non-linear and interactive process have been developed and compared to experimentaldata. Furthermore, this experimental study entails and discusses the design of the twin tankprocess and associated instrumentation, real time data acquisition and control in LabView,process modeling, controller design, and evaluation of the performance of different controlstructures in a closed loop manner. This work was performed in partial fulfillment of therequirements of the Senior Capstone Project course in controls and instrumentation of theEngineering Technology department at the University of Houston-Downtown. Studentexperiences are summarized and the need for effective project management methods isemphasized. I. Process DescriptionThe process
Session 2325necessity limited in scope and complexity to address an issue germane to the current material.Processing these experiences is still valuable. In fact, it is in these instances that processing mostlikely already occurs in some form because the instructor has invested significant effort in theproblem to highlight a particular point.Most curricula include some form of a capstone design experience in which the students work inteams to design a solution to a fairly complex problem. The design process requires theincorporation of knowledge from a multitude of previous courses. Often, students must developnew knowledge in fields that they have not previously studied. The design projects areestablished as long-term exercises often lasting the
Session 2325necessity limited in scope and complexity to address an issue germane to the current material.Processing these experiences is still valuable. In fact, it is in these instances that processing mostlikely already occurs in some form because the instructor has invested significant effort in theproblem to highlight a particular point.Most curricula include some form of a capstone design experience in which the students work inteams to design a solution to a fairly complex problem. The design process requires theincorporation of knowledge from a multitude of previous courses. Often, students must developnew knowledge in fields that they have not previously studied. The design projects areestablished as long-term exercises often lasting the
committees atODU and KIT working together, the primary effort coming from ODU. It was decided to holdthe design competition over a five week period in July and August when students from bothinstitutions were between semesters. It was also decided that there would be four teams, eachwith one Japanese engineering student and one ODU engineering student, each student beingselected by his or her institution. Each team would have one student with an electricalbackground and one with a mechanical background. The design competition would not be a“heads on” vehicle competition, but would involve an electro-mechanical design project that theteams could design and build in five weeks and have their solutions judged. It was also felt thatthe design of
Learning Communities Writing Intensive Courses Collaborative Assignments and Projects Undergraduate Research Diversity/Global Learning Service / Community Based Learning Internships Capstone Courses and ProjectsIn reviewing the programming at GVSU, the working group noted that the university employs allof these elements. The degree to which these are included for a particular student, however,depends upon each student’s academic program.One of the most significant “Ah-Ha moments” for the working group was when we recognizedthat while each of us was aware of extensive efforts and programming in our respective areas ofthe university, none of us was aware
Converting an Internal Combustion Engine Vehicle to an Electric VehicleAbstractSenior students in the Engineering and technology programs are challenged to thoroughly applytheir learned technological knowledge and skills toward design and implementation of achallenging engineering product in senior deign or capstone courses. In this paper, a successfullyimplemented comprehensive design, which utilizes a synergy of competencies gained fromundergraduate academic and research experiences with insight to the efforts concerning seniordesign project is presented.An electric vehicle is a type of alternative fuel car that utilizes electric motors and motorcontrollers instead of an internal combustion engine. Power is derived from battery-packs ratherthan a
recruit and involve people involved in three specific types of courses: 1) introductory classes, including college-wide “First Year Engineering” courses and disciplinary introductory or introductory design courses; 2) engineering fundamentals courses, especially those related to materials, which could address the source, lifecycle, and energy requirements of manufacture, manipulation, recycling and disposal of materials in addition to the current focus on material properties; 3) design courses, including capstone or senior design projects: these are the places where skills learned through the curriculum are integrated and creativity and problem solving are center-stage. Design is, by definition
