, and students. Starting with a site plan by a local architect and a construction blueprintfrom another trailhead elsewhere in the state, charrette participants improved the design and sitelocation. Students completed the design, obtained approval from the customer (the nonprofit trailgroup), and obtained approval from local and state governments. Because this was a capstonecourse, students were required to demonstrate knowledge and skills they acquired during theirfour-year degree program. As such, they created the blueprints of the new design, estimated costsand materials, scheduled the construction, and fulfilled the role of project manager. Constructionprofessionals mentored the students as they built the trailhead restroom. The magic words
Ph.D. degree from University of Massachusetts, Amherst. He is an Asso- ciate Professor and Associate Chair for Undergraduate Education at Portland State University, Electrical and Computer Engineering department. In this role he has led department-wide changes in curriculum with emphasis on project- and lab-based instruction and learning. His research interests are in the areas of semiconductor device characterization, design and simulation, signal integrity and THz sensors. He is a member of IEEE and ASEE.Malgorzata Chrzanowska-Jeske, Portland State University Malgorzata Chrzanowska-Jeske received her M.S. degree in electronics engineering from Politechnika Warszawska (the Technical University of Warsaw) in Warsaw
AC 2011-1317: CRITICAL ISSUES AND LESSONS LEARNED IN ESTAB-LISHING CONCURRENT INTERNATIONAL MS DEGREE PROGRAMSIN ENGINEERING TECHNOLOGYMichael J. Dyrenfurth, Purdue University, West Lafayette Michael Dyrenfurth is professor in the Department of Technology Leadership and Innovation, in the Col- lege of Technology at Purdue University. He is co-PI of the DETECT project. He collaborates frequently with ProSTAR to deliver industry-oriented graduate programs to professionals in the field. Active in in- ternational aspects of the profession, he teaches and researches in the areas of technological innovation, technological literacy, and international dimensions of technological education.Mike Murphy, Dublin Institute of
idealteaching tools. Furthermore, the AASHTO Guide Specifications for Design of PedestrianBridges represent a manageable introduction to formal engineering design for a semesterlong project. This paper describes a one credit hour, semester long, project undertaken byMArch students alongside a required course in Structural Engineering Design. Studentsundertook conceptual design of pedestrian bridges. After a class wide study of innovativeprecedents, they worked in small groups and were required to choose and analyze a site,and propose an initial structural scheme. A minimum clear span was required to pushmore ambitious spanning strategies. They then performed a Finite Element Analysis andsized all the primary structural members of the bridge. The
, researches, and publishes on design education, withcurrent interests in using the Cloud computing, global design, and rapid prototyping. 404 Self-Replicating Open Source Rapid Prototyping in the Engineering Classroom From its genesis as a lark in the home basement lab of the senior author in the fall of2010, the [Area] Reprap Project grew rapidly. It was offered a a group research project inSpring semester 2011 and 10 students quickly signed up and spent the semester buildingthree functional RepRap fused-filament printers. In Fall 2011, it has evolved into aninnovative course using a wiki as its textbook, a grading system based in “experiencepoints” (XP
Society for Engineering Education, 2011 Uncovering the Role of Emotion in Engineering Education within an Integrated Curricular ExperienceAbstractThe purpose of this paper is to uncover the role of emotion within an interdisciplinary, project-based design studio as implemented in 2009 and 2010. This qualitative research study involves anarrative analysis of data collected over two semesters of the design studios to identify the typesof emotions described, the change in these emotions over the semester, and the interaction ofthese emotions with learning. This analysis is conducted on students’ written reflections, as it isimportant to understand emotions from the perspective of the student and within the desiredcontext
in 1987 and a Ph.D. in 1995. He is a reg- istered Professional Engineer with the Commonwealth of Virginia. With more than 13 years professorial experience, he has taught a large variety of courses including statics, dynamics, mechanics of materials, graphic communications, engineering economy, and construction planning, scheduling, estimating, and management.Chung-Suk Cho, University of North Carolina, Charlotte Dr. Chung-Suk Cho is an Assistant Professor at the University of North Carolina at Charlotte, Department of Engineering Technology. His teaching and research focus on project scope definition, pre-project planning, sustainable construction, project administration, construction safety, construction
Bioengineering Capstone DesignAbstractStudy abroad course-work presents unique collaboration potential with capstone engineeringdesign, specifically as a source for student projects. Project-based instruction of bioengineeringcapstone design hinges upon engaging the students’ interest and commitment early in the project.Strategies to achieve this level of student commitment can include encouraging student-originated project ideas, seeking projects from real-world external clients in research andindustry, or offering instructor-originated projects orchestrated specifically to elicit studentinterest. Another alternative, soliciting student-originated engineering design projects derivedfrom study abroad courses, allows for practical projects with real
