•MET 445 - Machine Design •MET 456 – Capstone I Figure 2. MET Areas of Expertise and Related Courses (Current Curriculum)Mechanical Engineering Technology Core CompetenciesTo further define the required skill set of MET graduates from our program, core competenciessupporting our mission, outcomes, and objectives, as well as constituent requirements weredeveloped and documented. The core competencies related to engineering fundamentalsappropriate to the needs of Mechanical Engineering Technology are:1. Demonstrate proficiency in mathematics – including analytic geometry, differentiation, integration, and differential equations.2. Demonstrate an understanding of engineering
Integration in the INSPIRE Institute at Purdue University. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and postsecondary classrooms in order to help students make connections among the STEM disciplines and achieve deep understanding. Her work focuses on defining STEM integration and investigating its power for student learning. Tamara Moore received an NSF Early CAREER award in 2010 and a Presidential Early Career Award for Scientists and Engineers (PECASE) in 2012.Siddika Selcen Guzey, Purdue University, West Lafayette Dr. Guzey is an assistant professor of science education at Purdue University. Her research and teaching focus on integrated STEM Education. c
concurrently enrolled in Statics and Solid Mechanics and all studentshad taken Physics I (which also includes an introduction to Statics), the analysis of theirconceptual design was possible. For example, using principles from Statics and SolidMechanics, each team analyzed the stresses in each two-force member and calculated thedeflection due to bending of various components.To assist students in performing these calculations, tutorials were provided via the Internet.These tutorials included examples from Statics and Solid Mechanics as well as definitions andmaterial properties. Also, to reinforce the integration between the design project and theconcurrent engineering courses, instructors from each of the Statics and Solid Mechanics coursesperformed
and is an Associate Director of the Montana Engineering Education Research Center. ©American Society for Engineering Education, 2024 Integrating Industrial Feedback into Role-Playing Scenarios in Laboratory Classes for Improved Technical Communication Skills Transferable to the WorkplaceAbstractGood communication skills are necessary for students entering the workforce. However, due to acontinually changing communication landscape, courses that integrate communication skills intothe engineering curriculum may not align with the skills students need. In this paper, informationwas solicited from practicing engineers in industry regarding the types of communication genresthey engage
Paper ID #26355Board 19: Impacts of Engineering Justice Curriculum: A Survey of StudentAttitudesDr. Tina Lee, University of Wisconsin-Stout Dr. Tina Lee is an Associate Professor of Anthropology and the Program Director for the Applied Social Science Program at the University of Wisconsin-Stout.Dr. Elizabeth Anne Buchanan, University of Wisconsin-Stout Elizabeth Buchanan is Endowed Chair in Ethics and Acting Director, Office of Research and Sponsored Programs, at the University of Wisconsin-Stout.Dr. Devin R. Berg, University of Wisconsin-Stout Devin Berg is an Associate Professor and Program Director of the B.S. Mechanical
: Using the Liaison Librarian Model to Integrate Information Literacy into a Faculty of EngineeringIntroductionThis paper will update our earlier work on an integrated approach to information literacy[1] . Our initial goal was to integrate information literacy into a technical communicationcourse in the Faculty of Engineering and to explore whether two pedagogical outcomeswere achievable within this framework: first, instantiating the benefits of an engineeringresearch report in a field where applications and design exigencies are paramount and,secondly, determining whether engineering research skills – far from being “short-termcompetencies,” as some would suggest [2] – are valuable additions to a student’s learningrepertoire
& MechanicalEngineering Technology curriculum and emphasizing the dichotomy which exists betweensustainable and economic-based decisions; (2) Embed decision-making approaches withinstudent-led team environment; (3) Enable students to make decisions under uncertainty withopen ended what if scenarios simulating a real-world situation – integrate sustainability withcreativity and innovation.The success of the curricula improvement in an education and research-oriented facility willadvance the state of art of engineering technology education, specifically in the areas ofmanufacturing material and process selection, sustainability and green design of products andproblem solving. (a
