Technology (ABET). This paper focuses on the advantages to both faculty andstudents particular to using SDR in a senior design program.Over the last four years the authors have been developing expertise and supervising studentprojects in SDR. While many schools offer study in SDR for graduate students, the authors feltthat SDR was coming into such widespread use that undergraduates would benefit from exposureto the technology. In addition, upper division communications theory courses combined with therequired foundations in programming made the transition to SDR a logical and inevitable step inundergraduate electrical engineering education.I. IntroductionMost electrical engineering programs require a culminating senior design project to demonstratea
3 Department of Mechanical Engineering California State University-Los Angeles, Los Angeles, CA 90032 * gmeneze@calstatela.edu /apacheco@calstatela.eduAbstractThe study of fluid mechanics is essential to many industrial and commercial applications.Examples include irrigation, sewer collection, water distribution, piping, heating, ventilation andair conditioning systems, aerodynamics, and power generation. Therefore, it is necessary thatstudents have a good understanding of the concepts behind these and other applications. For thisreason, the Civil and Mechanical Engineering programs at the College of Engineering atCalifornia State University-Los Angeles have
SeniorCapstone Design teams from project inception to final fabrication.Furthermore, The close interaction between graduate students involved in this program allowsshared learning of professional skills and a more detailed understanding of design formanufacturability than is possible in the traditional graduate student model. The resulting productis engineers who are not only technically competent, but also possessing skills in leadership, teamdynamics, communication, customer relations, creative thinking and professionalism.Model for Benchmarking Team PerformanceLarson and LaFasto describe a model for characterizing successful teamwork that applies tocommunities of engineers2. In order to strengthen the team as a whole, individual members mustalso grow
important for undergraduate engineering programs to integrate cross-disciplinary learningactivities into the curriculum. Moreover, the emergence of “big data” across many engineering disciplines has led to the need for training and education related to the collection,management, and analysis of “big data”. We develop an interdisciplinary, active learning module for First-Year Engineering (FYE) programs that combines content from civil, electrical, andcomputer engineering while also familiarizing students with “big data” science. In this learning module, students compare and contrast the challenges of gathering comprehensive and qualitytransportation data through advanced technologies and traditional approaches. Students develop basic computer code
emphasis has shifted to ProductLifecycle Management (PLM) tools.Past educational efforts in CAD include education-related use of rapid prototyping, self-taughtweb-based learning, team project-based learning, and design-manufacturing integration. Theusefulness of CAD/CAM tools in the learning process and job market utilization is unquestioned.What remains to be studied is how much and in what depth they should be taught 1. A wide rangeof studies have used CAD instruction in the undergraduate curriculum 2. The relationshipbetween industry and engineering/technology academic programs is constantly evolving andredefining itself 2. Classroom lectures are compared with self-teaching in order to impart to thestudents the learning process 3. Industry’s
Plagiarism Education: Teaching Students to Use Information Ethically William M. Baer Wichita State UniversityAbstract The engineering profession has always valued ethical behavior. However, it seems thatunethical behavior is more and more prevalent in our classes. The rising incidence of plagiarismis and should be a concern to educators not only to ensure academic integrity, but because of theimplications for our profession. The ethical use of engineering information is important for ourstudents to learn. There are two ways to combat plagiarism: detection and education. Programs likeTurnitin and
doctoral and master students who are equipped with professional skills that gobeyond what is typically learned in textbooks, but universities often lack resources to trainstudents in these skills [3].Therefore, given these shifts in the career trajectories of graduate students and the lack oftraining related to professional skills within graduate education, new strategies for preparinggraduate students for their future careers are needed. Our project, Graduates AdvancingProfessional Skills (GAPS) program, sought to address this need. Funded by the NationalScience Foundation Innovation in Graduate Education (NSF-IGE), we developed projectmanagement training for Science, Technology, Engineering, and Mathematics (STEM) graduatestudents. Our goals are
