fundamental concepts of control systems and automation. Several studieshave shown the benefits of incorporating mechatronics into the MET curriculum. [1-3] .However, due to the complexity of mechatronic systems, students can struggle to grasp theconcepts through theoretical lectures and traditional laboratory experiments.The Internet of Things (IoT) has revolutionized the field of mechatronics by enablingconnectivity between various mechanical and electronic devices. The integration of IoT inmechatronics systems has led to enhanced automation and control, improved monitoring andmaintenance, and increased efficiency and productivity. The application of IoT in mechatronicshas become an active research area in recent years, with numerous studies
is Elementary: Engineering and Technology Lessons for Children (EiE) wasdesigned to meet the need for an appropriate and engaging engineering curriculum, whileaddressing the challenge of adding a new subject to the elementary school curriculum. Bycreating and testing lessons that are closely integrated with elementary science topics, EiEstrengthens the science program while introducing key engineering concepts and fosteringpositive attitudes towards engineers in ways that include girls and boys from a wide variety ofethnic and cultural backgrounds. EiE also seeks to expand children’s images of engineering, andbroaden their interests and expectations for the future.The EiE project is unique in a few ways—it focuses on engineering and it
Analysis Software Utilized:Due to the popularity of the Finite Element Method, many FEA software packages are availableto Purdue University undergraduate students including ANSYS, COSMOS/M, COSMOSDesignSTAR, Pro/Mechanica, etc.. All of the solid models in this paper were analyzed usingCOSMOS DesignSTAR™. For this paper, an example of COSMOS DesignSTAR™ 4 FEAanalysis is shown in Figure 18 for the 5 kpsi part shown in Figure 17 above. It is informative tonote the stress level on the top surface is shown in red, which matches the 5 kpsi goal for thisanalysis.Figure 18: COSMOS DesignSTAR™ FEA study showing that Solver™ analysis produced geometry that has 5 kpsi stress level on top surface as expected.Conclusions:The author’s previously
projects that ask students to tackleimportant complex and inter-related real-world sustainability issues more fully engage thestudents. As a result, these students are more motivated to participate in a deep learningexperience and devote additional time to the project. These conditions create a more satisfying Page 25.1399.4overall learning experience.42 Traditional senior capstone design projectsThe senior engineering and computer science students in this program all complete a requiredtwo-semester senior capstone design class that forms an integral component of effectiveengineering and sustainability education. Each project team is organized as
development and deployment of a new, integrative, first-yearbiomedical engineering curriculum focused on studio-based learning of engineering design.Developed by an interdisciplinary team of faculty and staff, this curriculum is team-taught(meaning, multiple faculty are in the studio at all times) by biomedical engineers, mechanicalengineers who specialize in design, a professor of English, a computer scientist, and amathematician. The foundation of the curriculum is the engineering design studio, which meetsfour hours per day, four days per week. The design studio has a different general theme for eachacademic quarter – for example, the Fall quarter theme is ‘Play for All,’ focusing on children’splay environments, toys, and games that are
mission. The Engineering Physics curriculum at Murray State University was recently accredited by EAC/ABET as an engineering program. In response to recommendations from the program evaluators, efforts have been made to successfully integrate engineering design experiences throughout the four-year curriculum. Even those courses typically considered basic science or engineering science now contain problems, projects, and assignments which deal with elements of engineering design. As students acquire knowledge and skills in basic coursework, they are asked to incorporate engineering standards and realistic design considerations in increasingly advanced assignments. This paper will describe the Engineering Physics
Paper ID #39735Using a Framework to Define Ways of Integrating Ethics across theCurriculum in EngineeringDr. Laura Bottomley, North Carolina State University at RaleighCynthia BauerleLisette Esmeralda Torres-GeraldCarrie Hall ©American Society for Engineering Education, 2023 Using a Framework to Define Ways of Integrating Ethics across the Curriculum in EngineeringEthics are an important part of engineering and computer science education for many reasons,ABET accreditation being only one. Historically, engineering ethics have been taught as a part ofa specific class, often outside of the engineering