elementary teachers to teach engineering: Impact on self‐efficacy and outcome expectancy. School Science and Mathematics, 119(3), 161-170.Radloff, J., & McCormick, K. (2022, October). Exploring STEM education in prekindergarten settings: a systematic review. In SSMA 2022 Annual Convention: Missoula, MT (Vol. 2021, p. 38).Roehrig, G. H., Dare, E. A., Ring-Whalen, E., & Wieselmann, J. R. (2021). Understanding coherence and integration in integrated STEM curriculum. International Journal of STEM Education, 8, 1-21.Ring, E. A., Dare, E. A., Crotty, E. A., & Roehrig, G. H. (2017). The Evolution of Teacher Conceptions of STEM Education Throughout an Intensive Professional Development
(depending upon variable) a total 71 to 73 ratings could be paired across twosemesters. On average across both semesters, relative to pre instruction, students rated all areashigher at post instruction, with five variables rated significantly higher on average. Thesevariables included: (a) Encouraged to be Flexible, t(1, 72) = (-2.08), p < 0.041; (b) Encouragedto Problem Solve, t(1, 72) = (-2.08), p < 0.041; (c) Encouraged to Integrate OutsideMaterials/Knowledge, t(1, 72) = (-2.00), p < 0.049; (d) Encouraged to Use Analysis, t(1, 72) = (-2.48), p < 0.016; and (e) Can Use Synthesis, t(1, 71) = -2.22, p < 0.030 (see Table 10).In the Reactor Design (both semesters) and Mass Transfer (one semester) courses, an integrationactivity was
Session 2154 Multimedia The Use of Inquiry-Based Multi-Media Curriculum: It’s Impact on Students’ Perceptions of Learning Dianna L. Newman, Suneresh Heragu, Sybilyn Jennings University at Albany SUNY/Rensselaer Polytechnic Institute/Russell Sage Colleg eThe use of technology is growing and simultaneously changing the learning process, thestructure of knowledge, and the nature of instruction. 1 In a 1995 survey of college campuses,Green and Gilbert 2 noted that major gains have been made in the use of informational technologyas an instructional resource and Duffy ad Jonassen 3 indicate that new forms of
along the line representing short segments into which the line is subdivided. With such an integration (superposition) procedure, this MATLAB program may be applicable, with minor modifications, to many similar and more complex charge distributions, where the analytical expression for electric field components is not available or is difficult to find. Output from the MATLAB code is shown in Fig. 2.2 Repeat the previous MATLAB exercise but for three equal point charges Q residing at vertices of an equilateral triangle
Paper ID #32716Lessons Learned: Making the ”New Reality” More Real: Adjusting aHands-on Curriculum for Remote LearningDr. Yen-Lin Han, Seattle University Yen-Lin Han is an Associate Professor in the department of Mechanical Engineering at Seattle University. Dr. Han received her BS degree in Material Science and Engineering from National Tsing-Hua University in Hsinchu, Taiwan, her PhD degree in Aerospace and Mechanical Engineering and MS degree in Elec- trical Engineering from the University of Southern California. Her research interests include micro-scale molecular gas dynamics, micro fluidics, and heat transfer
Session 1413 Introducing Emerging Technologies into the Curriculum through a Multidisciplinary Research Experience James A. Newell, Kevin D. Dahm, Stephanie H. Farrell, Robert P. Hesketh, Kathryn Hollar, Mariano Savelski and C. Stewart Slater Department of Chemical Engineering Rowan University, Glassboro, NJ 08028AbstractThis paper describes Rowan University’s novel approach to integrating emergingtechnologies into the chemical engineering curriculum. Through an eight-semesterproject-based course sequence, every engineering student works in multidisciplinary on
Paper ID #38680Infusing Data Science into Mechanical Engineering Curriculum withCourse-Specific Machine Learning ModulesProf. Yuhao Xu, Prairie View A&M University Yuhao Xu received a Ph.D. in Mechanical Engineering from Cornell University in 2017. He is currently an Assistant Professor in the Department of Mechanical Engineering at Prairie View A and M University. He was previously employed by ASML-HMI North America Inc., where he worked on the industrial ap- plications of focused ion beams. His current research includes experiments on high-pressure combustion of petroleum-based liquid fuels and bio-derived fuels
Introducing Multiple Soft Processor Cores Using FPGAs into the Computer Engineering CurriculumAbstractSoft processor cores are becoming an important component in state-of-the-art Systems-on-a-Programmable-Chip (SoPC) implementations. An SoPC design is a complete electronic systemthat is built on a reconfigurable integrated circuit, usually in the form of a Field ProgrammableGate Array (FPGA). This paper will discuss the introduction of soft processor design into thecourses within the Computer Engineering curriculum at the University of Texas at Tyler.Laboratories that utilize soft processor core design in our FPGA Design course and designsconsisting of an array of soft processor cores to emulate multiprocessor designs in our
