research includes in-depth case studies of three programs that seek to educateengineers as liberal learners: the engineering program at Harvey Mudd College (“HMC” Page 24.1374.2hereafter), a liberal arts college for engineers, scientists, and mathematicians; the PickerEngineering Program (“Picker” hereafter) at Smith College, the only ABET accreditedengineering program in a women’s liberal arts college; and the program of Design, Innovation,and Society (“DIS” hereafter) at Rensselaer Polytechnic Institute, a program that blendsengineering, arts, and critical social studies in design learning.Data for the dissertation research project was collected
regards to the Tampa Bay Interstate Express project andelements of equitable transportation. Her narrative provided concrete examples of elements fromthe ASCE Code of Ethics Canon 1 and Canon 8. Students’ written comments provided evidenceof effectiveness and impact. In a senior professional issues course, shorter clips from multiplemembers of the ASEE community panel were shown during class as part of both the ethicsmodule and sustainability module. However, it was unclear that the seniors gained any insightsor abilities from these activities. In an elective/graduate level course focused on site remediation,clips from Sydney Brown discussing Tonawanda Coke and from a community meetingdiscussing a proposed remedy at a Superfund site were
second year of the program, students enroll in STS ‘practicum’ courses that are designedto provide students with service-learning and field experiences focused on communityengagement. The STS program experience concludes with a capstone course where studentssynthesize their STS learning to pursue sustainability projects with global partners. See [1] formore information about key foothold ideas that students are introduced to in this program and theorganizing principles behind this program. The STS program, through its directors, instructors,and other support partners, embodies certain values, goals, practices, and knowledge bases thatlaid the foundation for our study and for the collaborative work we sought to accomplish in ourresearch
is required to tackle the engineering grand challenges that ourworld faces. They must complete a Capstone experience and utilize one or more of the followingopportunities provided by our institution: 1. Engage in undergraduate research experience in an approved team or individual research or design project with a university faculty member, focusing on one of the fourteen NAE grand challenges. 2. Complete an Entrepreneurial Initiative project approved by the instructor and the scholar’s grand challenges mentor, focusing on one of the grand challenges. 3. Complete an approved independent study project focusing on one of the four grand challenges’ themes (sustainability, security, health, and joy of living).As
Page 26.422.3introduce techniques for learning innovation piecemeal over multiple courses. Consequently,teaching the processes of creative problem solving and innovation becomes disjointed amongmultiple courses. Alternately, the content could be integrated into an existing course (e.g.,capstone/senior project). Unfortunately with this approach, the students will all be from thesame institution and potentially all from the same major. A multi-institution, multi-disciplinaryexperience is highly conducive to learning creativity and innovation. More details are availablein reference 9, but in particular, one camp student noted, “Having all of us work as groups fromdifferent schools made it so that we were able to solve the problems given to us
comprehend. This paper provides suggestions regarding the use of graphical design inspiredmethods for communicating these and similar ideas.As suggested in [4] a central theme can be used to "glue together" disparate topics as part of alarger puzzle in an advanced networking course. In a similar vein, as part of the Solution-BasedLearning (SBL) framework proposed by [5], students are encouraged to develop expandingfunctionality diagrams for their advanced capstone projects. Students provide a "back-of-the-napkin" sketch as part of the initial project proposal, depicting the proposed specifications whichconstitute the core and extension phases of their project. The development of theserepresentations require opportunity for practice across multiple
experience in the four sub-disciplines of Structures, Geotechnical, Hydrologyand Hydraulics, and Construction Management. A depth component in Structures is providedthrough required courses in Structural Analysis, Steel Design, and Reinforced Concrete Design.Additionally, there is a mandatory Capstone design course as well as a widely subscribedprogram of Independent Study projects. The three elective offerings are mostly in the area ofstructural or environmental engineering. Thermodynamics and Electrical Engineering provideengineering breadth outside the civil discipline.A key difference from other institutions in that all students have a full scholarship and are fullyexpected to graduate in four years. The summers are filled with military training
