from high school1. In orderto remain competitive innovators on a global scale, we need to create more interest andexcitement about STEM fields at the high school level. In order to motivate students, STEMtopics need to be approached in ways that are relevant and interesting to high school students.One proposed method is to connect everyday technology to scientific and mathematicalconcepts. This has been done before through the INFINITY Project, which pioneeredcollaboration between high schools, universities, and industry to create a project-basedengineering curriculum2.Music technology, as shown by its inclusion in the INFINITY project, is a potential topic formotivating students into STEM fields. Music is an integral part of students’ daily
Assessing the connectivity of an Electrical and Computer Engineering Curriculum AbstractProgram level assessment is done by combining the contributions from several units within theprogram at designated time intervals. Course level assessment is one of those units and is usuallydone within a course using tests, homework, projects, presentations etc. without looking at theconnected courses and their learning outcomes. Although course level assessment uses most ofthe resources under assessment and is considered an essential feedback path in making thecurricular changes, very little effort has been devoted to reliable measures of student learning asthey go through a sequence
requires the students to determine the area between therobot and an irregular wall as the autonomous robot travels along a defined track. Prior toexecution of this assignment, the students receive instruction in the fundamental nature ofintegration. Specifically, the lectures focus on the fact that integration determines theaccumulation of a quantity (in this case area) and that the integration process subdivides thedomain of integration into smaller manageable sections. In the limit, as the number ofsubdivisions goes to infinity, the integral is reached.A very similar robot chassis to that of the Trigonometry lab is used, shown in Figure 4, which isequipped with an ultrasonic distance transducer and wheels as opposed to the treads used
Department ofMechanical Engineering, The City College of The City University of New York. The currenteffort adopted an integral analytical-numerical-experimental pedagogy for a required course –ME 41100: Systems Modeling, Analysis and Control (4 credits, 3 lecture hours and3 laboratory hours), which is one of three courses in the area of mechatronics and controlsoffered in this curriculum. The other two courses are ME 31100: Fundamentals of Mechatronics(required, 3 credits, 2 lecture hours and 3 laboratory hours) and ME 51100: AdvancedMechatronics (technical elective, 3 credits, 2 lecture hours and 2 laboratory hours). Results ofthe curriculum reform in other courses had been reported elsewhere11-13.As shown in the figure on next page, ME 41100 lies
integrationof vision with other components. The automation curriculum has an extensive portion focusingon sensors and integration of sensors with actuators, mainly pneumatic. There is also asubstantial section on using PLCs to control automation components. In addition to this, the threerobots attached to this cell and a fourth stand-alone one are used in the instruction of robotics,including applications, programming and interfacing. This cell finally provides the students withan opportunity to integrate together what they have learned in the course into a functionalautomation cell. In many automation courses students tend to the different skills independentlyand rarely have a chance to integrate the components of automation. This cell therefore
learned in core classes such as mass transfer operations,chemical reactor design, and transport phenomena. Typically students carryout a number ofexperiments related to each concept. This modular approach emphasizes the process concepts,but lacks interconnectivity and integration of novel computational tools such as simulationpackages, statistical analysis tools and technical writing skills. At Oklahoma State University,one goal in chemical engineering education is to encourage students to connect conceptsdeveloped in multiple courses, and generate comprehensive solutions to engineering problems.The UOL is an ideal course to integrate all chemical engineering curriculum skills as well as thetechnical tools that are routinely used in the
AC 2011-124: INTEGRATING INNOVATION INTO ENGINEERING EDU-CATIONMatthew Spenko, Illinois Institute of Technology Matthew Spenko is an assistant professor in the Mechanical, Materials, and Aerospace Department at the Illinois Institute of Technology. Prof. Spenko earned the B.S. degree in Mechanical Engineering from Northwestern University in 1999 and the M.S. and Ph.D. degrees in Mechanical Engineering from Massachusetts Institute of Technology in 2001 and 2005 respectively. He was an Intelligence Community Postdoctoral Scholar in the Center for Design Research, Mechanical Engineering Department, at Stanford University from 2005 to 2007. His research is in the general area of robotics with specific attention to
