now pursuing a M.S. in Environmental Engineering at the University of Notre Dame. Prior to return- ing to Notre Dame, Maria worked as a Civil Engineer on water and wastewater infrastructure projects at Whitman, Requardt & Associates in Baltimore, MD. Her research interests include the monitoring and modeling of green infrastructure and undergraduate experiential learning in both domestic and interna- tional contexts. She co-teaches a project-based engineering course at the University of Notre Dame that is a key component of the Bowman Creek Educational Ecosystem.Alicia Czarnecki, Bowman Creek Educational Ecosystem Alicia Czarnecki is a senior Environmental Engineering major at the University of Notre Dame. Alicia
Paper ID #18808Case Study: A College-Wide Engineering Capstone Experience at the Uni-versity of TennesseeDr. Jennifer Q Retherford, University of Tennessee, Knoxville Dr. Retherford is an alumna of the University of Nebraska, Omaha, and received her graduate degrees from Vanderbilt University. She currently teaches a variety of courses supporting the department of Civil & Environmental Engineering at the University of Tennessee. Among many structural engineer- ing courses, Dr. Retherford manages the Senior Design Project course for all undergraduate seniors.Dr. J. A. M. Boulet, University of Tennessee, Knoxville J. A. M
The University of Alabama. She has experi- ence working with many industries such as automotive, chemical distribution etc. on transportation and operations management projects. She works extensively with food banks and food pantries on supply chain management and logistics focused initiatives. Her graduate and undergraduate students are integral part of her service-learning based logistics classes. She teaches courses in strategic relationships among industrial distributors and distribution logistics. Her recent research focuses on engineering education and learning sciences with a focus on how to engage students better to prepare their minds for the future. Her other research interests include empirical studies
to be controlled remotely by a ground station. They went throughthe full development life-cycle using formal agile process. The participants gained experience in projectmanagement, and how to negotiate with the customer to reduce the complexity of the project to anachievable scope, given available resources (time, personnel, and cost).I. INTRODUCTIONThis paper describes one of our activities under the INSPRE-CT (Computational Thinking) project that hasbeen funded by the National Science Foundation (NSF) CPATH-2 program NSF-DUE-0939028. TheINSPIRE-CT project explored vertical integration of student teams to improve student learning and raisestudent interest in computing. Throughout the project, we looked for opportunities where we
is an interdisciplinary artist, educator, and cobbler of situations who lives in Baltimore, Maryland. Laure works with a wide range of media including projects in which she creates sculpture, performance, and theatrical events that invite the viewer to be an active participant. She has exhibited widely, including The International House of Japan in Tokyo, Corcoran Gallery of Art,Washington Project for the Arts, The Walters Museum, Baltimore Museum of Art, and The Center for Architecture in New York as well as many street corners, alleys, and underutilized urban spaces.She has received Maryland State Artist Awards and a Franklin Furnace Award for performance art and has been a recipient of a US/Japan Creative
and provided the opportunity to rapidly climb the learningcurve.One response to this need is to more rapidly and better train students by means of realistic andintensive design-build-test activities. Since 1998, the Student Space Systems FabricationLaboratory (S3FL) at the University of Michigan’s College of Engineering has combined aformal design process with student creativity and spontaneity to train and provide students withopportunities for research in space system design and development.5 This paper describesS3FL’s resources and operations, outlines the lab’s educational and design philosophy, anddiscusses the technical, teamwork, communication, and project management skills developedthrough S3FL. The paper also discusses how these
explorereal engineering design is unknown.This paper describes how to incorporate the IGL into the Graphical Communications course, andshows how students are engaged to learn at a higher level of the Bloom’s taxonomy [9-11] byimplementing sustainable design final projects. Students work in teams to collaboratively collectinformation, define and analyze the problems, and seek the effective solution. Instead offollowing faculty member’s instruction to passively complete the model design, students have anopportunity to apply the skills they learned in class to solve the real-world problem, and to thinkas an engineer. IGL introduced a greater level of excitement and enthusiasm by allowingstudents to explore the topics of personal interest to themselves