Francis (which could arguably be in anothercategory) all courses are taught by other departments. Such major requirements in anotherdepartment allow the EnvE department to increase enrollment in the program without needing tohire additional faculty, an efficiency for smaller PUIs. All programs require some sort of seniordesign capstone course per ABET requirements. Saint Francis does this through a two-coursesequence (ENVE 497 and 498) while Cal Poly Humboldt and UW-Platteville each have a onecourse capstone. Cal Poly Humboldt, however, offers an additional elective design projectcourse for seniors. At another institution this could be called an independent design project basedon the course description in the catalog.Regarding water management
AC 2011-350: GLOBAL COMPETENCE: ITS IMPORTANCE FOR ENGI-NEERS WORKING IN A GLOBAL ENVIRONMENTGregg M. Warnick, Brigham Young University Gregg M. Warnick is the External Relations and Intern Coordinator for the Mechanical Engineering de- partment in the Ira A. Fulton College of Engineering and Technology at BYU. He works directly with industry each year to recruit more than 30 funded Capstone projects and provides project management, team development, and coaching support to each of these project teams and faculty coaches. In ad- dition, he continues to focus on increasing international project opportunities for students and faculty. His research and teaching interests include globalization, project management
are grounded in John Dewey’s theory ofLearning by Doing and are defined by learning a concept through experiencing it or working directly withsaid concept [25]. Several projects evaluate the extent to which each experience prepares students. AtOhio State University [21], students who participated in an internship, a real-world project, or capstoneclasses were surveyed on their perceived improvement in various technical and non-technical categoriessuch as integrating multiple technologies, analyzing cost/benefit tradeoffs, leadership skills, teamwork,communication, and personal growth. This survey indicated that compared to capstone classes and real-world projects, internships resulted in the greatest improvement in all categories except for
how others haveapproached empathy in curricula, projects, and practice. We applied Zaki’s model of empathy —which triangulates “sharing,” “thinking about” and “caring about,” as the theoretical frameworkguiding the inquiry — and performed a systematic literature review. We sought answers to thefollowing research questions: 1) How have educators integrated empathy development intolearning activities in STEM?; 2) What pedagogical approaches have been shown to promoteempathy of students in STEM?; and 3) How have scholars approached the development ofdifferent kinds of empathy in classrooms? After querying Google Scholar, analyzing more than10,000 publications, and applying the inclusion/exclusion criteria, we identified 63 articles thatcentered
the Hokie Supervisor Spotlight Award in 2014, received the College of Engineering Graduate Student Mentor Award in 2018, and was inducted into the Virginia Tech Academy of Faculty Leadership in 2020. Dr. Matusovich has been a PI/Co-PI on 19 funded research projects including the NSF CAREER Award, with her share of funding being nearly $3 million. She has co-authored 2 book chapters, 34 journal publications, and more than 80 conference papers. She is recognized for her research and teaching, including Dean’s Awards for Outstanding New Faculty, Outstanding Teacher Award, and a Faculty Fellow. Dr. Matusovich has served the Educational Research and Methods (ERM) division of ASEE in many capacities over the past 10
Conferenceengineering school. Others incorporate STS material into traditional engineering courses, e.g., bymaking ethical or societal impact assessments part of a capstone project.”2 While theinterdisciplinary nature of STS makes it difficult to define, the foundational concepts draw onrelated fields such as philosophy, sociology, anthropology, history, cultural studies, and feministstudies. Bringing this interdisciplinary approach to educating engineering students allows themto approach their profession in ways that enhance their problem-solving skills and professionalcommunication skills. Given these benefits, the problem engineering programs face is how tointegrate these skills within the curriculum as opposed to outsourcing these course offerings toother
, and L. Benson, “Work in progress: How differences in student motivation characterize differences between engineering disciplines,” in Proceedings - Frontiers in Education Conference, FIE, 2012.[33] D. Shah, E. Kames, C. C. McKenzie, and B. Morkos, “Examining the differences in student motivation for industry projects and non-industry projects in senior capstone design,” in ASEE Annual Conference and Exposition, Conference Proceedings, 2019.[34] L. Bosman, N. Duval-Couetil, and K. Jarr, “Mentoring Engineering Educators with an Entrepreneurial Mindset – Focused SOTL Professional Development Experience.” ASEE Conferences, Minneapolis, MN.
