. As a capstone, teachers developed research projects synthesizing this interdisciplinarycontent with their own interests and background. As a result, the teachers have submitted severalposters with abstracts to the 2024 ACM SIGCSE and IEEE ISEC conferences and will bedelivering grant-related lessons in their classes during the current academic year.1 Introduction and MotivationDeveloping and understanding data fluency is increasingly important given the rapid changesrelated to living, learning, and working in the knowledge society of the 21st century. Meeting thiscommitment requires well-prepared teachers with proper support, including tools and resources,and yet, professional development and teacher preparation around data fluency is spotty
AC 2011-76: WEB-BASED MAGNETIC DESIGNTaufik Taufik, California Polytechnic State University Dr. Taufik received his BS in Electrical Engineering with minor in Computer Science from Northern Arizona Univ. in 1993, MS in Electrical Engineering from Univ. of Illinois Chicago in 1995, and Doctor of Engineering in Electrical Engineering from Cleveland State University in 1999. He then joined the Electrical Engineering department at Cal Poly State University in 1999 where he is currently a tenured Professor. He is a Senior Member of IEEE and has done consulting work and has been employed by sev- eral companies including Capstone Microturbine, Rockwell Automation (Allen-Bradley), Picker Interna- tional, Rantec, San
ateam based design experience throughout the senior year, faculty who have taught these classeshave experienced recurring problems with teamwork4. With the goal of improving the teamworkskills within these senior design teams, a program has been developed between the College ofEngineering and the Counselor Education and Counseling Psychology Unit (CECP) of theCollege of Education. This program has involved the pairing of two groups of students. One group wascomposed of senior engineering students who were enrolled in a senior capstone design sequencein mechanical engineering. As a part of this class, these students were to meet throughout thespring semester to work in design teams on a problem provided by industry for the purposes
. Page 23.1033.1 c American Society for Engineering Education, 2013 Remote Circuit Design Labs with Analog DiscoveryAbstractThe limited resources in the traditional labs have restricted the effective and innovative circuitdesign projects from freshmen Circuits 1 class to Capstone ideas. The limited number ofmeasuring and signal-generating instruments makes it difficult for students to engage in theseprojects when they need to share these instruments or schedule to use them at a specific time.Furthermore, it is a challenge for students to learn how to use various instruments includingpower supplies, multi-meters, oscilloscopes, and function-generators if not used in conjunctionwith each other. Likewise
Page 23.1092.3 Structures DesignCourses in Table 1 are prerequisites for the respective courses in Table 2. In the steel structures,concrete structures and Timber/masonry structures design laboratory courses, the students withguidance from licensed structural engineer faculty prepare complete construction documents(structural calculations, structural plans and structural specifications) for pertinent materialstructures. The faculty member plays the role of the project client and also acts as the buildingcode enforcement agency plan checker.Real world building structures are not built solely of only steel, reinforced concrete, Timber ormasonry. The building system is typically a combination of all the above materials. This
populations.Dr. Sheryl A. Sorby, University of Cincinnati Dr. Sheryl Sorby is currently a Professor of STEM Education at the University of Cincinnati and was recently a Fulbright Scholar at the Dublin Institute of Technology in Dublin, Ireland. She is a professor emerita of Mechanical Engineering-Engineering MecProf. Teri J Murphy, University of Cincinnati Dr. Murphy is a professor in the Department of Engineering Education at the University of Cincinnati.Dr. Betsy M. Aller, Western Michigan University Betsy M. Aller is a retired associate professor in engineering management and manufacturing. At Western Michigan Univ., she coordinated and taught capstone design courses for 20 years, and developed courses in sustainability
skills in a groupenvironment”, now lists the following assessment methods: Proceedings of the 2008 American Society for Engineering Education Pacific Southwest Annual Conference Copyright © 2008, American Society for Engineering Education • “Ethical practices are emphasized throughout the course of study and student actions (academic practices and honesty) are continuously observed and corrected during academic instruction • Students assist in the completion of group projects and receive satisfactory participation grade from peers • Students must display ethical and interpersonal skills during group presentations • Results of individual group assignments and peer comments will be
