quiet sort of revolutionary. ASEE Prism. 2002; 12:26-30.2 Al-Houlou N, Bilgutay NM, Corleto C, Demel JT, Felder R, Frair K, Froyd JE, Morgan J, Wells, DL. First-yearintegrated curricula: Design alternatives and examples. Journal of Engineering Education. 1999; vol. 88:435-440.3 Everett LJ, Imbrie PK, Morgan J. Integrated curricula: Purpose and design. Journal of Engineering Education.2000; vol. 89:167-175.4 Carr R, Thomas DH, Venkataraman TS, Smith AL, Gealt MA, Quinn R, Tanyel M. Mathematical and scientificfoundations for an integrative engineering curriculum. Journal of Engineering Education. 1995; vol. 84:137-150.5 Muscat AJ, Allen EL, Green EDH, Vanasupa LS. Interdisciplinary teaching and learning in a semiconductorprocessing course
building construction, and reduce the necessity of a largenumber of laborers [8]. However, 3D printing-based curriculums are seldom integrated intoconstruction management education, due to which graduating students are unprepared for theevolving construction job market.There are several applications of 3D printing in an academic setting that includes: (1) to produceartifacts that aid learning materials; (2) to create assistive technologies; (3) to teach studentsabout how 3D printing technologies work; (4) to teach instructors about 3D printingtechnologies; (5) to use it as a support technology during teaching; and (6) to support outreachactivities [9]. Although there are several online materials that could help students explore 3Dprinting
multidisciplinaryteam as one of its undergraduate curriculum learning outcomes, listed in Appendix B.Communication skills are considered an important component within engineering curricula,either as stand-alone classes or integrated into a program curriculum along with otherimportant process skills. In the integrated approach, all of these skills are coveredprogressively in a series of courses. Examples of the integrated approach are those at theVirginia Tech's Materials Science and Engineering Department3 and the University ofQueensland’s Project Centred Curriculum in Chemical Engineering for the third and fourthyear students4.The communication skills course in our program is a stand-alone class, nevertheless, it hasbeen developed as part of our effort to
outcomes areto be integrated effectively. This is true for both vertical integration within a program andhorizontal integration across all the institution’s engineering programs. If faculty cannot makethe connections across courses, it will be difficult to transfer knowledge, behavior and attitudesacross the curriculum [19]. Second, to properly recast each outcome into measurabledescriptions that will result in usable assessment results requires sufficient expertise, resources,and time. This often cumbersome and difficult task for many engineering faculty is only oneinitial step in the overall preparation for the new accreditation.A Working Definition. Based on the preceding discussion, an operational definition of studentlearning outcomes
Education. 1, (1), 21 – 32. Kelly, D. T and J. Heywood (1996) Alternative approaches to K – 12 School technology illustrated by an experimental course in technical investigations. Proceedings Frontiers in Education Conference (IEEE/ASEE) pp 388 – 393.40. See for example the argument in Culver, R. S and J. Hackos (1982) Perry’s model of intellectual development. Engineering Education, 73, (2), 221 – 226. For models of curriculum integration see Fogarty, R (1993). Integrating the Curriculum. IRI/Skylight Publ. Pallatine , Il27 Turner, B. T (1958) High altitude passenger flying with special reference to air treatment. Journal of the Junior Institution of Engineers 68, 21928 Heywood, J. Turner, B. T., Lee, L. S., Monk. J.D., Moon, J
Implementation D of Computing Curricula 1991. The distinguishing features are:(1) materials based on a strategic sequencing and the associated Bloom level of mastery of key topics, (2)topical coverage carefully based on a spiral approach to information presentation, (3) integral use of structuredlabs as a necessary component of the course, (4) an emphasis on frequent feedback to facilitate learning and toevaluate the effectiveness of instruction, (5) an early use of teams, (6) a student surveying tool used to track allstudents to provide outcome assessment, and (7) review and evaluation by multiple institutions for iterativematerial refinement and national dissemination. A preliminary on-site evaluation, by a team of five consultantswith expertise in
Session 2625 Concurrent Engineering: A Partnership Approach Robert P. Smith / Russell R. Barton, Craig A. Nowack / Jose L. Zayas-Castro University of Washington / Penn State University / University of Puerto Rico MayagiiezIntroduction There is an increasing focus on product development in engineering education. This change is aresponse to the need for engineering graduates to be able to provide immediate and tangible benefit tomanufacturing companies in an era of heightened competitiveness. The focus on integrative productdevelopment aspects in the manufacturing process have been termed concurrent or
