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
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
of the program’s first year and graduatesof the two-year program can be measured using externally-developed measurements. Page 22.156.6 On further reflection and discussion, the faculty determined that several existing coursescould be adjusted to serve SES goals as well as those of our traditional EET program. Forexample, the definition of a current source taught in our basic circuits and electronics course(EET 141) can include a photovoltaic module or a grid-tied inverter as practical examples to whythe topic is necessary. Both our capstone project class (EET 282) and our seminar (independentstudent research) class (EET 298) can permit
AC 2011-76: WEB-BASED MAGNETIC DESIGNTaufik Taufik, California Polytechnic State University Dr. Taufik received his BS in Electrical Engineering with minor in Computer Science from Northern Arizona Univ. in 1993, MS in Electrical Engineering from Univ. of Illinois Chicago in 1995, and Doctor of Engineering in Electrical Engineering from Cleveland State University in 1999. He then joined the Electrical Engineering department at Cal Poly State University in 1999 where he is currently a tenured Professor. He is a Senior Member of IEEE and has done consulting work and has been employed by sev- eral companies including Capstone Microturbine, Rockwell Automation (Allen-Bradley), Picker Interna- tional, Rantec, San
conducted at the Penn State Hazleton campus.The solar car was designed by Penn State Hazleton engineering students and built in cooperationwith high school students. The photovoltaic power station was erected in conjunction with aphotovoltaic installers training course which was offered on site at the Penn State Hazletoncampus.As a positive result of these projects, the Penn State Hazleton Campus decided to develop andoffer a new innovative Bachelor of Science in General Engineering with an Alternative Energyand Power Generation Track. The General Engineering with an Applied Materials Track was Proceedings of the 2011 ASEE Northeast Section Annual Conference University of Hartford
AC 2011-1335: STUDENTS AND SUSTAINABILITY: ASSESSING STU-DENTS’ UNDERSTANDING OF SUSTAINABILITY FROM SERVICE LEARN-ING EXPERIENCESJonathan Wiggins, University of Colorado, BoulderMary E McCormick, Tufts University Civil and Environmental Engineering Ph.D. studentAngela R Bielefeldt, University of Colorado, Boulder Angela Bielefeldt, PhD, PE, is an Associate Professor in the Department of Civil, Environmental, and Architectural Engineering at the University of Colorado at Boulder (CU). She served as the Director of the Environmental Engineering Program at CU for four years. She has taught the first-year Introduction to Environmental Engineering and senior capstone Environmental Engineering Design courses for a number
engineering technology classes, president of a major student organization, and taking part in the Imagine RIT Innovation Festival with a peer developed project. Page 22.47.1 c American Society for Engineering Education, 2011 A Hands-on Approach to Demonstrating Hardware/Software Tradeoffs in an Embedded System DesignAbstractThis paper describes a Computer Engineering Technology lab activity in an Embedded SystemsDesign course used to provide students with an opportunity to substantiate the theory beingpresented in the classroom. The objective of the lab is to quantitatively
’ perceptions of these notebooks.Types of engineering notebooksA brief review of the literature reveals that engineering notebooks can take many formsand be used for many purposes. For example, Tillema and Smith (2000)24 identified threedistinct types: 1. A dossier is a notebook or portfolio that is completed at the end of a project or course to “collect mandated documentation on performance. In this case, the portfolio construction is not necessarily based on a learning orientation” (p. 194)24. 2. A learning portfolio is a living document used to evaluate learning over the course of the project or semester. 3. A reflective portfolio is also a living document, in which the author records his or her
those courses, but also for courses of study related to the Design Process, such as asenior-level Capstone Design Project. The creation of a reference Design Process Rubric wouldbegin to lay the foundation to address some of the barriers to both an advance placement and / orfor a dual-enrollment course (secondary and undergraduate credit).IntroductionThe work reported in this paper began with the Strategies for Engineering Education K – 16(SEEK-16) Summit held on February 21 and 22nd, 2005 at the National Academy ofEngineering. As a direct result of SEEK-16: (1) funding was provided by several NationalScience Foundation (NSF) awards; (2) a research program was conducted to study the rationale
havepublished in the area of teamwork that is based on my 17 years of experience as a Senior ProjectEngineer in Biomedical Instrumentation field.1,2 As an instructor, I have program specificknowledge of how Capstone Projects work. As a researcher, I had little knowledge of how majorResearch Projects function that include Faculty, Undergraduate, Graduate Students, and theirrelationships with Industry. I had the opportunity this past year to collaborate with EDWARDM. LAND, the HOAD Research Project P. I. of the Hand Opening Assistive Device (HOAD)Research project from Johns Hopkins University.Ed is a Consulting Engineer, for the Advanced Assistive Device Technologies Class that heteaches at the Johns Hopkins University, Whiting School of Engineering
discipline on the lives of others in the wider world, examine the ethics and philosophy characteristics of the discipline and their implications, and project themselves into the discipline while developing a sense of pride and humility related to both the self and the discipline. 24 Although it not always explicitly addressed, most engineering programs aim to have engineering have a strong identity as an engineer. Capstone and senior design projects are ways that traditional engineering programs develop identity, but providing opportunities earlier in the academic career may help to develop this earlier. Service learning and mentoring programs are strategies used recently, especially with
