to classical music.Prof. Richard G. Helps, Brigham Young University Richard Helps is an associate professor in the Information Technology Program at BYU. He has research interests in embedded systems, human-computer interaction and curriculum design. He is a member off ASEE, IEEE, IEEE-CS, ACM-SIGITE and an ABET PEV for Information Technology. Page 23.1057.1 c American Society for Engineering Education, 2013 Security Analysis of CPS: Understanding Current Concerns as a Foundation for Future
and Management,Integrated Business and Engineering, Integrated Computer Science and Business, and acampus-wide, year-long experiential program in Integrated Product Development.Entrepreneurship teaching – graduate: Historically, entrepreneurship education atLehigh has focused on the graduate MBA program in the College of Business andEconomics. This program has recently implemented an entrepreneurial track led by anexperienced and successful entrepreneur. The graduate MBA has been augmented by acombined MBA and Engineering Masters program, where students earn dual degrees inbusiness and engineering. Also at the graduate level, one of the authors, Professor Ochshas offered a new product development course with industry-sponsored projects
their courses using PjBL11. PjBL is not meant to replace traditional education such as lectures,quizzes, and assessments. It is meant to expand upon what is taught in the classroom and what isrecommended in the ABET engineering criteria 200012.Lean Six Sigma, DMAIC, and DMADV are essential methodologies for process improvement andquality enhancement. Ishikawa Diagrams, Kaizen events, Measurement System Analysis (MSA),Failure Mode and Effect Analysis (FMEA) are a few methods used to decrease defects and improvequality. These help eliminate waste, reduce variation, and ensure robust designs, leading to higherefficiency and customer satisfaction13. The integration of the DMAIC and DMADV processes are arequirement in modern processes to have an
bring entrepreneurialtraining into higher education settings. In 2011, NSF set in motion the National Center forEngineering Pathways to Innovation and I-Corps Program to implement entrepreneurshiptraining in students and faculty. More than 130 institutions have integrated the EpicenterProgram and exposed more than 450 students to entrepreneurship training through the UniversityInnovation Fellows [6]. Overall, these courses [1] and university level [6] programs report thatentrepreneurship education programs have a positive impact in improving attitudes towards self-employment amongst engineers.Smaller-sized firms are also evolving and creating employment opportunities for entrepreneursin engineering. Engineers who develop an entrepreneurial
ABET-accredited program. The subset of the undergraduatepopulation that transfers into an engineering program" has become significant as the UnitedStates looks to ameliorate the erosion of its preeminence in science and technology in the world"[2]. According to the Committee of Science, Engineering, and Public Policy and the NationalScience Board as reported by Ashby, "the decline of U.S. born baccalaureate and graduatedegreed engineers and scientists and increasing global competition for engineers and scientists,there are those that argue that the very security and future economic prosperity of the country isthreatened if the U.S. does not reverse these trends" [2].The role played by two-year programs is an "integral part in engineering
making the rightdecision on the best model to teach the thermodynamics and fluid mechanics, the results of thisstudy will be shared and discussed with the department curriculum committee.References1 W. Dempster, C.K. Lee, J.T. Boyle, “Teaching of Thermodynamics and Fluid Mechanics using Interactive Learning Methods in Large Classes”, Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition, Montreal, Quebec Canada, June 16-19, 20022 D. Boettner, S. Norberg, R. Melnyk, J. Highley, M. Rounds, and A. Ö. Arnas, “Teaching the Fundamentals of Thermodynamics and Fluid Mechanics through an Integrated Systems Approach,” Proceedings of the International Mechanical
approaches to discipline-specific curriculum reform to keeppace with the rapidly changing landscape. In 2017, our department launched a new initiative to integrate professional practice intocurriculum in real time. Each year, multigenerational biomedical engineering (BME) teams ofupper level undergraduates, graduate students, postdocs, and faculty interview post graduatestakeholders to identify critical professional and technical skills for recent graduates. Informationfrom these interviews are then used to inform the development of short, 1-credit modules, for earlycareer BME undergraduates. The purpose of this study is to analyze data collected from 63 BMEstakeholder interviews over three years (2017-2019). Specifically, we ask,1. What are
