Paper ID #23604Breaking Down the Silos with an Integrated Laboratory ExperienceDr. Barbara E. Marino, Loyola Marymount University Dr. Barbara E. Marino is an Associate Professor in the Department of Electrical Engineering and Com- puter Science at Loyola Marymount University. She also serves as the Undergraduate Director for the Electrical Engineering Program at LMU. Her current research interests include engineering design and K-12 STEM outreach. Dr. Marino received the B.S.E.E. degree in 1989 from Marquette University and the M.S. and Ph.D. degrees in electrical engineering from the University of Notre Dame in 1993 and
Paper ID #28839An Integrated Multi-year Iterative and Service-oriented Capstone ProjectDr. Joyce Blandino P.E., Virginia Military Institute Dr. Joyce Blandino received her Ph.D. in Biomedical Engineering from the University of Virginia. She is currently an Associate Professor in the Department of Mechanical Engineering at the Virginia Military Institute. She previously taught in the Biology Department at Washington and Lee University. Before that, she was a faculty member at James Madison University.Col. Jon-Michael Hardin P.E., Virginia Military Institute Jon-Michael Hardin, Ph.D. Professor and Department Chair in the
the gaps betweentraditional forms of problem-solving in the classroom and the prevailing practices and expectationswithin a highly competitive IS industry environment.Since learning is not limited only to the acquisition and understanding of concepts but, to a greaterextent, actually relies on construction of meaningful links among them, the concept maps can belooked at as o a learning strategy, o curriculum planning strategy, and o a student assessment tool.Especially valuable this approach might turn out to be in the situations when students with diverseexperiences and levels of prior knowledge would enroll in the same class, so that it might becomedifficult for an instructor to assess what students do and do not understand.In general
them on the project requirementsproved to be a significant challenge. This could be resolved by the department including the IDP as acompulsory project within the second year curriculum. Alternatively, if over time the IDP appeals to enoughof the professors within the department, then perhaps the inclusion of the IDP will occur naturally.Moreover, it is recommended to establish an elevated level of communication amongst the instructors forall integrated courses to optimize the execution of the IDP, minimizing the conflicts and maximizing thevalue to the students. It is recommended to plan for the IDP well in advance (e.g., in the preceding term).This is to combat the challenge involving the communication and scheduling difficulties between the
placed in an orderly fashion and notknotted up in ―spaghetti‖, or that an alarm clock has to work properly on all 7 days of theweek and even one failure would not be acceptable. In the case of this curriculum, thedebugging of circuits is skills-based rather than conceptually based because of this lackof emphasisLastly, we found that most of the material presented in this curriculum is explicitlyintegrated – 77.5% of the time. Due to the nature of the material and the unique subjectmatter, this was not a surprise. No connections were made 17.6% of the time between theengineering and mathematics. Implied connections were made 4.9% of the time.Table 6 illustrates where integration occurred within the skills and concepts included inour analysis
been shown to helpthe student connect theory with a practical application that increases the relevance of thepotential solution8. Case-based instructional methods have long been used in engineeringeducation, almost exclusively in the context of ethics where “there is widespread agreement thatthe best way to teach professional ethics is by using cases.”9Less common is the use of the case study method to integrate business learning, specificallyentrepreneurship concepts, with core engineering curriculum. Weaver and Rayess,10 on behalf ofthe KEEN Network, have developed a series of short case studies across a variety ofentrepreneurial situations that are incorporated into various engineering courses. Garcia et al.11tested an entrepreneurial case
AC 2011-732: INTEGRATING NASA SCIENCE AND ENGINEERING: US-ING AN INNOVATIVE SOFTWARE CURRICULUM DELIVERY TOOLTO CREATE A NASA-BASED CURRICULUMMorgan M Hynes, Tufts UniversityElsa Head, Tufts UniversityEthan E Danahy, Tufts University Ethan Danahy received the B.S. and M.S. degrees in Computer Science in 2000 and 2002 respectively, and a Ph.D. degree in Electrical Engineering in 2007, all at Tufts University, Medford, MA. Within the School of Engineering at Tufts University, he is currently a Research Assistant Professor in the Depart- ment of Computer Science. Additionally, he acts as the Engineering Research Program Director at the Center for Engineering Education and Outreach (CEEO), where he manages educational
