an applied career in industry. METstudents in the ABET accredited program at NJIT take similar courses to their MechanicalEngineering (ME) counterparts with the reduction of specific math courses that would be neededfor a theoretical background utilized in ME graduate studies. Please see the ME (Click Here) [5]and MET (Click Here) [6] curriculum differences described on our University’s website. Thetheoretical or intensive math-based ME courses are replaced with MET key courses that are moreapplied in nature. This includes mechatronics, which has been seen to be a key course for appliedengineers entering the industrial workforce. There are different focus areas that can be taken in amechatronic education program, namely
and homework (see figure 2).Research, ours and others’, also indicates that a child’s self esteem and confidence in math isdirectly related to parent perceptions and expectations. The student’s own achievement record orthe attitudes of any single teacher do not have the same degree of influence. One researcherstates that, “a student’s initial competence in mathematics and science grows out of familypractices.”3Parent advocacy and education groups have deemed that “parent involvement” is a necessarycomponent of student success4. The definition of “parent involvement,” however, varies fromstate to state, town to town and even school to school within a town. The National ParentTeacher Association defines parent involvement as “the participation
capstonecourse. Porter, et.al, [8] have implemented a mandatory technical project management coursealigned to its capstone senior design course.But there does not appear to be significant study of peer project management for these designteams, where a student member on otherwise equal footing with the rest of the team assumes therole of project manager. Many questions come to mind, such as; what are the advantages of thisapproach; what are the pitfalls; are projects, and project teams, more or less successful with apeer project manager; are team dynamics better or worse; how should the student PM be chosen;how should the student PM be evaluated? This paper explores these questions and attempts toquantify outcomes realized while transitioning to a peer
and Computer Science has been an active participatein “a national partnership of universities with the shared mission to graduate engineers with anentrepreneurial mindset…” These efforts are coordinated by the Kern EngineeringEntrepreneurial Network (KEEN) under the mantra that “it is critical for engineering schools toteach a technical skillset and an entrepreneurial mindset-fostering curiosity, connections and thecreation of value” …”so that students can create personal, economic, and societal value througha lifetime of meaningful work.”One approach used to implement KEEN EM ideals at Baylor was to commission KEENInnovators to explore opportunities to expose students to EM topics and experiences within aclassroom setting.1-3 This is more
- reer Course and the Joint Engineer Operations Course. Erik has served three one-year tours in Baghdad, Iraq with the most recent tour ending in June 2010. During that tour, Erik was an Infrastructure Analyst with various infrastructure related duties such as data collection and management, condition analyses of infrastructure systems, and functional subject matter expert for validating national critical infrastructure assets. Past assignments include: Forward Engineer Support Team – Main Detachment Commander; Pla- toon Leader; Infrastructure Analyst at Corps Level; Civil Engineer, Plans Officer and Logistics Officer at Battalion Level. Erik’s Current research focuses on the construction of nuclear facilities and the
[17]. These are in stark contrast to the vast majority ofproblems that engineering students solve which are usually focused on a relatively narrow rangeof technology (e.g., statics or thermodynamics), have only one correct answer, and typically onlyone method to get that answer. However, ill-structured problems are some of the most importantthat students will solve because they are much more similar to the types of problems they willface after graduation. Those problems typically do not have an answer in the back of the bookwhich is one of the reasons why engineers are well-compensated because they must apply whatthey have learned to new and more complex problems than they studied in school. These ill-structured problems can be unnerving to
course. Next, findings by Kozak [3] and Douglas [4] show that online students in twomechanics classes performed equally or outperformed in-person group. Similar results aredemonstrated by Marriott [5] for two Computer Science courses intended for freshmen, juniorsand seniors. Finally, research outcomes presented by Trippe [6] for three Electrical, Computerand Telecommunications Engineering technical programming courses highlight that students’satisfaction for traditional in-person and for online delivery modes does not differ from eachother.However, other studies show that the online modality results in weaker performance, lower lettergrades, and lower students’ satisfaction level/higher non-completion rates.For instance, findings presented by
Paper ID #33518Virtual Technical and Professional Development Program for ECEInternship PreparationMs. Phuong Truong, University of California, San Diego Phuong Truong is currently a fifth year PhD candidate in the Department of Mechanical and Aerospace Engineering at UC San Diego. Following her passion for research and education, she has worked closely with faculty at the Jacobs School of Engineering since 2016 to develop and improve curriculum for ex- periential learning courses. Her areas of focus include experiential learning, curriculum design, outreach program design, and engineering leadership.Dr. Karcher Morris
, quizzes,midterm, final test and project. The weight of each evaluation is provided in Table 1. Since thiscourse was also offered to graduate students, it was a challenge for the instructor to balance thecontents of the course for students with different backgrounds. One acceptable solution that theinstructor came up was to assign a new project, called term project for graduate students. The mainobjective of this extra work was to motivate grad students to implement their research skills toinvestigate challenges in AM industries and report them in a paper. They were required to reviewat least 20 journal papers in AM field. Table 1. The weight of student's performance in the new course, based on homework, quizzes, midterm