CourseAbstractCapstone courses for senior engineering students may be organized in numerous ways. Usually,the goal is to give students a significant development and design experience that will preparethem well for their work following graduation. Sometimes the focus of a capstone course is onsolving technical problems of an advanced project. Sometimes the focus is on getting thestudents to produce a design based on the scope provided by an industry partner. Sometimes thefocus is on giving the students a rich experience in how a team works together. Sometimes thefocus is on the business side of projects and engineering. Sometimes the focus is on coveringmaterial that doesn’t fit in any of the other regular courses. Most capstone courses try to formsome balance
gender neutral toys allowed students the ability to setup and executeexperiments for mechanistic evaluation with emphasis placed on generating, testing andimplementing technical solutions to the toy design. Topics such as manufacturing, safety, costanalysis, materials selection, and marketing were directed from lecture portion of the class andapplied to the toy analysis. From the observations and mechanistic evaluation of the toys,students were capable to design and fabricate a working prototype to a technical challenge. Thispaper describes a case study project demonstrating the process of relating toy evaluation toengineering fundamentals and reports feedback from faculty and students. Observations are alsooffered on the manner in which
-autonomous operation and vehicle response tosensors (such as an ultrasonic distance sensor) under computer control. This flexibilityallows this electric car platform to support a wide range of future experimentation anddesign projects. Educational resources (lab exercises, team projects) developed tosupport this activity will be presented.1. Introduction Penn State University was awarded an NSF grant ‘Toys and MathematicalOptions for Retention in Engineering (Toys ‘N More) in 2008. This is a five year grantextending to 2013. This project is being conducted at the University Park campus, as wellas fourteen other Penn State campuses throughout Pennsylvania. The overall goal of thegrant is to improve the numbers of students enrolled in retention
Aeronautical University, Prescott AZAbstract The development of an undergraduate advanced experimental aerodynamics course isdiscussed in this article. The aim of the course is to allow an easier transition to graduate levelresearch through development of problem solving skills as well as exposure to the researchprocess. The course comprises a mixture of applied theoretical and hands on project basedlearning. The theory component is modular, with coverage of topics supportive of the assignedprojects. Use of numerical tools for airfoil and aircraft analysis is required, as is proficiency inLabView for data acquisition. Projects are performed in groups. Students generally conduct twoprojects. One is equipment based, where students become proficient
mfiles, operations with matrices, graphing functions, logical and relational operators, controlloops and variable assignments. Each concept is motivated by a specific example frommathematics or physics. Students are given projects and are graded on the functionality ofthe program and the programming style. The students are given a midterm based on thesebasics.The second half of the course is used for project work. Students are divided into groups oftwo or three and given a project based on their interest. The expectation is that studentswill collaborate and use techniques learned in the first part of the course. Descriptions ofseveral projects and an example of a final group project are given below with comments.3 Projects a. Introduction to
capstone design project course that is typically required in the ABET-accredited college engineering curriculum. Students are motivated by the capstone experiencebecause it shows the elegance of the EDP and relates to how engineering is used in practice todesign and manufacture products.In order to teach the EDP and capstone experience effectively, high school teachers mustexperience, learn and use the EDP themselves. Our methodology begins by educating theteachers about the capstone experience and how to incorporate it in their classroom instructionswhen they return to their schools. We continue to work with and monitor the teachers duringtheir teaching activities over one academic year.We have implemented the capstone experience in the first
University Jeffrey E. Froyd is the Director of Faculty Climate and Development at Texas A&M University. He served as Project Director for the Foundation Coalition, an NSF Engineering Education Coalition in which six institutions systematically renewed, assessed, and institutionalized their undergraduate engineering curricula, and extensively shared their results with the engineering education community. He co-created the Integrated, First-Year Curriculum in Science, Engineering and Mathematics at Rose-Hulman Institute of Technology, which was recognized in 1997 with a Hesburgh Award Certificate of Excellence. He has authored or co-authored over 70 papers on engineering education in areas ranging from curricular change