implement simulation in thecurriculum led to the decision to integrate simulation modeling into an existing course becausethere was not room in the curriculum for a new course. The decision was made to integrate amodule for an introduction to BPS software into the Facilities Layout Design course. Initially,student versions of business process simulation software were used for this module. This provedto be satisfactory for several years for teaching students the basics of simulation modeling.However, recently, Senior Project sponsors have asked student teams to provide processsimulation for those senior projects that involve facility layout designs. Attempts by studentteams to use the student versions of the software for these projects proved to be
Session xxxx Supplementing EET Analog Labs with Switched Capacitance Integrated Circuits William Lehman, Advanced Systems & Materials Asad Yousuf, Savannah State University Muniyappa Venkatesha, Savannah Technical College Chung-Ling Huang, Southern University Abstract Programmable Analog Integrated Circuits (IC) provides designers the capability to change analog circuits in the field. Although Programmable Switched Capacitance circuits are a technology that deserves study by itself, our main focus
and assessment approach used at that time is described in Pears et al. 200117.In 2005 we introduced international collaboration in a semester long project course, where the Uppsala students work with students at an American university. This course has an explicit focus on competencies suitable for global collaboration and different pedagogical challenges with this has been investigated in an action research manner3-9,14,15. The goals are to help to scaffold progressive development of global engineering competencies and experience.The paper is structured as follows. We describe the evolution of the curriculum reflecting on the instructional design
, there are few opportunities for engineering students to forgo anengineering course to take a course studying leadership. We have addressed these challengesdirectly on our campus and successfully implemented a new model of teaching engineeringleadership while students continue to pursue their engineering degree and graduate on time. This paper will move beyond a case study and share transferrable insights, assessmenttools, and curriculum to support engineering programs integrating leadership education into theirexisting offerings. First we will summarize the theoretical framework used, then discuss each ofthe four modules. This discussion will include the target experience levels of students inengineering, an overview of the
formed through the following three-year procedure: conceptualization,creation, pilot-testing, modification, field-testing, and evaluation. Different evaluationtools were created during the procedure, including instructor lesson surveys, studentlesson surveys, student satisfaction surveys, knowledge tests in each subject area,teamwork skill evaluations, PSM skill evaluations, DFM skill evaluations, mentalrotation tests (to test students’ spatial visualization skills), and an overall satisfactionsurvey. By and large, the evaluation results proved the effectiveness and usefulness ofthe curriculum. This project will produce larger numbers of better-prepared workers whowill contribute to a more competitive U.S. manufacturing industry. The eventual
Session 2649 A Model for Integrating Design Software into a Highway Design Course Maher M. Murad University of Pittsburgh at JohnstownAbstractThe use of design software in highway surveying and design is becoming popular in industry.Graduates with the ability to employ design software are sought after commodities. They arelikely to have an employment advantage with consultants or State Departments of Transportation.The design software “Land Development Desktop (LDD)” has been integrated into the HighwayDesign course at the University of Pittsburgh at Johnstown (UPJ). The use of
Paper ID #18104Connected Mechanical Engineering Curriculum through a Fundamental Learn-ing Integration PlatformMr. Thomas A. Feldhausen, Kansas State University Thomas Feldhausen is an instructor for the Mechanical and Nuclear Engineering Department at Kansas State University. He received his M.S. in Mechanical Engineering from Kansas State University in May of 2017. As well as being an instructor, he works at Honeywell Federal Manufacturing and Technologies as a process engineer in Kansas City.Dr. Bruce R. Babin, Kansas State University, Department of Mechanical and Nuclear Engineering Dr. Babin is an instructor in the
Session 3549 Integration of Satcom and GPS into a Technology Curriculum Robert Gray, Robert S. Weissbach Penn State Erie, The Behrend CollegeAbstractSatellite communication systems (Satcom) represent the state-of-the-art in advancedcommunication of digital voice and data. For mobile users, the system requires a high-technology antenna capable of locking on and tracking a geostationary satellite orbiting theearth, as well as a device capable of both transmitting and receiving modulated informationto and from the satellite.Penn State Erie, the Behrend College is working on integrating into their
