practices that promote conceptual understanding in mathematics and teacher quality. © American Society for Engineering Education, 2022 Powered by www.slayte.com VEX V5 Workcell: Industrial Robotic Arm Model for STEM EducationIntroductionThe use of robotics in education has become an interdisciplinary, hands-on, authentic learningexperience for students of all ages. Robots not only are interesting and engaging to students, butthey also provide a physical representation of abstract concepts such as coding. With technologycontinuously evolving and programming becoming a desirable skill, secondary educationalinstitutions are wanting to prepare their students for the workforce by
://www.verywellmind.com/what-is-the-zone-of-proximal- development-2796034. [Accessed Oct. 15, 2022].[41] S.D. Sheppard, “Mechanical dissection: An experience in how things work,” in Proceedings of the Engineering Education Conference: Curriculum Innovation & Integration, pp. 1–8, 1992.[42] J. Lamancusa, M. Torres, and V. Kumar, “Learning engineering by product dissection,” in ASEE Annual Conference Proceedings: The American Society for Engineering Education, 1996.[43] M. L. Calderon, “Application of reverse engineering activities in the teaching of engineering design,” in International Design Conference. Croatia: Design Education, pp. 1249–1258, 2010.[44] C. Lauff, D. Kotys-Schwartz, and M. Rentschler, “Design
materials and teaching methods.1 While thesematerials and methods are evidence-based and shown to positively affect student learningand educational outcomes, they have been slow to be adopted or disseminated.In an effort to improve curriculum sharing, there is currently a two-part study underway forthe development and dissemination of a web based repository containing curriculummaterials and best practices. These two efforts are in place to understand, facilitate, andencourage sharing of materials and best practices between educators. The first is thedevelopment and refinement of the web-based repository for curriculum materials; thesecond is a study on the curricular decision-making processes of transportation engineeringeducators.The overarching
accreditation visit only viewed a small snapshot of the program. In Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Educationretrospect, of course, this accreditation method created a number of problems. First, programquality was only an immediate concern in the year prior to an accreditation visit, tending to slowimprovements down to the accreditation cycle, usually every six years. Second, the accreditationmethod discouraged integrating program topics1. And third, this method paid no attention towhat the students needed or what the employers or any other constituents wanted in technologygraduates.While academia changes
local companies. The intent of thispaper is to describe the benefits and difficulties associated with this methodology. While specificclasses in this experience are typical of an industrial engineering curriculum, the lessons learnedand benefits could translate to other disciplines.Introduction The use of Project Based Learning (PBL) has contributed to Cal Poly’s reputation of“learn by doing” for many years. As part of the Industrial Engineering (IE) curriculum at CalPoly, students work in small groups with local companies on facilities related projects. Theunique aspect of these projects is that students from a senior class and students from asophomore class are partnered together to work on these industry based projects. These
from otherengineering disciplines. The course is prerequisite to our capstone project course on softwareengineering. The architecture course does not cover general software engineering topics (such astesting, estimation, and management), but it does provide students in the capstone course withfoundation skills for software design and development. This type of architecture and designcourse should be an appropriate second level course for engineers with a minor emphasis ofsoftware.IntroductionThis paper addresses the underlying issue of where and how and why architecture and design fitinto the curriculum of courses for majors in computing and for service computing courses, whichare often taken by engineering and science majors. Historically, the
technologies in academia and theiradoption in industry, which in turn drives the need for these new skills on a larger-scale basis.Really, this means a need for broader scale education of engineers in masse vs. specializedtraining of a few graduate students. A CBE approach can be applied where competencies aredefined (1) to create a new program, (2) for an existing curriculum without significant changes,or (3) to drive curricular redesign where gaps are identified and learning outcomes are re-writtento align with published competency frameworks. A CBE initiative can be defined for atraditional course-based graduation model where students need to complete a certain number andtype of courses and credit hours, or CBE can transform the curriculum and