. Page 24.44.1 c American Society for Engineering Education, 2014 A design approach in an Introduction to Engineering courseAbstractDesign is the essence of engineering. Because of its core values in engineering education andresearch as well as in industry, I decided to incorporate engineering design as the main theme ofthe Introduction to Engineering course at Eastern Mennonite University (EMU). Following afive-stage prescriptive model (problem definition, conceptual design, preliminary design,detailed design, and design communication) in their design process, students worked on twocollaborative projects: the design and construction of a solar-powered cell phone charger and apersistence of vision wand. In
project, this paper reports the lessons learned in managing this rather large andcomplex project which brings together two quite different educational institutions. The results todate have been quite positive.IntroductionIn 2003 WPI began a three-year project, "K-6 Gets a Piece of the PIEE (PartnershipsImplementing Engineering Education)." This project is funded by the NSF Graduate TeachingFellows in K-12 Education (GK-12) program, the goal of which is to involve engineeringgraduate students with K-12 science and engineering education. Some small number of thesegraduate students will decide to pursue careers in K-12 education, but for most, the intenseexposure provided by the Fellowship program should lead to increased involvement with K
-world applications of science and engineering. This project provides a hands-on, contextualapproach to student learning, as well as teacher professional development. As part of thecurriculum, data is being collected on student outcomes that quantify high school students’academic self-efficacy, real world problem solving, critical thinking skills, achievement inmathematics and the sciences, motivational and goal orientation, and vocational or careerinterests in STEM fields. Additionally, teacher outcomes, including self-efficacy, are beingmeasured. This poster/paper will present the curriculum developed through the collaborativepartnership between K12 schools systems and university.IntroductionNumerous publications in recent years have expressed
Progress] Community Engagement in a First-Year Engineering Communication Course: Increasing Student Numbers from Handfuls to Hundreds.AbstractEngaging first-year engineering students in their mandatory, first-term, communication coursecan be a challenge when some may not yet understand how these communication skills will beused in their day-to-day professional interactions. However, adding a real client with real needswhere the students’ work can have real impact adds immediacy and interest. To those ends, acommunity service learning team proposal project was created in 2011 for 60 students of a firstterm, first-year engineering writing course, which is a part of a common first-year engineeringcurriculum. In this
Paper ID #10585Leading by Example for Engineering Design (LEED) to Meet Next Genera-tion Science Standards in Middle and High School Science and Math ClassesDr. Evan C. Lemley, University of Central OklahomaMr. Bob Melton, Putnam City Schools Bob Melton is the Assessment Coordinator/ STEM Facilitator for Putnam City Schools. Mr. Melton began his career in 1974 at Putnam City West High School, taught at Edmond Memorial High School, and was the Science Curriculum Coordinator for Putnam City Schools from 1993 to 2013. From1999 through 2003 he served as project director of a USDOE program to research the effective- ness of
worth (EAW)? 2. What is the definition of equivalence within an industrial context? 3. How are PW and EAW interpreted? 4. Why does choosing the largest PW or EAW maximize a company’s FTW? 5. How should alternatives with different lives be compared?The next section briefly reviews the FTW model, and following sections provide the answers tothe above questions. FTW ModelA firm’s FTW is its total capital at the end of the planning horizon. The FTW model computesthis capital as a function of project selection, thereby enabling the decision maker to select theproject that maximizes FTW. Maximizing FTW is an intuitively appealing investment objective,and the FTW model leads to the use of popular
Session 1260 An Investigation of Gender Composition on Integrated Project Team Performance: Part III Gül E. Okudan 1, Donald Horner2, Barbara Bogue 3 and Richard Devon 1 Department of Engineering Design and Graphics1 Engineering Leadership Development Program 2 Women in Engineering Program The Pennsylvania State University University Park, PA 16802Abstract __ This study presents the quantitative results of the investigation that measures theeffects of gender composition
Session 1566 Student Evaluation of the Thermal/Fluids Design Experience Paul B. Hoke, Craig W. Somerton Department of Mechanical Engineering, Michigan State UniversityAbstractThe paper details on-going course development and improvement in a senior level heat transferlaboratory incorporating a design experience. The heat transfer laboratory includes eight (8)laboratory exercises and concludes with a seven week thermal design project. The project ischosen to include multiple aspects of thermal design and to incorporate the tools utilized in theearlier laboratory exercises. The goal of the project
