strategies for improving student engagement and performance. Additional experience working with Faculty on the integration of Instructional Technologies in the class- room. Major strengths in innovative problem solving; modeling and simulation (mainly for business analysis and government consulting); operations research and decision sciences (risk analysis, investment valuation under uncertainty, financial engineering). Additional skills in optimization, statistical analysis and systems engineering. Page 24.160.1 c American Society for Engineering Education, 2014 An Exploratory
secondary and post-secondary education.Prof. Paul Imbertson, University of Minnesota, Twin CitiesDr. Tamara J Moore, Purdue University Tamara J. Moore, Ph.D. is an Associate Professor of Engineering Education at Purdue University. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and higher education mathe- matics, science, and engineering classrooms in order to help students make connections among the STEM disciplines and achieve deep understanding. Her research agenda focuses on defining STEM integration and investigating its power for student learning. She is creating and testing innovative, interdisciplinary curricular approaches that engage students in developing models of real world problems
roles of the technology leaderin an educational environment, including developing, planning, implementing and evaluating aninitiative for technology integration. Emphasis will be placed on effective decision-makingstrategies that optimize high quality learner outcomes.SummaryCompleting a Master’s degree in industrial management would provide technical collegeinstructors with leadership experience for developing skills necessary to implement STEM intheir curriculum. It will also introduce the state of the art training and educational materials totechnical college instructors.Implementation of this proposal would contribute to increase the quality and diversity of theadvanced technology and STEM education in technical colleges. It will also
same topic. This iscontrary to a typical conference event where selected speakers/experts are invited to present in astructured track format, hence the name, unconference. Professional societies in technology andengineering fields generally conduct an unconference in their annual meetings to receive“holistic” views on problems in the field in order to develop research questions and grandchallenges. The concept of unconference motivated us to develop an active-learning techniquecalled UnLecture, to integrate real-world experiences into engineering classrooms.Undergraduate engineering students at the University of Cincinnati (UC) are required toparticipate in a mandatory cooperative education (co-op) program in which students supplementtheir
." Page 24.1391.3In terms of integrating engineering, math texts consistently fall short by only including "plug andchug" problems that only utilize a formula with little to no critical thinking involved. In an NSFfunded study, the investigators analyzed several textbooks to find instances of problems with anengineering context. Of the surveyed Algebra and Geometry texts, problems were not identifiedas engineering problems12. With the problems unlabeled or mislabeled, it is likely that studentswill not make the connection. The literature suggests that mathematics textbooks have beenpicked apart to find various essential components such as engineering. The inclusion of math hasalready been addressed in science textbooks considering the high
) curriculum (Museum of Science, Boston). The focusof the professional development (led by the researchers) was to orient teachers to engineeringand technology, uncover misconceptions, and provide an overview of the EiE curriculum alongwith an in-depth examination of one EiE unit they would implement in the Fall 2013. All fourteachers are employed in schools with large percentages of non-White students and studentsreceiving free or reduced lunch. We deliberately chose to work with schools with diverse studentpopulations with the goal of providing an opportunity to enact innovative, engineering-basedcurricula in hopes of challenging the status quo in a non-dominant demographic elementaryschool population.Each teacher implemented one EiE unit during
yearsis shown here as an example of how the course is continuously improved.Motivation and IntroductionA course in experimental design for chemical engineers has been developed by faculty at theUniversity of Maryland Baltimore County (UMBC) to address the needs of our students andadministration. The chemical engineering curriculum is often under scrutiny from administrationto reduce the number of credits and number of prerequisite service courses taught by otherdepartments. Our students also express, through feedback mechanisms such as exit surveys, adesire to be exposed to application of early prerequisite material, finding courses like technicalwriting to be too broad and introductory mathematics courses to be too focused on mechanicsand not
