differentiates engineering fromother problem solving approaches 2.Engineering design has the potential to integrate science, technology and mathematics conceptsfor students and is essential for developing technological literacy 3. For over a decade, expertshave been calling for a push to increase technological literacy of our Nation’s K-12 students 4-8.“The key to educating students to thrive in a competitive global economy is introducing themearly to the engineering design skills and concepts that engage them in applying their math andscience knowledge to solve real problems” 1.While a demand for technological literacy is loud and clear, many young people are unpreparedto make informed decisions regarding the development of new technologies and
. Page 22.1075.1 c American Society for Engineering Education, 2011 Modeling in Elementary STEM Education IntroductionElementary science curriculum affords many opportunities for students to engage in inquiryscience, technological problem solving and meaning making through scientific and engineeringmodels and modeling. Modeling, and model-based reasoning is central to professionalengineering work and is similarly essential in the teaching and learning of underlying science,technology, and mathematical concepts. However, students’ ability to effectively use modelswithout proper instructional support is limited. Dam construction is an example of an importantactivity for civil engineers and
has been with the Department of Electrical and Computer Engineering, Brigham Young University. His current research interests include robotics and embedded systems. Archibald is a member of the IEEE, ACM, and Phi Kappa Phi.Prof. Paul Richards, Brigham Young UniversityDr. Steven L. Shumway, Brigham Young University Steven Shumway is an Associate Professor in the Technology and Engineering Education program at BYU. Much of his time is spent working with middle and high school teachers in the implementation of technology and engineering-related curriculum into secondary school programs.Prof. Brian D Jensen, Brigham Young University Brian D. Jensen has taught at Brigham Young University since Jan. 2005. He received a M.S
. www.abet.org2. International Technology Education Association, Standards for Technological Literacy, ITEA, 2000.3. Burghardt, M. David, and Hacker, Michael, Technology Education: Learning by Design, Prentice Hall, 2004.4. Burghardt, M. David, and Hacker, Michael, "Informed Design: A Contemporary Approach to Design Pedagogy," The Technology Teacher, 64, 1, September 2004.5. Martel, Donald, Waffle, Marty, and Weeks, Peggie, "Professional Development Collaborative Focuses on High School/College Faculty Partnerships," Proceedings of the 2005 American Society for Engineering Education Annual Conference and Exposition, ASEE, 2005.6. Burghardt, M. David and Hacker, Michael, The New York State Curriculum for Advanced Technological
Department. Dr. Welch's research interests include the implementation of communication systems using DSP-based techniques, DSP education, and RF signal propagation. He is a member of ASEE, IEEE, Tau Beta Pi, and Eta Kappa Nu. E-mail: t.b.welch@ieee.orgMichael Morrow, University of Wisconsin-Madison Michael G. Morrow, MEngEE, P.E., is a Faculty Associate in the Department of Electrical and Computer Engineering at the University of Wisconsin, Madison, WI. His research interests include real-time digital systems, embedded system design, software engineering, curriculum design, and educational assessment techniques. He is a member of ASEE and IEEE. E-mail: morrow@ieee.orgGerald Vineyard, U.S
Paper ID #11528A Hands-on Approach in Teaching Machine DesignDr. Luis E Monterrubio, Robert Morris University Luis E. Monterrubio, Ph.D. Mechanical Engineering Assistant Professor of Mechanical Engineering Luis Monterrubio joined the Robert Morris University Engineering Department as an Assistant Professor in the Fall of 2013. He earned B.Eng from the Universidad Nacional Aut´onoma de M´exico, a M.A.Sc. form the University of Victoria, Canada and his Ph.D. in from the University of Waikato, New Zealand. All degrees are in Mechanical Engineering and both M.A.Sc. and Ph.D. studies are related with vibrations. After
-solving during lectures, we havefound that not only do they participate directly in the lecture, but the faculty can make “real-time” assessment of how well the students are following. This allows the faculty member toadjust the lecture, such as increasing the pace of the lecture if the students are keeping up, toadding new material if the students are falling behind.In this paper, we describe the hardware and software systems we use for active learning. We alsodescribe the pedagogical methods we have developed over the past three years that applicable toa wide variety of CS and engineering classes. Finally, we present summary longitudinal datafrom both students and faculty showing the strengths and weaknesses of active learning.2. Hardware and
for Engineering Education, 2014 A Departmental Initiative to Effectively Incorporate Technology Use in Engineering Mathematics Education: A Case Study1 IntroductionThe paper presents a case study of the ongoing efforts of the department of EngineeringFundamentals at a medium-sized, urban university, to incorporate educational technology in itsengineering mathematics courses. In 2007 the ABET accredited J.B. School of Engineering atthe University of Louisville formed a new department, with primary focus on first yearengineering education. The department teaches introduction to engineering, engineeringgraphics, and engineering mathematics courses, with the majority of student credit hours inengineering mathematics. Part of
