sensor must be voltage proportional to the temperature being measured.One such sensor a student might use but is not limited to, is the LM335 temperature sensor. TheLM335 is a precision, easily calibrated, integrated circuit temperature sensor with an operatingrange of –40oC to 100 oC. The low impedance and linear output makes interfacing to a controlcircuit simple. The sensor comes in a TO-92 package and provides an output voltage directlyproportional to the absolute temperature at the rate of +10mV/oK. The output is calibrated withan external potentiometer to provide a 2.98 V output at 25oC [5]. When calibrated at 25oC, theLM335 has an error of less than 1oC over a 100oC range. Extension wires can be soldered to theLM335 leads to remotely
AC 2010-1307: RESEARCH EXPERIENCE AT AN UNDERGRADUATEINSTITUTIONHui Shen, Ohio Northern University Dr. Shen is an assistant professor at Ohio Northern University. She teaches Statics, Dynamics, and Materials Science. She has conducted undergraduate research work for a few years since she came to Ohio Northern University.Richard F. Miller, Ohio Northern UniversityDavid Sawyers, Ohio Northern University DAVID R. SAWYERS, JR. is an Associate Professor of Mechanical Engineering at Ohio Northern University, where he teaches courses in General Engineering and in the Thermal Sciences. He received a BSME degree from Rose-Hulman Institute of Technology and the MS and PhD, both in Mechanical
AC 2008-297: IMPLEMENTATION OF CAD/CAM/CNC CURRICULUM USINGMASTERCAM X SOFTWARE IN TECHNICAL PROGRAMSFarzin Heidari, Texas A&M University, Kingsville Page 13.702.1© American Society for Engineering Education, 2008 Implementation of CAD/CAM/CNC Curriculum Using MastercamX Software in Technical ProgramsIntroductionOne of the major contributions to the growing acceptance of Computer Numerical Control(CNC) has been the development of Computer Aided Manufacturing (CAM). A ComputerAided Manufacturing (CAM) program uses a CAD drawing, and then adds the cuttingparameters to generate the CNC program.MastercamX is PC-based CAD/CAM software, which
Education in Software Defined Radio Design Engineering Abstract— Software Defined Radio (SDR), an interdisciplinary emerging technology,presents new challenges for communications engineers and engineering educators. In SDR,signal modulation and information coding are defined in the system's software, nothardware. The authors have incorporated SDR design into their respective curricula bothto support the growing demand for SDR engineering and to teach widely applicablesystems engineering concepts. SDR-oriented curricular changes include new courses,laboratories, and software design tools. Software radio design is taught as aninterdisciplinary systems engineering undertaking, emphasizing the importance of
from data collected at the mastery levelwill generate sets of action items which feedback to the program for improvement. Even withdata collected only at the mastery level, for instance at a large university, the amount of datacollected will still be an issue for a timely evaluation. Figure 3 shows a commonly used processof how the GR assessment model is implemented [9, 15]. Figure 2: Sample curriculum outcomes-mapping matrix Figure 3: The GR assessment processSince there are vast amounts of data collected even for the mastery level courses, a sample ofdata, 10% for example, are actually being assessed by an independent multi-rater team. Theindependent raters are in general selected to be
limited opportunities to integrate and apply knowledge from previous courses and oftenare not allowed such an opportunity until their senior year through a senior project. Thisinterdisciplinary project also allows for the previous course knowledge to be revisited, reinforcedand physically applied.This project is also intended to enhance the students’ engagement in the learning process byallowing the freedom to choose different approaches to problem-solving and communicatingtheir reasoning with other peers, which will encourage more confidence in the individual toapproach other problems in life with the same enthusiasm.The project can also successfully satisfy technology students’ desire for more hands-onapplications in the educational setting
Session 2238 Introduction of Finite Element Methods in the Lower Division Mechanical Engineering Technology Curriculum Thomas G. Boronkay, Janak Dave University of CincinnatiIntroductionMany engineering technology students work in positions requiring familiarity with engineeringanalysis as well as design. They are asked to use commercially available software packages as apart of their job function. Some of the simple analysis is off loaded to the designer. One of mainreason for this shift is integration of analysis as early in design process as possible. Anotherreason is