previously been reported in an abbreviated form [2], and at conferences, but untilthe present publication, there was no archival record of this information to inform the BMEcommunity, or to serve as a baseline. In these data, we found that there was a set of courses taken by most biomedicalengineering students that could be regarded as a core of material. Recently, we have asked howthe findings of that work may have changed. Without the resources of the VaNTH ERC, wewere not able to undertake such a complete study again. Instead, to begin to assess the stabilityand uniformity of the curriculum, we have evaluated 16 programs, eight that were first accreditedbetween 1982 and 1987, and were therefore in our previous accredited sample, and eight
ethics of, ASCE2, ASME3, and NSPE4. The authors have investigated the use ofsustainability concepts of the Leadership in Energy and Environmental Design (LEED) criteriaand have applied principles to several undergraduate research projects and in coursework. LEEDis an optional sustainability guideline in private construction and is mandated or encouraged bymany federal, state, and local governments for public construction projects. Learning aboutsustainability will help engineers understand how their creations will interact with and operate ina more complementary manner with the natural world as well as to reduce water, energy, andmaterial usage.Sustainability has been implemented in the engineering curriculum, particularly in courses suchas
-authored over 85 professional journals and conference publications and 4 book chapters. Dr. Franklin was the recipient of the 1998 Presidential Career Award for Scientists and Engineers by the National Science Foundation. She is an active member of the MTT-S society in the technical area of passives, packaging, integration and microwave education and is currently an Associate Editor of the IEEE Microwave Wireless Components Letters.Dr. Wayne A. Shiroma, University of Hawaii at Manoa Page 24.119.2 c American Society for Engineering Education, 2014 A Systems-Centric
, diffuser, and Venturi are discussed through computationalfluid dynamics analysis. Finally, the students are exposed to structured experimental proceduresto determine the flow rate and maximum pressure capabilities of each blower. The end result ofthe project is the ability to provide freshman engineering students with an introduction to severalimportant mechanical engineering topics in a relatively short time frame.IntroductionOne of the challenges of developing a cohesive engineering curriculum is that of providingstudents with experiences that will engage them with relevant engineering problems at an earlypoint in their education. A number of popular approaches exist for engaging freshman studentsin their early studies. Samples of these
Ph.D. in Organization and Management is from Capella Uni- versity, Minneapolis. Elizabeth enjoys exploring and photographing the natural beauty of northern Min- nesota’s wilderness with her family and friends.Dr. Puteri S. Megat Hamari, Minnesota State University, Mankato Dr. Puteri S. Megat Hamari is currently an Assistant Professor in Integrated Engineering at Minnesota State University. Mankato. She is with the Twin Cities Engineering, a project-based learning program where students are taught through collaboration in small groups on industry sourced engineering projects. In addition to teaching engineering core competencies using project-based pedagogy, she also guides students in professional development. Dr
, J., & Duveen, G. (1998). Recent research on gender and educationalperformance. London: OFSTED.[4] Bussière, P., Cartwright, F., & Knighton, T. (2004). The performance of Canada’s youth in Mathematics,Reading, Science and problem solving: 2003 first findings for Canadians aged 15. Ottawa: Human Resources andSkills Development Canada, Council of Ministers of Education, Canada and Statistics Canada.[5] S. Sjoberg and C. Schreiner. (2010). The ROSE project: An overview and key findings. Technical report,University of Oslo, Oslo, Norway.[6] E. Marasco and L. Behjat. (2013). Developing a cross-disciplinary curriculum for the integration ofengineering and design in elementary education. Proc. of the 2013 American Society of Engineering
, afinal exam was created and graded by a faculty member who was not teaching the course. Theface-to-face class covered the traditional EE098 SJSU curriculum (shown in the smaller whitecircle) while the blended class covered the MIT curriculum (shown in white and gray circles)which included nonlinear devices, diodes, MOSFET transistors, both large and small signalanalysis, digital gates and signal integrity as shown in Figure 1.The passage rate was 93% between the students that participated in on cloud and in classactivities and took the finals. Six students out of 80 students withdrew or did not participate inclass or on cloud activities. Binary Signal
incorporating one ormore community-based engineering projects as the core theme of the course. Service learning is 3of vital importance in the engineering profession and must be integrated into the engineeringcurriculum at an early stage of career development. Engineering projects with aspects of servicelearning are both challenging and motivating to students entering the engineering profession afterSTEM studies at the high school level. In addition to teaching the students engineering design 4and practice in the context of society and values, and instilling the recognition of engineeringissues and concerns, engineering project activity with service learning components