importance of real-world context foranalysis, design and systems in engineering. This report established applied engineering as anindependent professional background, calling for traditional engineering programs to embracecurricular flexibility and strengthen humanities and social science content in their programs.With these series of engineering education publications, engineering technology emerged from aconvergence of several key aspects of the United States technological and educationaldevelopment. Junior and community college programs in technical education and the consistentmovement of US engineering education toward curricula containing more emphasis on scienceknowledge/theory yielded the first Bachelor’s of Science in Engineering Technology
Session 2630 Improving Retention by Redesigning Freshmen Mathematics with the Dimensions of Learning Pedagogy, Assessment and Technology Framework Pamela Leigh-Mack, Shurron Farmer, Solomon Alao, Craig Scott, Gaston N’Guerekata Morgan State University Baltimore, MarylandAbstract The retention of engineering students continues to be a major issue affecting engineeringschools across the country and unsuccessful experiences in freshmen mathematics is one of thefactors attributing to
top four career competencies most valued by employers,as reported by the National Academy of Colleges and Employers (NACE). In a 2019 job outlooksurvey, oral and written communication was rated consistently high in the past three years. Also,proficient communication is essential for engineers in the 21st Century to create an inclusiveenvironment and engage multiple stakeholders, as indicated by the National Academy ofEngineering. In particular, the ability to communicate effectively to various audiences across theSTEM disciplines and the public is a great need. The engineering program at the University ofSouth Florida (USF) aims to fulfill the NACE’s professional competencies for career readiness bydevising new methodologies for communication
years as a civil engineering officer in the U.S. Air Force. After his military service, he completed graduate work at Texas A&M University. He teaches classes on reinforced concrete design, structural steel design, and other structural engineering topics. Page 24.330.1 c American Society for Engineering Education, 2014 Creating an Infrastructure Education Community of PracticeThe University of Wisconsin-Platteville civil engineering and environmental engineeringprograms and the civil engineering program at the United States Military Academy havesuccessfully transformed
& Exposition Copyright © 2005, American Society for Engineering Education”of three-dimensional modeling and rendering programs are used to produce images of the partsinvolved in the example problems so that students gain a better understanding of the object beinganalyzed. Animation sequences are used to demonstrate how parts deform under the appliedload(s). Displays are produced that illustrate how the resulting stresses are distributed on cross-sections, or over the surface of the part. A simulated “pencil-on-paper solutions” portion helpsto demonstrate and reinforce the desired problem-solving methodology skills that studentsshould develop in the course. Each of the example problems includes a voice-over
systems along withthe high frequency of transmission makes it difficult to develop undergraduate laboratories that can beused to teach the needed concepts. Some teaching systems exist but cannot be easily tied to existingcommercial systems. Equipment to test and characterize these new commercial communicationsystems is complex and expensive.To overcome some of these problems, student projects can be developed using a PC-based system forsimulation and application. The PC-based system used in this example is LabVIEW, or LaboratoryVirtual Instrument Engineering Workbench, a graphical programming language developed by NationalInstruments. It is used extensively for data acquisition, instrument control and analysis.4 In thisexample, a communications
initiativesupported by a leading universities that seeks to develop the framework for producing the nextgeneration of engineers.In engineering, it has long been recognized that a hands-on project-based or laboratory-basedcourse lends itself naturally to the creation of an active learning environment, be it at theundergraduate5 or graduate level6. Over a period of 10 years, an elective course in mechatronicsengineering has been developed that is believed to to provide students with a rewarding andstimulating experience in engineering problem solving, within a process of active learning. Itdoes so through a combination of lectures, tutorials and laboratories that culminates in a teamproject which requires the students to assemble and program a team of robots
Paper ID #32829Introducing Communications to High School Students by Leveraging Zoomasa Communications PlatformProf. Curt Schurgers, University of California, San Diego Curt Schurgers is an Associate Teaching Professor in the UCSD Electrical and Computer Engineering Department. His research and teaching are focused on course redesign, active learning, and project- based learning. He also co-directs an undergraduate research program, Engineers for Explorations, in which undergraduates spearhead real-world engineering challenges that impact the world of exploration and resource conservation. Curt Schurgers received his B.S