Learn., vol. 7, no. 2, Sep. 2013, doi: 10.7771/1541-5015.1339.[6] T. J. Moore, S. S. Guzey, and A. W. Glancy, “The EngrTEAMS Project: STEM Integration Curricula for Grades 4-8 (Curriculum Exchange),” presented at the 2014 ASEE Annual Conference & Exposition, Jun. 2014, p. 24.1212.1-24.1212.2. Accessed: Feb. 11, 2023. [Online]. Available: https://peer.asee.org/the-engrteams-project-stem-integration-curricula- for-grades-4-8-curriculum-exchange[7] A. Hira and M. M. Hynes, “Design-based research to broaden participation in pre-college engineering: research and practice of an interest-based engineering challenges framework,” Eur. J. Eng. Educ., vol. 44, no. 1–2, pp. 103–122, Mar. 2019, doi: 10.1080
: THEME: INTEGRATION OF KNOWLEDGE: LIVING IN AN INTERDEPENDENT UNIVERSE Each student takes two 300-level courses that integrate two or more categories of the core curriculum. 300 Level Interdisciplinary Courses …………………………………………………………………………………………… 6 hours Each student also takes a 400-level senior seminar that integrates two or more perspectives of the core curriculum and that requires students to demonstrate the ability to do appropriate interdisciplinary scholarship and present it in both oral and written forms. 400 Level Senior Seminar ……………………………………………………………………………………………………… 3 hours TOTAL 48
information into a course is where it willfit within the broader curriculum. With an emphasis on standards-based education and increasedteacher accountability, one of the concerns that we most often hear from teachers is thatnanoscience material doesn’t fit into the existing courses that they teach, and they do not havetime in the school year to add new, innovative materials to their classes. Therefore, it isimportant to understand where teachers believe nano can fit into what they already teach. Acrossthe board, this seems to be a priority for the majority of teachers. Compiling information abouthow teachers connect nano to their existing curricula will allow us to provide new ideas to ourparticipants about integrating NSET content, and may also
ofintegration that are possible include: manipulating and graphing data from Chemistry lab usingcomputer tools in the engineering course, applying derivatives and integrals learned in math to“engineering” problems, learning an introduction to statics and dynamics in the engineeringcourse as they are learning about forces and motion in Physics. In our first offering of the engi-neering courses, the integration of these topics was minimal at best, however, we are currentlyworking to address this problem.During the 2000-2001 academic year, the integration of math, science and engineering occurred Page 6.555.5only within the engineering courses. Math and
. Seebauer, A. Tillman, and T. Vogel, Integrating TeamBased Design Across the Curriculum at a Large Public University. Chemical Engineering Education, 2014. 48(3): p. 139-148. 5. Shaeiwitz, J.A., W.B. Whiting, R. Turton, and R.C. Bailie, The Holistic Curriculum. Journal of Engineering Education, 1994. 83(4): p. 343-348. 6. Clark, W., D. DiBiasio, and A. Dixon, A project-based, spiral curriculum for introductory courses in ChE: Part 1. curriculum design. Chemical Engineering Education, 2000. 34(3): p. 222-233. 7. Hirt, D., Integrating design throughout the ChE curriculum: lessons learned. Chemical Engineering Education, 1998. 32: p. 290-295. 80ABHAYA DATYEDr. Abhaya Datye has been on the faculty at the University
inTable 2 while Table 4 is the entire list of Caucus distilled technician skills. Table 3entries are alphabetically listed however, the 3 sections of lists in Table 4 arearranged to facilitate their visual presentation with no priority in skill listed. The skillslisted reflect the spectra of expectations for technicians involved in Industry 4.0technology integration into manufacturing processes. Those technologies arecollectively resident in technology clusters defined by the Boston Consulting Group(See Figure 1.)An important objective of the Caucus effort was to determine if the identified skillswere already incorporated in the Florida Department of Education maintained A.S.ET degree Framework Standards & Benchmark structure. Each skill in
Principles of multi-discipline engineering education; x Education models; and x Synthesis.It is the authors’ intent to present several approaches with varying objectives; however,participant input will also be sought as an integral part of this discussion.Global IndustriesTechnical education has been broadly defined as education preparatory to entering an occupationwhich requires a degree of higher education.1 The swift degree of change has influencedvirtually every angle and phase of our lives. Today’s bounds in technology guarantees totransform the way we teach more critically than any other dominance in the past one hundredyears. Moreover, led by the success of global manufacturing, improvements in communicationand
and hone their problem solving skills while theyare with us.Where should we introduce this material in the curriculum? It's already too full, you say.What should we leave out to make room for it? I don't believe that's the correct approach.There is a variety of ways that can (and should, in my opinion) be used to cover theseskills in a traditional engineering curriculum. One alternative is as part of an introductoryengineering course for freshman. Many schools have decided to move some designactivities down into the freshman year courses. Design activities (at the freshman or evenat the level of the senior capstone course) provide an ideal vehicle to insert this materialinto the curriculum. Laboratory courses also are a good time to cover