3 years to address these challenges. The FCmodel, where material is delivered online allowing face-to-face interactions to be grounded inauthentic disciplinary practices, aligned with the need for scale-up. Integrating theory withpractice in this way is necessary to drive deeper conceptual understanding of engineeringfundamentals2, 9. This paper will elaborate on the curriculum design rationale for this course,its implementation, and the results of the extensive and ongoing evaluation. The methods andprocess detailed in the paper can be used to aid similar processes.IntroductionDespite decades of debate and effort towards achieving an acceptable balance of theory andpractice within engineering curricula, educational programs still
ABET document “Criteria for Accrediting EngineeringPrograms.” [8] The document details the necessary criteria that ABET utilizes to assessinstitutions for accreditation purposes, and it is organized under eight individual criteria. Whileall of the criteria are relevant to the development of the organization and practices of an ABETaccredited engineering program, several of the ABET criteria particularly impact the content andorganization of the curriculum for undergraduate engineering programs, including Criterion 3,Student Outcomes, and Criterion 5, Curriculum.The current set of Student Outcomes went into effect in the 2019-2020 academic year, and theycontinue to utilize the concepts of change within the profession and outcome-based
to be prevalentfor the EE curriculum?Unfortunately, the reverse, the ME for EEs course in the EE curriculum, is not endemic andinfusing mechanics into such EE courses as electromechnical systems, control theory andelectrical power and energy conversion remains challenging. Although some EE programs haverecognized this curricular deficit and have engaged their ME department colleagues to provide aservice course, such a course has been only sporadically provided and often not required. Asurvey of peer institutions, using the predicate that the single ME for EEs course be acomprehensive upper division offering, has found that only 18 of 94 (19%) EE programs haveeither an elective (14) or requisite (4) course.Although the ME for EEs course is
working with complex aircraft systems.1.1. Aircraft Maintenance Technology (AMT) ProgramsDue to the close integration of AMT curriculum with the high-end technology, the AMTprograms require improved educational environments to realistically create scenarios of complexmaintenance environments5. However, not all institutions can afford to invest in expensivetraining aids, wide-bodied aircrafts and stimulus materials. Therefore, implementing educationalmaterials integrated with technology aids that are less expensive, portable and effective can beconsidered as an efficient solution.ViSIns Laboratory (Virtual Simulated Inspection) was established in Greenville TechnicalCollege as a part of this ongoing research effort to diminish the gap between high
engineering design in terms of the process that students engage in, the skillsthat students may practice, and the behaviors that students develop. The entrepreneurs were well-versed with Lean Launch, but not necessarily the engineering design curriculum, and thus, whenprompted, they were able to objectively identify similarities and differences between the twocontexts. These interviews enlightened many parallels between Lean Launch and engineeringdesign, suggesting that an integration of the two would be seamless. Furthermore, analysis of theinterviews revealed that the utilization of Lean Launch principles in engineering design coursescould strengthen engineering design curricula, allowing for the teaching and assessment of manyimportant engineering
ideas on how toimplement this new course. However, every teaching method has its advantages as well as itsdifficulties, so effective instruction uses multiple approaches. One noteworthy comment fromLang [8] was the conclusion that “comprehension lies outside of the classroom.”BackgroundStudents at The Citadel take an institution-wide core curriculum in liberal arts, math and sciencethat comprises much of the first four semesters. For engineering majors, the majority of thecourses in the remaining four semesters builds on this foundation in the discipline-specificengineering.The approach taken by the Department of Mechanical Engineering begins with designing amulti-layered and dynamic educational experience for the students. The experience
INTRODUCTIONSince 1992, students in our undergraduate mechanical engineering program have been carryingout major design projects. The process of integrating major design project activities was spreadover three phases. The first phase, which took place between 1992 and 1994, consisted of a pilotprogram with forty students. The implementation of an engineering design option between 1995and 1999 constituted the second phase. The last phase embraced the complete reform of theundergraduate curriculum based on the development of competencies and the horizontal/verticalintegration of engineering sciences and engineering design.One of the principal objectives of the major design projects is to allow the students to live amajor design experience within the