complexity and present more than one functionalconfigurations.An effort has been made to integrate research on deployable structure in general, andtensegrity structures in particular into the curriculum of architectural engineering withoutany significant change in the course offerings. The manner in which this research hasbeen integrated in the curriculum and the educational objectives and benefits in doing thisare described in the following sections.Integration of new research in the curriculumAt the Architectural Engineering program of the University of Texas at Austin, the courseAdvanced CAD Systems is offered as an upper division elective for undergraduatestudents, and as an architectural engineering/construction management graduate course.The
Session 2478 Curriculum Development for the Integration of Marine Design in a First-Year Engineering Graphics Course Eric W. Hansberry Associate Professor, Northeastern University, Lynn Hansberry Mayo, M.S. CCC/SLPAbstractFirst-year students at the School of Engineering Technology and the Lowell Institute atNortheastern University have been exposed to the marine field. This paper will discuss how tointegrate marine topics into an introductory design course. These
, particularly in the environmental area.The millions Al Rich hoped for never emerged, although the solar heater on our roof works justfine. From his case, students learn that good intentions are not enough--you have to build anetwork of collaborators that agree on fundamental principles. For example, one of our casesinvolves a global network that produced a completely compostable furniture fabric using a cleanmanufacturing process. Creating and maintaining such networks is part of the act of successfulinvention. It is also a necessary part of curriculum change.I have taken cases like the solar heater and the fabric and used them in most of my TCC courses,to show engineering students how design decisions can and must involve an ethical component.The
(an ME course) that was dropped from the curriculum. b. Systems Interfacing – one of the most fundamental long term trends is the higher level of integration used in design. There is a major increase in the use of specialized integrated circuits and design at the system or subsystem level. c. Digital Signal Processing – the dominance of digital signals and the need to process such signals make this course essential. This course will precede the traditional continuous-time signal processing course. d. Electromagnetic (EM) Waves – with the advent of wireless technology, the critical importance of electromagnetic compatibility (EMC), and
. Page 12.977.2As a result of concerns related to some of these new technologies, safety and health issues nowplay a key role in many fields of Engineering and Engineering Technology. This is especiallytrue in the Biomedical Engineering field whose growth rate has outpaced other traditionalengineering disciplines in recent years 2. In the health care industry, patient safety and healthissues lead to many injuries and death with resulting litigation every year. Unfortunately, eventhough the importance of health and safety considerations is well established for many fields ofengineering, it is not taught as an integral part of most engineering or engineering technologycurricula, and is not tested as part of the Fundamentals of Engineering (FE) or
must be included in the undergraduate engineeringcurriculum. Such concepts include an understanding of the interdependence of major systems,an understanding of the needs and rights of future generations, an understanding of the value ofdiversity, an appreciation of the need for precaution, and an awareness of the Earth’s carryingcapacity3. The undergraduate engineering curriculum of Rowan University’s College ofEngineering has been molded to introduce undergraduate students to these issues and to providean introduction to sustainable engineering through interdisciplinary project-based learning.Rowan University’s Engineering Clinic SequenceThe signature component of Rowan University’s College of Engineering curriculum is itsEngineering Clinic
AC 2012-4565: CHALLENGES FOR INTEGRATION OF SUSTAINABIL-ITY INTO ENGINEERING EDUCATIONDr. Qiong Zhang, University of South Florida Qiong Zhang is an Assistant Professor in civil and environmental engineering at the University of South Florida (USF). She received a Ph.D. in environmental engineering from Michigan Tech. Prior to joining the faculty at USF in 2009, she served as the Operations Manager of the Sustainable Future Institute at Michigan Tech.Dr. Linda Vanasupa, California Polytechnic State UniversityDr. James R. Mihelcic, University of South Florida James R. Mihelcic is a professor of civil and environmental engineering and state of Florida 21st Century World Class Scholar at the University of South Florida
