, and develop a physical intuition about engineering concepts.Earthquake Engineering Modules (Abbreviated) Two earthquake engineering modules are briefly described here. A third module, acomprehensive capstone design project, is described in detail in the next section. Soil Liquefaction and Foundations: Introduces students to geotechnical considerations in seismic regions and methods to mitigate for poor soil conditions. This demonstration illustrates the potential effects of liquefaction on structures (see Figure 2). Structures with various foundations are tested to show differences in performance. Shear Wall Design: Students observe poor performance of a basic timber frame structure subject to a seismic event
universal serial bus (usb), connecting to the Internet via Ethernet port or WiFi. Theseexamples are the basis to help us design course projects. Students have shown great interests inthese new course topics and are capable of developing IoT relevant capstone projects for homeautomation by the end of the course.This paper presents our ongoing work of teaching advanced IoT technologies to electrical andcomputer engineering students, with the emphasis of how we develop the lab projects by usingTI’s latest Connected Launchpad EK-TMC1294XL and its associated software packages. Anoverview of IoT technologies including its evolution is first briefly introduced. Then, the coursedescription including the learning outcomes and lecture and lab contents is
and light gauge steel design and construction. Page 13.1130.1© American Society for Engineering Education, 2008 Sustainable Research and Design in a Civil Engineering Senior Design CourseAbstractIn an effort to help students understand the broader impacts of land development, a significantsustainability component was added to a capstone senior design project course in a small civilengineering program. This year-long course traditionally involves students completingstraightforward designs in the areas of structural, transportation, geotechnical, and municipalenvironmental engineering. In a
Integrating Element of a Comprehensive Civil Engineering CurriculumAbstractThis paper demonstrates how construction can effectively function as the integratingelement of a comprehensive civil and environmental engineering curriculum. The UnitedStates Air Force Academy offers ABET-accredited undergraduate programs in civil andenvironmental engineering. Throughout these programs, construction is used to providerealistic experience, to teach project management, and to provide opportunities for multi-disciplinary capstone experiences.As in many other engineering programs, students at the Air Force Academy spend thefirst two years of study taking many required courses. Before beginning their junior year,students majoring in civil and
while the other sensorprompts the robot to start palletizing.I. IntroductionThe Senior Design Capstone Project has been identified as a valuable instrument of theassessment process. This instrument is now becoming more popular in undergraduate programsfor the assessment of behavioral and cognitive achievement1. Consequently, technology studentsat Elizabeth City State University (ECSU) are required to complete a Capstone Design Project intheir final semester. Simulating real-world robot palletizing is the goal for this Capstone Project.The students, working together as a team, utilize their knowledge, problem solving skills,communication and team work skills, to apply many of the technical competencies they acquiredthroughout their course of
of IoT kits. The instructors work on developing IoT relatedcourse material appropriate for the targeted courses to assist students with the IoT concepts,devices, applications and implementation. Finally, student learning is assessed through surveysand student performance. Student learning is improved from lessons learned by fine tuning theprocess as well as teaching material, delivery, and other methods based on feedback and otherobjective methods.Student RecruitmentThree categories of courses are targeted for remote engaged student learning through IoT at thetwo HSIs. The first category of courses includes senior capstone design project courses, whichare a sequence of two courses which incorporate PBL in collaborative team projects in the
shouldbe given a comprehensive introduction to standards, gain familiarity with key standardsorganizations in their respective disciplines, study standards in the context of relevant casestudies, and graduate with the ability to identify and apply relevant standards in the engineeringdesign process [6]. These recommendations are consistent with those from a more recent paneldiscussion on standards education at the Capstone Design Conference in 2012, which furtherrecognized that, to help achieve the desired proficiency of students to apply standardsappropriately in their capstone design project, standards education should start earlier in thecurriculum [7].Several barriers to effective teaching of standards in engineering curricula have been cited