justof mere mathematical interest. We also felt that the traditional approach, in which the tools for theanalysis of discrete and continuous time signals were taught separately, often in different courses,was misleading the students and preventing them from acquiring an integrated view of signalanalysis. The possibility of offering laboratory courses depends, of course, on the availability of per-sonal computers. We rely on low-cost i486 based machines, running Matlab. We have found thatMatlab provides an easy to learn yet powerful interface, and a powerful set of commands to dealwith graphics, signals, and systems. Although we can not present a final evaluation of this experience yet, we may alreadyreport that the students reacted
students can meet the new standards, it isof paramount importance that their teachers leverage the SEPs in instructional planning andimplementation. Use of technology in the context of science teaching and learning can also helpteachers perform inquiry-based teaching so that students can have meaningful learning experiences[4—6]. In a recent effort, we developed and conducted professional development (PD) workshopsfocused on using robotics technology to provide a supportive opportunity and environment toteachers to experience the use of robotics in classroom teaching and to lower their perceivedapprehension about its classroom integration. The projected outcome through the PD is to improvethe teachers’ curriculum knowledge and standard aligned
Engineering, including theDean and Associate Dean for Academic Affairs, to develop a list of the primary topics thatshould be included in the Career Compass Program (Table 1). In addition to these topics, fourcore values were identified by the Advisory Board as being central to the operation andimplementation of the program. All services and skill sets provided to the students adhere to thecore values of Integrity, Courage, Competence, and Accountability.Table 1. List of Primary Topics by Year Year in Curriculum Primary Topics Freshmen Engineering careers Ethical behavior Learning
begun infuse big data analytics in variousundergraduate mathematics and statistics courses. Our big data course modules guide studentsthrough producing working solutions by having them perform a series of hands-on big dataexercises developed specifically to apply cutting-edge industry techniques with eachmathematics and statistics course module. We strongly believe that equipping students with suchskills greatly improves their employability. This paper presents our three years’ experience inadapting and integrating big data concepts across the computer science undergraduatemathematics and statistics curriculum.2. Big Data and MathematicsLinear algebra concepts such as manipulation of large matrices, matrix decomposition, andeigenvectors are
Paper ID #8342Organizing the Graduate Reference Curriculum for Systems Engineering(GRCSE) for International RelevanceMr. Devanandham Henry, Stevens Institute of Technology / Systems Engineering Research Center (SERC) Mr. Henry is a doctoral candidate at the Stevens Institute of Technology, Hoboken, NJ working on a PhD is Systems Engineering. He is also a researcher with the Systems Engineering Research Center, and an author of the Systems Engineering Body of Knowledge (SEBoK) and the Graduate Reference Curriculum for Systems Engineering (GRCSE). He holds a B.Tech degree in Aeronautical Engineering from Anna University
, especially for entry-level positions.There are various studies in the literature focusing on embedding sustainability issues into thecurricula. In one of the relevant studies, Segalas et al. [6] reported that sustainabilitydevelopment courses at technological universities should (i) focus their content on the social andinstitutional aspects of sustainable development, and (ii) apply a constructive and community-oriented pedagogical approach. Fox et al. [7] discussed sustainability, globalization, and differentcultures and their integration into the engineering and engineering technology curriculum via aninternational collaboration. Hokanson [8] also investigated the topic from an internationalperspective and described the integration of
Paper ID #9523Expanding and Improving the Integration of Multidisciplinary Projects in aCapstone Senior Design Course: Experience Gained and Future PlansDr. Michael P. Frank, FAMU-FSU College of Engineering Dr. Michael P. Frank has been coordinating the involvement of Electrical and Computer Engineering stu- dents in the Senior Design program at the FAMU-FSU College of Engineering since 2011. He previously advised several individual senior design teams as an assistant professor in the ECE department during the period 2004-2007. Prior to that, he coached several industry-sponsored multidisciplinary senior design teams in
Meet the Common Core Standards:Examples from a Workshop for Middle School STEMDr. Patricia A. Carlson, Professor and PRISM Director, Email: carlsonp@rose-hulman.edu Dr. Erin Phelps, Matt Davidson, Bob Jackson, and Ryan SmithWhat’s Available at the Station: This collaboration includes Vigo County School Corporation (Terre Haute, IN)and Rose-Hulman Institute of Technology’s PRISM Project (http://rose-prism.org). A package of materials provides(1) an overview for the integrated curriculum approach, (2) synopses of the three workshops given by engineeringprofessors, and (3) examples of lessons – based on engineering concepts – developed by 6th – 8th grade teachers.Visitors to the exhibit table will be greeted by members of the PRISM team, a