cognition.Shreya Kothaneth, Virginia Tech Shreya Kothaneth is a doctoral candidate in the Department of Industrial and Systems Engineering, Vir- ginia Tech. She is also the lead of the College of Engineering’s Instructional Technology Team. Her research interests include diffusion of technology, usability, and cultural ergonomics.Catherine T. Amelink, Virginia Tech Catherine T. Amelink, Virginia Tech Dr. Catherine Amelink is currently serving as the Research Coordi- nator for the Institute for Distance and Distributed Learning at Virginia Tech and Assessment Coordinator for the College of Engineering in the Office of the Associate Dean for International Programs and Infor- mation Technology. Previously she worked on assessment
from Georgia Institute of Technology, and a MBA from Indiana University. She has taught at Wentworth Insti- tute of Technology as an Adjunct Professor for College Physics I. She has also worked in industry at Pratt & Whitney for several years and served in roles such as Integrated Product Team Leader and Affordability and Risk Manager for the F135 Engine Program. Page 22.1038.1 c American Society for Engineering Education, 2011 Making Sense of Nanoscale Phenomena: A Proposed Model of Knowledge and ThinkingAbstractNew curricula are needed to meet the
. References 1. Attarzadeh, Farrokh, “Innovations in Laboratory Development for Computer Engineering Technology Programs,” IJME, Volume 7, Number 2, Spring 2007, http://www.ijme.us/, Accessed on 2/10/2008. 2. Attarzadeh, Farrokh, “Empowering Students to Become Highly Skilled Professionals for the 21st Century Industries,” Proc. of The 9th Annual IJME-INTERTECH International Conference, Session EN, October 19-21, 2006, Keen University, Union, NJ. Proceedings of the 2008 ASEE Gulf-Southwest Annual Conference The University of New Mexico – Albuquerque Copyright © 2008, American Society for Engineering
deliveryand examination method when assigned a course to teach. Rather, they are given a course outlinewith key fundamentals that must be taught in each course. The delivery is designed entirely bythe instructor due to academic freedom. The women professors introduced interactive learningand community projects by choosing to take the initiative to redesign the courses. The changeswere made in the Architectural (AE) and Civil Engineering (CIVE) programs focusing on thestudio and mechanics courses. The AE program focuses on building science and design, bridgingarchitectural concepts and structural engineering meanwhile the CIVE program focuses oninfrastructure projects ranging from structures to transportation and water systems. These twoprograms
represent themodeling framework from which all object-oriented systems are designed. They are the“blueprints” of object-oriented systems, defining the attributes and behaviors of objects, which inturn, provide the functionality of object-oriented systems. A typical class diagram groupslogically-related classes together to show the relationships of the classes to one another. Since it is highly likely that programming students will encounter the UML in industry, it isimperative that computer science and computer engineering technology instructors begin tointroduce students to the UML in their object-oriented programming courses. This tutorial isdesigned for just that purpose. The tutorial introduces the UML Class Diagram-its syntax and
Postsecondary Education (CSHPE) in the School of Education at the University of Michigan. His research interests include college student development theory and teaching practices and how they relate to student learning outcomes in engineering education.Dr. Charles Henderson, Western Michigan University Charles Henderson, PhD, is a Professor at Western Michigan University (WMU), with a joint appoint- ment between the Physics Department and the WMU Mallinson Institute for Science Education. He is the co-founder and co-director of the WMU Center for Research on Instructional Change in Postsec- ondary Education (CRICPE). His research program focuses on understanding and promoting instruc- tional change in higher education
world.Rafael Cal y Mayor – Mexico – Yale University, 1954Rafael Cal y Mayor was a former traffic engineer from Mexico City, founder of the first Chair ofTraffic Engineering in the School of Engineering at the University of Mexico, and one of thefirst two IRF Fellows. Cal y Mayor, along with Ricardo Gandolfo of Peru, pioneered theFellowship Program at Yale University’s Bureau of Highway Traffic in 1949.In a 1981 interview with “World Highways,” Eng. Cal y Mayor said, “In 1950, trafficengineering was virtually unknown in Mexico. Through the International Road Federation, Iwas able to study this subject, and on my return to Mexico, start the difficult job of setting thisnew technological tool and persuading public administrators to use it.”Eng. Cal y
