Paper ID #10940Enabling Multidisciplinary Perspective in Student Design Project: Fast Fash-ion and Sustainable Manufacturing SystemsDr. Vukica Jovanovic, Old Dominion University Dr. Jovanovic is currently serving as Assistant Professor of Mechanical Engineering Technology De- partment, Frank Batten College of Engineering and Technology, Old Dominion University, Norfolk, VA. Prior to joining ODU’s Engineering Technology Department Dr. Jovanovic was teaching at Trine Uni- versity, Angola, Indiana at Design Engineering Technology Department. Before Trine, she was working as an instructor and a graduate research assistant at
and Teachnologywhere she is responsible for students, facilities, and curriculum issues and teaches in the areas of career theory,organizational development, and management. She is currently pursuing her PhD at Andrews University inLeadership.JAMES J. HURNY is an Assistant Professor in the Department of Electrical, Computer and TelecommunicationsEngineering Technology where he teaches a wide variety of courses in analog electronics with additional experiencein value analysis and engineering economics. In addition, he has had over 33 years experience in industry atEastman Kodak company and serves as a program evaluator for TAC/ABET
in 1987, with focused study on process control. Since that time,his career in industrial automation as both an engineer and project manager spanned severalindustries and roles. He had been employed by large vendors of automation products, small systemintegrators, and production facilities, as well as doing contract work for his firm DPAS. From thatexperience, Pat assembled a curriculum to introduce a comprehensive set of topics intended toshow students the breadth of automation. As many students have interest in a career thatmatriculates to leadership, a final day of soft skill topics such as project management are included.The goal is not to develop mastery of the subject matter, but to introduce and provide initial hands-on experiences of
computer software packages for technical problem solving appropriate to the Electronics engineering technology discipline. 7. Demonstrate technical competency in electronics, circuit analysis, digital electronics, electronic communications, microprocessors, and systems. 8. Integrate knowledge of the functional areas of electronics engineering technology. 9. Demonstrate the ability to analyze, apply design concepts, and implement systems as appropriate to electronics engineering technology. 10. Participate effectively in groups, and apply project management techniques as appropriate to complete assignments. 11. Demonstrate an ability to understand professional, ethical and social responsibilities
technology. Student andindustry assessments show that the certificate program successfully follows a pragmaticapproach that integrates theory with real world applications to prepare students for a career inthe diverse green energy industry.1. IntroductionThe world faces concurrent energy and pollution crises. Rapid population growth and an increasein the living standard in many emerging countries have led to a greater demand for fossil fuels.Over the next 25 years, the societal requirement for energy is forecasted to increase by 36% withthe bulk attributed to developing countries1. The demand for energy will eventually outpace theability to supply energy from traditional resources. Most industry experts believe that an energycrisis is likely for
(range 0 to 18), based on theirselections among the 19 options listed on the survey. Across the 22 institutions, this ranged froma median of two to seven ESI topics (see Appendix). Differences among the institutions were notstatistically significant (likely due to the wide variation among the respondents from eachinstitution). There was a moderate correlation among the percentage of the institutionalrespondents who took the curricular survey and the median number of ESI topics taught at theinstitution (correlation coefficient 0.42). This is not surprising as the invitations to the curricularsurvey were sent to individuals known to be active in engineering ethics education or groupswith an interest in ESI and therefore more likely to integrate an
would show much greater improvements in student learning.ReferencesAnwar, K., A. A. Shaikh, N. R. Dash and S. Khurshid (2012). "Comparing the efficacy of teambased learning strategies in a problem based learning curriculum." Apmis 120(9): 718-723.Conway, S. E., J. L. Johnson and T. L. Ripley (2010). "Integration of team-based learningstrategies into a cardiovascular module." American journal of pharmaceutical education 74(2):35.Dana, S. W. (2007). "Implementing team-based learning in an introduction to law course."Journal of Legal Studies Education 24(1): 59.Haidet, P., K. Kubitz and W. T. McCormack (2014). "Analysis of the team-based learningliterature: TBL comes of age." Journal on excellence in college teaching 25(3-4): 303.Loughry, M. L., M
Improving Data Acquisition and Reduction in a First-Year-Student Laboratory Experiment Michael Hoffmann The Ohio State UniversityAbstract The College of Engineering at The Ohio State University requires all engineeringstudents to complete introductory courses in engineering as part of their academic experience.The courses are usually taken during a student’s first year and follow either a standard twocourse track or an honors three course track. Courses in each track have both lecture andhands-on laboratory components. For the second course of the standard track,four-member-teams of students must design and build