problems, making use of the knowledge and trainingacquired through the entire college curriculum, and demonstrating student readiness to enter thejob market or moving into research. These projects are often displayed at venues where judgesfrom academia and industry conduct evaluations to assess those achievements. Grading rubricsare generally based on the engineering approach, ability to reach a solution, specific designcontent, innovation, team performance, and presentation and communication skills. It hasbecome popular that these showcases turn into competitions, with prizes and recognitionsawarded to selected projects. In this study, we took an additional perspective on these capstonecourses and events by analyzing the composition of these
CurriculumAbstractWorcester Polytechnic Institute (WPI) recently started a new undergraduate degree program inrobotics engineering (RBE). As of the fall semester of 2011, the program is the seventh largestdiscipline at WPI in terms of undergraduate enrollment. At the core of the curriculum are foursignature courses called Unified Robotics I-IV. The goal of these courses is to introduce studentsto the multidisciplinary theory and practice of robotics engineering, integrating the fields ofcomputer science, electrical engineering and mechanical engineering. The sophomore levelcourses, RBE 2001 and RBE 2002, introduce students to the foundational concepts of roboticssuch as kinematics, pneumatics, circuits, electric motors, sensors, signal processing andembedded system
research, and innovative approaches to teaching.Dr. Krista M Kecskemety, Ohio State University Krista Kecskemety is an Assistant Professor of Practice in the Department of Engineering Education at The Ohio State University. Krista received her B.S. in Aerospace Engineering at The Ohio State Uni- versity in 2006 and received her M.S. from Ohio State in 2007. In 2012, Krista completed her Ph.D. in Aerospace Engineering at Ohio State. Her engineering education research interests include investigating first-year engineering student experiences, faculty experiences, and the connection between the two. c American Society for Engineering Education, 2018 Chemical Engineering Major Selection throughout
Teaching Telecommunications Fundamentals – A Networking Approach John L. Fike, P.E. Department of Engineering Technology and Industrial Distribution Texas A&M UniversityIntroductionAs with many topics in a rapidly changing technical world, an introductory course intelecommunications and networking presents a challenge to curriculum developers. How doesone teach fundamentals, such as frequency, bandwidth, and multiplexing, which change slowlyand do not always appear important to the students? How does one teach contemporarynetworking topics in a way that is interesting to the “techies” while not losing the
AC 2010-218: INFUSING COMMUNICATION SKILLS IN AN ENGINEERINGCURRICULUMKristen Eichhorn, SUNY OswegoCara Thompson, SUNY OswegoDavid Vampola, SUNY OswegoFritz Messere, SUNY OswegoRachid Manseur, SUNY-Oswego Page 15.736.1© American Society for Engineering Education, 2010 Infusing Communication Skills in an Engineering CurriculumAbstractThe development of a new electrical and computer engineering program offers a rare opportunityto design an innovative and modern curriculum that incorporates important skills and content.The envisioned program is project-based and includes innovative and multidisciplinary aspectsin its curriculum, organization and its operation. This work
developingrepresentation of this process: At each step, we will be adding to the list of engineering design process steps. Have the class come up with a description of the step that was completed in this lesson, in their own words. Add this term to the list of design steps that you are creating on the wall in the classroom. Each time you add a new step review the entire process thus far (Project Curriculum materials).We go through a similar process when introducing processes and artifacts that engineersfrequently use. For example, as mentioned above, students use the 6-3-5 brainwritingtechnique during the concept-generation step of the Pinholes to Pixels unit. Rather thandescribe this process and assign students to use it
noformal course where the students are asked to investigate failures, examine ways toimprove processes, as well as to apply the engineering analysis skills so typical in theformal design process. Therefore the strategy implemented was to target these conceptsin all the courses throughout the curriculum. The students are constantly reminded thatdesign is fundamental to all forms of engineering and engineering technology. Designdoes bring realistic applications into the curriculum and as such can help students pullfundamental technical concepts together and adequately bridge the gap from theory toapplication. If the educators in the engineering technology arena who are competent inapplying rigorous approaches to solving new technical problems, they