, sewing, and clerical skills as part of the high school curriculum. Thirty years after TitleIX was enacted, college enrollments of 2001-02 show male and female students admitted tomedical and law schools nearly match their mix within the general population. Femaleengineering enrollments have grown by similar multiples, but unfortunately must overcome amuch greater deficit to achieve gender equity1.For organizations, there is a participation level where underrepresented groups reach a pointwhere their involvement is self-sustaining, or achieve critical mass. According to ProfessorMonique Frize, former Natural Sciences and Engineering Research Council (NSERC) Women inEngineering Chair, the point at which a population moves from underrepresented to
AC 2009-986: A COLLABORATIVE “HOW TO”: MAKING ENGINEERINGINTERESTING TO STUDENTS IN MIDDLE AND HIGH SCHOOLTerence Fagan, Central Piedmont Community College Dr. Fagan earned a Ph.D. in Mechanical Engineering from UNC Charlotte and is a CPCC 2008-2009 College Fellows recipient, receiving funding to conduct LCA case studies on sustainable livable habitat; create a sustainable manufacturing module; and publish and present his findings. Dr. Fagan team-taught an interdisciplinary (civil and mechanical engineering and architecture students) sustainable design studio course at UNC Charlotte in 2008. Dr. Fagan currently serves on a Habitat for Humanity committee dedicated to “greening” their products
University-San Luis Obispo; Lisa A. Riedle, University ofWisconsin-Platteville; William W. Steffenhagen, Saint Martin’s College; David Yang, University of Tennesseeat Martin. References 1. Improving Engineering Design: Designing for Competitive Advantage, National Research Council, National Academy Press, Washington, D. C., 1991. 2. Criteria Accrediting Programs in Engineering in the United States, Accreditation Board for Engineering and Technology, Baltimore, MD, 1995. 3. Center for Case Studies in Engineering, Campus Box 139, Rose-Hulman Institute of Technology, 5500 East Wabash Avenue, Terre Haute, Indiana 47802; http://www.civeng.carleton.ca/ECL/about html 4. Proceedings of
AC 2009-525: USING THE TEXAS INTERACTIVE POWER SIMULATOR FORDIRECT INSTRUCTIONMelissa Lott, University of Texas, Austin Melissa Lott is a graduate student in the Mechanical Engineering Department at the University of Texas at Austin. Her work includes a unique pairing of mechanical engineering and public policy in the field of energy systems research. She is a graduate of the University of California at Davis, receiving a Bachelor’s of Science degree in Biological Systems Engineering. Melissa is currently working as a member of the Webber Energy Group at the University of Texas at Austin. She was a 2008 recipient of the Rylander Excellence in Teaching Endowment for her achievements in the
engineering education from Texas A&M University. Her research areas of focus are faculty perspectives and growth through curriculum design and redesign, interdisciplinary teaching and learning, reflective eportfolios and professional development of graduate students related to teaching.Dr. Nate Poling, Texas A&M University As an educator and faculty developer, Nate is interested in leveraging the power of popular culture and multimedia to help facilitate effective learning. In a teaching career that has ranged from the K12 to the Ph.D. levels, he has always stressed the importance of using relevant material in motivating and engag- ing students in the learning process. At the Center for Teaching Excellence at Texas A
Paper ID #23982A Low-cost Affordable Viscometer Design for Experimental Fluid ViscosityVerification and Drag Coefficient CalculationMr. Joseph Michael Derrick, Indiana University-Purdue University of Indianapolis I am a young professional engineer who has graduated from Purdue University in Indianapolis with a masters in Mechanical Engineering. It should also be noted that I also received my B.S. in Mechanical Engineering from there as well. My graduate studies was focused in thermal/fluid sciences and sys- tems/controls. Currently, my interests lie in aerospace applications with an emphasis in space propulsion and
suitable to the two-course sequence for ourcapstone senior project, ME400 – Mechanical Engineering Design and ME 412 – MechanicalEngineering Senior Project. The team drafted both the interim and final project status reports toaddress the specific needs of the sponsor. This project was presented at the 46th WKU AnnualStudent Research Conference, where their work was favorably reviewed by peers and otherfaculty within the university community. It was also presented to the Mechanical EngineeringAdvisory Board.The Western Kentucky University ME curriculum assures that program graduates haveexperienced the engineering profession and demonstrated the ability to perform in a professionalmanner. The team project demonstrated student competence in the
power engineering3. Onecollaborative effort to fill this gap in skilled workforce is the Consortium of Universities forSustainable Power4 (CUSP™) which is currently offered by the research group led by ProfessorNed Mohan of the University of Minnesota. This consortium includes universities that havecome together to utilize, collectively evolve and promote the curriculum developed at theUniversity of Minnesota – Twin Cities with the help of funding from various organizationsincluding NSF, ONR (Office of Naval Research), NASA and EPRI. Western CarolinaUniversity joined this consortium in 2012 to enable the development of a state of the artcurriculum in electric power/energy systems.In the Electrical and Computer Engineering Technology program at
event. It was anticipated that students involved in the projectwould come from varied academic backgrounds including students in engineeringtechnology, marketing and management, digital media and performing and visual arts.We thought that as the festival gained in notoriety, students that had previously workedas volunteers for the project would graduate to management/leadership positions as theygained experience working on the festival over the course of their undergraduate program Page 12.610.5of study. In addition, students involved in the project would experience the need forsocial entrepreneurship and would continue to be involved in their
monitoring. He has experience in hardware/software interfacing with special applications inmachine vision. He is a member of the ASEE and the SME.OMAR GHRAYEBReceived his Ph.D. in Industrial Engineering from New Mexico State University, NM in 2000. He is an AssistantProfessor in the Department of Industrial Engineering at Northern Illinois University. His research interests are inProduction Planning and Scheduling , Design and Analysis of Manufacturing Systems, and Soft Computingapplied to manufacturing systems.NAVIN ANANDNavin is presently a graduate student in the Department of Electrical Engineering at Northern Illinois University. Hegraduated from the Department of Technology at Northern Illinois University with an MS in Industrial Managementin