fueled by two significant grants from the National Sciencefoundation (NSF): the SC ATE Exemplary Faculty Project and the SC ATE Center ofExcellence. Out of the Box addresses outcomes for the SC ATE Exemplary Faculty Project.Remarkable results are being achieved through the SC ATE Exemplary Project as science,mathematics, engineering technology and communications faculty work together across the statein interdisciplinary teams for the purpose of increasing the quantity, quality and diversity ofengineering technology graduates. By removing the limits of distance, academic discipline andindividual endeavor, systemic synergy has resulted. Likewise, through strengtheningcollaboration and partnerships, the concept of how technical college faculty
that directly engagesunderrepresented minority students (URM). Participation in the ACRP University AirportDesign Competition serves as a transformative experience, enabling students to recognize andharness these inherent community cultural wealth, such as aspirational capital, navigationalcapital, resistant capital, and social capital. This recognition not only bolsters their confidencebut also bridges the gaps in their academic proficiency.This paper presents the design and implementation of the course, highlighting how it enablesstudents to apply classroom theory and their practical work experiences to the project to solvereal-world problems. The changes made by the instructor to address the diverse situations andneeds of our students is
AC 2010-899: INVOLVING INDUSTRY PARTNERS IN CONSTRUCTIONENGINEERING AND MANAGEMENT CAPSTONE COURSESPhil Lewis, North Carolina State UniversityMichael Leming, North Carolina State University Page 15.816.1© American Society for Engineering Education, 2010 Involving Industry Partners in Construction Engineering and Management Capstone CoursesAbstractThe objective of this paper is to share the experiences of faculty using a case study project in aconstruction engineering capstone course as part of a construction engineering and managementcurriculum. This case study may be used by others as a model for incorporating industrypartners in capstone courses
Internships: Lessons learned beyond the classroom. David Laxman, Michael Bright, Stephen Renshaw Information Technology, Brigham Young University1. IntroductionThis paper describes ways in which our internship taught us to use project development models,learn new technology, and communicate our ideas effectively with management. We provide alist of ten guidelines to effectively communicate as interns and describe how businesses canbenefit from internships.Our internship, provided by Central Utah Water Conservancy District (CUWCD), has helped usapply our IT education, gain real-world IT experience, and learn to communicate withmanagement. CUWCD hired us to produce a web-based
Making Student Conference Trips an Assessable Learning Opportunity David L. Silverstein University of KentuckyAbstractThere never seems to be enough class time in any course. Student participation inconferences, particularly when combined with faculty absences, causes strain on analready tight course schedule. Since students are already attending a conference forreasons that are ostensibly educational in nature, why not utilize the opportunity toprovide for an assessable contribution towards course and program learning objectives?In addition to course specific objectives, this project contributes towards ABET EC2000expected outcomes in
Real-Time Temperature Reading on an FPGA board Utilizing Entrepreneurially Minded Learning (EML) Zahra Zamanipour, Matthew Young, Afsana Ahamed Electrical Engineering Department, Arkansas Tech UniversityAbstractStudents were assigned a course project in “Advanced Digital Design” course that involved VHDLprogramming for real-time temperature readings on the Nexys 4 DDR Artix-7 FPGA board. Inaddition to designing and developing complex digital hardware programming, students wereengaged in learning about I2C protocol and its implementation. The assignment was designed as areal-world problem to employ entrepreneurially minded learning (EML) concepts namely,curiosity
Professional Practice and the Engineering Curriculum Paul M. Jones, J. Richard Phillips Corporate & University Relations Group/ Harvey Mudd CollegeAbstractThere are elements of professional practice common to the engineering profession in allengineering fields. However, many, if not most, engineering academic curricula allowlittle or no room for professional practice other than minimal capstone projects. In thosethat do, the approach is widely scattered. The purpose of this paper is three-fold: (1) Tobriefly describe a professional practice program (featuring sponsored senior designprojects) as adopted by California State University, Los Angeles (CSULA); (2) Todiscuss difficulties
education. In this paper, we present an overview of asemester-long research project for a graduate course in Capital Budgeting. At the core of theproject is a student-developed Capital Budgeting simulation model. This model is used both as atool for examining the effectiveness of existing capital project ranking methods such as IRR,NPV, and Payback, and also as a research platform for testing new ranking and selectionmethods. The project consists of three phases. The first phase is comprised of individual workwhere students design and program a basic Capital Budgeting simulation model using MicrosoftExcel and Visual Basic for Applications (VBA). During the second phase, students transitioninto small self-selected teams to validate and then expand