department, the curriculum studies. Consequently, students feel more engaged in theirof the first-year course entitled “Engineering Graphics education and this open the door to be more passionate aboutand Computing” has been changed through an addition their learning in universities [2].of a design project. This project is based on the Project-Based Service Learning (PBSL) is one of theEngineering without Borders (EWB) Challenge methodologies that have been used to apply the concept of(www.ewbchallenge.org) which lets the first-year service learning in which the students are assigned to workengineering students work on an international project, on a real
contribute meaningful insights into the effective integration of technology in education, aspiring to shape the future of STEM learning environments to be more engaging and accessible for all students.Comlan de Souza, California State University, FresnoKeith Collins Thompson, University of California MercedKhang Tran, California State University, FresnoYue Lei, University of California, MercedErica M Rutter, University of California, MercedDr. Lalita G Oka, California State University, Fresno Dr. Lalita Oka is an Associate Professor in the Department of Civil and Geomatics Engineering at the California State University, Fresno. She teaches undergraduate and graduate courses in Geotechnical Engineering. Her research interests
engineeringknowledge for achieving the SDGs [3]. We respond to the call by introducing elements ofsustainable development and global citizenship into a major elective course in the InformationEngineering curriculum.Our contribution and significanceThe current work is amongst the early efforts in integrating the achievement of SDGs into theformal undergraduate engineering curriculum. In this paper, we present the correspondingpedagogical design, implementation, and evaluation in a regular undergraduate course offered inHong Kong. The course aims to introduce to students a wide range of concepts and techniquesrelated to social media analytics and human information interactions. We adopt pedagogicalstrategies in design thinking to foster engineering student’s
. Consideration is given to the tolerances associated with the 3D printers, and studentsdesign interfaces with appropriate clearances in mind. Examples and demonstrations of 3Dprinted threaded fasteners, mating gears, and other interfacing components are used to help studentunderstanding of relevant clearances.Once satisfied with the individual components and the virtual integration, models are translatedinto a format suitable for the CAM tool. Students use the CAM tool to obtain an estimate ofmanufacturing time and material which are then used in calculating a cost estimate. After eachteam successfully completes a “milestone 1” design review, components are printed andassembled. Throughout the design process UGTAs serve as project managers, each
driver, watching for defects, thinking of on programming assignments when working in pairs.alternatives, consulting resources, and considering Also, improved retention rates have been attributed tostrategic implications of the work. The team members team programming techniques (McDowell et al., 2002).are not to break the assignment into parts and integrate They found that an appreciably higher percentage ofit later. Partners are expected to schedule time together students in the partnered class took the final exam asfor the purpose of completing programming work. compared with the solo students. Yet, they found no significant difference between
“machinelanguage” programs. SimpleCPU has two advantages over “black box” CPU simulations,like the “Little Man Computer.” First, SimpleCPU is integrated into the spreadsheet thatis already part of the course curriculum, which simplifies matters for novice computerusers as well as the instructor. Second, students can examine any part of the simulationdirectly by looking in spreadsheet cells and reading the single page of macro definitions.Nothing is hidden in object code or an unfamiliar language. The package can also beused with a computer architecture course, giving students a low-cost way to build andtest their own simple processor designs. Introduction Introductory computer literacy has always posed a challenge to instructors. Althoughstudents
Spanish curriculum. She has developed specialized Spanish courses designed for engineers, as well as interdisciplinary courses that connect engineering to other fields of study. In her research she is equally versatile: her scholarship covers a wide range of topics relating to international education, languages across the curriculum, applied linguistics, materials development and literary and cultural studies.Dr. Sigrid – Berka, University of Rhode Island Dr. Sigrid Berka is the Executive Director of the International Engineering Program (IEP) at the Univer- sity of Rhode Island, and also the Director of the German and the Chinese IEP, responsible for building academic programs with exchange partners abroad, internship
