selected universities aroundthe world. Course offerings of sixty one universities were studied. From this study, it can beseen that universities are using six models to integrate computing intelligence concepts into their Page 23.316.5computer science and engineering curriculum: 1. Offering an undergraduate course on computational intelligence or one of its paradigms. 2. Offering a graduate course on computational intelligence. 3. Integrating computational intelligence paradigms into their traditional courses. 4. Offering a graduate degree on computational intelligence 5. Offering a minor in
an organization and were provided an opportunityfor advancement, was needed as an option within the curriculum. Because of the applied natureof this integrative learning internship course, it was also decided that signature work andassignments would be created and embedded in the course.Pre-requisites for the course were as follows: completion of TCM 32000: Technical Writing inScience and Industry with a grade of B or better, cumulative GPA of 3.0, an existing internshipwithin an organization or an existing position within an organization and opportunity foradvancement, signed employer agreement, and willingness to be visited by OL faculty at least 3times per semester. The course description was developed by OL faculty and is below:This
them with a hands on experience. In addition, the paper will cover the teachingmethodology used, project milestones scheduled to motivate students, and the criteria used toassess student learning.Introduction and BackgroundA new curriculum recently adopted at California Polytechnic State University, San Luis Obispo (CalPoly) is based on a model similar to that proposed by Hauck and Jackson5, where constructionmanagement is taught as a series of labs integrating the various construction management coursesinto an active, applied learning experience. The integrated curriculum for the Cal Poly constructionmanagement department centers on seven (7) project-based laboratory courses. They are as follows: • Fundamentals of Construction Management
engineering curricula are –according to the Act on Higher Education - the minimum requirements set for each field ofstudy by the National Council of Higher Education (NCHE), an independent body composed ofrepresentatives of institutions of higher education.So far, the minimum requirements have been formulated by the NCHE only for a limited subsetof fields of study and only for the traditional 5-year integrated BS-MS program. Theserequirements specify some general characteristics of the curriculum and, for a specific field ofstudy, define a list of subject areas that must be covered by the curriculum and thecorresponding number of scheduled contact hours.The general curriculum requirements formulated in 1996 for electrical and computer engineering(ECE
to look for workable solutions to specific problemsrather than universal solutions.4Recent criticism of scientific approaches to curriculum design, implementation, and evaluationhave been accompanied by an alternative approach often referred to as design or developmentresearch.11 Central to the idea of design research is that the design of the curriculum and theresearch on the effectiveness of the curriculum are not separated. Design and research areiterative processes that provide feedback for each other through cycles of design,implementation, and evaluation. The design is based on theories of learning while the researchon the design provides clarification of the theory as it is put into practice. Clarification theninforms changes in the
. An important questionthat must be continuously addressed is: how do engineering technology faculty, who live in anenvironment of research expectation, combine their classroom and laboratory teaching interestswith research interests? This paper will discuss a process for bringing together what manyfaculty feel is a dichotomy between teaching and research. How engineering technology facultymight develop a rewarding career in both teaching and research will be outlined.I. IntroductionMany engineering technology faculty in the United States are employed at universities whereresearch is an integral part of the university’s mission. Faculty performance at those schools ismeasured in various combinations within the triad of teaching, research and
andelectronic form (e-mail). Since most undergraduate engineers enter the workforce directly from college (~20%attend graduate school), an engineering curriculum should better prepare students for the type of skills they willneed in industry. 1,2,3,4 This “simulated corporate” environment presented in this paper is design to emulate the learning processstudents will encounter in industry. This course is designed as part of the electrical and computer engineeringcurricula that exposes students to all aspects of integrated circuit design and fabrication. Specifically thiscourse 1) gives students hands-on experience with computer aided design tools for designing integrated circuits;2) allows students to fabricate their designs through NSF sponsored