Session 2213 Integration of a Manufacturing Experience into the Undergraduate Curriculum in Polymer Engineering Robert M. Briber, David I. Bigio / James Lochary University of Maryland at College Park/ Adell Plastics, Inc.Abstract A new course titled “Manufacturing with Polymers” has been developed in the EngineeringSchool at the University of Maryland which utilizes local industry as a resource for education by tightlyintegrating the normal classroom experience with manufacturing at local industrial facilities usingproduction scale equipment. This course, as
Integration of a Local Riverbank Failure Problem in CivilEngineering Undergraduate CurriculumDr. Suguang Xiao, P.E., Clarkson UniversityMr. Robert Schneider, Clarkson UniversityMr. Erik Backus, P.E., LEED AP, Clarkson UniversityAbstractOne of the primary goals of undergraduate educators is to provide engineering students with engagingproblems to build skills needed for their careers. Project based coursework puts responsibility on thestudent to initiate self-directed learning and opportunity to apply fundamentals. Recently, with thesolicitation of the local municipality, a team of Clarkson University faculty and students volunteered inassisting a homeowner to rectify a slope failure along the St. Regis River in Brasher Falls, NY
January term.iii TheProvost’s recent J-term initiative has seen a growth in travel courses from 8 in 2014 to 18 in2015 with over a third more students traveling 96>159. URI’s flagship five-year dual Bachelordegree International Engineering Programiv has for over two decades enrolled 25% of itsundergraduate engineering population and sent them abroad for an entire year. But for the other Page 19.20.275%, short-term opportunities are very welcome,v and in a curriculum which integrates STEM &Humanities educationvi a short-term excursion abroad plays a slightly different role since it is thefirst step in a gradually more intensive
the 2002 Annual ASEE Conference and Exhibition, June, 2002.3. S. H. Cobb, J. Crofton, S. R. Hickman, W. E. Maddox, and T. D. Thiede, “Design Considerations in Engineering Physics: Integrating Design Across the Curriculum,” Proceedings of the 2000 Annual ASEE Conference and Exhibition, June, 2000.4. “Engineering Education by the Numbers”, ASEE Profiles of Engineering and Engineering Technology Colleges, 2001 Edition (See www.asee.org)5. W. D. St. John, “A Laboratory Course in Sensors”, Proceedings of the 2001 Annual ASEE Conference and Exhibition, June, 2001. Page 8.322.146. H. Sumali, “An Instrumentation and Data Acquisition Course
Session 1449 Integrating Instruction in Geographic Information Systems with a Civil Engineering Technology Curriculum William H. Sprinsky Pennsylvania College of TechnologyAbstractAt the Pennsylvania College of Technology, we feel that the tools of project design andmanagement, such as Geographic Information Systems (GIS), should be taught along with themore usual subjects in a Civil Engineering Technology curriculum. Such a tool is an applicationof some very basic concepts to design and construction. Students learn the use and constructionof coordinated
Paper ID #36747The integration of entrepreneurship in a school-ageengineering curriculum (Resource Exchange)Karen Plaster Karen Plaster is a Professor of Practice in the LeBron James Family Foundation School of Education at the University of Akron. She has a B.S. in Industrial & Systems Engineering from The Ohio State University, an M.S. in Adolescent and Young Adult Education: Mathematics Licensure from The University of Akron, and is currently a Ph.D. student at Kent State University. Her research interests include STEM education, curriculum integration of engineering and entrepreneurship, afterschool
Paper ID #7318Developing a cross-disciplinary curriculum for the integration of engineeringand design in elementary educationMs. Emily Ann Marasco, Schulich School of Engineering, University of Calgary Emily Marasco is a graduate student in electrical engineering at the Schulich School of Engineering, Calgary, Canada. She received an undergraduate degree in computer engineering and a minor in music from the University of Calgary in 2011. Marasco is a registed Engineer-In-Training with the Association of Professional Engineers and Geoscientists of Alberta, and is a member of both ASEE and IEEE.Prof. Laleh Behjat, University of
? Are they ableto make the connection between knowledge and curriculum in an organic way?In 2019, faculty in the Biology and Biomedical Engineering Department at Rose-Hulman Instituteof Technology (RHIT) collaborated to find answers to some of the aforementioned questions andto improve the outcomes of the biomedical engineering program. The main outcome wasimplementing an extensive curricular revision that was designed to scaffold and integrate topicsbetween courses. By threading topics between (and within) academic terms, faculty can reinforcefundamental concepts and minimize the compartmentalization that challenges many students asthey progress through an engineering curriculum [4].This paper focuses on the impact of scaffolding and