Session 1526Micro-Controllers in the Biological and Agricultural Engineering Curriculum at The University of Georgia Takoi K. Hamrita University of GeorgiaAbstractThis paper is to report on a NSF sponsored project aimed at implementing a new pedagogicalapproach for teaching embedded systems to engineering students who do not necessarily have anelectrical/electronics background. In particular, we will present two microcontroller coursesdeveloped at the University of Georgia for Biological and Agricultural Engineering students.Educational
. Page 9.757.3 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering EducationThe group discussion topics supported and expanded the teachers’ knowledge, and included anexplanation of engineering, the design process, and how engineering design fits into the MAcurriculum frameworks.The teachers completed one larger scale project during each of the two weeks of the workshop.These projects required an in depth use of the design process and allowed them to integrate theirsubject area (mathematics, science, or technology education) as they wished. Approximatelythree to four hours a day for three days was dedicated to each
Program, College of Engineering and Applied Science, Uni-versity of Colorado at Boulder Nick Stites is an engineer with the Integrated Teaching and Learning Program at the University of Col- Page 26.405.1 orado Boulder. He also serves as an adjunct instructor for the General Engineering Plus program and the Department of Mechanical Engineering. Nick holds a BS and MS in Mechanical Engineering and is currently pursuing a PhD in engineering education. His research interests include how technology can enhance teaching and learning. c American Society for Engineering Education, 2015
(e.g., some years may have less engineers who plan to become lawyers than doctors),utilize an independent study model where students attend a single class where the instructor utilizesa semester checklist of approved assignments related to the career track. Local professionals in theareas should be brought to these classes to help design the checklist.ConclusionThe well-prepared 21st century engineering leader can only emerge from an integrated academiccurriculum that is aimed at educating her to apply key leadership skills in whatever career path shechooses. This paper describes the challenges addressed and methods used to undertake the designof an engineering leadership and management curriculum for undergraduates that takes intoaccount both
technical studio space.When creating an online or hybrid course there are number of factors that must be taken intoconsideration. [4] These factors were researched in Lessons Learned from the Hybrid CourseProject. This project identified ten elements that need to be considered when developing a hybridcourse. 1. There is no standard approach to a hybrid course. 2. Redesigning a traditional course into a hybrid takes time. 3. Start small and keep it simple. Page 12.992.3 4. Redesign is the key to effective hybrid courses to integrate the face-to-face and online learning. 5. Hybrid courses facilitate interaction among students, and
Session 3247 A LABORATORY BASED PROGRAMMABLE LOGIC CONTROLLER (PLC) COURSE FOR A MANUFACTURING CURRICULUM Andrew Otieno and Clifford Mirman, Department of Technology, Northern Illinois University otieno@ceet.niu.edu or mirman@ceet.niu.eduAbstractThe need for continuous reengineering of the curriculum is evident in this era where mostcompanies are downsizing their engineering staff in an effort to provide cost reduction. In thiscost conscious environment, industry is looking for employees that can fill numerous roleswithin
primaryspecialization from one of three “tracks”, including Software Development, Networking, or WebTechnologies. BS learners also choose at least one secondary track specialization from one offive tracks, including Software Development, Networking, Web Technologies, Database orDigital Media. Co-op experience is a vital part of the curriculum; all learners work in alternatingquarters starting in their second year of study. BS learners co-op five quarters and AS learnerstwo quarters.1 In addition to co-op, learners at the College of Applied Science learn byexperience through the integration of intensive, hands-on activities built into the courses andthrough the Senior Design project completed in the final year of study.2 In the IT program, Senior Design
drawing is generated from the3D model. This paper presents the experiences and challenges of using MBD technology in anundergraduate manufacturing engineering curriculum for capturing design function andmanufacturing requirements through GD&T. It reviews a junior level Design for Manufacturecourse, where advanced concepts in GD&T are introduced, and where students are required todemonstrate their grasp of these concepts by utilizing MBD. To facilitate this methodology,students receive instruction in the use of CATIA’s Functional Tolerancing and Annotation (FTA)workbench which they are required to use in their assignments and project work. In addition toallowing the integration of annotation with the 3D model, the FTA workbench provides