the pangineer must begin with the current education of engineers.Traditional engineering education has typically presented content knowledge acrossmultiple disciplines; however, to prepare students for modern challenges, the moderneducation system must now focus on delivering the context across and between the thesecontent areas.Knowledge how, or know-how, has always existed in engineering learning and practice.A common example recalled fondly by today’s practicing engineers are project-based Page 7.1101.1classes, such as capstone design courses for Mechanical Design engineers. Such classes Proceedings of the 2002 American Society for
(IVDS), the Robotics Club, the SAE Walking MachineChallenge as well as several capstone design projects each year. Page 7.417.9 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ã 2002, American Society for Engineering EducationBibliographical Information 1. Crynes, B.L., “Universal Student Computer Access – Requiring Engineering Students to Own Computers,” Journal of Engineering Education, October 1997, pp. 301-304. 2. Murray, W.R., and Garbini, J.L., Embedded Computing in the Mechanical Engineering Curriculum: A Course
offered CENG 4097 Civil Engineering Research credit (3 semestercredits for each student), counting as one of their three required Civil Engineering electives. Thismodel proved successful and has been used ever since. That is, students are incentivized withacademic credit for their work and they are mentored by an engineering faculty member. Thisresulted in a publication presented at the Frontiers in Education Conference in 2013 which is co-sponsored by IEEE and ASEE. This project also led to LEED becoming a permanent part of theCENG 4380/EVEG 4380 (Civil and Environmental Engineering Senior Design Capstone) courseever since, emphasizing the ABET requirement for sustainability in both of these engineeringmajors.Also, approximately 50 civil
Assessment and Permitting, Array Site Analysis, Component Locations, and Site Layout. Fig 1. Solar PV Installation [15]. Fig 2. Solar PV Troubleshooting [15]. Proceedings of the 2023 Conference for Industry and Education Collaboration Copyright ©2023, American Society for Engineering Education ETD 545 Fig 3. Solar Site Analysis [15].The assessment method is a combination of knowledge test, hands-on troubleshooting scenariosof embedded faults, and final research project. This course will also prepare the students toconduct their capstone senior design (SD) projects
demand for composites engineers the engineering andtechnology graduates need to be knowledgeable in the field, if not develop some level of expertise, beforethey graduate from college. Traditional materials science/engineering course can accommodate only anoverview of composites. In the absence of a dedicated composites course a special project course or aresearch project on composites could be a supplement to the standard materials course. During thesummer of 2007, two minority students were awarded scholarships from Peach State Louis StokesAlliance for Minority Participation (PSLSAMP) to do undergraduate research. These students alreadycompleted their regular engineering materials course and were assigned to the project of performing
demand for composites engineers the engineering andtechnology graduates need to be knowledgeable in the field, if not develop some level of expertise, beforethey graduate from college. Traditional materials science/engineering course can accommodate only anoverview of composites. In the absence of a dedicated composites course a special project course or aresearch project on composites could be a supplement to the standard materials course. During thesummer of 2007, two minority students were awarded scholarships from Peach State Louis StokesAlliance for Minority Participation (PSLSAMP) to do undergraduate research. These students alreadycompleted their regular engineering materials course and were assigned to the project of performing
demand for composites engineers the engineering andtechnology graduates need to be knowledgeable in the field, if not develop some level of expertise, beforethey graduate from college. Traditional materials science/engineering course can accommodate only anoverview of composites. In the absence of a dedicated composites course a special project course or aresearch project on composites could be a supplement to the standard materials course. During thesummer of 2007, two minority students were awarded scholarships from Peach State Louis StokesAlliance for Minority Participation (PSLSAMP) to do undergraduate research. These students alreadycompleted their regular engineering materials course and were assigned to the project of performing
-followers), whilecontinuing to develop their ability to perform kinematic andkinetic calculations to analyze and design mechanical systems. Fig. 1. Comparison of trigonometric and vector approaches for analyzing a slider cranks kinematicsThe faculty within the department of Mechanical Engineering atas a function of the cranks angular position, 𝜃. Textbooks also software in their senior capstone project. Therefore, I use CREOteach students how to use graphical approaches, where velocity in this course for continuity, however other programs such aspolygons are sketched and measured using rulers and protractors SolidWorks or Inventor could be used as