experience while designing rotor blade components and helicopter bodies by research and wind tunnel testing at Kaman Aerospace. Additionally Dr Gates has extensive experience in high temperature fuel cells, Molten Carbonate and Solid Oxide while consulting for FuelCell Energy from 2000 to the present. Page 14.465.1© American Society for Engineering Education, 2009 DEVELOPMENT AND IMPLEMENTATION OF AN INTEGRATED OUTCOMES-BASED ASSESSMENT PLAN FOR A NEW ENGINEERING PROGRAMAbstractThis paper describes development of an integrated assessment plan for a new mechanicalengineering program as part of the
, developing, integrating, and teaching STEM programs for K-12 students through university outreach.Dr. Michael A. de Miranda, Texas A&M University Professor, Reta Haynes Endowed Deanship, Dean School of Education and Human Development. Texas A&M University, College Station, TX. USA ©American Society for Engineering Education, 2024 A Novel Curriculum for an Engineering Degree in STEM Education and Teacher PreparationAbstractWith the rapid development in science and technology and their impact on the global economy,there has been a pressing need for an evolution in Science, Technology, Engineering, andMathematics (STEM) education for K-12 students. STEM labs and activities
Detailed course descriptions of curriculum progressionThis paper shows how model-based system design, as has been described, is integrated inselected courses in all four years of the Mechanical Engineering undergraduate curriculum. Thecourses where this has been implemented are presented in Table 1 and are required courses forall students working toward a Bachelor’s of Science in Mechanical Engineering. This approachis the model-based design counterpart to the “Design Spine” discussed by Sheppard et al.6 whorethought the curriculum at Stevens Institute of Technology to emphasize design throughout allfour years. An initial cohort of freshman engineering students started the proposed model-baseddesign sequence in the fall 2015 semester. Assessment
research interests lie in the area of educational scholarship, including teaching and advising effectiveness, academic integrity, process design instruction, and the integration of writing, speaking, and computing within the curriculum. c American Society for Engineering Education, 2018 Work-in-Progress: Ten Years in the Trenches: An Updated Suite of Scenario-Based Academic Integrity VideosAbstractFaculty at two large public universities have had extensive experience in student academicintegrity violations in the introductory material and energy balance class. Scenario-basedacademic integrity videos developed by the authors ten years ago were
typical classroom setting, Model-Based Design is not formallytaught in the conventional undergraduate curriculum. Students are indeed exposed to buildingmodels as part of a typical control design curriculum; however, the emphasis of such courses isnot on teaching the rationale behind and fundamentals of adopting Model-Based Design andapplying it to engineering systems. Students learn about pieces of subsystem development,focusing on specific bits of the whole without appreciating the impact a piece or subsystem canhave on the total system.To date, academics have preferred to introduce an understanding and mastery of the “buildingblocks” before putting them into context. As a result, engineering graduates entering theworkforce must negotiate a
AC 2009-269: HYDROGEN CURRICULUM AT MICHIGAN TECHNOLOGICALUNIVERSITYJason Keith, Michigan Technological University Jason Keith is an Associate Professor in the Department of Chemical Engineering at Michigan Technological University.Daniel Crowl, Michigan Technological University Dan Crowl is the Herbert H. Dow Professor of Chemical Process Safety in the Department of Chemical Engineering at Michigan Technological University.David Caspary, Michigan Technological University Dave Caspary is the Manager of Laboratory Facilities in the Department of Chemical Engineering at Michigan Technological University.Jeffrey Allen, Michigan Technological University Jeff Allen is an Assistant Professor
different backgrounds and values to emerge as talented.Further, we believe that adapting these types of activities to engineering courses has the potentialto go beyond “filling the gaps” to “opening doors” to women in engineering. As part of an NSFfunded Gender-Equity project, four MEAs were implemented in a first-year problem solving andcomputer tools course at Purdue University in Fall 2002. This paper will describe the nature ofMEAs, overview the research methodology, and demonstrate evidence of curriculum reform atour institution.I. IntroductionOn the national scene, while overall enrollment and retention trends in engineering are alarmingin the face of a national need to increase the technology workforce, the National ScienceFoundation
AC 2010-225: ASSESSING CURRICULUM IMPROVEMENT THROUGH SENIORPROJECTSJianbiao Pan, California Polytechnic State University Dr. Jianbiao (John) Pan is an associate professor in the Department of Industrial and Manufacturing Engineering at Cal Poly, San Luis Obispo, CA. After completing a PhD at Lehigh University in Industrial Engineering in 2000, he joined the optoelectronics center at Lucent Technologies/Agere Systems as a member of technical staff. He received a M.E degree in Manufacturing Engineering from Tsinghua University, Beijing, China, and a B.E. degree in Mechatronics from Xidian University, Xian, China. Dr. Pan's research interest lies in environmentally benign
