Design with Industry (3semester hr) to the systems design curriculum, students have been provided an opportunity for adeeper understanding of the need and benefit for systems design and systems engineeringmethodology.1This paper describes: 1. the perceived shortcomings of a systems design course curriculum in a traditional classroom setting; 2. the development of a non-traditional systems design course with the cooperation of a local industry partner; 3. examples of off-campus field trips to the industry partner that support systems design learning experiences; 4. the outcomes, feedback, and experiences from partnering with a local industry;2 5. additional student opportunities resulting from developing a partnership
to and read about how these engineering projects are making adifference in their communities: • Project BUILD (Building Using an Interactive Learning Design) [7] • Community-Engaged Engineering Interventions with Appalachian Youth [8] • Connections in the Making: Elementary Students, Teachers, and STEM Professionals Integrating Science and Engineering to Design Community Solutions [9] • Zipping Towards STEM: Integrating Engineering Design into the Middle School Physical Science Curriculum [10] • Collaborative Research: American Innovations in an Age of Discovery: Teaching Science and Engineering through 3D-printed Historical Reconstructions [11]In addition to the profiles of ITEST projects like
curricula. That phase, entitled theIntroductory Offer Phase, provided two Sun workstations, 2 Unigraphics software licenses,and 80 hours of training to selected key institutions in the U.S. Faculty used this phase toevaluate the software for use in their curricula, and determine their interest in otherphases of PACE. The PACE Industrial Partners provided more than $8 Million ineducational contributions of hardware, software, and training as a result of this phase.PACE’s Integrated Curriculum Phase provides hardware, software, and training insufficient critical mass to selected institutions, allowing the faculty to significantlyintegrate parametrics into their engineering and manufacturing curricula. In most cases,the institutions selected to
award in January of 2020 as supportedby emails from the Chair of the Mathematics Department. There was no resistance to offering thecourse in the Fall of 2020 since it was a strategy for the S-STEM award.The installation step began during the beginning of the global pandemic, the spring and summerof 2020. The planning of the corequisite course curriculum and design was only discussed byemail.The curriculum of the corequisite course was designed to teach calculus with review ofprecalculus topics imbedded throughout the course. The intent was not to teach precalculusfollowed with calculus but integrate key topics of precalculus within the calculus concepts. TheNorwich University precalculus curriculum works through examining functions from
Conference Proceedings, Jun 22-25, 2003, p 11408-11411. 4. Felder, R. M. and Silverman, L. K.,(1988), “Learning and Teaching Styles in Engineering Education,” Engineering Education 78(7), pp. 674-681. 5. Jensen, E. (1998), “Teaching with the Brain in Mind,” Alexandria, VA: Association for Supervision and Curriculum Development. 6. Klegka, J.S. and O'Donovan, T.E.,(2002), “Using SIMULINK as a design tool”, ASEE Annual Conference Proceedings, Jun 16-19, 2002, p 8505-8517. . 7. Metzger, R.P. and Rodriguez, A.,(2002), “An Interactive Modeling, Simulation, Animation, and Real-Time Control (MoSART) flexible Inverted Pendulum Environmnet”, ASEE Annual Conference Proceedings, Jun 16-19, 2002, p 1-9. 8. Rao, S.S
into two distinctive models (not shown in the Figure 1). One model represents thetraditional engineering curriculum in which the theory of the subject is presented first, followedby the hands-on activities. There is an alternative model commonly adapted by the engineeringtechnology programs, in which the theoretical knowledge presented in the lectures isimmediately reinforced with the laboratory hands-on activities.The second case represents the blended learning which combines face-to-face classroommethods with computer-mediated activities to form an integrated instructional approach. Figure 1: Educational approaches currently used in academiaThe goal of a blended approach is to join the best aspects of both face-to-face and
EducationOther members of the instructional staff in the freshman engineering course share this opinion ofclustering. The instructional staff includes an upper division undergraduate student who serves asa peer teacher. One peer teacher, who had previously worked with clustered sections, quitfollowing a semester with an unclustered section (on the possibility she may be assigned toanother unclustered section). Another faculty member echoed the same sentiment: I never want to teach an unclustered group of freshmen again!1. Evevett, L., P.K. Imbrie and J.R. Morgan, "Development of an Integrated First year Curriculum for Engineers", Journal of the American Society for Engineering Education, v. 89, no. 2, April 20002. Morgan, Jim, and Bolton
