c American Society for Engineering Education, 2012Applying Dynamics to the bouncing of game balls: experimental investigation of the relationship between the duration of a linear impulse and the energy dissipated during impact.AbstractThis paper discusses experiments done as a class assignment in a Dynamics course in order toinvestigate the relation between the duration of a linear impulse and the energy dissipated duringimpact. After analysis had been presented in lecture on the relation between work and energy andon the connection between linear impulse and linear momentum, a series of distinct but relatedprojects was assigned as hands-on applications of the results of analysis.In project one, it was shown that
engineering and other STEM-disciplinestudents to the university, retains them, and makes them more marketable to employers whenthey graduate. Each alternative capstone design team operates as much as possible like a realcompany in the private sector and is run by the students. Team sizes range from 10 to 70 or moremembers. All team members have prescribed responsibilities corresponding to their level ofmaturity, abilities, and technical education. Team members define problems, develop and designsolutions, perform testing and analyses, make recommendations, manufacture parts, stay withinbudgets and schedules, and manage multiple projects. This alternative capstone design programhas converted the traditional classroom into a multi-year
significantly from the pre- to the post-phases of design activities. In addition, students’ ability to evaluate the quality of the verticalalignment generated with the driving simulator increased significantly after they completed thatpart of the highway design project. As a result, including a driving simulator as a virtual realitytool for analyzing the quality of highway design can improve the way students perceive andengage in the highway design tasks. This was especially useful since the target students were partof mandatory courses not directly related to their major. Students’ suggestions for expanding theuse of the driving simulator to other parts of the course complemented the above findings.MotivationThe new generation of students identified
Engineering Kimberly Cook-Chennault is an Assistant Professor in the Mechanical and Aerospace Engineering De- partment at Rutgers University and Associate Director for the Center for Advanced Energy Systems (CAES). She holds B.S. and M.S. degrees in mechanical engineering from the University of Michigan and Stanford University, respectively, and a Ph.D. in biomedical engineering from the University of Michi- gan. Prior to receiving her doctorate, Cook-Chennault worked at Ford Motor Company, Cummins Engine, Visteon, and Lawrence Livermore National Laboratories as a summer intern and Project Engineer. As a product engineer with Ford and Visteon, she designed seat and washer bottle assemblies, and established design
learned and demonstrate critical thinking and where instructors assessedstudent responses using a critical thinking rubric.The purpose of this paper is to describe a recently developed and implemented application of theEFFECTs methodology, explaining key aspects of the pedagogical rationale with specificlearning activities and student outcomes. The materials that were provided to students areprovided in this paper, along with descriptions and discussion of observed benefits andchallenges associated with implementing an EFFECTs-oriented design project in a first yearintroductory engineering course, so that engineering educators can evaluate the suitability ofimplementing EFFECTs in their own courses.IntroductionBig class sizes, students with
. Page 25.97.1 c American Society for Engineering Education, 2012 A Quarter-Century of Teaching Spacecraft-Mission DesignAfter more than twenty five years of teaching a capstone spacecraft-mission design course in anaerospace engineering curriculum, the instructor looks back on the evolution of the course andchanges in student capabilities. The evolution in course structure, types of projects, projectdepth, and instructor understanding of the design process are discussed. The effect of thetremendous increase in information available to students through the Internet is discussed.Instructor BackgroundThe author became a member of the faculty at The University of Texas at Austin in September1965. From 1965
AC 2012-5229: FACULTY SURVEY ON LEARNING THROUGH SERVICE:DEVELOPMENT AND INITIAL FINDINGSDr. Olga Pierrakos, James Madison University Olga Pierrakos is an Associate Professor and founding faculty member in the School of Engineering, which is graduating its inaugural class May 2012, at James Madison University. Pierrakos holds a B.S. in engineering science and mechanics, an M.S. in engineering mechanics, and a Ph.D. in biomedical en- gineering from Virginia Tech. Her interests in engineering education research center around recruitment and retention, engineering design instruction and methodology, learning through service (NSF EFELTS project), understanding engineering students through the lens of identity theory
