1 A Model for a Bi-lingual Curriculum Abdelrahman M Rabie, Associate Professor, ISAT Department, James Madison University, Harrisonburg, Virginia, USA Rahman Haleem Assistant Professor and Director, Institute for Technological Innovations (ITI), Zayed University, Dubai, United Arab EmiratesAbstractThere has been an increasing demand for multilingual professionals, in various fields includingengineering, which in turn which in turn lead to the increased demand and
1 A Model for a Bi-lingual Curriculum Abdelrahman M Rabie, Associate Professor, ISAT Department, James Madison University, Harrisonburg, Virginia, USA Rahman Haleem Assistant Professor and Director, Institute for Technological Innovations (ITI), Zayed University, Dubai, United Arab EmiratesAbstractThere has been an increasing demand for multilingual professionals, in various fields includingengineering, which in turn which in turn lead to the increased demand and
Paper ID #32901Augmenting Traditional ME Curriculum with Digital Badge Microcreden-tialsDr. Andrea Gregg, Pennsylvania State University Dr. Gregg is the Director of Online Pedagogy and an Assistant Teaching Professor in the Penn State Me- chanical Engineering department. She facilitates faculty development to maximize teaching and learning efficacy throughout the ME curriculum, with a primary focus on online learning. She is also respon- sible for leading quality instructional design for residential and online offerings; facilitating an activity community of practice for Mechanical Engineering faculty dedicated to
position of my new course as an elective that still lives on the edges of the curriculum.Discussing efforts to bring a broader range of skills into engineering curriculum – like design,teamwork, interdisciplinary, and global competencies – Miller even goes so far as to argue that“developing independent new courses in these topics that are separate from the technical coresubjects in engineering is not likely to provide an effective mechanism of integration. Instead, ifthe new subjects are not viewed by students (and faculty) as an integral part of learning tobecome an engineer, they are not likely to be taken as seriously.”17 Following a similar line ofreasoning, Downey adds: “Elective courses supporting the international education of engineersfall
autonomous robots. Her teaching interests are in designing robotic projects that promote undergraduate research and integrate interdisciplinary areas (robotics, artificial intelligence, IoT, electronics, and image processing).Dr. Yu Wang, New York City College of Technology Dr. Yu Wang received her Ph.D. degree in Electrical Engineering from the Graduate Center of the City University of New York in 2009. She is an associate professor in the Department of Computer Engineer- ing Technology at New York City College of Technology. Her research areas of interest are engineering education, biomedical sensors, modeling real-time systems, embedded system design, and machine learn- ing.Dr. Chen Xu, New York City College of
influencing undergraduate Hispanic and other minority students’ decision to considerengineering as their major; 3) Dual programs for Community Colleges and summer programs aswell as High Schools at one of the institution are providing access for pre-college minority andwomen students to careers in engineering and technology; 4) Our project aims to develop andestablish an integrated research-oriented educational facility to support and enhance teachingand learning in these areas, by providing a set of comprehensive laboratory experiments,teaching and learning modules; and 5) The design and implementation of a computationalworkbench for simulating hybrid power systems and distributed energy resources.2. Curriculum ChangesEngineering and technology
indicate areas for future innovation. We discuss course-level innovationsin the context of the larger curriculum-integrated information literacy program in engineering. Page 14.761.2IntroductionOver the last several years, advocates of information literacy education have supported the ideaof curriculum-integrated instruction as an effective student learning strategy, and this strategyhas begun to be employed within engineering education.1,2 Curriculum integration necessarilyrequires buy-in and collaboration from faculty3 as well as detailed attention to course-levelintegration. 4,5 Despite some support found in the ABET 2000 outcomes criteria,6
. Page 26.1699.11[8] NKIP Advisory Committe for Continuing Education, "Industry Partnership Survey - Northern Kentucky," Burlington, KY, 2013.[9] M. Torres and M. Sadat-Hossieny, "Modifying the Curriculum of an Engineering Technology Program to meet the Needs of Local Manufacturing Consortium.," in 2014 IAJC/ISAM Joint International Conference, Orlando FL, 2014.[10] R. Case, "The Anatomy of Curricular Integration," Canadian Journal of Education / Revue canadienne de l'éducation, vol. 16, no. 2, pp. 215-224, 1991.[11] NKU, "Undergraduate Catalog - Engineering Technology Majors," [Online]. Available: http://nkuonline.nku.edu/smartcatalog/engineering-technology-majors.htm.[12] C. Nygaard, T. Hojtl and M. Hermansen, "Learning-based