adversarial construction team relationships. It also explored ways in which such examplesof latest practice in construction may be integrated in the curriculum of an undergraduatecurriculum for construction management programs. It concludes by providing examples of goodpractice through the presentation of case studies.A Definition of BIMBIM has been defined as “the process of creating and using digital models for design,construction and/or operations of projects.”1 This definition is interesting in that it does notrestrict BIM to just geo-spatial images representing the geometry of the project as wouldnormally be associated with CAD packages. This definition also includes all digital informationrelated to the project from its inception through
Paper ID #10995Cultural Accommodation in Virtual Engineering Academic TeamsMr. Andras Gordon, Pennsylvania State University, University Park Andras Gordon is an Instructor of Engineering Design in the School of Engineering Design, Technology and Professional Programs, College of Engineering, The Pennsylvania State University.Dr. Richard J Schuhmann, Massachusetts Institute of TechnologyDr. Richard F. Devon, Pennsylvania State University, University ParkMr. Andrew Michael Erdman, The Pennsylvania State UniversityDr. Ahmad Atieh, Taibah Univeristy Ahmad Atieh had received his Ph.D. in Electrical Engineering from University of Ottawa
Session 2125 Integration of Design Throughout the Curriculum of a BSE Program Robert LeMaster, Richard Helgeson, and J. Douglas Sterrett Department of Engineering College of Engineering and Natural Science University of Tennessee at MartinIntroductionAlthough fundamental to the engineering profession, design is one of the more difficult subjectsto teach. Design by its very nature is broad in scope and draws on the creative talents,management skills, and engineering knowledge of those involved. Design problems are typicallyopen ended, have
program focuses on the integration betweenarchitecture and engineering. It includes capstone design courses that cover the major areas. Theintegration aspects of different disciplines of architectural engineering will be discussed.As well, a methodology presented to our students in the framework of this course is discussedthrough case studies. This methodology is based on using actual buildings, where local weatherconditions as well as engineering considerations and architecture are used in an integratedapproach to achieve a successful design.History of Architectural Engineering at University of Wyoming:Over USA, only 18 programs of architectural engineering are accredited by ABET(Accreditation Board for Engineering and Technology). Architectural
, Portland, Oregon, October, 1997.3. Uht, A. K. & Sun, Y. The Laboratory Environment of the URI Integrated Computer Engineering Design (ICED)Curriculum. In the Proceedings of the 1998 Frontiers in Education Conference, ASEE & IEEE, Phoenix, Arizona,November, 1998.AUGUSTUS K. UHTAugustus K. Uht is an Associate Professor at the University of Rhode Island and is currently on sabbatical leave as aVisiting Scholar at Northeastern University. He received his B.S. and M.Eng.(Elect.) degrees from Cornell Universityin 1977 and 1978, and his Ph.D. from Carnegie Mellon University in 1985, all in electrical and computer engineering.From 1978 to 1982 Prof. Uht was an engineer at International Business Machines Corporation in East Fishkill, N.Y.He is a
derivative graph; this way, process of visualizingthe antiderivative is becoming an important fact at the first contact with calculus, where theFundamental Theorem of calculus takes a special place as background knowledge throughout thecourse.IntroductionThe development of new digital technologies must have a positive impact in the learning processof Mathematics, but the speed that is characteristic of this development limits the time needed tounderstand the importance of these resources and their inclusion in the courses. On the otherhand, a traditional curriculum, the standard in many classrooms, actively resists questioning andcreates difficulties in the establishment of defined criteria that can guide us into making allies outof technologies
mentoring students on senior design .projects. © American Society for Engineering Education, 2022 Powered by www.slayte.comWIP: Integrating Modern Development Practices into a Software Engineering CurriculumAbstract: The field of software engineering is ever changing. The latest IEEE Curriculum Guidelines,SE2014: Curriculum Guidelines for Undergraduate Degree Programs in Software Engineering waspublished in 2014. Since then, the discipline has continued to evolve as the complexity of softwaresystems has reached unprecedented levels. This growth has resulted in organizations shifting to a formof development referred to as DevOps. DevOps is "an interdisciplinary approach and means to
modern engineering environment, especially for electricaland computer engineers. Virtually any non-trivial system - an electronic automotive enginecontrol unit for example - requires an understanding of concepts from across the entire spectrumof ECE. Furthermore the central component that integrates these concepts is an embeddedcomputer. As a means of reducing the tendency to "boxing", we use our introductory course inembedded computing to motivate and contextualize concepts from across our curriculum.Many ECE curricula have a course in microcontrollers or embedded computing, covering topicssuch as digital input/output (I/0), analog to digital conversion (A/D) or the use of timers. Whilethis is certainly prerequisite knowledge, little is done to