assembly/Test-stand/Dynamometer/Production control & Quality engineering) Education: BASc. Mechanical Engineering (Oct 2016) Capstone: SAE BAJA (front suspension) PhD. Candidate (2018-current) Research: Automotive composites/Neural networks Associations: PEO/SAE/OSPE/ASME/CSMEMs. Giselle St Louis, University of Windsor I act as the clinical therapist for students in the engineering department.Dr. Jennifer L Johrendt, University of Windsor Dr. Johrendt is an Associate Professor in the Department of Mechanical, Automotive, and Materials Engineering and the Assistant Dean - Student Affairs at the University of Windsor. She holds degrees in Mathematics and Engineering from Queen’s University in Kingston (B.Sc
features.The quantitative criteria require that an engineering curriculum include the equivalent of 1.0 yearof mathematics and basic science; 0.5 year of humanities and social sciences, not counting com-munication skills courses; and 1.5 years of engineering topics including a strong engineering de-sign stem that begins early in the curriculum and culminates in a major, integrative (capstone)design experience. The qualitative criteria require that the students’ educational experiences in-clude development of appropriate computer skills; development of written and oral communica-tion skills; understanding of the ethical, social, economic, and safety considerations in engineer-ing decisions; application of probability and statistics to engineering
introductory and honors courses in bioengi- neering, tissue and protein engineering lab courses, bioengineering ethics, leadership, and bioengineering capstone writing and design courses. She is committed to enhancing diversity and inclusivity in engineer- ing, and creating opportunities for undergraduate students to engage in K-12 educational outreach. Dr. Hendricks has over a decade of experience leading educational outreach and summer camp programs at both Duke University and the University of Washington. c American Society for Engineering Education, 2017 Work-in-Progress: Making an Introductory Tissue Culture Lab Course Accessible to Novice StudentsThe ability
Engineering (BME) from The Ohio State University (OSU), before joining the OSU BME Department as an Assistant Professor of Practice in 2014. Her roles include designing and teaching undergraduate BME laboratory courses, and mentoring multidisciplinary senior capstone teams on rehabilitation engineering and medical device design projects. She also leads K-12 engineering outreach events, and is pursuing scholarship in student technical communication skills and preparing BME students for careers in industry. c American Society for Engineering Education, 2019 Work in Progress:Biomedical Engineering Students’ Perspectives on a Laboratory Technical Writing
Paper ID #21922LED Timing Light Upgrade for Synchronous Machines Laboratory Equip-mentDr. Herbert L. Hess, University of Idaho Herb Hess is Professor of Electrical Engineering at the University of Idaho, where he teaches subjects in He received the PhD Degree from the University of Wisconsin-Madison in 1993. His research and teaching interests are in power electronics, electric machines and drives, electrical power systems, and analog/mixed signal electronics. He has taught senior capstone design since 1985 at several universities.Mr. Sean Gordon Daniel, University of Idaho I am an Electrical Engineering student at the
. Dally, J. W., & Zhang, G. M. (1993). A freshman engineering A4 120 design course. Journal of Engineering Education, 82(2), 83-91. Miller, R. L., & Olds, B. M. (1994). A model curriculum for a A5 capstone course in multidisciplinary engineering design. Journal of 113 Engineering Education, 83(4), 311-316.FindingsIn line with discourse analysis methods, the findings are presented through quotes and passagesfrom the five papers reviewed. It is important to note some of these quotes are paraphrased in thearticles, based off engineering design work done by others. We have not included these citations,as we
technical electives. In their junior year, they would replace“Natural/Physical Science w/Lab” with “Microbiology” (Bio 330 & Bio 330L). Also, they wouldtake “Fundamentals of Heating, Ventilation, and Air Conditioning” (MET 407) as their EETelective. During their senior year, students would be required to take elective course 2(Biotechnology) and elective course 4 (Biotechnology Manufacturing Laboratory) as their EETelectives. In their “Capstone Design Phase I and II” (EET 428 & EET 429), students would berequired to do their project in the area of Biotechnology Manufacturing or find an internship witha local biotechnology company in order to gain practical experience. Students selecting theproject will be evaluated by a professional