term memory after first beingproperly integrated, by working memory, into a mental structure that represents the schema ofthe material. However, the faculty of working memory has limits and this, unfortunately, canhinder learning, especially when many extraneous facts compete to challenge the cognitivelearning loads (which, in the case of programming, encompass text editing, operating systemsand compilers). CLT posits that there are three basic types of cognitive loads placed on alearner: • “Intrinsic cognitive load” was first described in 1991 [2] as the essential material to be learned. Accordingly, all instruction has an inherent difficulty associated with it and Proceedings of the 2009 American Society for Engineering
earn a Master of Science in Engineering in Environmental and Water Resources Engineering and a Ph.D. in Civil Engineering from The University of Texas at Austin, while working with the Austin chapter of Engineers Without Borders. American c Society for Engineering Education, 2021 Paper ID #33350 Her love of learning was first fostered by an unusual elementary school education that was deeply inter- disciplinary with a substantial arts curriculum, which has informed all her subsequent thinking about the potential for education to transcend conventional models
in, they soon discover that the field is vast, asare available resources. This paper offers suggestions, from the perspective of what studentsreally need to know as they begin their professional careers, for technical instructors new to thefield of ethics, focusing on the following: resources, approaches, and case methodology.ContextWhile many colleges and universities offer ethics classes through specialized departments, thispaper advocates an “ethics across the curriculum” (EAC) approach. Similar to the writing acrossthe curriculum movement of years past, EAC proponents integrate the study of ethics intocourses in the major, rather than farming it out to a philosophy department. As Cruz and Frey,University of Puerto Rico at Mayaguez, note
while it has become increasingly complex for those who produce and maintain technology. It is also pervasive and an integral part of growing up and being educated. As such the need for programs in technological literacy is diminished 5. The use of information technology in the workplace and the need to prepare students for careers that use information technology has long been the cornerstone of policies for the use of TL in raising productivity. This seems indisputable, but the market is a much stronger driver than policy in achieving this. Where policy can help is in reducing the digital divide that leave students from low income backgrounds stranded in low income jobs.5 It is also helpful in
students in exploring and understanding engineering content in K- 12 education through professional development activities, and • Serve as a national model for other undergraduate institutions in integrating engineering content in K-12 education.This initiative to integrate engineering content in the middle school curriculum and train teachersregarding engineering concepts has been extremely successful as evidenced by participantfeedback [4-5].Clinic Modules: Four engineering clinics are included in the workshop. These clinicsrepresented the four engineering disciplines at Rowan University namely Chemical, Civil andEnvironmental, Mechanical and Electrical and Computer Engineering. The Bridge moduleallows participants construct
has held these dual responsibilities since 2011. Jeff is currently leading a campus-wide strategic planning process focused on creating more transforma- tive educational experiences for lifelong learners. Jeff first joined UW-Madison’s faculty in 1989 as an assistant professor in the Department of Civil and Environmental Engineering, where he co-founded the Construction Engineering and Management Pro- gram and developed the construction curriculum. In addition, he has authored and co-authored papers on the subject of educating civil engineers. His body of work demonstrates his commitment to using emerging technology in the classroom to prepare the next generation of engineers and other students for the
Paper ID #29862Engineering as a challenging vocation: How students align personalvalues to the dominant engineering discourseDr. Joel Alejandro Mejia, University of San Diego Dr. Joel Alejandro (Alex) Mejia is an assistant professor in the Department of Integrated Engineering at the University of San Diego. His research has contributed to the integration of critical theoretical frame- works and Chicano Cultural Studies to investigate and analyze existing deficit models in engineering education. Dr. Mejia’s work also examines how asset-based models impact the validation and recognition of students and communities of color
; Pedagogical strategies for first-year learning objectives, ABET accreditation Assessment requirements, assessment; Curriculum Design, reform, evaluation, and classification of first-year engineering curriculum; Integrated experiential learning curricula & global/societal problems including service, Experiential research, and entrepreneurship for the first year; Projects Project-based, activity-based, and hands-on learning in the first year; Design Teaching and practicing the engineering design process in the first year; Creative, open-ended problem-solving courses and/or related teaching activities in first