Session 2532 Innovations in Curriculum Integration, Delivery, and Assessment For Engineering and Technology Education Saleh M. Sbenaty, Ph.D. Middle Tennessee State UniversityAbstractThe current paper outlines an innovative approach to curriculum integration, development, anddelivery that improve engineering and technology education and revive student interests inpursuing these programs. This is one of the objectives of the three-year NSF-funded grant titled“The South-East Advanced Technological Education Consortium, SEATEC.” The consortium isa collaborative effort of
©American Society for Engineering Education, 2023 Implementing Integrated Project-Based Learning Outcomes in a 21st Century Environmental Engineering CurriculumAbstractEngineering education research and accreditation criteria have for some time emphasized that toadequately prepare engineers to meet 21st century challenges, programs need to move toward anapproach that integrates professional knowledge, skills, and real-world experiences throughoutthe curriculum [1], [2], [3]. An integrated approach allows students to draw connections betweendifferent disciplinary content, develop professional skills through practice, and relate theiremerging engineering competencies to the problems and communities they care about [4], [5
Professional Engineer (Alaska), Project Management Professional, LEED Accredited Professional in Building Design and Construction, and Envision Sustainability Professional. His research interests include engineering education; infrastructure; sustainable design; and clean, renewable energy. ©American Society for Engineering Education, 2024Integrating Professional Credentialing in Sustainability into Civil Engineering Curriculum: A Case StudyAbstractThe concept of sustainable development rose to prominence with the publication of OurCommon Future as an output of the United Nations’ Brundtland Commission. Recently,increased emphasis on the impacts of climate change and globalization has
Session 2632 Experiences in the Integration of Digital Signal and Image Processing Research into the Undergraduate Electrical Engineering Curriculum* Richard R. Schultz University of North Dakota rschultz@nyquist.ee.und.nodak.edu Abstract Through the integration of research into the undergraduate electrical and computer engineeringcurriculum, students are invited to think abstractly and to stimulate their innate creativity. This paperdiscusses some of the successes and challenges
) introduce young students to a range ofengineering careers. Co-designed with science education faculty, the E2 curriculum aims toprovide fun and engaging content with easy integration into formal and informal science learning(Colston, Thomas, Ley, Ivey, & Utley, 2017). An activity guide for facilitators assists in theintegration of the video lessons (exploration and explanation with the engineer) with hands-onclassroom activities and follow-up challenge activities (engagement and elaboration with ateacher or facilitator). The instructional videos, materials list, and activity guide can be found at:http://www.engineeringiseverywhere.com/. E2 video lessons and hands-on activities aim to increase interest and excitement aboutengineering
member and a registered Professional Engineer of Ontario. He taught at the University of Western Ontario and is now Assistant Professor at State University of New York at Oswego, Department of Physics. Page 14.772.1© American Society for Engineering Education, 2009 Integration of an Innovative Engineering Program in a SUNY CollegeAbstract:The development of a new engineering program in an existing and well-established institutionpresents several challenges, including the creation of a sound curriculum that satisfies some ofthe local and national engineering workforce needs. However, besides curricular issues, the
AC 2009-1444: MATHEMATICS AND PHYSICS FACULTY CONCEPTIONS OFTEACHING IN A FIRST-YEAR INTEGRATED PROJECT-BASED ENGINEERINGCURRICULUMCasey Canfield, Franklin W. Olin College of EngineeringYevgeniya Zastavker, Franklin W. Olin College of Engineering Page 14.867.1© American Society for Engineering Education, 2009 Mathematics and Physics Faculty Conceptions of Teaching in a First-Year Integrated Project-Based Engineering Curriculum Abstract This paper examines the experiences, perspectives, and concerns of mathematics and physics faculty involved in implementing a first-year integrated project-based engineering curriculum. Carried out at a
Paper ID #26692Work in Progress: Integrating Civil Engineering Design Software into theCurriculum to Enhance Career Readiness SkillsProf. Todd M. Brown P.E., University of Hartford Todd Brown, P.E. received his MSCE from the University of New Hampshire in 1984. He worked as an environmental engineer in the Army for 4 years and then 28 years at Tighe & Bond working on contaminated sites, industrial and municipal wastewater treatment, collection systems, water transmission mains and urban redevelopment projects. In 2016, he became an Applied Assistant Professor in the Civil, Environmental, and Biomedical Engineering