Engineering Science and Mechanics, an M.S. in Engineering Mechanics, and a Ph.D. in Biomedical Engineering from Virginia Tech. Her interests in engineering education research center around recruitment and retention, understanding engineering students through the lens of identity theory, advancing problem based learning methodologies, assessing student learning, as well as understanding and integrating complex problem solving in undergraduate engineering education. This latter project is funded through her recent NSF CAREER award. Her other research interests lie in cardiovascular fluid mechanics and K-12 engineering education.Jamie Constantz, James Madison University JAMIE CONSTANTZ is a
Session 2325 Senior Design Projects to Aid the Disabled Janis Terpenny, Robert Gao, John Ritter, Donald Fisher, and Sundar Krishnamurty Department of Mechanical and Industrial Engineering University of Massachusetts Amherst, MA 01003-2210AbstractA new two-semester capstone senior design course sequence in the area of assistive technologyhas been developed and integrated within the established curriculum of the Department ofMechanical and Industrial Engineering (MIE) at the University of
Page 11.1053.2community of the 21st century2. The element of “taking an active role in the community” hasbeen incorporated into the engineering curriculum through service learning projects that bothsupport the course outcomes and benefit the community. Numerous examples of these type ofresearch and design projects have been described in previous ASEE conference papers andassessment of the service learning projects by community sponsors, faculty, alumni, and studentshas been very positive.3,4,5 However, most of the projects focused on the Greater Hartford areaand do not give the students a perspective of the global challenges they will face throughout theirengineering career.To meet the goal of providing our students with an opportunity to work
the final shows $1000.00 Allocations for Drama Department $3,290.75 Total Project CostsDesign Methodology and Context: Technical instruction was integrated into an introduction to a structured designmethodology using the text Engineering Design by Dym and Little [Dym, 2004]. Teamsengaged in exercises addressing problem definition, establishing objectives and user-requirements, identifying constraints, establishing design functions and specifications,generating design alternatives, preliminary design and test, final design, documentation,and design presentation. Final reports and presentations are available online at:www.seas.virginia.edu/academic/insidethebox/ Class discussion topics included: adjusting to college
, intellectual property protection, etc., serving as the focusthrough both weekly faculty-led discussions and an outside speaker seminar. Courseenrollment has been almost entirely engineers. Student teams must organize their ownsemester calendar to produce written reports (progress) as well as oral reports; these arethe basis for grades, as no exams are given. The inclusion of speakers from the start-upworld provides not only factual information but also illustration of the local heroes ofsuch enterprises(4). Vertical integration allows inclusion of sophomores and juniors in this senior-ledformat. These earlier undergraduates agree to contracts (for modest team tasks) with theseniors, who in turn are responsible to faculty advisors. This
, while still maintaining rigor in engineering fundamentals, to ensuredevelopment of future technical and soft skills. Current leaders in engineering education haveshifted curriculums towards more hands-on, multidisciplinary project-based learning to helpstudents apply their technical knowledge while developing important soft skills such ascommunication and teamwork [24].Many universities are now following suit and have already begun to integrate an increased numberof client-facing and/or industry relevant project-based classes in their programs. For example,Arizona State University (ASU) in the US currently has eight project-based classes from a total of40 classes in their manufacturing engineering degree program. It is expected that future jobs
in electrical-engineeringtechnology is a core part of the entire curriculum. Teaching electronics today,however, presents a real challenge. Indeed, on the one side, we need to introducethe basis of the subject, starting from diodes, transistors and simplest amplifiercircuits; on the other hand, modern electronics is based on integrated circuits(ICs) whose operation is very far from that of the circuits build from discretecomponents. In fact, the understanding of a system as a whole entity that isimperative in practical applications. In short, there is a huge gap between thefundamentals of electronics that we are still teaching in traditional electronicscourses and the real-world electronics used for building modern devices andgadgets. This
Paper ID #8625Pictorial Visual Rotation Ability of Engineering Design Graphics StudentsDr. Jeremy V Ernst, Virginia Tech Jeremy V. Ernst is an Assistant Professor in the Department of Teaching and Learning at Virginia Tech. He currently teaches graduate courses in STEM education foundations and contemporary issues in Integrative STEM Education. Jeremy specializes in research focused on dynamic intervention means for STEM education students categorized as at-risk of dropping out of school. He also has curriculum research and development experiences in technology, engineering, and design education.Dr. Diarmaid Lane