AC 2009-1195: THE INTEGRATION OF COGNITIVE INSTRUCTIONS ANDPROBLEM/PROJECT-BASED LEARNING INTO THE CIVIL ENGINEERINGCURRICULUM TO CULTIVATE CREATIVITY AND SELF-DIRECTEDLEARNING SKILLSWei Zheng, Jackson State University Dr. Wei Zheng is an Assistant Professor of Civil Engineering at Jackson State University. He received his Ph.D. degree in Civil Engineering from University of Wisconsin-Madison in 2001 and has over10-year industrial experience. Since becoming a faculty member at JSU in 2005, he has made continuous efforts to integrate emerging technologies and cognitive skill development into civil engineering curriculum. He currently is the Principle Investigator for Nanotechnology Undergraduate
tools.An example student project will be presented and the learning outcomes discussed.IntroductionMany universities currently teach kinematics and dynamics of machinery and machine design astwo separate courses with some schools still teaching these as three separate courses. However,due to the recent ABET requirements and other curriculum issues, many universities areconsidering to integrate these courses into a single one. In fact, a common recent trend [1] is toteach an integrated course, which includes concepts of statics and basic solid mechanics. Otherexamples include the integration of technical drawing and solid modeling, dynamics andintroductory vibrations, finite element analysis (FEA) and machine component design andsystem dynamics and
A Holistic Review of Mechanical Design Curriculum in An Engineering Technology ProgramAbstractIn most of the mechanical and manufacturing engineering technology programs, mechanicaldesign is a critical course for students to acquire the knowledge and skill in design of mechanicalcomponents and systems. While the course contents generally include important topics, such asfailure theories and machine elements, a holistic mechanical design education should alsoaddress the interdependency between various subjects related to mechanical design. The subjectof mechanical design should be viewed as an “integrated curriculum,” not an isolated course. Asa result of a professional development project with the Sandia National
,technical communication specialists, industry advisors, university administrators, alumni, andother stakeholders, this robust model can consistently produce engineering graduates who haverelevant, defined TC competencies. Further, the model does not stress an already overcrowdedengineering curriculum. In fact, engineering professors who have integrated the model elementsinto engineering classes report a variety of benefits that include better organized lab reports,improved engineering solutions to case study problems, and more time to help students masterengineering theory and practice.*ABET: Accreditation Board for Engineering and TechnologyThis article will cover the following six sections: 1. A Message from Recent Engineering Graduates in the
Industrial Engineering LIVE! Classroom Lab Activities used in an Introductory IE Course and in Recruiting Freshmen Dr. Susan F. Freeman College Of Engineering, Northeastern UniversityAbstractIntroduction to Industrial Engineering Courses provide an overview of IE history and commonmethods that are used by Industrial Engineers to analyze systems and design efficient processes.A series of active labs are integrated into a traditional course where the students are introduced toconcepts, apply solution techniques for those concepts with class and homework problems
knowledge.Approximately sixteen universities across the USA are offering undergraduate and graduatedegrees in Architectural Engineering (AE) with emphases on the electrical, lighting, acoustical,mechanical and structural building system design. In the electrical and lighting field, students aredesigning systems with emphases on efficiency, implementation of renewable resources andconservation of energy. A basic understanding and an overview of this material can beintroduced into current electrical engineering curriculum courses at the junior level inuniversities without such programs. This introduction will serve as means to introduce one suchcritical and practical implementation of the fundamental theory covered in the classroom. Thisapproach has been
more educational innovations that have a significant impact onstudent learning and performance9. The dominant approach for engineering and engineeringtechnology education in the US is based largely on faculty intuition drawn from personalexperiences as students and teachers.This research takes a pragmatic approach to reshape a curriculum of an Industrial EngineeringTechnology program. It uses the four pillars of manufacturing knowledge to suggestimprovement opportunities. The paper proceeds by discussing the method used to carry out theresearch. After that it provides a summary of the results. The paper concludes by a discussion ofthe key findings and how to proceed in implementing the identified changes to the curriculum.MethodThis paper uses