construction workforce. Currently, he investigates the effect of a novel program to increase the retention of first-year undergraduate students enrolled in an engineering college. The program also aims at increas- ing engineering student success, enhancing the sense of community and belonging by the students, and improving the transfer of knowledge in the engineering disciplines. In order to succeed in his research endeavors, Dr. Grau frequently collaborates with social scientists and educators. Prior to his academic career, he worked for more than seven years both leading an engineering department and managing com- plex industrial projects in South and Central America, and Europe. He is a registered Industrial Engineer in
Officer at the National Academy of Engineering (NAE). Her portfo- lio is the Diversity of the Engineering Workforce program with a charge to provide staff leadership to the NAE’s efforts to enhance the diversity of the engineering workforce at all levels including the diversity of those being prepared to enter the future workforce. She is the project director of a $2 million dol- lar National Science Foundation grant to increase the number of women receiving baccalaureate degrees in engineering. In addition to her duties at NAE, in March of 2007 Didion became the Director of the Committee on Women in Science, Engineering, and Medicine. This is a standing committee with a new mandate to work as a focal point on gender
AC 2011-2322: MENTOR TRAINING PROGRAM FOR A PEER-TO-PEERLEARNING ENVIRONMENT: LEADERSHIP VS. CURRICULUM BAL-ANCEFarrokh Attarzadeh, University of Houston Farrokh Attarzadeh earned his Ph.D. in Electrical Engineering from the University of Houston in 1983. He is an Associate Professor in the Engineering Technology Department, College of Technology at the University of Houston. He teaches software programming and is in charge of the senior project course in the Computer Engineering Technology Program. He is a member of ASEE and has been with the University of Houston since 1983. Dr. Attarzadeh may be reached at FAttarzadeh@central.uh.edu.Deniz Gurkan, University of Houston Deniz Gurkan received her B.S. (1996) and M.S
include pedagogical discourse analysis, human-computer interaction, social network assistance, and assessment of student collaborative online activities. She leads synergistic work among machine learning experts, educational psychologists, NLP researchers, and STEM instructors. She is the PI of five NSF projects including the CCLI/PedDiscourse, CCLI/PedWiki and NSDL/SocRecomm projects under the EHR Directorate and CreativeIT/PedGames and IIS/PedWorkflow projects under the CISE Directorate. Under the PedWiki effort, her team is developing instructional assessment tools based on discourse analysis and identifying scaffolding opportunities to promote engagement and collaboration.Jeon Hyung Kang, ISI/University of Southern
intensify their skills of critical thinkingand problem solving and they are organized to work on course projects in a team. Furthermore, with thehelp of faculty members, they develop their course projects or innovative ideas into conference papers ortutorial/postal topics and present them in educational and technical conferences. Their performancesworking in a team and dialogue with professionals in the field, will build up their confidence and skillsfor their future jobs in the area of mechatronic engineering.OVERVIEWTo enhance students’ communication capabilities through mechatronic engineering program, this paperwill specifically address the following topics 1. Implementing teamwork and classroom presentation in core computational project
engineering and agricultural science acumen within the GSSEteams engaged in sustainable enterprises in developing countries. The latter need was addressedby assigning engineering and science students from the STESE course directly to the GSSEteams. In its first offering, the STESE course was cross listed between the Colleges ofEngineering and Agricultural Sciences, which yielded a total enrollment of 40 students among 6different majors. The course was jointly taught by faculty from three departments (Management,Mechanical Engineering and Agricultural Resource Economics) in a weekly format that includedlectures, project based learning, and guest speakers. The 16-week semester was divided into fourgeneral topic areas: the entrepreneurial mindset
knowledgeable about how to sustain energy efficiency through lighting. The LEED forHomes Rating System provides minimal description for achieving lighting credits towardcertification and little supplemental information about lighting to educate the homeowner orother lay person. As a result, homeowners are left to rely on their own consumer informationwith regard to maintaining an energy efficient lighting system and over time can become lesssatisfied with the aesthetic and functional results.This paper reviews and examines an educational experience across interior design andarchitectural technology disciplines to learn about energy efficient lighting and apply it in aconsumer education effort. Specifically, it describes the pedagogy of a design project