Teacher Education (ITTE) at the University of Limerick (Ireland) and NorthCarolina State University (USA). An in-depth review of the nature and purpose of graphicsbetween both institutions is presented. A number of pertinent questions relating to thedefinition of being graphically capable and curriculum planning are presented. This paperwill be of particular interest to academics who teach Engineering Design Graphics, highschool teachers and engineers. Page 24.654.2Introduction“Graphics” are the representation of visual images with the purpose of communicating someinformation. Representations differ vastly in their purpose, mode of creation and in
to both the lecture and laboratory componentsand the focus of the new course is on improving of the course. We modified the lectures to focus on thestudents’ performance and retention in calculus, we mathematics topics emphasized in the Wright Stateevaluated the effectiveness of the new course by curriculum, including trigonometry, vectors, solvinglongitudinally tracking students’ success and persistence systems of equations, and derivatives and integrals. We alsoin subsequent engineering mathematics courses. The incorporated using Matlab, with an emphasis on using it as aresults of these analyses show that students’ tool to solve engineering mathematics problems
also included sensors, actuators, resistors, LEDs, a breadboard, andjumper wires to connect components together [2]. Once supply chain issues were resolved amore elaborate IoT learning toolkit was developed based on an IoT learning platform, theKeysight U3810A [7]. This learning platform includes an integrated basic processor board, theBeagleBone Green, along with a variety of sensors and components mounted onto a larger circuitboard. The U3810A IoT learning platform is pictured in Figure 1. In addition to the U3810Aand its integrated basic processor board, the advanced learning toolkit includes jumper wires tomake connections among its components. A breadboard is also included to enable students toincorporate additional sensors, actuators
particular field. This workshopgives faculty experience in many emerging process science and engineering areas. This isaccomplished through lectures, hands-on experiments, industry experts, and interactivedemonstrations. Through industry involvement, faculty are given an initial networking base forprocess engineering. Participants will be required to use the given methodology to integrate Page 4.392.1novel processing into their curricula and develop an action plan for their home institution. Thisstate-of-the-art workshop in process engineering will facilitate the integration of engineeringpractice into the undergraduate curriculum. The
summer science and engineering club for children thatshe led, and—most especially—her work with HCPS in the SySTEmic Project (see Table 4). TheNDRP project involved working with a school district to provide EiE PD for teachers, gatherstudent and teacher data during the school year, and offer follow-up PD sessions to get teacherfeedback after instruction. HCPS was an eligible district and a natural choice for the first authorgiven the work that had already begun with the Workforce One Maryland Grant. A formalHCPS-EiE-TU partnership emerged, in which EiE provided additional support for PD, materials,curriculum, and the author’s time. The NDRP project was critically important in enabling the SySTEmic Project to haveenough funding to complete
extensively detailed information that isinvisible to the human eye thereby enhancing the understanding of the material or the process.Engineers play an important role in the development of this exciting field, yet undergraduateengineering students in civil and environmental, chemical and mechanical are not exposed todigital imaging through their coursework. This educational project is an effort by amultidisciplinary team of engineering faculty at Rowan University to integrate digital imagingtechnology (DIT) in their undergraduate engineering curriculum.Traditionally courses related to digital image processing reside in the Physics and ElectricalEngineering disciplines. However with the popularity in the use of digital imaging in variousengineering
agencies. The grants from Nuclear Regulatory Commission andDHS have allowed the EMT program to provide students with a diverse and newly developed setof courses and course modules as well as an integrated laboratory environment. Students canparticipate in the activities through coursework, laboratory exercises, professional developmentworkshops, and research, and will later attend conferences to present research results. The EMTprogram will be continually revamping the curriculum to meet society’s expectations bysupplying qualified technologists who have extensive practical skills and hands-on experience totackle all phases of emergencies, disasters, and catastrophes. Curriculum EnhancementThe primary goal of the
and referencedASME’s Vision 203010 which stated, “Our students will need to lead not only technically butalso socially, politically and ethically.” Additional recommendations included ethics andprofessionalism integrated into the curriculum. The ME profession clearly wanted ethicseducation in the curriculum and assimilated in different formats and levels. Additionally, ABETrequires students to “demonstrate an ability to design a system, component, or process to meetdesired needs within realistic constraints such as economic, environmental, social, political,ethical, health and safety, manufacturability, and sustainability.”11 The MECH programdeveloped a multilevel approach to meet the requirements of the QEP: 1. Freshmen - exposed to the