Engineering, all first-year students follow a commoncurriculum, as part of a “Cornerstone to Capstone” curriculum design adopted in 2015. TheCornerstone course is taken in the students’ first year, and uses projects to emphasize the ways inwhich engineering can develop practical problem-solving applications. The course was carefullydesigned to help first-year students achieve success in the program regardless of the specificengineering major they select in their second year. The program has been continually reevaluatedand redesigned over the past several years, and the addition of the information literacy workshophas been one step in Cornerstone’s evolution. Prior to the workshops, instructors noted limiteduse of citations and academic references in
were, she said that she wanted to be a part of acompany that contributes to society, either as a developer or as a manager. When asked by the developers technical questions, she demonstrated that she could design andwrite simple code (design of a tic-tac-toe game, and how to determine whether some has won in a gameof tic-tac-toe). When asked to write Quicksort, she had trouble at first, but she eventually got it right.Had trouble remembering when it might be more appropriate to use a hash table than a binary searchtree. When asked what courses she took for electives, she said she took the database course, thenetworks course, the digital media course, the entrepreneurial course, and a capstone project where sheimplemented a
with graduate and undergraduate students) and directed large scale projects in engineering education research. He is the founding editor for the Journal of Pre- College Engineering Education, co-editor of the book ”Engineering in Pre-College Settings: Synthesizing Research, Policy, and Practices” and ”Technology Education Today: International Perspectives” and co- lead author of Hands-on Standards STEM in Action, an award winning internationally available set of learning modules for grades preK - 5th grade published by ETA hand2mind and LearningResourcesUK.Prof. Suzanne – Burgoyne, University of Missouri Suzanne Burgoyne, Ph.D., is a Curators’ Distinguished Teaching Professor of Theatre, and Director of MU’s Center
program.Prof. Stephen J. Krause, Arizona State University Stephen Krause is professor in the Materials Science Program in the Fulton School of Engineering at Arizona State University. He teaches in the areas of introductory materials engineering, polymers and composites, and capstone design. His research interests include evaluating conceptual knowledge, mis- conceptions and technologies to promote conceptual change. He has co-developed a Materials Concept Inventory and a Chemistry Concept Inventory for assessing conceptual knowledge and change for intro- ductory materials science and chemistry classes. He is currently conducting research on NSF projects in two areas. One is studying how strategies of engagement and
undergraduate capstone projects) and the project or thesis research required for a graduate SE degree.6) Graduate study in SE should focus on preparing candidates for service as engineering interdisciplinarians, who think always about “the end before the beginning”.7)) The overarching goal should be to promulgate systems thinking focused on the human - made world; that is, the world emerging from system design by humans.10Entirely too much engineering time and talent is being expended addressing operationaldeficiencies plaguing the human-made world. Operational problem mitigation will always beneeded, but the dramatic payoff for humankind lies in operational problem avoidance throughsystem thinking, as recommended for addressing pervasive
textstandards documents. Faculty may also need standards to respond to grant applications, completeresearch projects, or design course materials. The accreditation body for U.S. engineeringcolleges’ undergraduate degrees requires a capstone design course that incorporates use ofconstraints, such as standards, in the design process [3]. While the engineering college is themost likely to need standards documents due to the nature of their design and research projects,standards exist for a wide variety of topics, including documentation (e.g. ISO 21127), education(e.g. CAS standards), and engineering (e.g. ASME B18.2.8). Additional institutional users ofstandards include those who design, build, maintain, and operate the physical plant (facilities
Page 12.1335.6 subject areas; e.g., fluid mechanics exam results might be applied to an outcome relating to proficiency in hydraulic engineering. In general aggregate FE exam pass rates are not useful for outcomes assessment, with the possible exception of outcomes associated with preparation for professional practice.• Direct ratings from outside experts. Many programs invite members of industry or local professional societies to observe student performance, especially on capstone designs or independent study projects. Such evaluations are credible because they are free of faculty bias and are typically provided by outside experts who have a vested interest in seeing well-educated engineers
journal articles, and 76 conference papers. He has mentored 67 high school students, 38 high school teachers, 10 undergraduate summer interns, and seven undergraduate capstone-design teams. In addition, he has supervised three M.S. projects, two M.S. thesis, and two Ph.D. dissertations.Sang-Hoon Lee, Polytechnic University SANG-HOON LEE was born in Seoul, Korea. He received the B.S. degree in Mechanical Engineering from Sung Kyun Kwan University, Seoul, Korea, in 1996 and the M.S. degree in Mechanical Engineering from Polytechnic University, Brooklyn, NY, in 2002. From 1996 to 1997, he worked for Samsung Engineering Co., Ltd. in Korea. He is currently continuing research at Polytechnic
