Page 26.1498.8curriculum, review the readings, structure the exercises and craft the work, provide feedback,leading and coaching, and include the students in the entire developmental process. Storytelling Based Learning is intended to assist both the students taking a course and theinstructors teaching and creating the curriculum. Specifically, it guides and assists participantsbecause it fills the gap between disciplinary engineering learning, which is a cognitive processand embedded in logics of natural sciences. Storytelling is a socio-cognitive process. Yet it ismore so an experiential learning process where the hands-on or theoretical engineering learningis replaced by hands-on socio-cognitive experiential process of Tell/Make
initial curriculum development, the technical topics in Table 1 were considered to becritical to the overall body of knowledge conveyed to the students during the program. Thetopics are covered in four of the five new telecommunications courses. The fifth is a capstonecourse with a design project whose objectives vary each time it is taught. Curriculum details arediscussed in the next section.Discussions with the School of Management led to the selection of four courses to give studentsa basic understanding of project management. The motivation for creating a multidisciplinarydegree combining ECET and management courses was twofold. First, after graduation, studentsare usually employed on project teams under an experienced manager. As they gain
PaperIntroductionGathering data is an integral part of any project and at any level of research. Limited exposure totypes of data acquisition (DAQ) systems can hinder students’ ability to acquire accurate andnecessary data. Because of this, more DAQ systems should be introduced to students in the earlystages of the curriculum. For example, mechanical engineering labs at the University of Arkansasuse LabJack regularly. The skills learned in LabJack translate to other DAQ systems but theconnection isn’t very apparent. In many capstone projects, it is easier to use Arduino for simpledata collection. National Instrument’s LabVIEW is the industry standard for data acquisition,making it perfect for using when doing research. Because of this, it would be beneficial
and politics. Can engineering students learn to think about politics as an integral partof engineering problem solving? We begin by posing this question, knowing that students arenot ready to answer and that will gain significance throughout the course. At present, theengineering curriculum trains students to understand engineering and politics as opposedconcepts and practices. We use the life and experiences of John Sununu, MIT engineer andformer Chief of Staff to President Reagan. Here students learn that defining a problem in one’sown terms gives one possession of the problem. If different groups define problems differently,then an interaction between them is inherently a political one, for whoever wins the battle overdefinition gains
material. After successfully implementing this curriculum with his studentsfor the second year, and realizing potential redundancy should his students pursue the TG degreeoption at IUPUI, he approached the TG Program Chair to inquire about the potential for collegecredit for graduates who had now completing an almost identical High School course. It wasthrough this relationship that the dialogue first began in connecting these two educationalinstitutions through this unique articulation agreement.Note: On June 9, 2000, the Indiana Commission for Higher Education approved the four-yearBachelor of Science degree program in Computer Graphics Technology (CGT) at IUPUI. Allreferences throughout this document are that of the former Technical Graphics
wellas engineering decision making concepts. Lastly our novel approach to curriculum development allowed for an earlier incorporation of theactual data into the process via ChemCad, the Chemical Engineering software that was used by eachstudent. Typically, use of this software does not occur until later in the design sequence. Background The Friedel-Crafts reaction is used in laboratory synthesis as well as in industry in the synthesis ofethylbenzene and its derivatives as an intermediate to make styrene monomers1. Therefore, this reactionwas a good choice to integrate several different courses. Laboratory experiments conducted during the second semester of organic chemistry generallyillustrate practical
wellas engineering decision making concepts. Lastly our novel approach to curriculum development allowed for an earlier incorporation of theactual data into the process via ChemCad, the Chemical Engineering software that was used by eachstudent. Typically, use of this software does not occur until later in the design sequence. Background The Friedel-Crafts reaction is used in laboratory synthesis as well as in industry in the synthesis ofethylbenzene and its derivatives as an intermediate to make styrene monomers1. Therefore, this reactionwas a good choice to integrate several different courses. Laboratory experiments conducted during the second semester of organic chemistry generallyillustrate practical