conducted at the Penn State Hazleton campus.The solar car was designed by Penn State Hazleton engineering students and built in cooperationwith high school students. The photovoltaic power station was erected in conjunction with aphotovoltaic installers training course which was offered on site at the Penn State Hazletoncampus.As a positive result of these projects, the Penn State Hazleton Campus decided to develop andoffer a new innovative Bachelor of Science in General Engineering with an Alternative Energyand Power Generation Track. The General Engineering with an Applied Materials Track was Proceedings of the 2011 ASEE Northeast Section Annual Conference University of Hartford
subject, (ii) some backgroundinformation, (iii) aircraft noise, (iv) local and regional environmental effects, (v) impact of civilaviation on global warming, (vi) aircraft contrails, (vii) design of civil aircraft for the future,(viii) engine design changes to reduce environmental impact, (ix) reducing environment effectsof civil aircraft by changes in operational and traffic management procedures.11The course in its initial implementation has consisted of fairly conventional lectures andrelatively free format classroom discussions of specific topics. The evaluation of studentperformance is based on assignments on specific basic subjects, on several small projects wherethe students are given a particular topic and have to write a three to four
industry working towards sustainability. 7. Institutions develop long-term vision on sustainability-related investments and supporting systems. 8. Development of national inter-collegiate collaborations and competitions. 9. Institutions develop a cross-campus, multidisciplinary university-based committee to promote sustainability. 10. Engineering faculty use a student- centered approach to match students’ needs/demands for sustainability with opportunities to practice via internships, capstones, or special projects. 11. Engineering departments and faculty have early required coursework in sustainability. 12. Creation of new courses and modification of existing courses to include sustainability-focused competencies (vertical and horizontal
for Mechanical Engineering students at Northeastern University. The existingexperiments have become dated and in many cases have devolved to demonstrations by theteaching assistants, with little hands on experimentation by the students. This has resulted inseverely decreased student satisfaction with the labs. An extensive redesign was performed todevelop hands-on, open ended lab experiments that allowed students increased control over theoutcome of the experiments. Pre-lab homework assignments require students to develop labprocedures, research sensor specifications, and develop virtual instruments in NationalInstruments’ LabView. A term project required student groups to design and execute ameasurement experiment, presenting their findings
provide a brief overview of the project; additional information canbe found on the project website: www.cewriting.ling.pdx.edu. Page 25.1060.3Table 1 displays a list of the types of writing that have been collected in the corpus, whichcurrently totals approximately 400 undergraduate student papers and 360 practitioner documents.The papers come from 19 different courses. Most are from Portland State University, butadditional lab reports and senior capstone reports were collected from more highly rankedprograms, for future analyses which will compare universities. The practitioner documents werecontributed by 10 engineering consulting firms in the
thecontext of capstone design courses, is certainly one of those topics. In the biomusicproject, the MIDI standard fell naturally out of the scope of the project. But another Page 23.1237.4surprising connection came from a question about how the LabView program mapped 3 keyboard strokes to numbers, and why it was the same mapping on Macs and PCs. Thiswas a classic case (many that occurred during the program) where I did not know theanswer. I mentioned that there was likely a standard keyboard layout mapping that wasbeing exploited by the program. After five
/AIAS New Faculty Teaching Award, and the 2006 Halliburton Excellent Young Teacher Award. In addition to carrying on an architectural practice while teaching, many of her scholarship and creative activities relate to teaching in the Comprehensive Design Studio. Topics include multidisciplinary collaborations and integration of systems. She has collaboratively created educational material covering basics of egress design which has been viewed by students and professionals worldwide, and has led multidisciplinary design teams and research projects. She has presented at a variety of architecture, engineering, and fire protection academic and professional venues.Mr. William Crawford American
) Program: Reimagining STEM Doctoral ProgramsAbstractThis Work in Progress paper describes the development and implementation of a new pathway fordoctoral candidates in STEM programs to satisfy their capstone degree requirements that has thepotential to modernize the STEM Ph.D. The model, Pathways to Entrepreneurship, aims to bringgreater alignment between doctoral degrees and the rapidly changing employment landscape.Programmatic and curricular innovations to the current Ph.D. model are described along with therationale. Project goals are to develop an alternative roadmap for STEM doctoral students, that isscalable, and to investigate pedagogical implications of these innovations, for doctoral educationand for broadening
