that building construction projects include active and continuouscollaboration of all of these parties, learning multi-disciplinary strategies is a necessary acumenwith which students must graduate in preparation for professional practice. New technologiesand project development approaches such as building information modeling are necessitatingearly and extensive collaboration among the professions. Integrated project delivery methods aremaximizing this need for interdisciplinary team production. Feedback from industryrepresentatives and practicing professionals unanimously supports the concept of integration.This paper describes an effort to establish a multi-disciplinary first-year curriculum for designand construction freshman that includes
approach. Areview of the course syllabi and schedules for each course found that each coursewas taught differently depending on the instructor. In the Heavy Civil course it wasfound that a number of small projects were assigned to the students rather thanfocusing on larger project through the quarter. In the Commercial Building course,the instructor used an approach where the first five (5) weeks of the quarter werespend covering fundamentals and the second five (5) weeks of the quarter were spentwere spent working on the project culminated in a mock bid exercises. Only in theresidential construction course was one project used through the entire quarter.Student ThroughputWith the implementation of integrated curriculum, the CM department
at a high level of abstraction. Due to problemsin interpreting concept maps with numerous nodes and links, maps of larger domains are limitedin the detail the can represent. The authors are exploring the use of interactive digital tools as away to present large-scale concept maps that organize information and show connections acrossthe curriculum without overwhelming the user visually. As an exemplar, the authors havechosen the content in an engineering statics course. If successful, the concept mapping toolcould be used to cognitively link information between courses in engineering mechanics andthen across the entire engineering curriculum. As the first step in this process, the authors set outto capture an expert’s knowledge of engineering
’ connectedness across grade levels, Professional School Counseling 12, 137-143, 2008.17. Budny, D, CA Paul, and BB Newborg, Impact of peer mentoring on freshmen engineering students, Journal of STEM Education 11:9-24, 2010.18. Moslemi, JM, KA Capps, MS Johnson, J Maul, PB McIntyre, AM Melvin, TM Vadas, DM Vallano, JM Watkins, and M Weiss, Training tomorrow’s environmental problem solvers: an integrative approach to Page 25.499.7 graduate education, BioScience 59:514-521, 2009.19. McLean, M, Does the curriculum matter in peer mentoring? From mentee to mentor in problem-based learning: a unique case study, Mentoring and Tutoring
impacts of project-based service-learning on student identity, recruitment, and retention in K-12 and undergraduate engineering.Ms. Janet L. Yowell, University of Colorado, Boulder Janet Yowell is the Associate Director of K-12 Engineering Education at the University of Colorado’s Integrated Teaching and Learning Program. Involved in the college’s outreach initiative since 2000, she oversees the ambitious K-12 engineering initiative, including the capacity-building and school partnership programs. She is a collaborator on the NSF-funded TEAMS Program (Tomorrow’s Engineers... creAte. iMagine. Succeed.) and the TeachEngineering digital library, for which she is a contributing curriculum writer and editor.Dr. Jacquelyn F
second STS course,International Dimensions of Technology and Culture, was subsequently added. Both courseseventually were integrated as possible courses into the University of Colorado Denver’s CulturalDiversity Core Curriculum and International Perspectives requirements.Science, Technology and Society (STS) as an Emerging Field The Science, Technology, and Society (STS) field includes the study of how social,political, and cultural values impact scientific research and technological innovation and howthese, in turn, affect society, politics, and culture. As STS courses have become morecommonplace in a world where science and technology is endogenous in all aspects of cultureand society, their indispensability to the undergraduate
AC 2012-3563: DESIGN AND COMPUTATIONAL ANALYSIS OF DIAPHRAGM-BASED PIEZORESISTIVE PRESSURE SENSORS FOR INTEGRATIONINTO UNDERGRADUATE CURRICULUMMr. Alexander Joseph Plotkowski, Grand Valley State UniversityDr. Lihong (Heidi) Jiao, Grand Valley State University Lihong (Heidi) Jiao is currently an Associate Professor in the Padnos College of Engineering and Com- puting at Grand Valley State University. She received her B.S.E.E. and M.S.E.E. from Nankai University, China and Ph.D in electrical engineering from the Pennsylvania State University. Her teaching interests include solid state device physics and fabrication, nanotechnology, and fiber optics. Her research activi- ties include fabrication and characterization of