in Mainland China, Hong Kong, Singapore, Canada, UK, Finland, and USA. He is currently a professor of Mechanical Engineering with Purdue University Fort Wayne, Fort Wayne, IN, USA. His current research interests include robotics, mechatronics, Internet of Things (IoT), digital manufacturing, automatic robotic processing, and enterprise information systems. He has published 6 research books and over 180 journal publications in these fields. ©American Society for Engineering Education, 2024 An Enhanced Learning Method Used for Datapath Design Topics in Computer Engineering Curriculum Tingjun Lei1 , Timothy Sellers1 , Chaomin Luo1 , Gene Eu Jan2 , and Zhuming
populations. Therefore we were not able to prove our test hypothesis that the upper-classengineering students would score higher on the NSPE ethics practice exam than the freshmanstudents.In an attempt to gain greater insight into the results we compared specific questions with a highcorrect score percentage (≥ 80%) and those with a low correct score percentage (≤ 20%) for eachof the survey groups. The results, shown in Table 3, are virtually the same and further supportthe overall findings that the [Institution’s] curriculum of integrated ethical leadership courseswere not effective in enhancing participants’ performance on the NSPE ethics examination. Table 3. Questions With High or Low Correct Scores ( ≥ 80% or ≤ 20%). Upper Classmen
assessment to evaluate itseffectiveness. This endeavor is an effort to further enhance our existing RBE curriculum’sexcellence and adapt to the changing landscape of robotics engineering education while inspiringexisting and future RBE departments in their creation of a curriculum.IntroductionThe Robotics Engineering (RBE) program at Worcester Polytechnic Institute (WPI) stands out asa leader of innovation and practical learning in the realm of engineering education. Renowned forits project-based and programming-intensive curriculum, the RBE program is meticulouslydesigned to not only impart theoretical knowledge but also to ensure hands-on, experientiallearning. Central to this curriculum are core courses such as Introduction to Robotics (RBE1001
. Madathil, K. Frady, R. Hartley, J. Bertrand, M. Alfred, and A. Gramopadhye, "An Empirical Study Investigating the. Effectiveness of Integrating Virtual Reality- based Case Studies into an Online. Asynchronous Learning Environment," Computers in Education Journal, vol. 8, pp. 1 - 7, 2017.[10] J. Zhang, G. Singui, S. Wadghule, and C. Frend, "Virtual Reality Module for Additive Manufacturing Curriculum," in 2020 Illinois-Indiana Section Conference Proceedings, Indianapolis, Indiana, USA, 2020, pp. S900-1.
called Embedded SystemsEngineering.Concluding RemarksThe tremendous growth in the area of embedded systems requires the academic institutions toupdate their education in the area of embedded system design. Otherwise, it will become verydifficult to design tomorrow’s complex embedded systems. The process of updating thecurriculums requires a close interaction with industry to provide the right focus. In this paper,the authors have done an international study of the curriculums in other institutions of highereducation to decide how to integrate embedded systems design in their curriculum in thecomputer science department. It appears from the study that the best solution for them is to adda new area of specialization in their computer science
Paper ID #32453Adapting an NSF-Funded Professional Skills Curriculum to Train Engineersin Industry: A Case StudyMr. Mark Jason Luchini https://www.linkedin.com/in/mark-luchini-28b1b81a/Mr. David J. Cribbs, Jackson www.linkedin.com/in/david-cribbs-miDr. Dirk Joel-Luchini Colbry, Michigan State University Dr. Dirk Colbry is a faculty member in the Department of Computational Mathematics, Science and En- gineering (CMSE) at Michigan State University. Dr. Colbry earned his Ph.D. in Computer Science and his principle areas of research include machine vision and pattern recognition (specializing in scientific imaging). Dr
curriculum after those in the UK, not uncommon in Africa 2.Developing an Institutional IdentityThe development of the engineering program at UTG must support the overall institutionalgoals. Perhaps the most strongly felt of those goals is the institution’s efforts to develop a Page 25.421.2research identity to help establish itself as a university on an international stage. Ernest Boyer’smodel of scholarship as discovery, integration, application and teaching can be extremely usefulfor developing a research agenda at non-Research 1 (R1) Universities and Colleges. 3 His ideashave been incorporated into tenure expectations at many smaller
Classroom Learning in Low-resource settingsAbstractWith this work-in-progress paper, we report on the design of an innovative curriculum focusingon engineering skills for low-resource pre-college students. Engineering knowledge and skillsare in high demand for local and global knowledge economies and provide individuals access tosocial and economic mobility. However, basic engineering education is inaccessible to manystudents in low-income and low-resource areas. Educational technology may be one componentof a solution that addresses access and equity.The curriculum focuses on science and engineering problem solving within real world contexts.We adopt the Integrated Course Design for Outcome-Based Education approach1 for this design.This curriculum