MethodologyQuantitative technology forecasting is the process of projecting in time the intersection of socialneeds and technological capabilities using quantitative methods. In QTF, technology is definedas any human creation that provides a compelling advantage to sustain or improve that creation,such as materials, methods, or systems that displace, support, amplify, or enable human activity.By this broad definition, technologies include not only the usual hardware and software we allrecognize such as computers, automobiles, telecommunications systems, etc., but also suchdevelopments as accounting, law, learning systems, etc. It has been shown that rates of newtechnology adoption and rates of change in technology performance take on characteristicpatterns in
thedevelopment of this critical competency.Description of GEAR-UPThe program was designed to increase the preparedness of engineering students to be globallyengaged leaders upon graduation and to provide the opportunity for Howard engineering studentsto participate in an international research experience. The project involved travel to aninternational destination where teams of American students worked on research projects withteams of students from other countries. As a result, minority students were able to takeadvantage of the opportunity to interact with a select group of engineering students from some ofthe best technical universities around the world; experience close advising and mentoring byfaculty from both their home institution and an
participation in international programs, are scalable programs that can provide studentswith international and intercultural experiences. Collaborative global teaming projects are lesscostly for the college, and generally are less costly for students as well. Also, more students canbe accommodated through this method than through many of the other program types. However,little is documented of their comparative effectiveness in facilitating global competencyeducation among engineering students.Because of the great need to provide opportunities for students to develop global competence inthe engineering curriculum, and the lack of programs that can currently and effectively reach asignificant portion of the mechanical engineering student body, the
(2002-2008); involvement in Epsilon Pi Tau, international honor society (2011); and Fulbright Scholar at NCSU, Raleigh, N.C., spring semester 2011. He has worked as CADEengineer on AP600 Project at the Westinghouse subcontractor’s company at Southern Company Services, Birmingham, Ala., (1994-1996). Currently, he is a professor and a Head of Department of Computer-aided Engineering Graphics at the Riga Technical University (Riga, Latvia). His present responsibility is education and teaching of engineering students in graphic communication, and computer-aided drafting and design. Page 25.548.1
consumption both continue to grow significantly. Also, dueto global uncertainties, energy is becoming increasingly important. The United States, forexample, increasingly relies on imported energy (32.9 % in 2006)1. Projections from DOE’s Page 25.295.2Annual Energy Outlook indicate that primary energy use in the United States will climb to 134Quadrillion Btu in 2030 from 98 in 20102. Despite increases in electricity generation efficiencies,total electricity consumption is also predicted to increase. President Obama has called for energyinitiative based on the development of clean coal technologies, renewable energy (solar, wind,geothermal, biomass etc
Ph.D. degrees in engineering from the University of Arkansas. He holds a Professional Engineer certification and worked as an Engineer and Engineering Manger in industry for 20 years before teaching. His interests include project management, HVAC, robotics/automation, and air pollution dispersion modeling.Prof. Terence L. D. Geyer, Eastern Washington University Terence Geyer is the Director of Distance Education in the Department of Engineering and Design at Eastern Washington University. He obtained his B.S. in manufacturing technology and M.Ed. in adult education in a specially combined program of technology and education at Eastern Washington University. His interests include collecting and re-manufacturing older
. Monte has a B.S. and a M.S. in environmental engineering from Michigan Technological Univer- sity.Dr. Brett Hamlin, Michigan Technological UniversityMr. Douglas E. Oppliger, Michigan Technological University Douglas E. Oppliger is currently a Senior Lecturer at Michigan Technological University. His work at this post was preceded by eleven years as a K-12 math/science teacher Michigan’s public schools. He is a Professional Civil Engineer with several years experience working in the marine construction industry. His most recent efforts have focused on using project-based learning to recruit a diverse body of K-12 students to STEM studies beyond high school
AC 2012-3183: USB-POWERED PORTABLE EXPERIMENT FOR CLAS-SICAL CONTROL WITH MATLAB REAL-TIME WINDOWS TARGETDr. Eniko T. Enikov, Universiy of Arizona Eniko T. Enikov received his M.S. degree from Technical University of Budapest in 1993 and Ph.D. degree from University of Illinois at Chicago in 1998. His research is focused on the design and fabrication of micro-electromechanical systems (MEMS) as well as developing theoretical models of multi-functional materials used in MEMS. As a Postdoctoral Associate at University of Minnesota, Enikov has worked on several projects in the area of micro-assembly, capacitive force sensing. Currently, Enikov is an Associate Professor at the Aerospace and Mechanical Engineering