from M.E.T.U. in Turkey. Her technical research interests are in structural and characterization of TiO2 thin films and magnetic nanoparticles along with pedagogical research interests in improving engineering physics curriculum and seeking solutions to gender bias.Dr. Ashley J. Earle, York College of Pennsylvania Ashley is an Assistant Professor in the Mechanical and Civil Engineering department at York College of Pennsylvania. She received her B.S in Chemical and Biomolecular Engineering and B.A. in International Studies from Lafayette College. She then pursued her passion for neuromuscular disease research at Cornell University where she received her PhD in Biomedical Engineering. At York, she is passionate about
capacity and speed of the Internet increase andhigh-speed connectivity to faculty offices becomes the norm, the system will become morereliant on the Internet.Under advisement of Intel training specialists, MATEC is adopting the model of an ElectronicPerformance Support System (EPSS) to provide faculty development opportunities within thecontext of each curriculum module. An EPSS is "a system that provides users with theinformation, advice and learning experiences they need to get up to speed as quickly as possible,with the minimum of support from other people" (Barry Raybould, Ariel Performance CenteredSystems, Inc.). It is designed to provide just-in-time training at the faculty's task site and inresponse to a need-to-know for task performance
IBMThinkpads to students enrolling for the fall semester. A standard software package includingMicrosoft Office 2000 Premium Suite (Word, Excel, PowerPoint, FrontPage, Access, Outlook),MS Internet Explorer 5.5, MS Outlook Express, MS Netware Client, Eudora Pro 4.3.2, LPR(TCP/IP printing support), Cisco Wireless Card, Norton AntiVirus, Aladdin Expander, AdobeAcrobat, RealPlayer, and Windows MediaPlayer was included with each laptop. In additionsome software was available only for students taking certain classes (e.g. Visual Basic forstudents taking a Visual Basic programming class).The challenge for the faculty was to integrate the laptops into the curriculum in the mostefficient manner from both an educational and the student’s perspective. This was
designing effective design projects.The implementation of the Bologna agreement in the Netherlands as of the year 2002/2003means that our 5 year degree has to be split into a Bachelor and a Master of Science part. Thefaculty has chosen not to change the curriculum but to split the existing curriculum in two. TheBachelor’s degree is a three-year degree and consists of a broad education in AerospaceEngineering without any form of specialisation. Project education is an important tool in thisphase. The Master’s degree is a specialisation within the available research fields of AerospaceEngineering within our faculty. Two special system integration MSc. programmes are on offerfor students who are more interested in the aircraft or spacecraft systems
engineering course typically taken inthe third year of the civil and environmental engineering undergraduate curriculum. This courseis an introductory-level course to the field of environmental engineering, which covers topics,such as solid and hazardous waste management, air pollution, and sustainability and greenengineering. The EHMs were developed for and integrated into this course during the Spring2019 and Fall 2019 semesters. These EHMs would allow students to explore variousenvironmental issues present in our society through learning about historical events that resultedin major environmental laws and regulations, growth of waste management technologies aroundthe world, and engineering advances in sustainable and green engineering practices
. Schmalzel, A. Marchese, and R. Hesketh, What's Brewing in the Engineering Clinic?. Hewlett PackardEngineering Educator. 2(1), 6 (1998).9 K. D. Dahm, R. P. Hesketh and M. J. Savelski, “Micromixing Experiments in the Undergraduate Curriculum,”ASEE Annual Conference and Exposition, June 2002, Montreal.Biographical InformationKevin Dahm in an Assistant Professor of Chemical Engineering at Rowan University. He received his B.S. fromWorcester Polytechnic Institute in 1992 and his Ph.D. from Massachusetts Institute of Technology in 1998. Hisprimary technical area is in chemical kinetics and mechanisms. His current primary teaching interest is integratingprocess simulation throughout the chemical engineering curriculum, and he is receiving the 2003 Joseph
economically unviable.Despite the intricate dependence of the state of West Virginia on coal, alternative energy educationis evolving through joint research between Marshall University and regional energy companiessuch as Marathon Power, Camelot Technologies Group (CTG) Power, TransCanada (TC) Energy,American Electric Power (AEP) Appalachian Power, and Solar Holter. The proposed curriculumis an effort to expose undergraduate and graduate students to the potential research opportunitiesat these institutions. Marshall University is committed to providing the intellectual andtechnological means to support the success of this curriculum and expanding education andresearch in renewable energy. As more renewable energy is integrated into existing