by the engineer in the design.ConclusionLaser scanning technology has been used in various engineering fields. However, thistechnology is not widely used in education due to the high cost of the hardware and the hightechnical expertise required for data processing. The continuous evolution of this technologyover the years made it more affordable for use in the classroom. Laser scanning providesexcellent opportunities to enhance the construction engineering management curriculum. Thispaper presents an extensive literature review on laser scanning technology applications andevaluates the feasibility of integrating it in the construction engineering managementcurriculum. It was found that seven out of the 20 student learning outcomes required
testing tools based on varied IDE platforms (e.g.,Eclipse and NetBeans). The gamification design and mechanism is integrated in the social features and isdeveloped with several elements that are connected to the project objectives. We will discussthese elements, the mechanism, the psychological characters and system implementation in thenext section. An overview design and analysis is shown in Figure 2.Current Situation of Software Testing in the AAMU Computer Science Curriculum Table 2 includes a summary of the current situation of software-testing instruction withinAAMU’s computer science curriculum. Table 2. All Computer Science Class Studies at AAMUCourse Num Course Title
the need for developing skills inCybersecurity. Though many Universities offer a master’s degree in Cybersecurity, it isimpractical to fill this huge demand for Cybersecurity through only graduate degree holders.After careful analysis, it has become evident that there is a gap in the curriculum as it relates totraining for Cybersecurity concepts in foundational computing courses for students. To be morespecific, there is relatively less focus on the infusion of Cybersecurity concepts in undergraduatecomputing courses and its impact on classroom practices. This paper serves to address this gapby providing an experience in infusing, teaching, and assessing Cybersecurity modules in variousundergraduate computing courses that immerse students in
Pharmaceutical Manufacturing into the Chemical Engineering CurriculumAbstractOver the past several years we have explored ways to incorporate concepts of pharmaceuticalengineering within the chemical engineering curriculum. Our initial efforts in this area have beendirected towards the integration of these concepts in freshman and sophomore level courses. Thisprovides an experience that reinforces core educational objectives and increases student interestin the pharmaceutical field. This paper is a continuation of our educational methodsdevelopment, and will describe several pharmaceutical and consumer product educationalmodules. These modules include both laboratory and course-related activities for both lower andupper-level
-in-time# learning; and 4) require students to have a laptop PC, and use thelaptop as the medium of instruction throughout the curriculum, including courses in other areassuch as math, physics, and English.NEED FOR THE REFORM - HISTORICAL PERSPECTIVEThe engineering educational system in the United States is discouraging many highly talentedstudents and squandering an important national resource. We have a national attrition rate thatexceeds 40% at a number of leading institutions5. Many nation-wide attempts have been made toaddress this problem, but their effectiveness remains to be seen. A related concern, is associatedwith the level of education acquired by the newly-graduated engineer. That is, are we asengineering educators doing an
readily recognize and apply theirengineering background to solve unstructured problems, both locally and beyond US borders.We present an innovative and unique approach to curriculum reform that contains fouroverarching objectives: (1) the integration of fundamental concepts across the curriculum; (2)teaching students to synthesize different concepts to solve unstructured problems; (3) providingproblem solving methods and strategies within a societal framework that allows for theirapplication in a local as well as a global context; and (4) creating a portable developmentmethodology that can be readily adapted to other engineering disciplines. Our broad objective isto develop a technically sound undergraduate IE curriculum that will (a) be tightly
of Idaho, and worked as an engineer in design offices and at construction sites. c American Society for Engineering Education, 2020 Integrating Building Information Modeling (BIM) into the Civil Engineering CurriculumI. IntroductionThis paper presents information from a work in progress on integrating Building InformationModeling (BIM) throughout the structural analysis and design portion of the ABET accreditedCivil Engineering curriculum at Norwich University.BIM is a model-based process that is used to plan, design, construct, operate, and maintainbuildings and other infrastructure. It has a wide range of beneficial effects on constructionproject disciplines such as facilitating communication, improving