particularly helpful Page 25.820.2to students will be discussed on an individual and collective lab basis.I. IntroductionThe digital communication technology curriculum can require expensive laboratory hardware.In this context, complementing the lectures with simulation based laboratories can be veryuseful. In and of themselves, computer simulations are well known and well used in a number ofindustries. The presence of the computer in the laboratory as an integral part of experimentationand simulation is established1 in an engineering curriculum. It has been found that suchsimulation based electronics labs prepare students well for examinations2. When
Green Design Project Part 1: The Hybrid Powertrain ProjectAbstractSubjects that are separate in the curriculum, such as thermodynamics and mechanical design, areintegrated in practice, since thermal and mechanical systems must function cohesively in realmechanical systems (e.g. an air conditioner). With this in mind, we are beginning theimplementation of a novel, potentially transformative approach to integrating courseworkthrough five semesters of the core mechanical engineering curriculum.The centerpiece of this research is a long-term design/build/test project that will be developed bystudents over the course of five semesters. The project, a bench-scale hybrid powertrain, isimplemented in modules, so that parts of the
Integrating Achievement of Global Competence into the CurriculumAbstractLike many institutions across the country, we have embarked on the development of experiencesand programs related to the objective of achieving global competence in our engineeringstudents. These internationally-oriented activities have been part of a phased plan at the collegelevel to develop a system to achieve global competence within our graduates that is integratedinto their curriculum. This paper presents a description of the current state of the college effortsin this area and provides an overview of future directions towards curricular and non-curricularsystems. Emphasis is placed on the integration of the system with academic degree programswithin the college and
AC 2012-4082: INTEGRATING SENSING TECHNOLOGY AND BUILD-ING INFORMATION MODELING INTO A CONSTRUCTION ENGINEER-ING CURRICULUMProf. Pingbo Tang, Western Michigan University Pingbo Tang is an Assistant Professor of civil and construction engineering at Western Michigan Univer- sity, Kalamazoo, Mich. He obtained his bachelor’s degree of bridge engineering in 2002, and his master’s degree of bridge engineering in 2005, both from Tongji University, Shanghai, China. In Aug. 2009, he obtained his Ph.D. degree from Carnegie Mellon University and joined the Mapping and GIS Lab at the Ohio State University (OSU) as a Postdoctoral Researcher. At OSU, he was responsible of managing multiple research projects, most of which are
AC 2012-3370: COLLABORATIVE RESEARCH: INTEGRATION OF CON-CEPTUAL LEARNING THROUGHOUT THE CORE CHEMICAL ENGI-NEERING CURRICULUM YEAR 1Dr. Milo Koretsky, Oregon State University Milo Koretsky is a professor of chemical engineering at Oregon State University. He currently has re- search activity in areas related to thin film materials processing and engineering education. He is inter- ested in integrating technology into effective educational practices and in promoting the use of higher level cognitive skills in engineering problem solving. Koretsky is a six-time Intel Faculty Fellow and has won awards for his work in engineering education at the university and national levels.Dr. David L. Silverstein, University of
AC 2012-4180: TIME ALLOCATION SCAFFOLDING IN PROJECT-BASEDLEARNING CURRICULUMDr. Mohammad Habibi, Minnesota State University, Mankato Currently, Mohammad Habibi is an Assistant Professor in the Department of Integrated Engineering at the Minnesota State University, Mankato (MNSU), working with the Iron Range Engineering (IRE) Program. The IRE program, created and directed by MNSU and Itasca Community College, is a 100% project- based learning model. He earned his Ph.D. from the University of Wisconsin in electrical engineering and worked as a Postdoctoral Fellow at the University of Wisconsin from 2010 to 2011. He has more than 10 years of engineering experience worked in industry sector and more than five years of
CurriculumAbstractWorcester Polytechnic Institute (WPI) recently started a new undergraduate degree program inrobotics engineering (RBE). As of the fall semester of 2011, the program is the seventh largestdiscipline at WPI in terms of undergraduate enrollment. At the core of the curriculum are foursignature courses called Unified Robotics I-IV. The goal of these courses is to introduce studentsto the multidisciplinary theory and practice of robotics engineering, integrating the fields ofcomputer science, electrical engineering and mechanical engineering. The sophomore levelcourses, RBE 2001 and RBE 2002, introduce students to the foundational concepts of roboticssuch as kinematics, pneumatics, circuits, electric motors, sensors, signal processing andembedded system
AC 2012-4186: LEARNING SCIENCES GUIDED HIGH SCHOOL ENGI-NEERING CURRICULUM DEVELOPMENTDr. Leema Kuhn Berland, University of Texas, Austin Leema Berland is an Assistant Professor of science education at the University of Texas, Austin. She earned a Ph.D. in the learning sciences from Northwestern University in 2008 and was a Doctoral Fellow with the NSF funded Center for Curriculum Materials in Science (2003-2008). Berland is broadly inter- ested in facilitating and studying students as they engage in complex communication practices. She is currently focused on exploring the dynamics of how and why students are able (or unable) to productively communicate in engineering classrooms, in the context of UTeachEngineering