Engineering Education”decisions and could benefit the overall software life cycle by eliminating tight couplinginherited in functional decompositions. A tutorial programming example is introduced inC++ programming language to explore the usage of object-oriented programming anddesign patterns. Key features of object-oriented methodologies are covered in theprogram example. Also, the paper examines limitations inherited in proceduralprogramming language where function and data are two separate entities. The absent ofcohesion of data and function in procedural software design exposes fundamental designdeficiencies. In procedural software design, the design mandates emphasizing designsolution for the problem at hand lacking generalized reuse
AC 2012-4589: IIT CAMPUS AS A SUSTAINABILITY LIVING LABORA-TORY FOR EDUCATION AND RESEARCH FOR STUDENTSProf. Hamid Arastoopour, Illinois Institute of Technology Hamid Arastoopour is presently Henry R. Linden Chair professor of energy and Director of the Wanger Institute for Sustainable Energy Research (WISER) at Illinois Institute of Technology (IIT). He is also professor of chemical and mechanical engineering at IIT. His research expertise is in computational fluid dynamics (CFD) of multiphase flow and particle technology, an area motivated by pharmaceutical and energy and environmentally related applications and documented in more than 100 publications and 13 U.S. patents. He has developed an international
an on-going assessment component. This project includes a comprehensiveassessment program, which is being carried out under the auspices of University of Missouri –Rolla’s Media Development and Design Laboratory. This assessment is based on a model thathas been employed effectively in other related projects [11, 12]. Some of the fundamental Page 7.720.8 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationthemes of this model are: a) the assessment process is iterative, with assessment ongoing
on the isentropic compression of a gas. Herrington [13] modified a lab experimentto assist students make better connections between their personal experiences and the definitionsand mathematical equations related to the concept of Specific Heat.This type of research went beyond Specific Heat and covered the broad area of thermal fluidscience to help students master the thermodynamics concepts. Based on their survey results,Robbins and Ardebili [14] saw that after traditional physics instruction many engineering studentshad not emerged with an effective understanding that would prepare them for a course inengineering thermodynamics. Various innovative teaching methods were employed in teachingthis course, such as the active learning method by
AC 2012-3764: MULTI-DISCIPLINARY INTEGRATION FOR DESIGN ANDCONSTRUCTION FRESHMAN: STRUCTURAL ORGANIZATION ANDCHALLENGESDr. Yilmaz Hatipkarasulu, University of Texas, San Antonio Yilmaz Hatipkarasulu holds M.S. and Ph.D. degrees in civil engineering from Louisiana State University. He is currently the Coordinator of the Construction Science and Management program at the University of Texas, San Antonio.Dr. Vincent B. Canizaro, University of Texas, San Antonio Vincent Canizaro is currently the Chair of the Department of Architecture at the University of Texas, San Antonio. A registered architect for 15 years, he has practiced in Texas, Massachusetts, and California. He has published Architectural Regionalism
-time faculty of all ranks. Theinstrument items have been used for many years, and the survey items have been reviewed andcritiqued periodically by faculty committees and evaluation experts. The instrument has beenrepeatedly commended (internally) for its simplicity and conciseness. Instrument items are in Page 10.706.2Appendix A. Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationFor the data analysis, 4605 student ratings were averaged over the twelve items related toteacher/course satisfaction
Tecnolgica Federal do Paran Mariana Nascimento Casarin was born in Campo Mouro, Paran. She graduated with honors from the high school computer technical program offered at Universidade Tecnolgica Federal do Paran, Campo Mouro xampus (UTFPR CM), in 2011. She is now enrolled as a freshman in the electronic engineering program at the same institution.Evandro Eizo Roncaglia Yabushita, Universidade Tecnolgica Federal do Paran Evandro Eizo Roncaglia Yabushita was born in Maring, PR, and he lived in the town of Santa F until he was 18 years old. He was admitted to Universidade Tecnolgica Federal do Paran, Campo Mouro campus (UTFPR-CM), in 2008. Currently, Roncaglia Yabushita is a junior in the environmental engineering
advancesin Internet and World Wide Web, to allow communication with minimum overhead, to provide afunctional client interface, to establish a variety of experiments, and to allow flexibility inconfiguring experiments. Our remote lab is based on a client/server architecture where studentscan communicate with the lab server using regular Web browsers. To fully utilize thefunctionalities of modern browsers and servers, the server may respond in formats such asJavaScript, HTML or XML. This is achieved by creating Web-solutions based on Internet ServerApplication Programming Interface (ISAPI) extensions, whereby important issues related toqueuing and security are addressed. We also discuss an alternative solution based on LabVIEW6i where the client uses