that suits a variety of learning styles. For example, the program has left significant leeway for service learning components in the classroom, in the form of final projects or in the Senior Capstone class. Service learning typically engages students, faculty and community members in a community project. These types of projects allow students to become connected to the community and, thus, to provide a sense of civic engagement. Surveys have shown overwhelmingly that over 65% of students recognize civic engagement as a critical part of their education [10]. Research further indicates that women learn most effectively when theoretical concepts and classroom
34. Lastly, the program at the University ofAuckland is focused on teaching a multidisciplinary approach that integrates the various parts ofmechanical engineering to prepare students to be successful upon graduation5. These are classessimilar to the capstone design courses in US engineering universities, but instead of simplypairing students with professional engineers, they are also paired with individuals from art,business and design disciplines in order to work on a truly multidisciplinary project. Theseindustrial design-style classes were created and carried out by the mechanical engineeringdepartments of their respective universities. The result of this style of program is thatundergraduate students are not only educated on the
theoretical and practical. In many cases, the laboratory component of courses will be significantly strengthened with the semester transition due to the additional five weeks allocated. Within the new curriculum plan, there are extensive opportunities for long-term projects, existing both early in the programs, and as part of capstone sequences. Additionally, a course entitled Design and Innovation has been added in the third year to provide students with a significant long-term project experience prior to their first co-operative educational experience. Perhaps the most significant impact of the semester conversion deals with student
, timeliness, and continuous improvement canbe represented by the following performance indicators: Practicum, internship, field experience, co-op experience Work on a research project with a faculty member outside of course or program requirement Culminating senior experience (capstone course, senior project, comprehensive exam, etc.)Strict time constraints of the exam also suggested including timeliness as a factor.Program outcomes 3h and 3k were chosen to illustrate relevance of the EET test as an indirecttool because the above mentioned performance indicators identify the value of examinations(periodic, professional, certification, comprehensive, etc.) in student’s academic and professionallearning experience.These
completed so that we can devise effective methods for learning design and preserving knowledge that arises in the process. She has been actively teaching and reflecting upon engineering design issues for over 15 years. Dr. Schmidt was the 2008 recipient of the American Society of Engineering Education’s prestigious Fred Merryfield Design Award and is the co-author with George Dieter of the text ”Engineering Design, 4th edition”, published by McGraw Hill in 2008. Linda Schmidt has published over sixty refereed publications in the areas of mechanical design theory and methodology, mechanism design generation, graph isomorphism issues in generative design and effective student learning on engineering project design
includes a good introduction toteamwork 11. While the student body in Introduction to Engineering is interdisciplinary, theemphasis is largely on teamwork and does not focus on the interdisciplinary element per se.Each of the COE engineering units requires a senior-level capstone design course. Consistentwith the majority of engineering programs around the country, the capstone courses areadministered by the departments and so are discipline-homogeneous, the interdisciplinaryteamwork element in most cases coming from teamwork incorporating intradisciplinaryspecialization. In addition to this form of contrived “interdisciplinary” teamwork, CHE and MEand CHE, ME and ECE jointly offer two electives that are truly interdisciplinary,“Interdisciplinary
Page 22.1214.3for a complete reworking of the disciplinary boundaries among engineering disciplines, andbetween engineering and science, as part of engineering education. Sheppard11 has argued thatthe ABET-required senior engineering design capstone subject, the typical experience forprofessional practice in engineering curricula, is not enough to create an engineering graduateready for innovative engineering practice. Sheppard’s study suggests that curricula that include adesign subject each academic year that parallels engineering fundamentals subjects wouldprovide students with experiences that permit them to apply fundamentals each year. Moreover,this curricular design would also permit an increasing degree of sophistication in
12 86 Nuclear Core Introduction to Nuclear Engineering (NUCL 200) 3 Nuclear Reactors and Plant Systems (new) 3 Radiological Engineering Fundamentals (new) 4 Nuclear Engineering Laboratory I (NUCL 205) 4 Selected Topics in Applied Nuclear Energy (new) 3 17 103 Capstone Project 4TOTAL
Activities, or MEA's, are an extension to inductive learning which add additionalguidance to help ensure that students learn not only skills in teamwork, project management andcommunication but also the technical competencies of engineering. Two MEA's developed foruse in a Senior level undergraduate mechanical engineering course are discussed herein. Thefirst MEA in this course on mechanical measurements involves the design of a strain gaugebased load cell transducer. The second MEA involves the use of an accelerometer to comparethe impact absorbing properties of packaging materials. Both MEA's were implemented in theWinter 2010 quarter; the effectiveness of the MEA's for student learning, student responses to theMEA's, and lessons learned are