with major interest in engineering researchand development.On the other hand we could speak of internal stakeholders such as: school faculty,administration, students, alumni and parents.Once the stakeholders both internal and external have been identified (i.e. the constituency);then an evaluation must be made regarding the extent of what kind of inputs should filter intothe curricular design. That is; recognizing that this is a complex, dynamic and extensivesystem of interested parties. We would attempt to identify who provides the “leadingbehaviors” in this curriculum design. This approach is similar to what we would suggest iffaced with a heat transfer problem with the three modalities present, i.e., conduction,convection and radiation
Integrating Education in Mathematics, Physical Science, Engineering Science and Application in a Required Course Dale E. Schinstock Kansas State UniversityIntroductionThis paper addresses a common problematic scenario in engineering education through a specificexample of the overhaul of a required course in a mechanical engineering curriculum. Thecourse was designed with three major themes in mind: 1) often, less is more in the context of thetopical coverage and retention and understanding, 2) application of material and active learningare important motivating factors for the students, and 3) moving engineering application toearlier in the
- nois. She completed her undergraduate degree in General Engineering at Illinois with a concentration in Sustainable Development. Keilin is interested in international experiences in engineering and how to better integrate project-based learning into the engineering classroom.Dr. Russell Korte, University of Illinois, Urbana-Champaign Russell Korte is an Assistant Professor in Human Resource Development and a Fellow with the Illinois Foundry for Innovation in Engineering Education at the University of Illinois at Urbana-Champaign. His research investigates how engineering students navigate their educational experiences and how engineer- ing graduates transition into the workplace. He is especially interested in the
.).Implementation of the initiative will be part of the department’s larger assessment plan, whichincludes evaluation of students’ understanding of what it means to be an engineer in practice.Ongoing feedback will also be gathered from department faculty, in order to continue developingthe initiative in a way that allows the content to be integrated effectively into their courses.Effective in this instance meaning both productive and seamless for the instructors, andmeaningful for the students.A potential future area of study focuses on evaluating the extent to which the examples beingused across the curriculum correspond with students’ professional interest areas. That studywould use the data collected through the course inventory process, while also
requirements; and 4, interpersonaland quality management skills. Although the courses will be separate, the concepts from thefour different areas will be integrated in all classes where suitable. Lifelong learning will also bestressed. Graduates from the program will earn an Associate of Science in ManufacturingTechnology, and become valuable employees at a variety of high technology industrialmanufacturing facilities well into the 21st century. Page 5.439.2 Session 3586BackgroundIn 1997, a subset of the Florida I-4 High Technology Corridor Council formed a working
Paper ID #42329Enhancing STEM Education: Integrating Collaborative Technologies in Micro-Teachingfor Pre-service TeachersDr. Gerald Tembrevilla, Mount Saint Vincent University Gerald Tembrevilla obtained his PhD in science (physics) education at the University of British Columbia. He served as a postdoctoral fellow in the Faculty of Engineering at McMaster University. Currently, Gerald is an Assistant Professor in the Faculty of Education at Mount Saint Vincent University in Halifax, Canada. He teaches and conducts research on the integration of emerging, learning, and collaborative technologies to enhance hands-on science
,communications, and technology) pre-engineering technology curriculum component (called"Technology Gateway") for under-prepared entering students and a three-semester series of corecourses ("Engineering Technology Core" or "ET Core") integrating mathematics, physics,communications, and engineering technology content. 5 In the ET Core, 16 workplace scenariosthat relate to the six major physics/technical areas (electrical, mechanical, materials, thermal,fluids, and optics) were developed to provide students foundational technical skills that they willneed in their engineering technology majors. The problem-based learning (PBL) process hasproved to be an effective teaching and learning approach that has dramatically increased studentretention. 6, 7When a