Management Department on the UAH campus. Benfield’s research interests include systems engineering, spacecraft chemical propulsion system sizing, and science and engineering team development and dynamics.Dr. Matthew William Turner, University of Alabama, Huntsville Matthew W. Turner is the Integrated Product Team (IPT) Project Manager at the University of Alabama, Huntsville. Turner has been Mission Manager of numerous IPT Senior Design Experience projects for five years and is the Deputy Project Manager of the Innovative Systems Project for the Increased Recruitment of Emerging and STEM Students (InSPIRESS). Turner holds a Ph.D. in mechanical engineering from The University of Alabama, Huntsville, and has worked in the
AC 2012-4404: IMPACTS OF SERVICE ON ENGINEERING STUDENTSProf. Kurt Paterson P.E., Michigan Technological University Kurt Paterson, Associate Professor of civil and environmental engineering, is also Director of Michigan Tech’s D80 Center. D80 has the mission to develop contribution-based learning, research, and service opportunities for all students and staff to partner with the poorest 80% of humanity, together creating solutions that matter. As Director of several international programs at the undergraduate and graduate levels, Paterson, his colleagues, and his students have conducted numerous community-inspired research and design projects. Paterson is an educational innovator, recently adding courses for first
Engineering Manager for Hewlett-Packard Company. She earned a bachelor’s of science degree from the University of Notre Dame, her Ph.D. from Baylor College of Medicine, and a master’s in business administration from Mays Business School at Texas A&M University. Zerda repre- sents the University of Houston on the board of the Texas Alliance for Minorities in Engineering (TAME) and serves as current Board Chair.Diana G. de la Rosa-Pohl, University of Houston Diana de la Rosa-Pohl has been a lecturer in the Cullen College of Engineering at the University of Hous- ton since 2003. She has worked with the PROMES program to develop project-based learning courses for the first-year curriculum. Currently, she is developing and
courses and course sections that would be necessary to offer the program annually. 3. A plan for using a combination of current tenure-track faculty members, new tenure track Page 25.1077.4 faculty members, lecturers and part-time instructors to staff the referenced courses. 3 4. A description of any specialized laboratories, equipment or any other significant new resources that will be necessary to offer the program.1.1. Assessment and Projected Enrollment ProjectionsTo assess the demand for the proposed degree surveys were conducted of current UMBCfreshman engineering students and
physicalprototype, then making full use of the prototype to learn is essential. The redesign step in adouble cycle is an authentic way to focus students to learn from the prototype.Class Structure and Design Projects in this StudyThis study was conducted in a Mechanical Engineering design class of 29 students working onfour-person design teams. Three separate design projects, each utilizing a double design-protocycle, were completed during the semester. To fit the six design/fabricate/test cycles into the 15-week semester, quick fabrication techniques were set by the instructor. The first two designprojects spanned the first four weeks of the semester. During the first two projects supplementaldesign topics were presented in lecture and applied to the
), to develop a comprehensive adaptive filtering projectsuch as noise cancellation, and to demonstrate their working projects in class.In this paper, we will describe the course prerequisites, course topics, and outline learningoutcomes. With a focus on adaptive filtering techniques, we will describe our teaching pedagogy,MATLAB simulations, and hands-on real-time DSP labs and projects. Finally, we will examinethe course assessment according to our collected data from the course evaluations, studentsurveys and course work, and then we will address possible improvement based on ourassessment.II. Learning Outcomes and LaboratoriesThe adaptive filter techniques are covered in our advanced DSP course (ECET 499) offeredduring the senior year
AC 2012-3421: STUDENT-CREATED WATER QUALITY SENSORSMs. Liesl Hotaling, University of South Florida, St. Petersburg Liesl Hotaling is a Senior Research Engineering with the College of Marine Sciences, University of South Florida. She holds a B.A. in marine science, a M.A.T. in science teaching, and a M.S. in maritime systems (ocean engineering). She is a partner in Centers for Ocean Science Education Excellence - Networked Ocean World (COSEE-NOW) and specializes in real time data education projects and hands-on STEM educational projects supporting environmental observing networks.Dr. Susan Lowes, Columbia University Susan Lowes, Ph.D., is Director of Research and Evaluation at the Institute for Learning Technologies