. The designchallenges that the teachers participated in came from the Engineering is Elementary (EiE)curriculum. EiE is housed at the Museum of Science in Boston, and has developed a set oftwenty engineering units, each focusing on a different engineering discipline. Each unit iscomprised of an engineering story which introduces the problem, a lesson on the specificengineering discipline, a scientific investigation, and a design challenge which is centered onsolving the problem introduced in the story. Teachers had an opportunity to develop andimplement short lessons with groups of 3-5 students. The following summer, 2009, twenty-oneteachers returned for a 3-day follow-up engineering workshop. At this workshop, teachersparticipated in
Traffic program was a week-long summer program conducted atGeorgia Tech with support by the Federal Highway Administration. This highly interactive andflexible program introduced high school students to transportation engineering and helped themdevelop and prepare for success in science and engineering. The curriculum included, amongother things, an overview of the transportation sector and fundamentals of developingappropriate signalized timing plans for signalized intersections. The curriculum culminated witha design challenge in which teams of students attempted to design the best signal timing plan fora series of two intersections. This paper will give details about the curriculum, evaluationresults, and lessons learned about high school
Statistics at Wright State University. He is a Co-PI on WSU's National Model for Engineering Mathematics Education. He is active in curriculum reform, and has led an NSF supported effort to integrate Mathematica laboratory sessions into the freshman calculus sequence at Wright State University. Page 14.1265.1© American Society for Engineering Education, 2009 The Wright State Model for Engineering Mathematics Education: A Nationwide Adoption, Assessment and EvaluationAbstract The inability of incoming students to advance past the traditional first-year calculussequence is a primary cause of attrition
these robots in an indoor arena. Thirty high school students are expected to take anintroductory engineering course next summer when they will use these robots and learn to play andmodify these games. Such a game integrates well the concepts of peer-to-peer cooperation, coordination,and communication, despite varied behaviors of robots, to achieve an overarching goal. We eventuallyhope to make these robotic kits low cost, modular, and incrementally acquirable, to enhance their 584affordability by high schools. We will utilize open source software and hardware to achieve this1. Notethat Lego sells a robotic chess system for $30,000, typically out of reach for high schools.The robots will use low
skills such ascommunication, teamwork, planning, example-setting, result-driving, innovation-driving,rapport-building and enablement. Page 23.1011.2Addressing the concerns of the National Academy of Engineering[2], which calls for betterleadership development initiatives for engineering students, requires many strategies. Oneapproach would be for an engineering curriculum to incorporate leadership development coursesinto students’ requirements before graduation. This would speak to engineering students the needand the value of leadership skills, since it is accommodated in their engineering curriculum.However, such an approach may not be popular
Session 2632 Object-Oriented Programming for Freshmen Computer Engineers (and Their Professors) Mark J. Sebern Milwaukee School of EngineeringAbstractFor practicing computer engineers, the object model has become increasingly important. Recognizingthis fact, elective courses in object-oriented programming (OOP) have been offered a number ofyears. At some point, however, it becomes desirable to integrate this technology throughout thecomputer engineering curriculum. Such an effort raises many questions, such as language selectionand topic sequence. Some
. Page 4.277.1Global Congress DiscussionsEffective Teaching Methods - Several papers presented at the Global Congress stressedthe need for ongoing innovation in teaching and learning methodologies in engineeringeducation. It was noted in discussion that there needs to be variety and balance inteaching methods, and that technologies appropriate to the subject matter should beutilized. Laboratory development was stressed as a very important component ofengineering education, and the integration of lectures with laboratory experiences andproject work was identified as an ideal scenario.It was noted that often the laboratory facilities available for engineering educationbecome obsolete, when compared with the current state-of-the-art in industry