Paper ID #6311Transforming a Middle and High School Robotics CurriculumMs. Mercedes M McKay, Stevens Institute of Technology (SES) Mercedes McKay is Deputy Director of the Center for Innovation in Engineering and Science Education (CIESE) at Stevens Institute of Technology. She has led several national and statewide K-14 teacher professional development and curriculum development programs in STEM education. McKay is co- PI and Project Director for the NSF-funded Build IT Scale Up project to develop and disseminate an innovative underwater robotics curriculum for middle and high school students. She is a former practicing
Paper ID #21300Work in Progress: Integrating Process Safety and Ethics in Classroom Dis-cussion through SurveysDr. Reginald E Rogers Jr, Rochester Institute of Technology (COE) Reginald Rogers is an Associate Professor in the Department of Chemical Engineering at Rochester In- stitute of Technology. His research focuses on the use of carbon nanomaterials for water treatment and sodium-ion battery applications. Dr. Rogers has been recognized for his teaching, research, and service efforts through numerous invited seminars and awards. Notable awards include the 2015 Partner of the Year Award from RIT’s Multicultural Center for
Colorado in May 2011 and began doctoral work in the Higher Education Student Affairs Leadership program there in fall 2011.Dr. Daniel Knight, University of Colorado, Boulder Daniel W. Knight is the engineering assessment specialist at the Integrated Teaching and Learning Pro- gram and Laboratory. He holds a BS in psychology from Louisiana State University, and an MS degree in industrial/organizational psychology and PhD degree in counseling psychology, both from the University of Tennessee. Prior to joining the University of Colorado at Boulder, he gained extensive experience in assessment and teamwork in an engineering education context through the development and evaluation of a team facilitation training course
emerging societal changes is not surprising in that higher education plays asupporting role in the preparation of talent and knowledge which is central to scientific Page 24.471.2innovation. Therefore, higher education, in turn, cannot adopt a reactive posture and mustalways seek innovation within itself through the content and style of instruction with which itreaches out to newer generations. The creation of the computational and experimental (ComEx)studios is a good example of an innovative learning assistance tool developed to ensure that themechanical engineering curriculum provides a flexible and enduring preparation for theirprofessional
. This is the first of seven lists generated by teams in the Winter 2023 class. Notes are based on class discussions as the lists are presented.Once students have discussed their existing knowledge and attitudes about teamwork, they beginto explore other sources of information, starting with readings from The Handbook of TechnicalWriting. [10] In class they watch and then discuss an excerpt from “Remember the Titans,” a 2000film in which a “high school football team is forced to integrate, bringing together playersfrom different racial backgrounds. Coach Boone, played by Denzel Washington, takescharge and helps the team overcome their differences and work together. Amidstchallenges and resistance, the players learn to respect and support
designers in industry and academics to communicate their designs withtheir colleagues and students. Authors of this paper have made an effort to bridge the gapbetween the design/analysis and presentation by introducing interactive tools that can mimic thebehavior of the real MEMS devices and their outputs. By using the tools provided, students canlearn about different fabrication methods and basic MEMS elements. They can also design theirown device and analyze it using the free tools provided. Video of the real experiments are also atthe website. Students can play with a simulator of the experiment remotely and obtain thesimulated results that follow the behavior of the real experiment. Adobe Flash plays a crucialrole in the website, whereas 3D
, Fort Wayne Metals, Alcoa, Group Dekko, BAE Systems, DePuy, Zimmer, Biomet, and 39 other manufacturing companies as shown by the survey conducted by the department in April 2007.BibliographyDeryn M. Watson, “A curriculum development team under the challenge of change”, Educationand Computing, Volume 5, Issues 1-2, 1989, Pages 21-27Rodrigo Lozano, “ Diffusion of sustainable development in universities’ curricula: an empiricalexample from Cardiff University” Journal of Cleaner Production, In Press, Corrected Proof,Available online 17 July 2009 Page 15.377.11 10
) (d) Fig. 7 Assessment outcomes for (a) Q1 (b) Q2 (c) Q4 (d) Q4ConclusionsThis work-in-progress paper outlines the integration of project-based system modeling andverification into a junior-level system dynamics course within the mechanical engineeringcurriculum. The project tasked students with mathematically modeling a practical mechanicalsystem and determining system parameters' values using experimental data. Subsequently, theyvalidated these parameters by comparing numerical and experimental responses, fostering apractical application of theoretical concepts throughout the learning process. Initiated in the fall2023 semester, the project was accompanied by an anonymous survey at its conclusion to gaugeits impact on