metric that requires our graduates to demonstrate an ability to evaluate differentcommunication styles. We present the methodology used to assess this performance metric,along with assessment results gathered over the past six years. These results play an importantrole in the program's assessment of communication-related outcomes.IntroductionA number of years ago we revamped our civil engineering capstone design sequence bychanging it from an individual study course into a directed study offering.1 In the new course,students work in six-person teams to complete an integrated design for a private sectordevelopment or public works project. We consider the teams multi-disciplinary since teammembers represent different civil engineering specialty
capstone project within theComputer Engineering Technology (CET) department at NYC College of College. The conceptsof parallel, serial and USB ports and Bluetooth wireless communication are explored as part ofthe trend in computer communication technology. In particular, emphasis is placed on thediscussion of how to interface and communicate, using wired serial port and Bluetooth wirelesstechnology, between user designed software and a custom designed hardware system, which mayincorporate an embedded micro-controller.In the past, parallel and serial ports were the standard communication interface available on mostpersonal as well as industrial computers. The underlying hardware and the communicationprotocols were simple and easy enough to be
undergraduate degree program inrobotics. At that time, there were only a handful of universities worldwide offeringundergraduate Robotics programs, none in the United States, although many universitiesincluded robotics within a discipline such as Computer Science, Electrical Engineering, orMechanical Engineering. WPI took a decidedly different approach. We introduced Robotics as amulti-disciplinary engineering discipline to meet the needs of 21st century engineering. Thecurriculum, designed top-down, incorporates a number of best practices, including spiralcurriculum, a unified set of core courses, multiple pathways, inclusion of social issues andentrepreneurship, an emphasis on project-based learning, and capstone design projects. Thispaper provides a
the Center that enables Pennsylvania community colleges andother partner institutions to offer degree programs in nanofabrication is a suite of sixnanofabrication courses taught three times per year (fall and spring semesters andsummer session) at the $33 million, Penn State Nanofabrication Facility, part of the NSF- Page 9.990.1sponsored National Nanofabrication Infrastructure Network (NNIN). The capstone 1semester was developed and is continuously improved with extensive industry oversight,and receives funding support form the Commonwealth of Pennsylvania. Since its creation, the ATE Regional Center
experience through internships, co-ops, and capstone projects with industry partners. Page 24.246.2The remainder of this paper will discuss each of these four strategic directions.2. Faculty engaged as consultants to industryPart of the University mission includes regional economic development, which requires buildingeffective industry partnerships through the involvement of the faculty. To encourage faculty-industry collaboration, the College created the Center for Innovation in Technology andEngineering (CITE). CITE’s primary mission is to provide access to college resources forbusinesses and the industrial community. Encouraging faculty to leave
the capstone senior design course. in 2002 ASEE Annual Conference and Exposition. Montreal, Que., Canada, 2002.2. Morgan, J.A., G. Wright, and J.R. Porter. Managing senior design projects to maximize success: The TAT team. in 2005 ASEE Annual Conference and Exposition. Portland, OR, United States 2005.3. Porter, J.R., et al. Project EVIS: An Example of an Innovative Capstone Process. in 2006 IJME - INTERTECH International Conference. Newark, New Jersey 2006.4. Morgan, J.A., Porter, J.R., and Lockard, M.. Engineering Entrepreneurship Educational Experience (E4) Initiative: A New Model for Success. accepted for 2007 ASEE Annual Conference and Exposition. Honolulu, HI, United States, 2007.5. Manseur, R., An
: Implementing Sophomore Cornerstone Courses in Electrical and Computer EngineeringMany engineering programs have significant project- and design-based courses in the freshmanand senior years. Freshman courses usually serve a dual purpose: a) making engineering a moreattractive study option for undecided students, and b) introducing the basics of technical andnon-technical skills, such as teamwork and project planning. On the other hand, seniors doingtheir capstone projects are expected to perform at a more proficient level, one that woulddemonstrate their readiness for entering the workforce as engineers.As will be discussed below, the project component in our freshman year-long sequence evolvesfrom minimally structured projects
, design is viewed as another hurdle to overcomerather than an important engineering process. This paper describes how the ElectricalEngineering program at the University of Wisconsin – Platteville developed a curriculum toaddress this issue by implementing a distributed design in its curriculum. The idea behind thedistributed design is to introduce simple design concepts early in the curriculum and graduallyincrease the complexity of design projects as students progress toward graduation. The paperprovides examples of several design projects in various courses and how these projects areinterrelated. The paper also provides a discussion of how the “major design experience”requirement of ABET is satisfied without having a capstone design course in