expensive and unaffordable for many engineering and engineering technologyprograms. Maskless writing techniques, including electron-beam direct writing3,4, ion-beamdirect writing5, X-ray lithography6,7, and laser direct writing8,9, are alternate polymer waveguidefabrication approaches. Due to their high operation cost, first three maskless technologies are notsuitable for teaching purpose. This paper presents a simple and inexpensive polymer opticalwaveguide fabrication approach, i.e. Laser Direct Writing (LDW), developed for our ELET 5320(Introduction to Telecommunications) course. LDW waveguides will be produced in a singlecomputer controlled step. This process eliminates all the complex steps associated with thedefinition of structures using
wealth and their application to curriculum specifically with respect to undergraduate engineering educa- tion as well as creative Arts-Based Research and Documentary film making. She supports faculty research in the area of undergraduate STEAM teaching and learning with a focus on increasing retention and grad- uation rates of under-represented student populations in engineering.Prof. Joseph Rodriguez, San Jose State University American c Society for Engineering Education, 2021 Competency based learning in “Aerospace Structural Analysis I” in an online environmentAbstractIn Fall 2020, we converted the engineering upper division class
capable andconscious of the impacts of their decisions. The goal is to address the need for today's engineersto work effectively in global environments where technical solutions must integrate social,cultural and environmental concerns.The curriculum enhancement projects seek to teach the students the fundamentals of engineeringdesign early (first three weeks) in the engineering education process with an emphasis onenvironmental and socio-cultural impact to develop socially conscious engineers with a stronggrounding in the basics of engineers design methods. This will develop a new generation ofengineers with a skill set that includes an understanding of the social, cultural and environmentalimpacts of their decisions and a comprehension of how
through cases in a mechanical engineeringcourse,” Journal of Research in Science Teaching, vol. 51, no. 5, pp. 659-677, 2014.[10] M. A. Lundeberg and A. Yadav, “Assessment of case study teaching: Where do we go fromhere? Part 2,” Journal of College Science Teaching, vol. 35, no. 6, pp. 8-13, 2006.[11] D. C. Philips and J. F. Solits, “Piagetian structures and psychological constructivism,” inPerspectives on Learning, 5th ed. New York, NY: Teachers College Press, 2009, pp. 41-51.[12] L. R. Lattuca and J. S. Stark, Shaping the College Curriculum: Academic Plans in Context,2nd ed. San Francisco, CA: Jossey-Bass, 2009, pp. 145-182.[13] W. C. Newstetter and M. D. Svinicki, “Learning theories for engineering educationpractice,” in Cambridge Handbook of
improve their practical skills of using Python inthe real world. The anonymous survey at the end of class showed that more than half of thestudents were positive about the new labs. We plan to improve the lab modules by adding Linuxintroduction, upgrading software/hardware and providing more detailed instructions.References1 K. J. Millman and M. Aivazis, "Python for Scientists and Engineers," in Computing in Science & Engineering, vol. 13, no. 2, pp. 9-12, March-April 2011.2 P. Deitel and H. Deitel. Intro to Python for Computer Science and Data Science. Pearson Education, 2020, pp. 17.3 T. Gaddis, Starting Out with Python, 4th edition. Pearson Education, 2017.4 N. Yadav and J. E. DeBello, "Recommended
a variety of design classes so that the students willsee that this is a very important aspect of all phases of an engineering career. In each design class,at least one class discussion will be devoted to a case study in which the importance ofengineering ethics is emphasized. Thus, students will be exposed to engineering ethics in avariety of design courses by a variety of engineering faculty, most of whom are ProfessionalEngineers. Obviously, this approach could be used within any engineering discipline.I. IntroductionEthics has been defined as a body of moral principles or values, dealing with right and wrong andthe morality of motives and ends.Accordingly, it is an issue that individuals must deal with throughout their lives. Growing up
AC 2011-951: MODULAR CURRICULUM DEVELOPMENT FOR MECHA-TRONICS TECHNICIANSBranislav Rosul, College of Dupage Dr. Rosul completed his Bachelors of Science in Mechanical Engineering in February of 1984 majoring in Control Systems. Soon after he started to work as an Instrumentation Engineer in Teleoptic, Belgrade where he stayed for three years working on the Instrumentation Design and as a Project Engineer. During that time he worked on instrumentation and technology development of various industrial processes, from food to petrochemical and still industry. Academically, he continued on toward the Master of Science in Electrical Engineering at University of Belgrade. After completing his course work at the Belgrade