Department of Engineering, Indiana University Purdue University Fort WayneAbstract In this paper, the work-in-progress project which seeks the adaptation andimplementation of one undergraduate education’s most promising and readily adoptableinstructional technique in recent years - Just-in-Time Teaching (JiTT), in an electrical andcomputer engineering course — Digital Systems Design is presented. JiTT involves web-basedwarm-up assignments which students are required to complete and submit before class. Students’responses to these assignments are then reviewed by the instructor who makes appropriateadjustments in the teaching based on student’s understanding and concerns. The warm-upassignments, combined with classroom teaching, will lead
Paper ID #36500Women Students Learning a STEM Subject: An Analysis ofNote-Taking Practices in a Civil Engineering Course and theAssociation with Self-Efficacy, Cognitive Engagement, TestAnxiety, and Course AchievementMonica Palomo (Professor) (California State Polytechnic University,Pomona) Dr. Mónica Palomo is a professor in the Department of Civil Engineering at California State Polytechnic University, Pomona, where she teaches senior projects, and environmental and water resources engineering undergraduate and graduate courses. She is the CWEA-AWWA student chapter advisor. Dr. Palomo holds a Civil Engineering degree
AC 2007-1032: A SOFTWARE-DEFINED RADIO PROJECT FOR FIRST-YEARECET STUDENTSPeter Goodmann, Indiana University-Purdue University-Fort Wayne PETER E. GOODMANN, P.E. is an Assistant Professor of Electrical and Computer Engineering Technology at IPFW. He earned his BS degree in Electrical Engineering from Rose-Hulman Institute of Technology and his MS degree in Electrical Engineering from Purdue University. He has worked for 28 years in industry and education, and is a member of the IEEE and the ASEE. Page 12.116.1© American Society for Engineering Education, 2007 A Software-Defined Radio Project for
to about 75university faculty through a series of four annual one day workshops. While some might argue for a required stand-alone course in failure analysis for allundergraduate civil engineering students, the argument is likely to fall on deaf ears, as programsshrink their credit hour requirements. A more promising approach is to integrate failure casestudies into existing courses throughout the curriculum. Many professors have done this on aninformal basis for years. Are failure case studies merely tangential to civil engineering education, or are they infact a fundamental aspect of engineering education? Are failure case studies simply interesting,or should they be an essential component of a civil engineering curriculum
Society for Engineering Education, 2017 Continuing Assessment of Sustainability Skills Within the Environmental and Civil Engineering CurriculumAbstractSustainability in engineering practice and design is increasingly important as an outcome forengineering education for Civil and Environmental Engineers. ABET criteria for bothEnvironmental and Civil Engineering stress sustainability, and the development of curriculumcomponents for these degree programs continues to evolve; efforts are directed at spreadingsustainability across the curriculum either in a modular fashion or in directed course sequencesspecifically focused on sustainability. To evaluate curricular sustainability outcomes, wecontinue a longitudinal study to
-solving techniques such as graphical integration, manualiteration and, in the case of stagewise operations, the plotting of equilibrium curves andoperating lines. Electronic calculators were not common in the classroom until the 1970s.At the dawn of the PC revolution (say 1980) a typical chemical engineering curriculum wouldinclude the following technical courses: Freshman Year – basic college mathematics (Calculus I & II), basic chemistry, basicphysics, an “introduction to engineering” course with instruction in engineering graphics, an“introduction to chemical engineering” course with small-scale case studies of what chemical Page
Paper ID #42581A Collaborative Effort to Convert MATLAB-based Curriculum to Python inUndergraduate Biomedical Engineering EducationDr. Elizabeth Kathleen Bucholz, Duke University Dr. Bucholz is an Associate Professor of the Practice for the Department of Biomedical Engineering at Duke University and serves as the Director of Undergraduate Studies for the Department of Biomedical Engineering in the Pratt School of EngDavid Ward, Duke University ©American Society for Engineering Education, 2024Title: Bridging the Gap: A Collaborative Effort to Convert MATLAB-based Curriculum to Pythonin Undergraduate
AC 2007-694: COVERAGE OF LEGAL AND ETHICAL ASPECTS INELECTRICAL AND COMPUTER ENGINEERING CURRICULUMRoobik Gharabagi, St. Louis University Page 12.413.1© American Society for Engineering Education, 2007 Coverage of Legal and Ethical Aspects in Electrical and Computer Engineering Curriculum (ABET Outcomes c and f)Abstract – Legal and Ethical aspects of engineering have been an integral part of theElectrical and Computer Engineering (ECE) curriculum at the Saint Louis University.The coverage of both legal and ethical issues begins at the freshman engineering courseand continues throughout the four years. Various available resources in print and