. Visualization and engagement from technology-enabled 3. Inquiry-based science instruction (Mackin, 2012)This paper explores applications and delivery methods of VR in engineering using specificprograms recently used or will be used in students’ capstone projects as well as in class.Benefits of VT in Civil Engineering EducationVT offers a plethora of advantages for civil engineering education, encompassing various aspectsof the learning process. These benefits can be categorized into three key areas: deepeningconceptual understanding, bridging the gap between theory and practice, and personalized learningand feedback. All these areas have been tied with learning applications that will get students readyfor the real world.Deepening Conceptual
, including the Integrated Design Engineering Assessment and Learning (IDEALS) project, which seeks to enhance learning and assessment in design. Davis has taught multidisciplinary de- sign that integrates engineering and business development skills. He is a Fellow of the American Society for Engineering Education.Dr. Steven W. Beyerlein, University of Idaho, Moscow Steven Beyerlein is professor of mechanical engineering at the University of Idaho, where he coordinates the capstone design program and regularly participates in ongoing program assessment activities. He re- ceived a Ph.D. in M.E. from Washington State University in 1987. His research interests include catalytic combustion systems, application of educational
described in more detail elsewhere.14AcknowledgementsThe authors are grateful for support provided by the Intel Faculty Fellowship Program and theNational Science Foundation’s Course, Curriculum and Laboratory Improvement Program,under Proof-of-Concept grant DUE-0442832 and Phase 2 grant DUE-0717905. Any opinions,findings, and conclusions or recommendations expressed in this material are those of the authorsand do not necessarily reflect the views of the National Science Foundation.References1. Dutson, A., Todd, R., Magleby, S. & Sorensen, C. (1997). A Review of Literature on Teaching Engineering Design Through Project-Oriented Capstone Courses. J. Eng. Ed., 86, 17-28.2. Koretsky, M.D., Amatore, D., Barnes, C., & Kimura, S
, supplies, services,and other associated community project expenses. PACCE is also a campfire where thoseinvolved with community-based engagement programs can meet to plan and coordinateawareness, advocacy, training, faculty development, assessment, and communications. Finally, itis a portal through which community and campus entities can meet, plan, and coordinateresources for the mutual benefit of each other. PACCE activities shown in Figure 1 allowstudents to engage with their course materials, take an active role in learning, reflect on theirindividual and collective experiences and develop while completing a team project for acommunity partner (9). Capstone Projects Multidisciplinary
integrated into the course. course. 7th Semester 8th Semester Sr. Research I (1 hr) Sr. Research II (3 hrs) Initiate Capstone project. Emphasis is Completion of Capstone project. on project definition, project planning, Emphasis is on tracking and monitoring cost estimating, conceptual and resources, detailed design, fabrication, preliminary design. testing, documentation, and oral presentation. Core and specialty engineering courses Core and specialty engineering courses
] and sometimes distinguishing them is not easy. The project-led education hasbeen very popular in engineering programs since the 1990s [2]. The project-based learning isextensively being used for teaching engineering design through capstone or senior designcourses. This is partly due to requirements of accreditation bodies [2].Considering the fact that teaching and research are two most important functions of highereducation systems, the integration of them has been an attractive idea. However, as reported byHealey [4], there are strong feeling among academicians on relationship between research andteaching. While some believe “university research often detracts from the quality ofteaching”[5], other stated “courses taught by those at the
, Fundamentals of Space Flight Systems, Astronomy, and Sr. Capstone Sequence. He enjoys mentoring undergraduate students in aerospace, sensors, and energy-related research projects. Some of the research areas include spacecraft nano-satellite technologies, satellite payload instrumenta- tion, High Altitude research Platform (HARP) experiments, wave particle interactions in space, space- flight X-ray imagers, construction and renewable energy engineering and architecture, and philosophy of science. Dr. Voss has worked as PI on many NASA, Air Force, Navy, NSF, and DOE research grants and has published over 120 scientific papers. hnvoss@taylor.edu, Phone 765 998 4843 or 765 618 3813Prof. Jeff F Dailey Mr. Jeff Dailey