modules were developed and used in classes at allundergraduate levels from introductory courses to senior capstone design and in undergraduateresearch projects such as REU and RET programs.The project successfully demonstrated that an experimental centric pedagogy combined withhands-on educational technology stimulates student interest in the STEM area, promotes contentacquisition, and problem solving, and retention. Hands-on activities were shown to be successfulacross a variety of instructional settings and EE topics. The momentum that the project has isremarkable. By the end of the project practically all the minority students at the 13 institutions(which represent over 35% of the entire population of the African-Americans in engineering inthe
. The final EDP, the culmination or “capstone” project, was deliberately designed to fall along the extreme right of every one of the scales, leveraging the anticipation of an extremely fun project to build excitement and enthusiasm for what would prove to be a significantly challenging engineering problem. Students were tasked to develop prototype
are U.S. Military Academy faculty members who deployed to Afghanistanin the spring and summer of 2007 to establish the new program at NMAA. In this paper, wedescribe our processes, products, and lessons learned. Although the situation in Afghanistan isunique in many ways, the lessons we learned there are nonetheless applicable to engineeringcapacity-building projects elsewhere in the developing world as well.BackgroundEarly in 2003, Afghanistan’s Ministry of Defense and the U.S. Army’s Office of MilitaryCooperation – Afghanistan (OMC-A) agreed to jointly establish a military academy that wouldprovide the newly created Afghan National Army with a capable, well-educated officer corps.1After considering a variety of different institutional
Session 1626 COMBINED RESEARCH AND CURRICULUM DEVELOPMENT FOR POWER PLANT INTELLIGENT DISTRIBUTED CONTROL Kwang Y. Lee, Robert M. Edwards The Pennsylvania State UniversityABSTRACT An NSF combined research and curriculum development project was conducted from 1992 to 1996.New graduate courses on 1) Power Plant Dynamics and Control and 2) Power Plant Intelligent DistributedControl were developed and presented. The capstone course Power Plant Intelligent Distributed Controlcovered advanced subjects and laboratory experiments
haveimplications for equity and accessibility to professional experience. Cartile et al. [8] explain: A primary motivation for integrating aspects of the cocurricular model into academic contexts such as capstone and engineering science course projects is to improve resource allocation, promote equity by increasing accessibility to this type of university experience thereby improving student motivation and success, recognize the value gained through engineering design experiential learning, and contribute to improving the quality of engineers graduating. (p. 8)Revelo [15] echoes this argument: the community aspect of some engineering co-curricularprograms is beneficial for minority students and creates an environment in
industry sponsored capstone from at his school and is the advisor of OU’s FSAE team.Dr. Andrea L’Afflitto Dr. L’Afflitto is an assitant professor at the Grado Department of Industrial and Systems engineering at Virginia Tech. His research is in lightweight robotics, with special emphasis on unmanned aerial systems (UAVs) and lightweight robotic arms. Dr. L’Afflitto served as an assistant professor at the School of Aerospace and Mechanical engineering at the University of Oklahoma from 2015 to 2019. He gained his Ph.D. degree in aerospace engineering from Georgia Tech, MS in mathematics from Virginia Tech, and MS and BS in aerospace engineering from the University of Napoli, Italy.Dr. Wei Sun, University of Oklahoma
. in civil engineering from VT. His research interests are in the areas of computer-supported research and learning systems, hydrol- ogy, engineering education, and international collaboration. He has led several interdisciplinary research and curriculum reform projects, funded by the National Science Foundation, and has participated in re- search and curriculum development projects with $4.5 million funding from external sources. He has been directing/co-directing an NSF/Research Experiences for Undergraduates (REU) Site on interdisciplinary water sciences and engineering at VT since 2007. This site has 66 alumni to date. Dr. Lohani collab- orated with his colleagues to implement a study abroad project (2007-12
support the development ofinterdisciplinary curricula at the undergraduate level and encourage faculty and studentengagement in interdisciplinary projects that could be later presented at the university, regional,national and international levels. SEMS-ROC demonstrates diversity in research backgroundsof the faculty and includes interdisciplinary interests of all three departments in the school.Research activities tend to cluster around several broad topic areas involving faculty from acrossSEMS disciplines as well as in some cases, from other Schools at the institution along with otherinstitutions around the country.One of the initiatives undertaken at SEMS-ROC to break down the departmental-level andschool-level silos and encourage to nurture