wellas engineering decision making concepts. Lastly our novel approach to curriculum development allowed for an earlier incorporation of theactual data into the process via ChemCad, the Chemical Engineering software that was used by eachstudent. Typically, use of this software does not occur until later in the design sequence. Background The Friedel-Crafts reaction is used in laboratory synthesis as well as in industry in the synthesis ofethylbenzene and its derivatives as an intermediate to make styrene monomers1. Therefore, this reactionwas a good choice to integrate several different courses. Laboratory experiments conducted during the second semester of organic chemistry generallyillustrate practical
Construction Management Curriculum,” International Journal of Construction Education and Research, 10:111-125, 2014.LT Colleen SymanskyLT Colleen Symansky is a member of the rotating military faculty at the United States Coast GuardAcademy. She is with a Civil Engineering degree from the USCGA in 2005 and she earned herMBA and MS Civil Engineering from the University of Illinois in 2012. LT Symansky is aregistered Professional Engineer in the State of Connecticut and a practicing Project ManagementProfessional.Hudson JacksonDr. Hudson Jackson is an associate professor at the United States Coast Guard Academy. He holdsa PhD in Geotechnical Engineering from Rutgers University. He is a licensed Professional Engineerwith over 25 years of experience
involved.UsefulnessIts usefulness stems from the purpose of web-enabling software, which will also lead into theadvantages for taking such an approach. In the previous example, it’s clear to see what usefulnessit can have. Communication between the two parties became simpler as a direct result of theautomation.The usefulness of web-enabling applications can be further seen by considering cases in whichdevelopers need to integrate heterogeneous components running on separate machines. By web-enabling an application, the developer gains the ability to make remote procedure call (RPC) toany other web-enabled application. The net result is a system capable of scalability and flexibility.It is scalable because processing intensive portions of an application can be
rigorous process is taught to students in their Statics andDynamics courses on how to draw proper kinetic, free-body, and impulse-momentum diagrams.While numerous techniques and mnemonics have been mentioned in literature, any experiencedinstructor can tell a correct free-body diagram apart from an incorrect one. Unfortunately, this isnot the case when considering scalar properties such as mass, energy, exergy, and entropy.Different fluid mechanics and thermodynamics texts have treated the diagrammatic representationof these properties either very poorly, or in the case of the latter two, not at all. In this paper, theconcept of the storage and interaction diagrams is introduced as a graphical tool to represent theaforementioned scalar properties
customized survey. Results of the survey for the Fall 2002offering will be presented later in comparison with results from an identical survey administeredduring the Fall 2003 offering. The evaluations were generally positive for the initial (2002)offering, especially with regard to learning how to work in project teams. But the instructor feltthat the conventional approach he followed during this initial offering allowed little opportunityfor the students to integrate their knowledge and apply it to a real-world project related to thestudents' majors. The revised course offering in Fall 2003 addressed this problem.Revised Offering, Fall 2003 Over the summer and fall of 2003, we used CCLI project funds to develop and buildhardware and
understanding ofdiversity and inclusion and seeks to integrate its principles and practices into thefabric and culture of the college. 2As part of a 2006 report entitled “Moving Forward to Improve EngineeringEducation,” the National Science Foundation identified the following factors as majorcontributors to why some of the best students, with high grades abandon their goalsof attaining an engineering degree.Our student academic success program aims to address some of these issues. 34There are many options for tutoring resources for engineering students at OSU. Thedepartments that
, so thatstudents can interact with them on an informal basis. Student leaders of the variousengineering organizations and student projects attend, as well, and are integral toproviding a fun and exciting atmosphere.The typical schedule consists of an introductory meeting and ice-breaking session, astudent-groups fair, an informational session with faculty from each department, a ropescourse, team building sessions, a campfire, and free time to use the camp’s recreationalfacilities. The main activities of the weekend are team-building exercises that allowstudents to get to know one another and build bonds of trust that will be essential duringtheir undergraduate studies.The first retreat in 1999 was very successful. Ninety-three percent of the
knowledge. The work of the grant is guidedby three research questions: 1. What are the impacts of portfolio construction, particularly in the areas of knowledge integration and identity formation? 2. What are the mechanisms that lead to these impacts? 3. Under what conditions do these mechanisms result in an impact?Here we describe one part of this grant, specifically an effort to develop a version of the portfolioconstruction activity appropriate for seniors in the department of Technical Communication atthe University of Washington. We began our design process by gathering our accumulatedknowledge about the user population (the students) from a number of venues. For example, fromour own prior research on student understanding of