- based Engineering Redesign of the motorcycle Design Project ambulance for Village25.300 F'11 1 II John Duffy Empowerment in Peru 100% 1 Interdisciplinary Engineering Redesign of the motorcylce Capstone ambulance for Village25.401 F'11 3 Design John Duffy Empowerment in Peru 100% 2Classes in Civil Engineering Groups of 4 worked with science
Novel Collaboration between Engineering and Geosciences to Design a Green Power Station for Field Camp: A Case StudyAbstractOne of the Department of Systems Engineering’s capstone projects was to design a portablesustainable power generation unit to support the Department of Earth Sciences’ Geology FieldCamp. The team of electrical and mechanical engineering students worked with the faculty ofEarth Sciences to develop specifications. The design had to fit within the existing trailer withoutmajor modifications to the trailer. The final design housed the battery pack in a tongue-mountedbox on the trailer with water proof outlets to charge devices. Four solar panels were connectedthrough keyed connectors to the box to work
characterization lab toa new instructor in spring 2008. The communications instructor remained the same in bothinstances.In this paper, a comparison will be made between the course as it existed before and after thecurriculum change.ObjectivesThe primary objective of this course restructure is to broaden the materials processing experienceof materials science and engineering students at Virginia Tech and to better prepare them todesign their senior capstone projects. This paper will outline changes made to the processingcourse and the motivations behind those changes. A detailed discussion of the course structureand assignments will illustrate fundamental differences in the approach as of fall 2008.Approach and MethodologyIn the original physical ceramics
central focus of our program. An eight-semester engineering design course sequence that begins in the first semester of the freshman year and terminates with a two-semester senior capstone design project from the backbone of our curriculum. The first design course introduces students to the engineering design process utilizing a competitive design project. The second semester freshman design course continues the introduction to engineering design concepts with another interactive team-oriented design project. Examples of freshman design projects: design, build , test and analyze the performance of a wooden truss; design, build and test a water balloon launcher, etc
two multidisciplinary service-learning programs: the Access by Design project that has capstone students design devices for people with dis- abilities to participate in adapted physical activity, and Organic Twittering that merges social media with sustainability.Dr. James M. Widmann, California Polytechnic State University Jim Widmann is a professor of mechanical engineering at California Polytechnic State University, San Luis Obispo. He received his Ph.D. in 1994 from Stanford University. Currently, he is a visiting Fulbright scholar at Kathmandu University in Nepal. He teaches mechanics and design courses. He conducts research in the areas of machine design, fluid power control, and engineering
engineering curriculum went through a major curriculum change in2001 that included adding an interdisciplinary sophomore and junior design course to theexisting freshman and senior design capstone courses. The new courses were added as part of aNSF grant entitled “Integrating Engineering Design with the Humanities, Social Sciences,Sciences and Mathematics.” The interdisciplinary sophomore design course has undergoneseveral iterations since its inception. Initially, the sophomore course paralleled our seniorcapstone design course with each project team of 3 to 6 students working on industrial sponsoredproject with a practicing engineer as the technical mentor. This approach has worked extremelywell for our senor design course because of the effort put
Redmine in an Academic Setting Junichi Kanai and Mark Anderson The Design Lab at Rensselaer, Rensselaer Polytechnic InstituteAbstractA web-based collaboration system called Redmine was introduced for use in our capstone designprogram. Many project teams effectively used both the project's wiki, discussion forums, and arepository tool for recording and communicating their design work. The students also learned touse the discussion forums and the issue tool to manage their projects. On the other hand, varioususer statistics obtained from the system allowed the faculty advisors to monitor the frequency ofeach student's contributions and to quickly review the
experiences may be problematic as an abundanceof anecdotal evidence and calls by professional engineering organizations, including ASEE andNAE, suggest that engineers must learn to work effectively with accounting, marketing,communications, and other functional group members within a given organizational structure toattain project success. And while those calls are not new, there are only a handful of documentedundergraduate-level capstone experiences focusing on leadership development that have crossedcollege boundaries in a graded academic course, and thus have a higher level of risk for thestudent versus extra- or co-curricular activities.A survey of engineering alumni in senior management positions identified the ability toeffectively work in