“…specific instructional practices that supportstudents’ integration of engineering with concepts and practices from other STEM subjects,” aspressing issues driving professional development [1]. However, since curriculum innovationsthat work in some educational settings may not work in others [3], educators need guidance onhow to balance innovation and implementation that can be sustained and maintained throughteacher-informed classroom practices, especially when meeting the needs of diverse learners.Understanding how and why innovations in engineering education work is necessary forreplicating success across classrooms and school districts.Middle school engineering continues to be an important area of research. With growing evidenceof positive
three times as difficult to fill in the nextthree years.The University of Texas Rio Grande Valley has undertaken an initiative to address the skills gapin this very important area of manufacturing. This paper presents the details on the developmentof an integrated senior design and internship program that has helped to mitigate the difficult-to-fill workforce needs for the partnering industry in metrology and advanced manufacturingthrough the university and industry partnership. Many more programs of this nature are requiredto address the problem of the skills gap prevailing in the advanced manufacturing sector.The senior design project and internship are integrated with the engineering technologycurriculum to address this challenging problem
significantin the Silicon Valley where San Jose State University is located. This need will only increase asindustries look to these engineers to provide them with innovative cooling mechanisms.Therefore, a laboratory curriculum devoted to the thermal management of electronics that will beused exclusively at the undergraduate level is under development with funding from the NationalScience Foundation. This curriculum will provide students with an understanding of current andemerging cooling technologies and appropriate experimental methods. It will have two mainaspects. First, a laboratory is being developed that will be used in four classes taken bymechanical, electrical, and computer engineering students. Second, a new senior-level electiveopen to
Session 1526 LABORATORY EXPERIMENTS UNIFYING CONCEPTS IN THE COMMUNICATIONS, DIGITAL SIGNAL PROCESSING (DSP) AND VERY LARGE SCALE INTEGRATION (VLSI) COURSES Ravi P. Ramachandran, Linda M. Head, Shreekanth A. Mandayam, John L. Schmalzel and Steven H. Chin Department of Electrical and Computer Engineering, Rowan University, Glassboro, New Jersey 08028Abstract - The hallmark of the Rowan College of Engineering undergraduate program is toprovide effective laboratory based instruction that illustrates important scientific concepts. Thispaper presents the results of an effort by
tenet is achieved throughinterdisciplinary courses, technology development and community activities. In the end,engineering students can play the role of “product/service designer” and “technologypromoter” in inclusive innovation, and provide affordable products and service to poor areasthrough “knowledge creation” and “product innovation”.In conclusion, this paper offers suggestions for integrating inclusive innovation intoengineering ethics education in four aspects: (1) constructing the curriculum content systemsolving the poverty problem; (2) building a high-quality interdisciplinary teaching team; (3)using multi-functional collaborative external support network; and (4) innovative teachingmethods to expose engineering students to the “real
sciences in New Jersey. She joins their dedicated research on STEM teacher development and leadership. Dr. Larson continues to pursue research interests in assessments and accountability in STEM teacher education, identity and agency in STEM teacher development, and community-centered STEM curriculum and programs. American c Society for Engineering Education, 2021 Studying In-service Teacher Professional Development on Purposeful Integration of Engineering into K-12 STEM Teaching (Research to Practice)AbstractIntegrated STEM approaches in K-12 science and math instruction can be more engaging andmeaningful for students and
aspectsof learning that could be readily attended to using engineering design and design challenges as acurricular and instructional context. Since engineering design is about solving problems, manyof which are problems with multiple possible solutions, is it ideal for promoting critical thinkingand problem solving skills17. Engineering design is best approached when used as amultidisciplinary perspective, as an opportunity for integrating STEM content, as a way ofincreasing chances for students to apply their knowledge, and as a method to enhance studentmotivation and engagement in learning14. Additionally, learning opportunities grounded inengineering design challenges capitalizes on opportunities for learners to explore avenues ofinterest