perspective on how a training program might be set up usingreal-world experiences in HCI. Seffah & Metzker18 discuss why HCI training should becomepart of the core curriculum in computer science; they also suggest that training in both fieldsshould be part of hiring managers’ employment criteria for software engineers.Integrating the Software Development TeamsFor a truly integrated process there needs to be an integration of software engineering and HCIfrom start to finish. For example, the requirements gathering process needs to be accomplishedby team members with expertise from both disciplines, continuing through planning, modeling,coding, testing, and deployment. Those with usability expertise will most likely focus on theuser interface
. Page 5.175.2Figure 1. Graphical Representation of ME 2000 Process ME 2000 Process Review and Feedback Process Program Review and Feedback Process Course and Curriculum Content Review and Feedback Process Course Delivery Review and Feedback Process Page 5.175.3 • ME 2000 Process Review and Feedback Process: Includes an assessment of the assessment tools and procedures used in the ME 2000 process.Each process has three components
Education, vol. 95, no. 5, pp. 877–907, 2011. [8] J. Engelbrecht, C. Bergsten, and O. Kagesten, “Conceptual and procedural approaches to mathematics in the engineering curriculum: Student conceptions and performance,” Journal of Engineering Education, vol. 101, no. 1, pp. 138–162, 2012. [9] D. Budny, G. Bjedov, and W. LeBold, “Assessment of the impact of the freshman engineering courses,” in Proceedings Frontiers in Education 1997 27th Annual Conference. Teaching and Learning in an Era of Change, E. Innovations, Ed., vol. 87, no. 4. Pittsburgh, PA: Stipes Publishing LLC, 1997, pp. 1100–1106. [Online]. Available: http://ieeexplore.ieee.org/document/636047/[10] K. O’Connor, F. A. Peck, J. Cafarella, J. F. Sullivan, T. D. Ennis, B
werenominal as for any engineering or science course. The biggest challenge was the internal cohesion of the course since it was taughtby a triumvirate with mixed backgrounds, discrete teaching skills, and each carrying theirspecialty’s particular language. For the course in 2004 (and presumably useful beyond this date)we obtained a NSF NUE (Nanotechnology Undergraduate Education) grant14 for $100K to createa web book. This book is becoming available on our course web site4; compared to the 2003course, the material is more fully integrated within each subject area of nanotech and is in asemi-archival format so the students will have access to it. Perhaps more importantly, as an NSF-sponsored grant, it will be on-line for any users to
middle school teachers via its Earthstorm outreach program. Finally,an assessment plan has been devised by a nationally known expert who specializes in learn-ing and course development. There are several special features in this research-oriented teaching program, including:(1) it is the only program in the country with a full and equal collaboration between theSchool of Meteorology and the School of Electrical & Computer Engineering for the purposeof adding strength to an existing, successfully integrated curriculum on weather radar,(2) it has access to weather data from the recently constructed National Weather RadarTestbed (NWRT). Students have a unique opportunity to take advantage of the weatherdata derived from the new phased array
STEMeducation with industry for innovation. The objective is to prepare learners for STEM careers and to connectindustry through academia. In higher education, the critical learning skills are necessary to STEM educationand degree completion. There are retention efforts provided for the curricular support program that scholarshave contribute to motivation and outcomes of STEM interdisciplinary degree completion. Our efforts tosupport pre-college STEM education includes an understanding of college readiness and the learningenvironment using project-based learning (PBL). Hands-on experiences are general found to be successfulwhen integrated using PBL methods with industry. According to recent study, both intrapersonal andinterpersonal skills in PBL has
Paper ID #38265S-STEM Summer, Sophomore Bridge: Successes of TwoCohorts and Experiences of our Year 5 CohortKatie Evans (Dean) Dr. Katie Evans is Professor of Mathematics and the Dean of Science and Engineering at Houston Baptist University (HBU). Prior to HBU, she was on faculty at Louisiana Tech University for 16 years in the College of Engineering and Science, where she served as Associate Dean of Strategic Initiatives, Academic Director of Mathematics & Statistics and Online Programs, the Entergy LP&L/NOPSI #3 & #4 Professor of Mathematics, the Director of the Integrated STEM Education Research
Page 23.1107.1 c American Society for Engineering Education, 2013 Student-created water quality sensorsAbstract- This paper describes the structure and impact of an NSF-funded ITEST projectdesigned to enrich STEM education using educational modules that teach students toconstruct, program, and test a series of sensors used to monitor water quality. During the fouryears of the SENSE IT project, over 60 teachers across New York, New Jersey andWashington State were provided with equipment and professional development, and thenimplemented the modules in their classrooms with over 2,500 middle and high school students.Project evaluation results indicate that the curriculum was well received by