would allow students to apply the knowledge they learn in class while allowingfor creative solutions. We also wanted the project to be fun for the students and encourageclass discussion. Inspired by success stories with the use of mobile robots at schools such asMIT [5], Case Western Reserve University [2], and Trinity College [1], we felt that the fieldof mobile robots would be an ideal match for our objectives. Mobile robots provide achallenging and exciting arena for developing, applying and evaluating AI techniques.Situated in the world, mobile robots must deal with issues of uncertainty, reliability andreal-time response [4]. They must be capable of integrating sensing and planning toproduce an appropriate course of action and, ideally
AC 2010-1075: THE PERFORMANCE OF U.S. EXCHANGE STUDENTS ABROAD,A LONGITUDINAL STUDYJoerg Mossbrucker, Milwaukee School of Engineering Page 15.1250.1© American Society for Engineering Education, 2010 The Performance of U.S. Exchange Students Abroad, A Longitudinal StudyAbstractThe Milwaukee School of Engineering (MSOE) and the University of Applied Sciences Lübeck/Germany (FHL) have a well-established, dual-accredited, bi-directional exchange program inElectrical Engineering that is completely integrated into the curricula of both institutions. Thebasic layout of this tuition-neutral exchange program is shown in Figure 1. MSOE and
statistically overwhelming and this partnershiphas provided a collaborative opportunity to identify and remove academic, administrative, andtransfer barriers in-situ. As the engineering academy model is being created and refined throughthe research literature, the three main goals of the academies remain: 1) increase theparticipation and graduation of underrepresented groups interested in pursuing an engineeringdegree, 2) provide an immediate impact on the STEM workforce by minimizing the time tograduation through curriculum alignment between the two- and four- year institution, and 3)increase the number of awarded Associate degrees.The authors plan to expand the engineering academy model across Texas, while continuing tocontribute to the literature on
, "An Effective Integrated Approach For The Teaching Of Power Electronics To Part Time Engineering Students," in 1998 ASEE Annual Conference & Exposition, Seattle, WA, 1998.[12] Y. Demirel, "Effective Teaching And Active Learning Of Engineering Courses With Workbook Strategy," in 2004 ASEE Annual Conference & Exposition, Salt Lake City, UT, 2004.[13] P. McCright and J. Larsen, "Coordinating Learning And Teaching Styles In Undergraduate Engineering Economy," in 2004 ASEE Annual Conference & Exposition, Salt Lake City, UT, 2004.[14] Mazer v. Stein, 1953.[15] Limitations on Exclusive Rights: Fair Use. 17 U.S.C § 107, 2010.
to these new imperatives byexploring a variety of more intensive international training programs. For instance, Iowa StateUniversity’s Language and Cultures for the Professions initiative [11] encourages students toincorporate specialized language study and cross-cultural coursework into their studies, as wellas providing help in finding internships abroad. Similarly, the GEARE program at Purdue [12],[13] offers engineering majors the opportunity to integrate introductory language study, asemester of study plus summer internship abroad into a four-year curriculum. The InternationalPlan at Georgia Tech [14] offers students a range of options for internationalizing their studies,requiring a combination of globally-focused coursework, basic
and can serve as a direct measure of thequality of graduates. Capstone projects provide an opportunity for students to demonstrate theircritical thinking skills, communication skills, as well as time and project management skills. Thecapstone course prepares students to better understand the professional roles in the engineeringand technology community1. In many universities, senior-level capstone courses have beenincorporated as an integral part of engineering and engineering technology education in an effortto correlate the practical side of engineering design and the engineering curriculum. Such coursesprovide an experiential learning activity in which the analytical knowledge gained from previouscourses is joined with the practice of
environmental engineering practice, students arebetter primed for, and more receptive to, an introduction to the principles and technologies ofenvironmental engineering.I. IntroductionAs awareness of the importance of environmental issues grows, and as students begin to demand Page 6.942.1 Proceedings of the 2001 American Society of Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering Educationand require training and education in this area, universities around the world have seen theincorporation of environmental issues into courses across the curriculum (1). In
Copyright 2005, American Society for Engineering Education”References1. B.M. Olds and R.L. Miller, “The Effect of a First-Year Integrated Engineering Curriculum on Graduation Rates and Student Satisfaction: A Longitudinal Study,” Journal of Engineering Education, 93(1), 23-35 (Jan 2004).2. P.W. Laws, "Millikan Lecture 1996: Promoting active learning based on physics education research in introductory physics courses." American Journal of Physics, 65, 14-20 (Jan 1997).3. D.R. Sokoloff and R.K. Thornton, "Using Interactive Lecture Demonstrations to Create an Active Learning Environment," The Physics Teacher, 35, 340-347 (Sept 1997).4. D. Vernier, “Data Collection with Computers and Handhelds,” Catalog for Vernier