architecture.” In contrast to skill-focused teaching, a positionstatement by eCAADia 2001 proposed that there should be an integration of CAAD educationinto architectural curriculum and that CAD education should be taught during the whole span ofarchitectural education [5]. Similarly, a white paper by the Association for Computer AidedDesign in Architecture (ACADIA) stated that “students need to use digital techniques throughoutthe curriculum” and that “a digital design sensibility must pervade the school culture” [8]. Given the predominance use of discrete courses to deliver content related to CAD inmany architecture curriculums, an alternative approach to integrating digital skills may be toutilize the discrete CAD courses as a mechanism for
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
introductory software engineering course with integrated mobile application development. Annual ASEE Conference. 2014.4. Subbian V, Purdy C. Redesigning an advanced embedded systems course: A step towards interdisciplinary engineering education. IEEE Integrated STEM Education Conference. 2013.5. Subbian V, Beyette F. Developing a new advanced microcontrollers course as a part of embedded systems curriculum. Frontiers in Education Conference. 2013:1462-1464.6. Inozemtseva L, Holmes R. Coverage is not strongly correlated with test suite effectiveness. Proceedings of the International Conference on Software Engineering. 2014:435-445.7. Harder M, Morse B, Ernst MD. Specification coverage as a measure of test suite quality. ACM. 2001;25
cognitionthan experienced earlier in their curriculum, which focuses more on analytical skills. In thecontext of providing an effective capstone experience, we have developed two virtuallaboratories, the Virtual Chemical Vapor Deposition (CVD) laboratory and the VirtualBioreactor (BioR) laboratory.2-5 In a virtual laboratory, simulations based on mathematicalmodels implemented on a computer can replace the physical laboratory. Virtual laboratorieshave been developed and integrated into engineering curricula.6-10 However, relative to the workon instructional development, the degree of assessment has been sparse.11-13Our intent is to provide students a capstone experience in which they can apply experimentaldesign in a context similar to that of a
drives in tabular form. Linear motors areelectrically independent units. The commissioning of the linear motor can therefore beperformed sequentially. It does not matter which motor (linear motor or rotary motor) iscommissioned first. Without the need for mechanical gears, spindles, or belts as an intermediaryconnection, the motion is entirely electrical and wear-free. The linear motor stator includesposition capture sensors, bearings for linear movement, motor windings, and a microcontrollercircuit for motor monitoring [1].System Advantages and Technical AspectsThis system will be integrated with existing hardware equipment already present in the lab. Thiswill create opportunities for students to learn and practice system integration using
York 11794-3760 Page 13.414.1© American Society for Engineering Education, 2008 An Interdisciplinary, Research-Intensive Minor in Nanotechnology StudiesAbstract:At Stony Brook University, we have developed a multidisciplinary minor in NanotechnologyStudies unique in its ability to attract undergraduate students from a broad range of academicbackgrounds, to integrate into existing majors and programs through mentored research, and tofoster professional development through teamwork, communications and active learning. TheMinor in Nanotechnology Studies (NTS) is an interdisciplinary, research
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
Design/Mfg track courses (Capstone) Tech. elective coursesFigure 1. WSU Vancouver Mechanical Engineering curriculum related to the Design andManufacturing Track. Page 14.693.5The following three objectives guide us in the design and implementation of the new curricula:(1) Integration of modern technologies; (2) Sustaining a student-centered education with multiplehands-on experiences; and (3) Initiation of an outreach program to expose youth to design
then serve as clients for an engineering student team. Engineering teams arecomposed of MEng student project managers and BS student engineers, working on the projectover the course of their capstone classes. Yet, the design and implementation of aninterdisciplinary curriculum can be a challenge for instructors and students alike. These challengesmay be due to differences in epistemological views, constraints of the higher education system, ora lack of frameworks that support interdisciplinary approaches. In this paper, we will share aframework for a design continuum of biomedically focused projects to provide students within ourprograms with a design experience relevant to appropriate academic, clinical, and industry rolesand functions while