, business and industry.Olin College has created an engineering program based on the polytechnic approach. Specificcriteria that Olin incorporated into their structure included a curriculum that was designed to beflexible and responsive to changing world needs, a focus on innovation, problem solving,inquiry, research, and entrepreneurship, and contact with students not limited to in-the-classroomexperiences. 5 These combined foci of solid foundational knowledge, entrepreneurial thinking,and creativity and innovation help clarify the key elements that were chosen to build the Purduepolytechnic model in the College of Technology.The Polytechnic Effort in the College of TechnologyThe 50-year old College of Technology was created with the mission of
howusing this perspective on instruction can be used to benefit when developing and running a courseadapted to the blended learning philosophy. Page 26.656.21.0 IntroductionThe Department of Engineering and Design at Western Washington University was createdrecently by transitioning programs in Manufacturing, Plastics and Electrical Engineeringtechnology to their engineering equivalents. Historically, Computer-Aided Design has been amajor component of the curriculums of both the old and now the new programs. Over the past 10years as these programs have evolved to their current status, the CAD curriculum has alsoundergone major transformation
, Page 25.602.2 integrating oral and written communication into all facets of the discipline, and providing training in “soft skills” such as leadership, management, creative problem solving, etc.All the while schools are reducing the total number of hours in the engineering curriculum toallow the average student to graduate in four years. 5 Accomplishing all of this is an impressiveundertaking, considering the approach to educating engineers since the 1950s.6Add to this mix the desire of Baylor University to grow in its various research areas, and it isclear that unless emphasis continues to be on quality undergraduate teaching, the demands of theresearch paradigm – graduate resources, labs, facilities, students – will
and environmental engineering. She is active in pre-college engi- neering outreach and improving non-motorized transportation infrastructure. c American Society for Engineering Education, 2017 A New Framework for Teaching the Triple Bottom Line: The Sustainability Triangle and the Sustainability IndexIntroductionCivil engineers are integral to, and ethically bound to, advancing sustainable development(ASCE, 2004). In response to community and industry needs, as well as ABET accreditationrequirements, sustainability has been increasingly integrated into civil and environmentalengineering curricula (Allen et al., 2008). The American Society of Civil Engineers (ASCE
implementing new technology. Besides economics, he has taught in the areas of management, finance, strategy & policy, and operations management. During the past few years, his teaching has focused on entrepreneurship. His work in curriculum and program development has been supported by the Michigan Economic Development Corporation through the Michigan Entrepreneurial Education Network, NCIIA, and NSF. He advises the local Entrepreneurs & Inventors Club which includes members from two universities and the community.Edward Lumsdaine, Michigan Technological University Dr. Edward Lumsdaine is currently Professor of Mechanical Engineering at Michigan Technological University and Special
AC 2011-244: STUDENT LEARNING AND THE CONTINUOUS PROGRAMIMPROVEMENT PROCESS IN A CHEMICAL ENGINEERING PROGRAMHoward S. Kimmel, New Jersey Institute of Technology Dr. Kimmel is Professor of Chemical Engineering at New Jersey Institute of Technology in Newark, NJ, and Associate Vice President for Academic Affairs. He has been Executive Driector for the Center for Pre-College Programs at NJIT for over 30 years. Dr. Kimmel has had numerous NSF grants and State grants focusing on professional development, curriculum, and assessment. In addition, he is a member of the assessment committee for Chemical Engineering.Angelo J. Perna, New Jersey Institute of Technology Dr.Angelo J. Perna is professor of Chemical and
the development of these fields just as much as society is driven by them ii. As sciencecontinues to grow in our society, so does the need for science literacy among the population. Asmore science appears in the news, citizens need to be able to understand and participate in publicpolicy discussions and make informed decisions based on their understanding of the informationfrom the discourse iii. Therefore, the education and outreach programs at the laboratory are animportant part of its mission.The BOI of the laboratory is generally separate from that of its researchers. The generallaboratory goals of the outreach are: 1. To increase awareness of and esteem for the profession of engineering as whole, and specifically civil engineering
-assessment with concepts in which they arenot familiar. Portfolios hold some promise, and these are also being introduced in the SoftwareEnterprise. Concept maps are ideal for addressing one of the key questions – even if students arenot getting as much “stuff,” are they getting it in such a way that it is organized into a solidfoundation upon which new knowledge may be added?Bibliography1. IEEE Computer Society, Guide to the Software Engineering Body of Knowledge (SWEBOK), P. Bourque and R. Dupuis (Eds.). IEEE Computer Society Press, 2004.2. ACM/IEEE, Software Engineering 2004 Curriculum Guidelines for Undergraduate Degree Programs in Page