-LEPpeers on real world projects. Finally, a performance activity will be used to directly observe ifand how LEP students approach systems integration problems differently from their peers.IntroductionEngineering majors at East Central State University are similar to those at other schoolsthroughout the nation – students choose to major in one area and they follow a curriculum that islargely specified but has a few electives of various types sprinkled throughout. The primarycommonalities to all majors are a set of math, physics, chemistry, writing, and technology andsociety courses. With this structure, it is not surprising to learn that students in different majorsdevelop different sets of rigorous technical skills and that these skills do not
AC 2012-5302: THE CPLD PROVIDES A THIRD OPTION IN THE IN-TRODUCTORY LOGIC CIRCUITS COURSEDr. Jonathan M. Hill, University of Hartford Jonathan Hill is an Associate Professor in electrical and computer engineering at the University of Hart- ford in Connecticut. He has a Ph.D. and M.S.E.E. from Worcester Polytechnic Inst. in Worcester, Mass., and was previously a Project Engineer at Digital Equipment Corp. He instructs graduate and undergrad- uate computer engineering computer courses, directs graduate research, and performs research involving embedded microprocessor based systems. His current projects involve small system design, signal pro- cessing, and intelligent instrumentation.Dr. Ying Yu, University of Hartford
technicalachievement in minority populations, and have cultural perspectives that are essential to the Page 25.1127.2successful conduct of many forms of research involving minority populations.Partnership between Virginia State University, Louisburg College & NASAIn 2010, Virginia State University and Louisburg College were funded by NASA-CIPAR(Curriculum Improvement Partnership Award for the Integration of Research) for a projectnamed “Establishing an Undergraduate Interdisciplinary Curriculum Incorporating NASARelated Research." One of the objectives of the project is to retain underrepresented minoritiesin STEM disciplines (especially in NASA-related
benefit from these concepts. The visualization, parametric abilities,and embedded information lend themselves similar to hydrologic and runoff design, (4)transportation engineering (5), and in aspects of geotechnical design. (6) This just adds tothe need for knowledge in this area that has been established in other studies of the AECfield. (3) (7) (8) (9) Several emerging management and project delivery systems are directlysupported by BIM processes. One example is Integrated Project Delivery (IPD). IPD asa process, demands the type of collaboration that BIM is optimal for producing. (10)Another example is lean construction concept where BIM also provides an enhancedcapability and framework to apply lean construction principles. (11) (12
. During the energy crisis years of the mid-1970s and early 1980s, he worked on energy research projects for several companies. Garcia was awarded his P.E. license in the state of Maryland in 1984. He received his M.S. degree in mechanical engineering from George Washington University (Washington, D.C.) in 1979. He graduated from the University of Texas (Austin) in 1966 with a B.S. in mechanical engineering. He received his A.A. from San Antonio (Junior) College in 1963 and graduated from Douglas MacArthur High School in San Antonio in 1961. Page 25.168.1 c American Society for
degree program. These two courses consist of both theoryand laboratory work with a heavy reliance on student projects (typically, of an interdisciplinarynature) that involve the implementation of functional, proto-type, sensor/control networks. Usingpopular low-cost PIC® microcontroller development boards and a small, self-contained, non-IT,TCP/IP data network, students are able to construct sensor/control networks that can be accessedlocally either through standard wired network connections (Ethernet) or wirelessly using eitherthe IEEE 802.11 (Wi-Fi) or IEEE 802.15.4 (ZigBee) wireless standards or remotely throughavailable mobile device apps. The successes and failures of the courses will be high-lighted,along with student reaction, examples of
for Development discusses approaches for making engineering more attractive tostudents, particularly women.10 The UNESCO report describes the work of Regina Clewlow andEngineers for a Sustainable World (ESW) whose mission is to “stimulate and foster an increasedand more diverse community of engineers and to infuse sustainability into the practice andstudies of every engineer.” The authors of this paper have been involved with curriculumdevelopment for multidisciplinary engineering efforts that support the missions and goals ofUNESCO and ESW. In this work, we discuss a multidisciplinary project designed to meet thechallenges set forth in the UNESCO report.This paper describes an authentic learning experience involving an international
grid into five areas: A) integrated communications, B) sensing andmeasurement, C) advanced components, D) advanced control methods, and E) improvedinterfaces and decision support. In terms of functionality, the smart grid technologies fall intogeneral categories of generation automation, transmission automation, distribution automation,and power utilization automation.On the other hand, implementation of smart grid projects and deployment of smart gridtechnologies will involve and affect various stakeholders such as utilities, customers, regulators,environmentalists, etc. 1 With more electric vehicles coming into being, smart grid may alsoaffect and be affected by electric vehicle technologies.Successful implementation of smart grid projects