integrating and instilling communityawareness into a course or curriculum is not a new idea. Purdue University has successfullyinitiated the Engineering Projects in Community Service (EPICS) Program with the intent ofintegrating the community into the curriculum. EPICS has been successfully integrated into theelectrical, mechanical, and chemical engineering curriculums at Purdue University and has asignificant infrastructure made up of faculty, staff, and teaching assistants. ProCEED is differentbecause it is student run. It is a program maintained by students for students. This uniqueimplementation of the program allows student to take an active role in contacting the communityas well as an active role within the department. Students take the lead
indicator. Assessment items were coded to technology literacy if they tested students only on their knowledge of technology related to the curriculum. An overview of our codes and their definitions are presented in Table 1. Table 1. Definitions of TAGS and POD coding terms.Task Analysis Guide in Science (TAGS)Memorized Practice Reproducing descriptions of scientific/engineering practicesMemorized Content Memorizing a collection of scientific/engineering definitionsScripted Practice Following a standard set of proceduresScripted Content Using steps related to a standard principleScripted Integration Following basic procedures within both content and practiceGuided
on the application ofdesign thinking in tourism education. Both studies demonstrate how educators in diversedisciplines often make disciplinary adjustments to adapt to the unique requirements of innovationand design.A comprehensive review of the literature on the topic of design thinking in engineeringeducation was conducted. Here we present four representative reviews of the literature. Theseliterature reviews emphasize the advantages of integrating design thinking into engineeringeducation and the significance and superiority of such an approach. Dym [11] conducted areview of the history of design in the engineering curriculum and highlighted the most usededucational model for design thinking, Project-Based Learning (PBL). Lor's research
Professor at the Colorado School of Mines.Dr. Qin Zhu, Colorado School of Mines Qin Zhu is an Assistant Professor in the Ethics Across Campus Program and the Division of Humanities, Arts & Social Sciences at Colorado School of Mines, where he is co-directing the Daniels Fund Program in Professional Ethics Education that provides scholarly and grant support for faculty to integrate ethics into applied science and engineering curricula. Qin serves as a graduate faculty member in the Master’s Program in Natural Resources and Energy Policy at Mines. Qin is also Associate Editor for International Perspectives at the National Academy of Engineering’s Online Ethics Center for Engineering and Science and Book Review and
Engineering Education. Session 25664 Grimheden, M., and Hanson, M., “Mechatronics-The Evolution of an Academic Discipline in Engineering Education,” Mechatronics, Elsevier, 15:179-192, 2005.5 Angelov, C., Melnik, R.V.N., Buur, J., “The Synergistic Integration of Mathematics, Software Engineering, and User-Centered Design: Exploring New Trends in Education,” Future Generation Computer Systems, Elsevier, 19:1299-1307, 2003.6 Wright, A.B., “Planting the Seeds for a Mechatronic Curriculum at UALR,” Mechatronics, Elsevier, 12:271-280, 2002.7 Hargrove, J.B., “Curriculum, Equipment and Student Project Outcomes for Mechatronics Education in the Core Mechanical Engineering Program at Kettering University,” Mechatronics, Elsevier, 12:343-356, 2002.8
, minors and degree programs.Mechatronics and Robotics Engineering (MRE) is an integration of mechanics, controls,electronics, and software, which provides a unique opportunity for engineering students tofunction on multidisciplinary teams. Due to its multidisciplinary nature, it attracts diverse andinnovative students, and graduates better-prepared professional engineers. In this fast growingfield, there is a great need to standardize educational material and make MRE education morewidely available and easier to adopt. This can only be accomplished if the community comestogether to speak with one clear voice about not only the benefits, but also the best ways to teachit. These efforts would also aid in establishing more of these degree programs
AC 2011-638: TEACHING DESIGN AND TECHNICAL GRAPHICS IN AGREEN ENVIRONMENTV. William DeLuca, North Carolina State University Dr. DeLuca is an Associate Professor of Technology Education at North Carolina State University. He has been a technology education teacher at the middle school, high school, undergraduate and graduate levels for over 30 years, and has extensive teaching, research, and curriculum development experience. His research includes the study of thinking processes, teaching methods, and activities that improve techno- logical problem-solving performance and creativity. He has expertise in developing technology education curriculum that integrates science, technology, engineering and mathematics (STEM