are knowledgeable about or comfortableteaching—into an already-packed elementary curriculum can present challenges. This paper willdraw upon the experiences of educators at the Museum of Science, Boston who have beensupporting the implementation of elementary engineering for over seven years. Specifically itwill address how the Museum of Science has engaged in three kinds of partnerships fostered byEiE that have enabled the development and dissemination of the program—partnershipsassociated with (1) development and testing of resources, (2) building teacher capacity, and (3)fostering national dissemination and advocacy. It briefly describes the goals of thesepartnerships, the roles that partners can play, sets forth some characteristics of
AC 2011-576: SPECIAL SESSION: EDUCATIONAL METHODS AND TOOLSTO ENCOURAGE CONCEPTUAL LEARNINGMilo Koretsky, Oregon State University Milo Koretsky is an Associate Professor of Chemical Engineering at Oregon State University. He cur- rently has research activity in areas related to thin film materials processing and engineering education. He is interested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Dr. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.Ronald L. Miller, Colorado School of Mines Dr. Ronald L. Miller is
ethics typical of engineering societies. In ASC 1000, a presentation onacademic integrity was given to all students. Later that same day, students participated in amock internship hiring activity where their personal opinions and views on ethical behaviors,specifically engineering students actions towards obtaining an internship, were explored,discussed and challenged by the instructors of both classes. After the in-class activity, where thestudents were broken into groups in order to act as a hiring team for an engineering firm,students were given one week to submit an individual essay. The essay asked them to reflect ontheir initial opinions about the four hypothetical student resumes. The students were also askedto discuss their group’s
programs have incorporated practice-orientedexperiences into the curriculum by the addition of multiple laboratory experiences, designcourses4, and project classes. Introduction to Industrial Automation is an important course inthe fourth semester of both curriculums, intended to be a blend of these three types of practice-oriented courses. It serves as an important “building-block” in both programs, helping build afoundation for higher level integrated design courses.To help support the project-oriented nature of the course, each individual student is assigned ahardware kit containing an Allen-Bradley Programmable Logic Controller (PLC) and an AtmelAVR microcontroller. The list of assigned sensors, switches, and other input/output (I/O)devices
Paper ID #30651Evaluating the impacts of community service on student learning outcomesDr. Jennifer Lyn Benning, Virginia Tech Dr. Jennifer Benning is an Instructor in the Department of Engineering Education at Virginia Tech. She was formerly an Associate Professor in the Civil and Environmental Engineering Department at the South Dakota School of Mines and Technology, where she was also the creator and Program Coordinator of a Sustainable Engineering Minor Degree Program. She also co-developed and lead the EPICS program there. Her main research expertise is in contaminant transport, with foci on transport processes in
information system projects' unique characteristics and cautions to take whenusing available techniques. Such inclusion will help to place engineering students in a morecompetitive position for their future career goals.Intr oductionThere has been a continued integration of information systems into all fields of engineering,especially industrial engineering. Several academic departments have changed their names toreflect this integration and others have started courses that integrate information systems intotheir traditional areas of teaching and research. Information systems (IS) are powerful andvaluable tools that support communication and decision making in an organization1. They useinformation technology (hardware and software) to capture
. “Incorporating Diversity and International Awareness into an Introduction to Engineering Technology Seminar Course.” Proceedings, 2008 ASEE Annual Conference, June 2008, Pittsburgh, PA. (CD-ROM)13. Bowen, D., Ganjeizadah, F., Motavalli, S., and Zong, H. “Development of a new M.S. Degree in Engineering Management.” Proceedings, 2005 ASEE Annual Conference, June 2005, Portland,, OR. (CD-ROM).14. Walsh, D. and Lanny, G. “The Development of a Biomedical Engineering Degree Program at a Primarily Undergraduate Institution.” Proceedings, 2004 ASEE Annual Conference, June 2004, Salt Lake City, UT. (CD- ROM).15. Lewis, V.W., and Kauffmann, P. “Enhancement of a Civil Engineering Technology Curriculum by the Addition of a Minor
University. He is an elected member to the Board of Directors of the Association of Environmental Engineering and Science Professors (AEESP) and is currently the AEESP President. He also serves on EPA’s Science Advisory Board Environmental Engineering Committee. Dr. Mihelcic co-led several sustainability education initiatives at Michigan Tech including development of a new “Graduate Certificate in Sustainability” and an “Undergraduate Certificate in International Sustainable Development Engineering”. He is the lead author of one textbook titled Fundamentals of Environmental Engineering (John Wiley) (which has been translated into Spanish) and is the lead author for two additional books to be published