courseof study) (at least 8 units at the 300- or 400-level); 24 units of additional coursework in a liberalarts specialization; and at least 4 upper-level LSE courses: two on project-based learning, asenior project course, and a capstone. Students must also either study or intern abroad, orcomplete 2 additional upper-level courses in global studies.As of Fall 2014, 55 students have graduated with a B.A. in LSE at CPSU, and 55 additionalstudents are currently active in the program (48 as LAES majors and 7 currently on a one- ortwo-quarter individualized change of major agreement). (Two other students were denied theirdegree in Spring 2012, 3 students discontinued the program, and 1 student has completed all of
the classroom, and creates a working prototype thatcreates value for these customers. This real customer interaction fosters empathetic design whileproviding a more meaningful classroom experience as students are able to see directly theimpact their designs have in creating real value – value as it is defined, not by the student orinstructor, but by their customer. In the junior year, engineering students are typically engaged in much of theirdiscipline-specific engineering coursework. Thus, this thread of entrepreneurially mindedlearning is extended by means of discipline-specific applications through projects deployed inmultiple junior-level courses. Finally, the senior capstone experience brings together students’engineering
coursesannually, and prepare a summary as detailed in the Evaluating/Reporting Section for assessmentThe assessment methods for the construction management program employs a variety ofassessment methods to measure the students’ achievements of outcomes and graduates’achievements of objectives. The assessment methods described are a mixture of directmeasures, which are defines as quantified observations and ratings of student performance, andindirect measures, which are qualitative evaluations of student achievement, such as survey data.The assessment of the SLO Program outcomes is performed primarily with direct measures,including evaluations of specific samples of student work, targeted examination questions, andevaluations of capstone projects. These
culminates in a capstone design class that is taken in the last se-mester in school. Projects for this class are often solicited from communities and non-profitorganizations, and typically incorporate a service learning component.In reviewing the existing UWP CEE curriculum for this curriculum development project, itbecame clear that the curriculum had not changed significantly in over 20 years. To illustratethis, the curricula from the 1985 and 2005 catalogs are shown in Table 1. The course changesare very minor, and the total revisions made in 20 years to the UWP CEE curriculum consistof the following: replacing Route Layout with Construction Engineering; replacing TechnicalWriting with 3-9 more credits of Social Sciences and Humanities; changing
greatresponse to this need including accreditation requirements requiring students to work in acollaborative, team-oriented, capstone design project. Another avenue to expose students to thistype of work is undergraduate research. But using an existing building as a laboratory lendsitself more to analysis than it does to research. In other words, the students will be seeking datato answer questions posed to them by their instructor. The students will be studying questionsthat, in many cases, already have answers. This might lead to the thought that it will be of lesservalue to the student. Some studies, however, indicate that when students are working on a large,complex, hands-on project, to them it is research and they derive many of the same benefits
course. A typicalcurriculum then can become a series of seemingly unrelated courses (in the student’s mind) thatare often only connected in a senior capstone or design course. Even the typical senior capstonecourse usually limits the application aspects directly to the students’ major and to what isconsidered mainstream or directly related to the discipline. Ideally, however, students shouldhave ample opportunities to integrate and apply previous course content to new courses, areas,and problems. This should include interdisciplinary concepts and areas that may be considerednon-traditional for a particular major. The courses described in this paper were designed to takeadvantage of proven pedagogical methods to improve student learning.In the
in the wholearea of general education, the GER Program required each academic program to develop upperlevel intensive courses in several key areas that include critical thinking, writing, oralcommunication, and GER capstone courses. The Mechanical Engineering Program developed twocritical thinking intensive, two writing intensive, two oral communication intensive, and one GERcapstone courses. The Thermal Fluid Applications Laboratory was designated as an oralcommunication intensive course. The rationale was that the laboratory course provides betteropportunity and flexibility to incorporate a variety of activities related to the oral communicationbecause of three uninterrupted contact hours per each week. In addition, the task of