considered individuals with an innovator’s DNA, then it stands to reasonthat systems integrators are prone to be classified as having the characteristically defined DNAof successful innovators; yielding the connection between innovators, innovation and systemsintegrators.The basic element of successful systems integration is the vision of interrelatedness of the manyattendant knowledge domains; vision, that acts as the common thread through the innovationprocess. The evolution of this concept resides between the philosophical underpinnings ofinnovation leadership, and, the tactical realities of curriculum design, development andimplementation.Technology as a discipline -As in the previous section, the intent is not to define the innovation process
from high school1. In orderto remain competitive innovators on a global scale, we need to create more interest andexcitement about STEM fields at the high school level. In order to motivate students, STEMtopics need to be approached in ways that are relevant and interesting to high school students.One proposed method is to connect everyday technology to scientific and mathematicalconcepts. This has been done before through the INFINITY Project, which pioneeredcollaboration between high schools, universities, and industry to create a project-basedengineering curriculum2.Music technology, as shown by its inclusion in the INFINITY project, is a potential topic formotivating students into STEM fields. Music is an integral part of students’ daily
curriculum after those in the UK, not uncommon in Africa 2.Developing an Institutional IdentityThe development of the engineering program at UTG must support the overall institutionalgoals. Perhaps the most strongly felt of those goals is the institution’s efforts to develop a Page 25.421.2research identity to help establish itself as a university on an international stage. Ernest Boyer’smodel of scholarship as discovery, integration, application and teaching can be extremely usefulfor developing a research agenda at non-Research 1 (R1) Universities and Colleges. 3 His ideashave been incorporated into tenure expectations at many smaller
AC 2012-5168: ECE/SYS INTEGRATION: A STRATEGY FOR EVALU-ATING GRADUATES FROM A MULTI-YEAR CURRICULUM FOCUSEDON TECHNOLOGY SYSTEMS INTEGRATIONProf. Reid Bailey, University of Virginia Reid Bailey is an Assistant Professor in the Department of Systems and Information Engineering at the University of Virginia. His research interests focus on studying how students learn complex engineering skills such as engineering design and interdisciplinary collaboration. He received his B.S. from Duke University and both his M.S. and Ph.D. from the Georgia Institute of Technology.Prof. Joanne Bechta Dugan, University of VirginiaMs. Alexandra Emelina Coso, Georgia Institute of Technology Alexandra Coso is a graduate student in the
AC 2012-5236: AN INTEGRATED MODELING APPROACH TO A SUM-MER BRIDGE COURSEProf. Helen M. Doerr, Syracuse University Professor of mathematics and mathematics educationDr. Jonas Bergman Arleback, Syracuse UniversityMrs. AnnMarie H. O’Neil, Syracuse University Page 25.170.1 c American Society for Engineering Education, 2012 An Integrated Modeling Approach to a Summer Bridge CourseCurrent data on the participation of women and minorities in the STEM disciplines continues toshow that women and minorities are underrepresented in nearly all fields of engineering at theundergraduate level.1 Two decades of research on the
AC 2012-4389: INTEGRATED DESIGN ENGINEERING ASSESSMENTAND LEARNING SYSTEM (IDEALS):Prof. Michael S. Trevisan, Washington State University Mike Trevisan is a professor of educational psychology at Washington State University and the Associate Dean for Research in the College of Education. For more than 17 years, he has worked with engineering educators across the country to develop engineering design curriculum and assessments for a variety of engineering disciplines. His key collaborator is Dr. Denny Davis, Washington State University.Dr. Denny C. Davis P.E., Washington State University Denny Davis is professor of bioengineering at Washington State University. He has led numerous educa- tional research projects
stateshave encouraged the integration of science and technology literacy standards[2], the integrationof such standards into the classroom environment is challenging for an instructor and requires alarge amount of time. And so while the state curricula throughout the country contain variousstandards for technological literacy, there exists a fundamental disconnect between the existingclassroom curricula, teacher training in engineering and technology, and the available time andresources to form an effective integration.One method for aiding teachers in enhancing curriculum-integrated activities is to go throughexternally funded programs such as the NSF RET and NSF GK12 programs. This work wascarried out through funding provided by the NSF GK12