Session 1526 Non-traditional Laboratory Experiments: Olive Oil Manufacturing and Testing Mariano J. Savelski, Robert P. Hesketh, Stephanie Farrell and C. Stewart Slater Chemical Engineering Department. Rowan University, Glassboro, NJ 08028Abstract As part of an integral approach in using hands-on teaching and learning, the ChemicalEngineering Department at Rowan University is constantly developing unique experiments inwhich students learn fundamental principles through exploration of familiar objects, products,and processes. The manufacturing and analysis of olive oil utilize a series of chemical processes
design thinking, problem-solving, collaboration, and communication skills (visual,written, and oral) that are necessary for success in engineering and computer science disciplines.The Common Threads: Course ThemesThe design of an introductory engineering course – broadly defined as a course thatencompasses multiple majors, acclimates new students to a university learning environment, andintroduces them to the broader field of engineering –has been explored at many institutions. Suchcourses have been designed with specific outcomes in mind, such as improving student skills inengineering problem solving and teamwork [1], integrating real-world engineering challengesinto the curriculum [2], and community building [3][4]. In many cases, multiple
the Florida Agricultural and Mechanical University in Jan. 2004 under the supervision of Dr. Reginald Perry. Upon completion of his Ph.D., Soares was immediately hired as an Assistant Professor (tenure-track) in the Electronic Engineering Technology Department at FAMU. Soares has made many contributions to the department, from curriculum improvements, to ABET accreditation, and more recently by securing a grant with the Department of Education for more than half a million dollars. Page 25.1153.1 c American Society for Engineering Education, 2012 Senior Design Projects
career awareness. The total matching and in-kind funds projected in theoriginal proposal through the end of year 3 (March 2000) was $2,141,095. The actual matchingand in-kind funds for the period September 1997 through February 2000 was $3,945,722. Hi Freq. Impedance Tester, B-H Tester Donated by Sandia Labs Donated by Sandia Labs Figure 1. Example of Donated Equipment To date, the principal activities of the Center have been to:1) Meet with the National Advisory Board (National Visiting Committee), an assembly of experts in curriculum, administration, and industry;2) Continue the high school technician program and the A.S. Telecommunications degree
. Starting in 2000, Alan began to focus on supporting higher education partners in projects that address broadening participation in the sciences, graduate student development, curriculum innovation, instructional technology, teacher professional development and other education reforms. For the past five years, Alan has been the lead evaluator for Epicenter, an NSF-funded STEP Center focused on infusing entrepreneurship and innovation into undergraduate engineering education.Mr. Emanuel Costache, SageFox Consulting Group Since joining SageFox in 2009, Emanuel has worked on the evaluation team for a variety of NIH- and NSF-funded projects, including the National Center for Engineering Pathways to Innovation (Epicenter
theoretical principles of technical tasks, they struggle withevaluating and synthesising real engineering problems due to a lack of actual experience1,2. Suchexperience can be gained through real-world engineering research projects, where creative andadaptive problem-solving is facilitated in a contextual learning environment3,4. Contextuallearning is especially important for natural resources, environmental, biological, civil and otherengineers who practice at the interface of the living environment (i.e. ecosystems)5.Industry depends on its ability to attract graduates with a deep technical and broad professionalskills base. Professional skills are considered an integral part of an engineers formal education asstipulated in the professional
engineering education community. He co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathematics at Rose-Hulman Institute of Technology, which was recognized in 1997 with a Hesburgh Award Certificate of Excellence. He has authored or co-authored over 70 papers on engineering education in areas ranging from curricular change to faculty development. He is collaborating on NSF-supported projects for (i) renewal of the mechanics of materials course, (ii) improving preparation of students for Calculus I, (iii) systemic application of concept inventories. He is currently an ABET Program Evaluator and a Senior Associate Editor for the Journal on Engineering Education
been developed to acclimate and accelerate veteransinto an electrical and computer engineering degree. The projected shortage of trained technicalpersonnel in renewable energy and energy distribution systems areas has been the targeted initialtechnical focus.Technical focusThis paper focuses on the program’s impact and progress with developed tools and materialsnecessary to acclimate and accelerate military veterans towards successful bachelor degrees inengineering. Because of the opportunity to involve veterans in the workforce, researchers havedeveloped a program to help integrate veterans into electrical and computer engineering degrees. Theinitial technical focus emphasizes renewable energy and energy distribution systems areas, whichhave