,” Scientific integrity and ethics in the geosciences, pp. 133–153, 2017.[12] A. Katz and D. B. Knight, “Factors related to faculty views toward undergraduate engineering ethics education,” in 2017 ASEE Annual Conference & Exposition, 2017.[13] J. A. Cruz and W. J. Frey, “An effective strategy for integrating ethics across the curriculum in engineering: An ABET 2000 challenge,” Science and Engineering Ethics, vol. 9, pp. 543–568, 2003.[14] M. L. Cummings, “Integrating ethics in design through the value-sensitive design approach,” Science and engineering ethics, vol. 12, pp. 701–715, 2006.[15] J. L. Hess and G. Fore, “A systematic literature review of US engineering ethics interventions,” Science and engineering ethics, vol. 24, pp
examples of the classes and how we integratededucational technologies and provided materials to support STEM PBL in a unique setting.Finally, we will conclude with tips for teachers who are looking to use STEM PBL in an onlineenvironment. It is our hope that this presentation will provide valuable information for teachers,researchers, and administrators considering the unique challenges involved in engaging students inactive learning in online settings.ReferencesCapraro, R. M., & Slough, S. W. (2013). Why PBL? Why STEM? Why now? An introduction to STEMproject-based learning: An integrated science, technology, engineering, and mathematics (STEM)approach. In R. M. Capraro, M. M. Capraro, & M. Morgan (Eds.), STEM project-based learning
associated with the use of overarching problems are discussed,and initial assessment results are described. Fall 2010 Mid-Atlantic ASEE Conference, October 15-16, 2010, Villanova UniversityIntroduction: curriculum restructuringAfter two years of intense committee work, discussion, and course development, the Departmentof Civil and Environmental Engineering (CEE) at Villanova University began offering itsrequired mechanics sequence in a new integrated format to sophomores beginning with the Fall2009 semester. As shown in Table 1, the classical sequence of coursework in subjects of Statics,Dynamics, Mechanics of Solids, Fluid Mechanics, and Civil Engineering Materials was replacedwith a series of three four credit courses. An overview of
knowledge to actual problems.7 In the Fall of 1993, an American Society forEngineering Education (ASEE) task force of engineering deans and industry leaders observedthat social conditions limit engineering design more than technological considerations do.8Three years later, in 1996, the IEEE Spectrum convened an "Employment Roundtable,"concluding that the “non-engineering context” plays heavily into engineers’ careers and that theymust actively participate in decision-making processes.9 Page 11.1054.3In spite of these and many other admonitions, engineering instruction has changed slowly.Course and curriculum integration such as that initiated at
organizations. He is now getting a Masters degree and has been told heneeds to use library resources. The library resources he has used in the past are books that hisprofessor put on reserve for his class. He’s not sure what he’s supposed to do.This scenario is common in Wisconsin and probably in many other places. Instructors andlibrarians at the University of Wisconsin-Madison have created an infrastructure to helpengineering graduate students learn how to find and use information. The Master of Engineeringin Professional Practice (MEPP) at UW-Madison includes information literacy 1 throughout thetwo year curriculum. Some students understand the need to go beyond Google early in theprogram, but most students are gradually won over to secondary
AC 2010-1191: THE ATTITUDE OF CONSTRUCTION-RELATED STUDENTSTOWARD SUSTAINABILITY IN SOUTH KOREAHyuksoo Kwon, Virginia Tech Dr. Hyuksoo Kwon has completed his Ph.D. in the Technology Education/STEM Education program at Virginia Tech. His research interest are curriculum development, integrative approach among school subjects, and comparative educational research.Yong Han Ahn, East Carolina University Dr. Yong Han Ahn is an Assistant Professor in the Department of Construction Management at East Carolina University specializing in sustainable design and construction. Throughout his career, Yong Han has involved in sustainable design and construction projects to implement sustainability in the
Manipal University, Gangtok, India, in 2006, and the M.E.Sc. and Ph.D. degrees from Western University, London, ON, Canada, in 2009 and 2013, respectively, all in electrical engineering. Dr. Roy currently serves as an Assistant Professor with the Department of Electrical and Computer Engineering, Colorado State University, Fort Collins, CO, USA. His current research interests include modeling and simulation of high speed circuits, signal and power integrity analysis of electronic packages, and uncertainty quantification of microwave/ RF circuits. Dr. Roy is a recipient of the Vice-Chancellors Gold Medal at the undergraduate level in 2006, the Queen Elizabeth II Graduate Scholarship in Science and Technology in 2012