. Capstone design courses, integrationof communication across the engineering curriculum, the consideration of social, economic, andenvironmental issues in the solution of engineering problems, the use of assessment to measurethe impact of pedagogy on student learning: these are all evidence of change in engineeringeducation. As such, they are hallmarks of what Froyd, Wankat, and Smith have identified as fivemajor shifts in engineering education over the past 100 years, which include “a shift tooutcomes-based education and accreditation” and “a shift to applying education, learning, andsocial-behavorial sciences research.”1Now that the ABET Engineering Criteria have been in place since the mid-1990s, we may expectfurther shifts, specifically in the
above-mentioned topics in classes rangingfrom introductory Sophomore-level to capstone design.Curriculum Enhancement through Cogeneration Educational ModulesWe have developed educational modules based on cogeneration that can be integratedthroughout the Chemical Engineering and Mechanical Engineering curricula. The cogenerationsystem is an ideal means of establishing an energy thread in Engineering curricula, in bothlecture and lab courses. The six currently available modules include: for the Sophomore orJunior Years, ideal gas performance (IGP); for the Junior Year data reconciliation (DR) and real-gas performance (RGP); for the Senior Year numerical modeling of heat transfer (HT), levelizedeconomics (LE), and cogeneration system optimal
of the form used to report a summary of the assessment results and anyrecommendations based on the evaluation of the results. Any particular assessment tool,homework, group project, laboratory reports, quizzes, testing, or combination deemed necessaryby the instructor could be used. The assessment might be used to monitor (M) or summatively Page 7.238.2assess (S) the student achievement. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering EducationFig. 2. Schematic diagram depicting the process for course
engineering projects and products. The Page 6.712.1Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright 2001, American Society for Engineering Educationcourses (MEL I, MEL II, and MEL III) are taught in sequence in the sophomore, junior andsenior years to facilitate implementing a complex set of educational objectives.To encourage the development of open-ended problem solving skills, the MEL courses avoid thestep-by-step procedures presented in traditional laboratory courses. In these types of courses,students can just go through the motions to get the information necessary to “fill
traditional electrical and mechanical engineering courses currently available at The Universityof Akron. The majority of these courses serve as required courses for either one or both tracks,or serve as electives during the senior year. A heavy emphasis is placed on design, from thefreshman level (Introduction to Biomedical Engineering Design) through the senior year,culminating in two capstone senior Design classes. BME Design I requires a team of students tocomplete a design project specific to their chosen track. BME Design II requires that theprojects entail a joint venture between students in the two tracks.Furthermore, it is anticipated that the majority of the students will choose to participate in thecooperative education program in the
Paper ID #43309Board 181: Work in Progress: Language-based Dual Degree EngineeringProgram: Increasing Women in Engineering?Dr. Jorge Ivan Rodriguez-Devora, University of Georgia Dr. Rodriguez serves as the industry capstone project coordinator for the College of Engineering at the University of Georgia. He is a faculty member of the School of Environmental, Civil, Agricultural and Mechanical Engineering.David Emory Stooksbury, University of Georgia I am an atmospheric scientist with a background in agriculture, astrophysics, and applied statistics that turned up in an engineering program. My major engineering education
Session 3548 A New Air Conditioning Trainer for a Technology Laboratory Maurice Bluestein Indiana University – Purdue University IndianapolisAbstractThis paper describes the features and usage of a self-contained mobile air conditioning trainer. Thisdevice resulted from a senior project carried out in the Mechanical Engineering Technologydepartment at Indiana University-Purdue University, Indianapolis. Two students created thespecifications and experiments for the equipment which was fabricated at the Carrier Corporationin Indianapolis, Indiana. The trainer includes a condenser, evaporator
at New School for the Arts and Academics, an alternative arts high school.Andrea Marta Eller, Arizona State University Andrea Eller is an undergraduate at Arizona State University in the School of Materials at Arizona State University. After graduation she will be attending graduate school in Materials Science and Engineering. She has been working as an undergraduate teaching assistant in the Introductory Materials course for two years.Stephen J Krause, Arizona State University Stephen J. Krause is Professor in the School of Materials in the Fulton School of Engineering at Arizona State University. He teaches in the areas of bridging engineering and education, capstone design, and introductory materials