, programming, testing ofvarious applications installed, as well as ethical hacking and incident investigation in thevirtualized Linux environments. All these will provide students with in-depth knowledge andskills in cloud computing and information assurance. More important, research results can benaturally integrated with the existing Computer Information Technology curriculum, whichcan benefit students in the CIT program at Purdue University Calumet (PUC) and students inthe programs that have partnerships with PUC in the Midwest.6. ConclusionIn this paper, a systematic approach has been proposed to develop the forensics readiness tofight against attacks and inside activities committed in virtualized Linux environments. Thisapproach focuses on
thatteaching content in anatomy, psychology, and pharmacology in a separate teacher drivenclassroom did little to improve the practical application or diagnosis skills required bymedical doctors [16]. Accordingly, Savery [16] defines “PBL as an instructional learner-centered approach that empowers learners to conduct research, integrate theory and practice,and apply knowledge and skills to develop a viable solution to a defined problem. Critical tothe success of the approach is the selection of ill-structured problems (often interdisciplinary)and a tutor who guides the learning process and conducts a through debriefing at theconclusion of the learning experience”.Evolution of the courseAt Texas State University, a course in Concrete Problems
Renewable Energy Engineering students: developed and taught a new undergraduate dual listed course, Ocean Renewable Energy, in spring 2010. This course has now also been developed and is offered (and has been taught) as a ’Distance Education’ course. • Course and lab development for Advanced Composites for Manufacturing Engineering Technology and Mechanical Engineering Technology students: developed and taught a new undergraduate dual listed course, Advanced Composites, in spring 2009 and winter 2010. • Student advising and course integration in sustainable concepts and life cycle analysis and material Page
Paper ID #8459Using Practical Examples in Teaching Digital Logic DesignDr. Joseph P Hoffbeck, University of Portland Joseph P. Hoffbeck is an Associate Professor of Electrical Engineering at the University of Portland in Portland, Oregon. He has a Ph.D. from Purdue University, West Lafayette, Indiana. He previously worked with digital cell phone systems at Lucent Technologies (formerly AT&T Bell Labs) in Whippany, New Jersey. His technical interests include communication systems, digital signal processing, and remote sensing
Education, 2014 Applying Six Sigma in Higher Education Quality ImprovementAbstractQuality in higher education became an important issue due to ever increasing demand bystakeholders and competitive environment. Although six sigma has been successfully used inproduct and service improvement in the business environment, the concept has not been adaptedin higher education. To improve understanding of how six sigma can be used for highereducation process improvement toward achievement of quality, a number of models arepresented. Six sigma principles such as process improvement, reducing waste and continuousimprovement aligns closely with the mission of higher education institutions and accreditationagencies. Using six sigma tools such as
Professor of Chemical Engineering at Oregon State University. He received his B.S. and M.S. degrees from UC San Diego and his Ph.D. from UC Berkeley, all in Chemical Engineering. He currently has research activity in areas related engineering education and is interested in integrating technology into effective educational practices and in promoting the use of higher-level cognitive skills in engineering problem solving. His research interests particularly focus on what prevents students from being able to integrate and extend the knowledge developed in specific courses in the core curriculum to the more complex, authentic problems and projects they face as professionals. Dr. Koretsky is one of the founding members of the
, Mankato Rebecca A. Bates received the Ph.D. degree in electrical engineering from the University of Washington in 2004. She also received the M.T.S. degree from Harvard Divinity School in 1993. She is currently Professor and Chair of the Department of Integrated Engineering program at Minnesota State University, Mankato, home of the Iron Range and Twin Cities Engineering programs.Dr. Deborah K. Nykanen P.E., Minnesota State University, Mankato Deborah K. Nykanen is a Professor of Civil Engineering at Minnesota State University, Mankato. She received her Ph.D. degree in civil engineering from the University of Minnesota in 2000. Her teaching, research and professional experience focus on water resources, hydrology and
currently an Associate Professor and the Bioengineering Undergraduate Program Director. Dr. Molitor’s research interests include molecular mechanisms of cellular excitability, computational modeling of neuronal function, auditory neuroscience and treatments for traumatic brain injury. He has supervised the thesis and dissertation work of numerous graduate students working in these research areas. His educational interests include preparing high school and first year college students to study engineering mathematics, and the teaching of science and mathematics to young children.Dr. Joan N Kaderavek, University of Toledo Joan Kaderavek, Ph.D., has been awarded the title ”Distinguished University Professor” of Early Child