AC 2012-3868: CIVIL ENGINEERING CAPSTONE CONSULTANTS: FROMRFP TO REALITYMr. William P. Manion, University of Maine William P. Manion, M.S., P.E., is an instructor in civil and environmental engineering at the University of Maine in Orono. He has taught courses in materials, soil mechanics, computer applications, graphics, and project management since 1998. He has also performed laboratory research, worked for a heavy earthwork construction company, captained charter boats, and managed a land development project. Al- ways interested in new effective teaching strategies, he employs many different pedagogical methods and techniques.Ms. Judith A. Hakola, University of Maine
AC 2010-2250: SENIOR DESIGN: A SIMPLE SET OF REPORT OUTLINES ANDEVALUATION RUBRICSRegina Hannemann, University of Kentucky Page 15.1058.1© American Society for Engineering Education, 2010 Senior Design: A Simple Set of Report Outlines and Evaluation RubricsAbstractTo evaluate student performance in design courses is a challenging task. There are manydifferent tools available and there are also a variety of tools being described in the literature.Most of these research papers focus on specific topics such as self/peer evaluation, choice ofteams, choice of projects, and other very self contained aspects of design courses. This
On The Relationship Between Program Missions And Analytic Techniques In Evaluation of Mutually Exclusive Alternatives Snehamay Khasnabis, Joseph Bartus, Emadeddin Alsaidi Wayne State University/Michigan Department of Transportation/PARSONSAbstractThe purpose of economic evaluation of project alternatives is to ensure that the project selectedfor implementation from a mutually exclusive set is the one with the highest benefits. This typeof evaluation is often termed ex-ante analysis, conducted to identify the specific project whereresources should be allocated. A number of analytic techniques may be used to evaluate mutuallyexclusive alternatives. Similarly, alternatives may be evaluated under
www.slayte.com Augmenting undergraduate Engineering Technology Education through Applied ResearchIntroductionPurdue University Northwest (PNW), through a large endowment from an alumnus, hasrecently established the David Roberts Center for Innovation and Design (CID) under theCollege of Technology. Through this center, Engineering Technology (ET) students, under thesupervision of faculty, have been conducting industry-sponsored applied research at PNW. Thesponsored projects involve most areas within ET and have fostered innovation andentrepreneurship for ET students. The CID facility, in conjunction with the PNW'sCommercialization and Manufacturing Excellence Center (CMEC) provides research facility andspace for designing innovative products and
control, process planning. A short summary of planning, implementation, and managingof a CIM environment will also be covered. The students will conduct experiments on creating aCIM environment using computer supervisory control. By conducting a hands-on CIM labproject, students have access to the relatively new technologies associated with computerintegrated manufacturing, which enable them to participate in tomorrow’s rapidly changingtechnologies and become creative problem-solvers and designers. In this project, students designa product that starts with raw materials and continue with fabricating parts, inspecting,assembling, and storing. This paper emphasizes on the technical contents as well as educationalvalues of the
communications and other professional skills with advanced, small-group laboratory research. This paper describes the coupling of an undergraduate Experimental Projects Labwith a Communications Practicum. The two subjects are taught jointly by faculty members from the MITAeronautics and Astronautics Department and the MIT Program in Writing and Humanistic Studies. The pairingof the experimental projects course and the practicum provides an environment for teaching communicationsskills in which the students are interested in the subject matter and motivated to learn. In addition, a variety ofmodern information technologies are applied to augment the effectiveness of the practicum. Several pedagogi-cal themes are interwoven into the two courses including
bending configurations.On the first day of class, the students form teams of 5 to 6 students per team. Each team picks itschoice of a vehicle, machine or system from which they will pick all mechanical components foranalysis and design in the course. Each team is required to carry out four mechanical componentprojects and write project reports and make presentations. Each project covers a time period ofthree to four weeks. For example, fasteners and springs projects are projects that require threeweeks; bearings and gears projects require four weeks. Each team makes a presentation on eachof the four projects during the semester. The presentations are judged by engineers fromindustry.The reports and presentations are required to cover analysis and