. AcknowledgmentsThe authors would like to express their appreciation to the Technology Reinvestment Project, theNational Science Foundation, and the Engineering Academy of Southern New England for thefinancial support provided in support of this project. References1. Sisson, R.D., Jr., N.M. Acuna, A.R. George, E. Park, P. Ray, J. Williams, and K. Bankwitz. "Integrating theProduct Realization Process in the Engineering Curriculum - Challenges and Opportunities.” ManufacturingEducation for the 21st Century: Volume III, Preparing World Class Manufacturing Professionals. Dearborn:Society of Manufacturing Engineers, 1996, pp.201-204.2. Magleby, Spencer P., Robert H. Todd, and Carl D. Sorensen. “Fostering an
oxidative stress in in vitro models of Parkinson’s disease. During her prior graduate and postdoctoral work in neurodegeneration, April mentored several undergraduate, graduate, and clinical researchers and developed new methods for imaging and tracking mitochondria from living zebrafish neurons. In her work for the EERC and Pitt-CIRTL, April Dukes collaborates on educational research projects and facilitates professional development (PD) on instructional and mentoring best practices for current and future STEM faculty. As an adjunct instructor in the Department of Neuroscience at the Univer- sity of Pittsburgh since 2009 and an instructor for CIRTL Network and Pitt-CIRTL local programming since 2016, April is
controls.Dr. Bowa George Tucker, University of Massachusetts, Lowell Bowa G. Tucker has a doctorate in education from the University of Massachusetts, Boston. His disser- tation research, ”Uncovering the Civic Dimensions of Service-Learning in Higher Education,” focused on how faculty members integrate civic learning into their service-learning courses. Currently, he is a Research Fellow in the College of Engineering working on two National Science Foundation grants at UMass-Lowell (Engineering for the Common Good, and Engineering Faculty Engagement in Learning through Service). He is also an Adjunct Instructor in the Department of Political Science
and the Global EngineerIt is nearly universally acknowledged that the world is becoming increasinglyinterconnected, interdependent and integrated, and that technology is accelerating at anescalating pace. The interdependence of financial systems and world economies turned a“made-in-America” banking problem into a global economic crisis of historicproportions. Ease of travel allowed avian flu to spread from an isolated remote village inChina to cities around the world, and created a health crisis that brought Toronto to a nearstandstill. Global warming, global political unrest, global epidemics, global poverty –the challenges that future generations of engineers will be asked to address are global innature. Charles Vest31 urged universities to
jamboards which we could view once the group was back together. e) FlipGrid – Flipgrid is a short educational video making platform. Flipgrid was used forgetting to know your videos, and for students to demonstrate physics experiments anddemonstrations. Flipgird integrates with canvas and participants could submit an assignmentthrough the platform. Students created videos about newton’s laws of motion, getting to know you,and more. This program works on any device and moderators can assign specific video lengths. • https://info.flipgrid.com/ f) Physics Simulations – We used two online physics simulations programs where studentscould change parameters and test ideas since we could not meet in person. • https
the existing toolsand techniques used for systems thinking in educational settings. Bloom et al. developed ataxonomy that classifies the outcomes of students’ learning process (i.e. test items).4 Andersonand Krathwohl revised Bloom’s taxonomy by suggesting more learning process objectives.5Along the same vein, Hopper and Stave developed an assessment framework for systems thinkingintervention in educational settings based on a conceptual systems thinking taxonomy andBloom’s et al. taxonomy of educational objectives.6, 7 The framework is designed for K-12classrooms with a primary emphasis on teachers teaching systems thinking in the classroom.Frank supports the inclusion of systems thinking in curriculum stating “the capacity forengineering
seminars,internships, learning communities, and capstone projects compared to only two anecdotalreferences to study aboard.This paper postulates that ABET’s Student Outcome 3(h) “the broad education necessary tounderstand the impact of engineering solutions in a global, economic, environmental, andsocietal context” and Student Outcome 3(i) "a recognition of the need for, and an ability toengage in lifelong learning" are not mutually exclusive but rather interdependent and mutualisticin nature. Outcomes by their very nature describes what students should know or can do by thetime of graduation. The implication is therefore, that lifelong learning and a global perspectivemust originate within the 4-year engineering curriculum/program. The