Bringing Engineering Concepts into the Kindergarten Classroom Deborah Nykanen, Associate Professor, Mechanical & Civil Engineering Minnesota State University, Mankato, MN Ashley Rehder, Kindergarten Teacher Hoover Elementary School, North Mankato, MN Corresponding Author: Deborah Nykanen, deborah.nykanen@mnsu.edu, 507-389-3200AbstractThis paper focuses on the K in the K-12 pipeline for engineering education. It will describe theexperiences of the partnership of an engineering professor and elementary teacher in bringingengineering activities into a kindergarten classroom. It will discuss how the activities wereadapted for the kindergarten level and will provide suggestions on how to integrate them
bridge the gap between high school and college as well as preparing students for the rigors of mathematics. His research interests include engineering education, integration of novel technologies into engineering classroom, excellence in instruction, water, and wastewater treatment, civil engineering infrastructure, and transportation engi- neering.Dr. Christina Marie Zambrano-Varghese, Rutgers University-Newark Christina Zambrano-Varghese is an Assistant Teaching Professor of Psychology at Rutgers University- Newark, where she teaches a wide variety of courses ranging from introductory to upper-level research methods. She has conducted research on plagiarism prevention strategies and has transformed her courses
thisduplication does indeed exist, and the authors believe that it does, there is considerable losteducational opportunity that could be mitigated through curriculum alignment and revamping.The Proposed Integrated Curriculum Four elements are necessary when developing a curriculum to provide for success in a flatworld. These elements are: ‚ The secondary education curriculum must provide a balanced education grounded in fundamental principles that will enable a student to pursue a career of their choice in higher education. ‚ The curriculum must provide the necessary skills for success in an increasingly technological environment. ‚ The curriculum must enable the student to function in a global
an associate degree in an IA discipline obtained atany collaborating community college to pursue a four-year degree program at WSU in the samediscipline. The third task is to develop professional development programs for community college facultyand K-12 teachers pursuing education in Cybersecurity and Forensics. The fourth task is to developprofessional certification and training programs for security professionals in order to prepare them for thechallenges and demands of the workplace. The four tasks are described below.Task 1 - Common IA Education and Training Program The first task is to establish a core body of IA knowledge for an associate degree program at communitycolleges. The proposed curriculum activities includes identification
education sub-committee indicatedthat that specialist engineers with appropriate knowledge are required by industry withinWestern Australia (WA). Furthermore the committee found some evidence that electrical,electronic, mechanical and chemical engineering graduates are not adequately prepared forthis complex and multidisciplinary engineering field in the detail that is necessary to becomea productive addition to an instrumentation or controls engineering team without furtherintensive and costly training. The education committee therefore elected to conduct a marketanalysis of industries within WA to determine specific requirements within the field of I&C.Prior to curriculum design the education sub-committee conducted an extensive
shouldbe considered for this educational goal. These labs will significantly improve the quality andcapacity of educational programs6 by providing excellent teaching aids and hands-on experience toeducate students in the theory and application of computer integrated manufacturing technology.A new advanced manufacturing curriculum can be designed that includes robotics and advancedmanufacturing related courses and labs to provide meaningful hands-on activities. All students inthis program will receive enhanced training and experience utilizing multimedia software andworkbooks specifically tailored for this program. Also local industry expertise can use these labsto demonstrate the potential industrial use of CIM and related labs to increase
. Over the past 18 years, more than 700 educators and 60,000 students havebeen impacted by the program, which features integration of engineering designchallenges into other disciplines of learning from literature to science and mathematics toart. For the past 12 years, DTEACh has focused on teaching automation and controlconcepts with robotics as the medium. This paper describes an evaluation of recentmodifications to the institute implementation and advancements in the designmethodology. In particular, changes to the institute feature: (1) contextualization of thedesign problems within the 21st Century Engineering Grand Challenges; and (2)increased focus on the pedagogy of design-based teaching and learning. These changeswere implemented in