Active Learning by Lecture and Laboratory Integration in an Emerging Engineering Program A. Ieta1, R. Manseur1, and M. Hromalik1Abstract – The development of a new Electrical and Computer Engineering program provides an opportunity fordesigning and implementing an innovative curriculum. In terms of teaching methods, a combination of lecturing andhands-on learning is selected. Studio-style teaching is reported to enhance student learning, compared to theclassical lecture and lab formats. However, course organization is different and requires adaptation and innovation incourse design, content, and delivery. A studio lab was organized and new equipment was acquired for laboratorystations that
AC 2012-4464: INTEGRATION OF A COMPUTATIONAL LAB SEQUENCEINTO A JUNIOR-LEVEL QUANTITATIVE PHYSIOLOGY COURSEKurt A. Thoroughman Ph.D., Washington University, St. Louis Kurt A. Thoroughman, Ph.D., is the Associate Chair for Undergraduate Studies and an Associate Profes- sor in the Department of Biomedical Engineering at Washington University in St. Louis. Thoroughman has joint appointments in the departments of Anatomy & Neurophysiology and Physical Therapy.Mr. Ranjan Patrick Khan, Washington University, St. Louis Department of BMEMs. Haoxin Sun, Washington University, St. LouisPatricia L. Widder, Washington University, St. Louis Patricia Widder serves as Teaching Lab Coordinator in the Biomedical Engineering
materials engineering from Auburn University. He has authored several book chapters and articles on follower component of leadership and is active in research on the leadership processes. Page 25.517.1 c American Society for Engineering Education, 2012 Embedding Leadership Topics in the Engineering CurriculumHow leadership is addressed in a quantitative based curriculum has challenged engineeringfaculty interested in leadership for some time. This paper describes an approach to developingleadership topics within a general engineering curricular program. Through the widespread useof student
computeror information security systems have been incorporated in several engineering and computerscience curriculum. However, there has not been enough progress in developing an engineeringcurriculum dedicated to security technologies. The objective of this paper is to propose a newengineering and technology curriculum on security technologies which will introduce thestudents to different types of digital and physical techniques employed to maintain the securityand privacy of any physical resources. Different algorithms and systems will be included in theprogram to deal with cryptographic techniques, biometrics, image processing concepts andhardware implementations. The curriculum will train the students on audio and videosurveillance, access
computeror information security systems have been incorporated in several engineering and computerscience curriculum. However, there has not been enough progress in developing an engineeringcurriculum dedicated to security technologies. The objective of this paper is to propose a newengineering and technology curriculum on security technologies which will introduce thestudents to different types of digital and physical techniques employed to maintain the securityand privacy of any physical resources. Different algorithms and systems will be included in theprogram to deal with cryptographic techniques, biometrics, image processing concepts andhardware implementations. The curriculum will train the students on audio and videosurveillance, access
of Kerala and rose to the position of Director of Technical Education. Most of his career, he has served at College of Engineering, Trivandrum as a faculty member in the Department of Civil Engineering. He specializes in Transportation Engineering and is instrumental in establishing a Transportation Engi- neering Division at College of Engineering, Trivandrum. He is a leading consultant and researcher in this area of specialization. He has been active with his involvement with industries. He developed the process of Manufacturing Manufactured Sand ’M Sand’ an alternative to river sand. He was the coordinator of State Technical Agency for PMGSY scheme in Kerala. He has coordinated a large number of training
1 Page 17.29.2 CONTENTS OF PRESENTATION1. The Evolution of International Academic Collaboration in India2. Some Existing Academic Dialogues Between India and China3. International Collaborations with Asian Countries4. Some Successful Indian Bilateral Cooperation Initiatives – IIT Madras5. IIT Bombay -- Role of the Office of the Dean for International Relations 2 Page 17.29.36. The Nature and Scope of Collaboration7. “Global Partnerships: Drivers and Relationships” (Points from Prof C D Mote Jr ‟s Presentation)8. Curriculum , Pedagogy and Laboratory
curriculum, theNanoBoard 3000 was used. The NanoBoard 3000 has a variety of peripherals include analog-to-digital converters, digital-to-analog converters, audio CODEC, speakers, touchscreen LCDdisplay, pushbuttons, and RGB LEDs3. The NanoBoard 3000 has three different variations, eachcontaining an FPGA a different manufacturer. The variation of the NanoBoard 3000 used in thecurriculum contained a Xilinx Spartan-3AN device FPGA.Hardware description languages (HDLs) can be used to configure an FPGA. Two HDLs aremostly used today: VHDL and Verilog. VHDL stands for VHSIC hardware descriptionlanguage while VHSIC stands for very-high-speed integrated circuits. The FPGA curriculumwas originally developed using both VHDL and Verilog. However, it was found