prefect researches.References[1] X. Liu, “An analysis of some concepts about general education,” Journal of Higher Education,vol. 27, no. 3, pp. 64-68, 2006.[2] L. Chen, “ Idea and Practice: Writing Seminar in Yale University,” International andComparative Education, no. 1, pp. 32-38, 2019.[3] Y. Han, “The General Education Curriculum Reform in Chinese Universities under theBackground of Internationalization,” Journal of National Academy of Education Administration,no. 11, pp. 32-37, 2017.[4] G. Xie, “Strengthening and Promoting General Education,” China University Teaching, no.3, pp. 71-73, 2008.[5] M. Li, “Reflection on the Philosophy and the Operational System of General Education inChinese Universities: 1995-2005,” vol. 4, no. 3, pp. 86-99
time and stress during the first segment of a professor’s career overlaps withher childbearing years, so that a woman is forced to choose between raising a family andpursuing an academic career.Nokes and Gustafson (1994) examined the motivations of female graduates of sixMidwestern agricultural engineering departments for choosing their major, and discussedissues of recruitment and retention of female students in engineering. They found thatwomen were attracted to this major because of an interest in math and science, thediversity of the BAE curriculum with respect to other engineering disciplines, and aninterest in applying engineering to living things. Forty-eight percent of the respondentscame from a rural background.A study by Hawks and
an importantdriving force for engineering education reform programs. As basic science and engineeringbecome increasingly intertwined in fields such as nanotechnology, molecular self-organization,molecular electronics, and microbiological synthesis13, students and professionals have to dealwith time scales from the nanosecond to tenths of years, and sizes from the single atoms tomachines many thousands of meters long14. Many researchers and industrial leaders in the field have been pointing out that reforminitiatives are falling short of those new challenges. Bazzo15 and Blikstein16 criticized the“banking” approach of simply adding new courses to the curriculum, and Hurst17 pointed out thatsyllabi and curricula were so overloaded with
a‘bottom-up’ approach, starting with elementary logic gates and Boolean algebra and only later inthe curriculum reaching the level of microprocessor development or networked applications [2],[3]. The recent availability of increasingly powerful, yet low-cost, wireless networked devicesmakes it much more feasible to adopt a ‘middle-out’ approach, where students get to experienceand use embedded systems and IOT, before delving deeper into the details of how such systemsare constructed at the circuit level or integrated in a networked environment. This paperdescribes a new hardware kit and sequence of exercises which aim to support this approach bygiving students hands-on experience with Embedded systems and IOT at an early stage in theiracademic
hired faculty members are all required to have a PhD degreein engineering. Publication and external funding are also important factors when tenure andpromotion are considered. Since the ET programs at Texas A&M University only offer BSdegrees, many faculty members hire graduate students from other departments within the collegeof engineering to help them conduct research work. An increasing number of faculty membersare experimenting with research by undergraduates. There are unique issues related to REU forET students.In addition to the benefits for both students and faculty members, REU can also be used toimprove curriculum. EET faculty members always try to use research results in lectures and labsas real-world examples29-31. Research
. • First, students don’t need to cope with school time schedule. • Secondly, virtual schools still operate with a formalized calendar: the great majority of them on the basis of a curriculum to be taught and learned additively in a given number of years, sub-divided into smaller periods of working months, weeks, days, till lessons. • Thirdly, notions of truth and falsity are arrived at through exam evidence.This paper proposes a new model to improve the Internet-based course programs throughfollowing an action research process in the virtual classroom. Thus, the author can cultivatedemocracy and dynamic learning and communication groups in Internet-based courses toimprove the actual abilities of students. The training
classroom environment. This furtherdemonstrates the crucial role of community when committing to pedagogical changes. In otherwords, a lack of solidarity has the tendency to create a stale culture which recycles antiquatednotions of teaching. The sentiments illustrated by P46 suggest that EBIP-awareness shouldperhaps begin in graduate school, which would proactively normalize the use of alternativeteaching innovations, as opposed to reactively finding a mentor after becoming an instructor.They further go on to state, “...that was probably the first time where I really felt like I reallyhad to build my own curriculum. I had to do all of the grading. I had to do thelecturing…and then, um, in, during my postdoc years, again, really didn't get