sensors, microcontrollers, mechatronics, and robotics through training, mentoring, and real-world collaborative engineering research, to renew their science, math, and research skills.2. Provide teachers with experience, skills, and resources in hands-on, engineering research and entrepreneurship, including prototype product development, so that they can integrate real- world technology used by scientists and engineers in their classrooms and labs.3. Enable project personnel to integrate their research, teaching, curriculum and lab development, and outreach activities. Mechatronics is selected as the intellectual focus of this project for several reasons. First,as a multidisciplinary subject, mechatronics can provide an
emphasis of the Purdue course is that students must construct an automated device,integrating prior knowledge regarding mechatronic systems components. In the past, the Purdueprojects have not been based on real-world problems. Thus, the authors have experienceinstructing mechatronics in the absence of a PBL activity. This article describes student reactionsto incorporating PBL into the Lawrence Tech course. Future work will incorporate PBL intoPurdue’s course to generate additional data, albeit from public research university rather than aprivate teaching university.During the first half of the mechatronics course, students are exposed to traditional lectures andlab experiments. In the second half of the course, students work collaboratively to
(ASEE). Involved in supervision of 13 PhD projects and published around 200 publications. Member of several organizations and committees within EER, national government bodies, and committees in the EU. Page 24.594.1 c American Society for Engineering Education, 2014 Faculty Approaches to Working Life Issues in Engineering CurriculaAbstractThe purpose of this paper is to identify faculty approaches to working life issues inengineering education. The paper focuses on faculty attitudes towards working life issues andtheir integration into the curriculum and on activities related to working life
and Nanotechnology to the First Year Students Through an Interactive Seminar Course,” J. Nano Educ., vol. 4, pp. 41-46, 2012. 2. Zheng W., Shih H. R., Lozano K., Pei J. S., Kiefer K., and Ma X., “A Practical Approach to Integrating Nanotechnology Education and Research into Civil Engineering Undergraduate Curriculum,” J. Nano. Educ., vol. 1, pp. 22-33, 2009. 3. Mehta B. R., “Nano Education at Indian Institutes of Technology: A Status Report,” J. Nano. Educ., vol. 1, pp. 106-108, 2009. 4. Certificate in Nanotechnology and Nanoscience, George Mason University [Available: http://cos.gmu.edu/academics/graduate/certificates/certificate-nanotechnology-and-nanoscience]. 5. Drexel University - BSc Materials Engineering with
results. Engineeringtechnology baccalaureate degree program must provide a capstone or integrating experience that Page 24.1242.2develops student competencies in applying both technical and non-technical skills in solvingproblems (as specified in the ABET ETAC general criterion 5: curriculum).4 An example of thisneed is expressed in one of the recommendations from the ASME Vision 2030 report where thecurrent weaknesses of graduates expressed by their employers, as well as the early careerengineers themselves are that Mechanical Engineering Technology (MET) programs shouldstrive towards creating curricula that inspire innovation, creativity, and
, however, have observed that terms that are distinguished by theorists and scholarsare used interchangeably by faculty32-37. To capture this variation in our study, we definedinterdisciplinarity broadly to include curricular topics that require contributions from multipledisciplines, whether or not faculty seek to integrate disciplinary knowledge or insights.Influences on Faculty Members’ Curricular DecisionsIn a multi-institution, multi-field study of faculty course planning, Stark, Lowther, Bentley,Ryan, Martens, Genthon & others38 found that an overwhelming majority of faculty identifiedtheir own background, scholarly training, teaching experiences, and their beliefs about thepurposes of education as significant influences on their course
,technology, engineering, and mathematics (STEM) field as a whole has failed to provideeducators with an adequate literature-based framework for the infusion of engineering designexperiences into the classroom. This includes determining proper sequencing of engineeringdesign activities and establishing what types of engineering design problems high schoolstudents are able to work or solve. This paper will attempt to ameliorate some of these issues bypromulgating a conceptual framework for introducing engineering design experiences to highschool students. We will address the following areas in regards to engineering design in highschool settings: situating engineering design in the curriculum, sequencing the engineeringdesign experience, selecting