towards 2computing in civil engineering programs . Another task committee of the TCCP Education Committeeconducted a survey in 1989 to assess the current computing curriculum in civil engineering education and the 6computing needs in civil engineering practice . In 1991 Baker and Rix of Georgia Institute of Technologyconducted a survey to obtain information that would enable them to better assess the role of computing within 1the curricula . In 1992 Henry summarized the information collected by these surveys and discussed a 4philosophy of integration into the civil engineering
. Page 12.1494.1© American Society for Engineering Education, 2007 To Encourage and Excite the Next Generation of Engineers through Human-Robot Interaction Projects for Space ExplorationAbstractThe robotics field represents the integration of multiple facets of engineering and science – frommechanical construction to intelligence programming to science data analysis. It is an idealopportunity to showcase the relationship math and science have on tangible real-worldapplications. Unfortunately, the multi-disciplinary nature of robotics creates difficulty in usingrobotics as a pedagogical tool for the diverse learning styles present in different disciplines. Theinfusion of low-cost robotic platforms has alleviated some of these
efficient. An example is in the Pharmaceutical industry where statisticaltools are used to determine the need to speed up the drug-development process, and the Food and DrugAdministration's (FDA's) expectations for the incorporation of the principles of quality by design (QbD)and process analytical technology (PAT) in process and analytical development [1]. In addition, employersof chemical engineering graduates require applicants to understand statistical tools prevalent in industry.Currently, statistics is not a required course in Chemical Engineering (ChemE) curriculum at NortheasternUniversity. There is a need to teach and apply valuable statistical tools into the ChemEcurriculum. However, the industrial engineering (IE) curriculum includes
program. During their first year, studentsexperience projects in ENGE 1215/1216 Foundations of Engineering as well as ECE 1004Introduction to ECE Concepts. In their fourth year, students enroll in a two-semester ECE 4805Capstone Design Course. Through the RED project, the second year was redesigned as an ECEcornerstone program to scaffold between foundational knowledge and choice of a major. Thiscourse is a capstone to the ECE second-year curriculum that has been redesigned to help studentsconfidently choose their major and have the skills to succeed in more advanced and specializedcourses. The projects in this design course integrate knowledge from the technical classes thatare the main focus of the middle years of engineering programs. Since
globalization: • Adapt to changing job challenges and to internationalization • Function in a multicultural team and provide leadership • Apply education in solving a global range of problems • Appreciate worldwide business enterprise, technology management, and social and legal issues.The editing of a list of program goals is one thing; however, changing the curriculum to betterreflect the globalization emphasis is quite another. In a broader sense, how does an existingengineering degree program implement features that promote a global awareness for students—including the lecture hall, outside the classroom, and as part of the overall undergraduateexperience? At the same time, this must be accomplished while honoring the
globalization: • Adapt to changing job challenges and to internationalization • Function in a multicultural team and provide leadership • Apply education in solving a global range of problems • Appreciate worldwide business enterprise, technology management, and social and legal issues.The editing of a list of program goals is one thing; however, changing the curriculum to betterreflect the globalization emphasis is quite another. In a broader sense, how does an existingengineering degree program implement features that promote a global awareness for students—including the lecture hall, outside the classroom, and as part of the overall undergraduateexperience? At the same time, this must be accomplished while honoring the
selection for engineering design.DESIGN OF THE CURRICULUM FOR GPMT EDUCATIONManufacturing technology is integrally tied to advancements in materials science andtechnology. Materials science and technology have played a critical role in the technologicalevolution of our society, from structural steels to optoelectronics and robotics technology.We have enhanced the five current core courses within the current project (NSF AWRARDNo.: DUE- 1044794): that is, materials technology, mechanical engineering technology lab,plastics processing technology, solid modeling and design, and robotics in manufacturing.Also, we established an intensive undergraduate research program for co-op students in themanufacturing and mechanical engineering technology programs