subject matter as well as student level. Although economy of scale is themain rationale for a large class size, it is generally argued that the benefits of such an increasestart tapering off since increasing class sizes typically result in lower student retention, adversestudent learning, etc. This study does not aim to discuss social issues or public policy, but thediscussion in this study is limited to examining any measured influence of class size on theperceptions of learning and outcomes assessed at the end of the semester.Project-based learning (PBL) is a recognized pedagogical approach that is commonlyacknowledged to motivate students and enhance student engagement.7,8 PBL allows anincorporation of open-ended projects into the curriculum
Education”I. IntroductionThe study of mechanical vibrations is a standard component of a typicalundergraduate mechanical engineering curriculum. At the University ofKentucky, vibration basics are included in a required systems modeling course,and some of the concepts are also applied in a required controls course. There isan additional course which is specific to the study of vibrations, ME-513:“Mechanical Vibrations”, which can be taken as an elective by upper levelundergraduates, or for graduate credit. It has been taught at the University ofKentucky Extended Campus Program(1) every fall semester since Fall, 2001, as anundergraduate-only elective.It seems that vibrations, in particular, is a topic that requires some hands-onlaboratory
things that make service-learning projects difficult to find and develop. Despite these difficulties, engineering educatorshave incorporated service learning in their curriculums. Examples of service-learning in thefreshmen and junior/senior years of an engineering program can be found with a search throughthe National Service-Learning Clearinghouse.1 However, there are few project-specific service-learning opportunities for sophomore-level foundational engineering courses. This paper seeksto fill this gap by providing a description of a service-learning project developed specifically fora statics and dynamics class. It should be noted this case study is limited in scope in that theemphasis is on program evaluation rather than academic research
high need for assessment in change projects is often paired with a low prevalenceof formal assessment activity (Beach et al., 2016). To avoid this, a structured approach toassessment should be used from the very beginning, and conducted as an integral component ofthe entire project. During planning, assessment of “readiness for change” is critical (Reeves,2009; Lehman, Greener, and Simpson, 2002; Combe, 2014; Lynch & Smith, 2016). Movingthrough the project, assessment plans should be mindful of Banta et al.’s (1996) principle ofassessment stating that “Assessment requires attention to outcomes, but also and equally to theexperiences that lead to those outcomes”. To do this, Hall (2013) argues that direct assessment ofthe extent of
Paper ID #12577Teaching Outside the Discipline: A STEM-Related Course in a Non-STEMCurricular AreaDr. Teresa L. Larkin, American University Teresa L. Larkin is an Associate Professor of Physics Education and Faculty Liaison to the Pre-engineering Program at American University. She received her Ph.D. in Curriculum and Instruction with emphasis in Physics and Science Education from Kansas State University. Dr. Larkin is involved with Physics Education Research (PER) and has published widely on topics related to the assessment of student learn- ing in introductory physics and engineering courses. Noteworthy is her work with
successful with mentors. Takaghaj2 described the impact of mentoring girls in STEM.Feldhaus3 describes a mentoring program, which involves under-represented mentors. Sarder4discusses the impact of a mentor in designing K12 curriculum. Rochefort5 describes a programthat used graduate students as mentors. Mentoring has been attempted in many places for a singleprogram. This paper describes an effort, which strives to increase the number of STEM mentorsacross many programs in a single community.The Wichita Coalition is comprised of individuals and organizations that are passionate about thefuture of our community. Wichita has a high concentration of STEM professionals (the 3rdhighest concentration of engineers in the nation, according to Forbes). In
, automation, robotics and control, intelligent manufacturing system design, and micro/nano manufacturing. He is also the Director of the Rockwell Automation laboratory at Texas A&M University, a state-of-the-art facility for education and research in the areas of automation, control, and automated system integration. c American Society for Engineering Education, 2018 MAKER: Face Detection Library to Teach Algorithm Basics in PythonAbstractThis paper describes an approach to teach face detection algorithms to beginner levelprogramming learners using a face detection tool built in Python. Learners are expected tounderstand and practice their Python coding skills
Session 2158 Analysis of Computer Networks Courses in Undergraduate Computer Science, Electrical Engineering and Information Science Programs Maurice F. Aburdene, Xiannong Meng and Gregory L. Mokodean Bucknell UniversityAbstractThis paper presents an analysis of computer networks courses offered by universities andcolleges in the departments of computer science, electrical engineering, or information science.The results are based on the information collected from course web sites from twenty-sevenuniversities and colleges in computer science, electrical