Wilkinson is a lecturer in the Engineering Communication Program at the University of Toronto, where she coordinates communication in Chemical Engineering, and teaches core communication courses at the undergraduate and graduate level. Lydia’s current research investigates interdisciplinary skills trans- fer with a specific focus on humanities integration for engineers.Dr. Jonathan Turner, University of Toronto Jonathan Turner is a Career Educator who specializes in working with graduate students and postdoctoral fellows. He co-founded a Canadian community of practice for career and professional development prac- titioners, and as an executive he launched a monthly article series, effected changes to a national survey of
they would with traditional techniques.” Bowen 13 describes an introductory class incomputing that is focused on MATLAB as a replacement for FORTRAN. As Bowen observes,“Inclusion of computer programming early in the curricula has been seen by the CivilEngineering faculty as a way of improving the students' skills in logical reasoning, application oftechnical knowledge, and quantitative problem solving.” The students “write MATLABprograms as an integral part of a structural design project where groups of students competeagainst one another to produce a truss-style balsa wood bridge having the highest profit.Throughout the semester a series of homework assignments require students to write MATLABprograms that calculate separate bridge
in their curriculum for a long time now, such practice in engineeringeducation is not a common practice. In the globalized economy of 21st century, the corporationsare seeking a specialized expertise in their employees, which cannot be acquired throughtextbook only. It requires a lot of hands-on skills that normally come through industry projects10.This paper has presented a case study of a project based residency course that is being offered inone and only online executive MID program at the main campus of Texas A&M University inCollege Station, TX. It provided an in-depth review of the various learning approaches forstudent learning such as topic based, problem based, and the project based approaches. Thesurvey results of former
programobjectives [1].The Electrical and Computer Engineering Technology (ECET) has been continuouslyaccredited for over 30 years, was last accredited in 1998, and is preparing for areaccreditation visit in 2004 during the first year of exclusive use of the TC2K criteria.While in the process of refining our curriculum as outcome-based, the authors found thatthe importance of capstone or integrating experiences is also recognized by ABET andhighlighted in the Self-Study Questionnaire [1]. The Senior Design Project courses havebeen in place since 1968 and it was concluded in [2] and [3] that the course providesstudents with the best possible preparation in terms of current technical knowledge,techniques, skills, and written/oral reports for industry
attributes such as structure, moisture content, and electrical charge. Thosecan be dealt with at a later time when the students are better able to cope with abstractions. Aspiral curriculum describes an approach to the design of the curriculum that is built on thisidea. Thus, in this example the students meet the concept on several occasions during theschooling and on each occasion more material is added to the understanding of the concept.Graduate student teachers including scientists and engineers find it difficult to defineattributes and values but the evidence is that when they are forced to think about thedominant features of a concept they find it to be an aid in the planning and implementation ofa lesson. It is also evident that part of the
AC 2011-2732: ABET REPORT GENERATIONRichard Cliver, Rochester Institute of Technology (CAST) I am an Associate Professor at Rochester Institute of Technology. My main responsibilities are schol- arship, teaching and curriculum development. I have developed significant new curriculum in both the Computer and Electrical Engineering Technology departments. Courses and Labs include: Digital System Design, Principles of Electronic Design Automation, Circuit Theory I III, Electro-Optic Devices (new), Electronics I III, Electronic Principles for Design I & II, Applied Microprocessors (new) and, Advanced Electronics (new). I was the single recipient of the ”2002 Richard and Virginia Eisenhart Provost’s Award for
the clicker study where questions from the end-of-course evaluations did notreveal any apparent differences between the clicker and control classes2. The NSSE annualsurvey of freshmen and seniors asks students how often they have, for example, participated inprojects that required integrating ideas or information from various sources, used e-mail tocommunicate with an instructor, asked questions in class or contributed to class discussions,received prompt feedback from faculty on their academic performance, participated incommunity- based projects, or tutored or taught other students. The findings are used todetermine how successful a university is at engaging students4.Sometimes student feedback contradicts the results associated with