local manufacturers with the need for a ready supply of certaingoods in the event of an emergency, some financial incentive or leveraged assistance must beprovided to the companies. The incentive and the assistance can both come from universitystudents and teachers as a form of service learning. Service learning4,5 is a growing trend inuniversities in which students participate on an educational project that applies their knowledgewhile contributing meaningfully to their communities. Service learning engages students bygiving their work significant purpose and reinforces their commitment to their discipline byseeing it directly benefit humanity. This contribution to community welfare, even more so thancontributing to a company’s bottom line of
. Page 22.1031.1 c American Society for Engineering Education, 2011Making a College-Level Multidisciplinary Design Program Effective and Understanding the Outcomes Page 22.1031.2abstractThe University of Michigan’s College of Engineering (CoE) has committed to a significantMultidisciplinary Design (MD) Program complementing the bachelor degree programs. Thisenables students from across degree programs and even outside of the CoE to collaborate onprojects. This is currently being done by flexibly addressing instructional and practicum needsthrough a series of short seminars, semester and multi-semester long project work, and a minor.Participation by
sits on many university and community boards and advisory committees. Dr. Springer is internationally recognized, has authored numerous books and articles, and lectured on software development methodologies, management prac- tices and program management. Dr. Springer received his Bachelor of Science in Computer Science from Purdue University, his MBA and Doctorate in Adult and Community Education with a Cognate in Exec- utive Development from Ball State University. He is certified as both a Project Management Professional (PMP) and a Senior Professional in Human Resources (SPHR).Mark T Schuver, Purdue University, College of Technology, West Lafayette, IN Mark Schuver is the Associate Director of the Center for
; hydropower; fuel cells;biofuels; geothermal; and ocean, wave, and tidal energy. In all of the topics, the class coversenough of the engineering fundamentals to allow for mini-design projects in each technology.The classroom periods use an active learning methodology. The classes are structured such thatthe students work together in multi-disciplinary teams where each student is able to bring theexpertise of their major to understanding the technology. For example, the background ofmechanical engineers combined with electrical engineers will allow a team to begin to grasp thebasic fundamentals of fluid flow and power generation needed to understand how a hydropowerplant operates.A significant assignment in the class is a community-based service
country where they learned about nursing practices, community assessment, medicalinstrumentation and engineering design principles, with much of the learning facilitated throughsmall group, community-based activities. Students concluded the trip back at FGCU, formallypresenting their work to local community members, from the campus and the greater Ft. Myersand Naples area; students were also interviewed by these community members one-on-one todetermine successes and areas for improvement in the program. While the paper will summarizeall components of the high school program, the focus of the paper is on the design topicsintroduced in Guatemala, including activities used to teach and learn engineering design, the in-country design project
Photovoltaic System Optimization through Undergraduate Engineering Clinics Daniel Schmalzel, Rowan University, New Jersey, USA 745 Photovoltaic System Optimization through Undergraduate Engineering Clinics Daniel Schmalzel, Rowan University, New Jersey, USAAbstractAt Rowan University students have been introduced to Photovoltaic System Design, through theClinic Experience, at both the residential and commercial scale. The Clinic is a project basedlearning approach based on the Medical School Model [1]. These experiences have included theinitial feasibility assessments and continued all the way
- healthcare engineers due to the fast expanding bioengineering industries. In a project (sponsored by U.S. National Science Foundation), we are developing a new course called ECE 493 Tele-healthcare Computing. This paper reports our lab design and teaching experiences. Especially we will discuss our educational development of medical networks and bio-signal processing. We have designed three class labs on ECG sensor and ECG signal processing. Those class labs are developed from a building-block approach. When we offer the lectures to students, we have used a multi-dimensional approach: Dimension-1: Multi-student-level adaptive materials: To meet different schools’ course setup requirements, we design basic, intermediate and advanced
research projects with Chrysler, Ford, DTE Energy, Delphi Automotive System, GE Medical Systems, Harley-Davidson Motor Company, Interna- tional Truck and Engine Corporation (ITEC), National/Panasonic Electronics, and Rockwell Automation. His research interests include manufacturing systems modeling, simulation and optimization, reliability, intelligent scheduling and planning, artificial intelligence, predictive maintenance, e-manufacturing, and lean manufacturing. He is member of IIE, INFORMS, SME and IEEE.Sabah Razouk Abro, Lawrence Technological University Dr. Sabah Abro is an internationally educated math professor and program Director at Lawrence Tech- nological University. He graduated with a Bachelor degree from