-appropriate global knowledge. Page 13.502.3A faculty committee was charged with recommending curricular elements for an on-campusexperience to equip ECS students with global and business knowledge while not diminishingother important academic topics. A limiting factor imposed on the committee included addingno additional credits to the curriculum. This caused the committee members to focus onadjusting or modifying courses common among the different ECS majors and that contained ortaught complimentary topics. Because courses in Engineering Economic Analysis, Professionaland Technical Writing, and Technical Speaking satisfied these criteria, they
will determine what must be used.Conclusions & Future PlansA flexible CIS laboratory environment employing multi-boot and virtual computing is describedin sufficient detail for implementation. An almost entire CIS laboratory curriculum can besupported by such an environment. Major benefits are: flexibility, space savings, equipment costsavings, and an increase in student learning through practical experiences in a familiar laboratorylearning environment. However, our experience shows that such integral laboratoryenvironments might be prone to malware, thus needing the best anti-malware software available.In addition, lab development requires considerable faculty time. While faculty and studentsappreciate such an environment, some students
that mathematics does. To mediate thissource of confusion most control course curriculums include some form of laboratoryexperiments. More often than not this requires the learning of new software like LabView todrive the control experiments. It also includes other hardware that can be equally expensive.This can leave students dependent on expensive hardware and software to control even thesimplest of systems. In this paper we compare two approaches; one with MATLAB and another more directapproach with an Arduino based controller. In both cases the students need either priorknowledge of MATLAB or Arduino programming to complete the experiments. For the see-sawexperimental apparatus that we developed, we provide the details and costs
Paper ID #32882WIP: Developing a Virtual Information Literacy Training Program for aMulti-Disciplinary First-Year Engineering ProgramMr. Alexander James Carroll, Vanderbilt University Alexander J. Carroll, MSLS, AHIP, is the Librarian for STEM Research at the Vanderbilt University Libraries. Alex serves as a liaison librarian for the School of Engineering and STEM academic units within the College of Arts and Science, supporting the research of faculty and developing curriculum- integrated information literacy instruction programs for students in the sciences. Alex serves as an Assistant Editor for the Journal of the Medical
inquiry framework for research and practice, Taylor & Francis Group, 2016, p. 22‒34. [Online]. Available: http://ebookcentral.proquest.com/lib/purdue/detail.action?docID=4710094[6] R. E. Brown, “The process of community-building in distance learning classes,” J. Asynchronous Learn. Netw., vol. 5, no. 2, p. 18‒35, 2001, doi: 10.24059/olj.v5i2.1876.[7] T. Anderson, R. Liam, D. R. Garrison, and W. Archer, “Assessing teaching presence in a computer conferencing context,” J. Asynchronous Learn. Netw., vol. 5, p. 1‒17, 2001.[8] D. Howlett et al., “Integration of a case-based online module into an undergraduate curriculum: What is involved and is it effective?,” E-Learn. Digit. Media, vol. 6, no. 4, pp. 372–384, Dec. 2009
educational resource for manufacturing related curriculum, content and activities.combined federal, state, and Goal 2: Create for statewide implementation an educational deliverylocal funds in place, the Center System that contains curriculum, content, and technicalis well positioned to meet its programs to support high performance manufacturing withinobjectives. the region. Goal 3: Adapt and/or create needed regional related manufacturing curriculum, content, activities and/or services that cannot be FL-ATE has already
comprehensive approach, resulting from this initiative, to define, develop, and implement theteaching of leadership in the context of engineering and technology curricula. After a rationaleexplaining why the college chose an emphasis on leadership, efforts in and selected results of theleadership initiative are documented, including 1) the development of a leadership modelappropriate to engineering and technology education, 2) the definition of specific outcomes andcurricular material related to leadership, and 3) the development of a framework for using themodel and implementing leadership education throughout the college. The implementationstrategy is based on Kolb’s Learning Cycle and takes advantage of college, departmental andexternal resources to
No 7a. Do you consider this activity or course to be a high‐impact learning activity? Yes No This activity allowed me to Reflect Apply Integrate 8. Did you participate in “Service Learning” or “Community‐based Learning” activity or project? Yes No 8a. Do you consider “Service Learning” or “Community‐based Learning” to be a high‐impact learning activity? Yes No This activity allowed me to Reflect Apply Integrate 9. Did you participate in an internship? Yes