Page 23.84.12between the academic offerings of the College and its workforce development.The title of the project is “Manufacturing Product Development Associate Degree andWorkforce Development Project.” The objective of the project is to develop and enhance theprogram of study with innovative strategies. A portion of the funding will be used initially toincorporate sustainability concepts in an introductory course titled “Technology Orientation.”The course content development and delivery work has begun in real time.Subsequently, in-depth sustainability principles as discussed in this paper will be integrated intoan existing capstone course “Fundamentals of Products Development and Manufacture.” Thisapproach to integrate sustainability
basic and intermediate mechanical engineering courses. This may be obvious asa very large amount of credits are devoted to these courses. However, the relationships are alsoquite low in the last three semesters, particularly the advanced solid and thermo-fluid designcourses (no. 39 and 42). This is quite notable as these semesters are devoted to the design andcapstone courses which represent the culmination of study and the design outcomes. Not onlyshould these situations be further investigated, it is quite clear that the final GPA is hardly a goodindicator of satisfactory outcomes.This disassociation is also particularly pronounced with the capstone Senior Project (Figure 5)with the highest average correlation being with the Technical Writing
, where he coordinates an inter-disciplinary, college-wide capstone design program. He received a Ph.D. in from Washington State University, MS from Dartmouth College, and BS from University of Massachusetts. His research interests include engine testing, alternative fuel combustion, design pedagogy, and assessment of professional skills in project environments.Andrea Bill, University of Wisconsin ANDREA BILL is a graduate student at the University of Wisconsin-Madison pursuing a Ph.D. in Civil Engineering, with an emphasis in traffic engineering and safety. Her research incorporates aspects from each of these disciplines, with a specific emphasis on discovering new and innovative ways to
to provide students with the technicalbackground required for successful careers in industry and business. The coursework within eachprogram offers experiences in real-world situations that enhance the preparation of graduates.Results from this study have already been incorporated into courses that include: ProblemAnalysis and Design; Machine Tool; Computer-Aided Design; Project Management; QualityAssurance; Engineering Economics; Environmental Engineering; Engineering Ethics, Contracts,and Patents; Industrial Safety Engineering; Computing Systems; Senior Projects; SeniorEngineering Capstone; Senior Capstone: Production Laboratory; and Technology in WorldCivilization; along with the Industrial Internship Program. In addition to textbook
Conference & Exposition Copyright 2001, American Society for Engineering Education KEY NAME CREDITS EE443 Applied Digital Signal Processing 3 AD101 Fine Arts 3 ENGL10 Basic Composition 3 CAPS390 Capstone Seminar 3 ENGL20 Technical Writing for Comp. Sci. 1 CHEM10 General Chemistry I 4 ENGLC1 Composition and Rhetoric I 3 CPE210 Digital Design I 3 ENGR11 Introduction to Engineering I 3 CPE286 Introduction to Microprocessors 3 ENGR30
support in many universities forinterdisciplinary, cross-school collaboration. Northwestern University switched to this approachin a major reform of its undergraduate engineering curriculum: as part of its “Engineering First”program6, it required freshman to take a new course called Engineering Design andCommunication (EDC).In this course, taught over two quarters, approximately 380 students in 24 sections study thedesign process along with the communication process, while working on conceptual designprojects for real clients 7,8,9. In the first quarter, teams design a variety of World Wide Webprojects for local clients at the university or in the community. In the second quarter, studentswork on projects from a variety of disciplines, using the
Aircraft Systems Engineering is introduced as anillustration of content and pedagogy addressing lifecycle topics. Based upon several years ofexperience of participation in these programs and in offering curriculum, the authors put forwardseven observations to stimulate further dialog and progress on this topic.IntroductionUndergraduate subjects on aircraft design have been taught for many years in aeronautical oraerospace engineering departments, often as a capstone subject. A key pedagogical objective isteaching tradeoffs among disciplinary needs to meet system-level requirements. The focus isusually on preliminary design or prototyping. Aircraft, however, are complex systemscomprising many subsystems, and usually represent only one element in an
skills to compete in the globalbusiness environment when they meet with international business leaders on their travels abroad.They interact with America’s best entrepreneurs to learn business strategies. They design,implement, and lead a business project that aims to be the best of its kind in the world. They aretreated to guest lectures in the classroom and a year-long series of business workshops held bysome of the Northwest’s most successful business leaders. See Appendix 2 for descriptions ofthe three courses in the E-Scholars program.E-Scholars travel both domestically and abroad to meet business leaders across the globe. Allstudents travel to New York, where they meet with companies, consultants, non-profits andgovernment agencies, to