in learning Page 22.694.3across disciplines. Beasley et al [10] considered detailed processes for curriculum design. Theylisted several integrative experiences that would bring together diverse parts of the curriculum inan engineering department. Carlson et al [11] viewed Design-Build-Test project cycles as anexcellent means of cross-disciplinary innovation and knowledge transfer. Kleppe [12] describes amultidisciplinary capstone design course for high school teachers, bringing together variousaspects of innovation and entrepreneurship. Kostoff [13] looked at developing processes forenhancing innovation, by transferring information and
AC 2011-1479: AN ACTIVE POWER FACTOR CORRECTION LABORA-TORY EXPERIMENT FOR POWER ELECTRONICS COURSEDale S.L. Dolan, California Polytechnic State University Dale S.L. Dolan is an Assistant Professor of Electrical Engineering at Cal Poly with experience in renew- able energy projects, education, power electronics and advanced motor drives. He received his BSc in Zoology in 1995 and BEd in 1997 from the University of Western Ontario. He received the BASc in Elec- trical Engineering in 2003, MASc. in Electrical Engineering in 2005 and PhD in Electrical Engineering in 2009 all from the University of Toronto. He is past chair of Windy Hills Caledon Renewable Energy, past chair of the OSEA (Ontario Sustainable Energy
design, and biomechanics. Dr. Saad received his high school education in Lebanon. His BS and MS were received from Marquette University in Milwaukee, WI. The emphasis of his master’s dissertation was on a finite element analysis of a solder joint under thermal loading. Dr. Saad received his PhD from Washington State University in Pullman, WA. His research focused on the energy dissipation function of an abrasive water jet cutting through steel. In addition to this, Dr. Saad has taught a vast number of engineering classes at many institutions and is currently teaching, among other classes, Statics, Strength of Materials, Dynamics and Senior Capstone at Eastern Washington University. Professor Durfee received his BS
can be studied through a secureresearcher interface. The three goals of the project support each other in hierarchical fashion:research informs faculty practice, faculty determine the students’ experience, which, if wellmanaged based on research findings, equips students to work in teams. Our strategies forachieving these goals are based on a well-accepted training model that has five elements:information, demonstration, practice, feedback, and remediation.Different outcomes are expected for each group of people. For the students, both individualoutcomes, such as student learning, and team outcomes, such as the development of sharedmental models, are expected. For the faculty, individual outcomes such as faculty learning andfaculty
AC 2011-1720: THE 2011 STATE OF MANUFACTURING EDUCATIONHugh Jack, Grand Valley State University Professor of Product Design and Manufacturing Engineering. His interests include Automation, Robotics, Project Management, and Design. Most recently he was part of the team that developed the Curriculum 2015 report. Page 22.1426.1 c American Society for Engineering Education, 2011 The 2011 State of Manufacturing EducationAbstractThe paper complements the work of other groups and professionals, all trying to assess the statusof manufacturing education. To this end the paper
education. She was awarded a CAREER grant from NSF to study expert teaching practices in capstone design courses na- tionwide, and is co-PI on several NSF grants to explore gender in engineering, design education, and interdisciplinary collaboration in engineering design.Jacob Preston Moore, Virginia Tech Jacob Moore is a PhD candidate in the Engineering Education PhD program at Virginia Tech. His re- search interests include developing better digital textbooks for engineering and using Rapid Prototyping in education.Deirdre Annaliese Nicole Hunter, Virginia Tech Deirdre Hunter is a doctoral student in the Department of Engineering Education at Virginia Tech.She has a B.S. in Mechanical Engineering from Syracuse
“Fundamentals of Electrical Energy Systems Engineering” is envisioned to − Equip graduating engineers for day-to-day life relating to energy − Stress basic energy fundamentals, generation, utilization, environment − Be tailored to local needs and placed in the program according to local requirements • There should be mechanisms such as project courses for students to develop a system of systems approach – for example, projects involving power, power electronics, communication and computation. • Incorporation of a system of systems approach should be encouraged in capstone design courses. • A second course in “Energy System Design” is envisioned to − Provide the ability to understand and design
Naval Ship and Development Center, Eglin Air Force Base, Bell Aerospace Textron, and EDS, among others. She served as the principal investigator and test director for infrared detectability assessments for the U. S. Navy’s Amphibious Assault Landing Craft Program, as editor for operations manuals for the Navy’s Special Warfare submarine delivery vehicles, and as associate program director for projects in electronic countermeasures and radar detection of submarine towed arrays. Her graduate studies in the area of high-resolution spectral analyses of Jovian decametric radiation, leading to a Ph.D. from the University of Florida, also included extensive field work in the installation and operation of observing stations
Department.Cortney V. Martin, Virginia TechPeter Doolittle, Virginia Tech Director for the Center for Instructional Development and Educational Research, and Associate Professor of Educational Psychology at Virginia Tech.Justeen Olinger, Virginia Tech Student Assistant with the NSF-CCLI Grant at Virginia Tech. Page 22.994.1 c American Society for Engineering Education, 2011 Lab-in-a-Box: Online Instruction and Multimedia Materials to Support Independent Experimentation on Concepts from CircuitsIntroductionA project known as Lab-in-a-Box (LiaB) was developed in 2004 as one of the