departments. Lunch isthen provided followed by the afternoon session consisting of the oral presentations. All areinvited to this session as well, but it is generally attended by other senior students, faculty, andloved ones of the students.Poster SessionDuring the poster session each student or team is given an appropriate space to allow for a demoof their project and an easel for the poster. The length of the poster session is dependent uponthe number of capstone projects, but enough time is allotted so that the judges may spend at least20 minutes with each project. Students are expected to stay next to their poster the entire postersession and provide a demonstration and answer questions to anyone who visits their area.Typically there are three
Paper ID #15703Integrating Sustainability Grand Challenges and Experiential Learning intoEngineering Curricula: Years 1 through 3Dr. Claire L. A. Dancz, Clemson University Claire L. A. Dancz is a Postdoctoral Research Fellow in Civil Engineering and online active experiential learning and assessment with Clemson Online at Clemson University. Dr. Dancz received her B.S. in Environmental Microbiology and Biology from Michigan State University, her M.S. in Civil Engineering from University of Pittsburgh, and Ph.D. in Sustainable Engineering from Arizona State University. Her areas of research include modular, course, and
design and construction process,ranging from excavation to material choice to various building systems. CEE 507 focuses oninfrastructure systems from the technical and environmental perspectives and examines theinterdependences between these infrastructures.III. Motivation and Vision:Introductory courses tend to be required for lower-division students and these courses act asprerequisites for upper-division courses that tend to be more discipline-specific and thus, may bemore engaging for students. Introductory courses provide fundamental information andknowledge needed for upper-division courses. This framework continues throughout anacademic course map, forming a linear advancement. Figure 1 shows this progression
Paper ID #14439Revamping Robotics Education via University, Community College and In-dustry Partnership - Year 1 Project ProgressProf. Aleksandr Sergeyev, Michigan Technological University Aleksandr Sergeyev is currently an Associate Professor in the Electrical Engineering Technology program in the School of Technology at Michigan Technological University. Dr. Aleksandr Sergeyev earned his bachelor degree in Electrical Engineering at Moscow University of Electronics and Automation in 1995. He obtained the Master degree in Physics from Michigan Technological University in 2004 and the PhD degree in Electrical Engineering
brief paper depicts a current snapshot of an ongoing investigation that probes how studentsreconcile social and technical forms of identity in engineering education. While the detailedresults are represented in other publications, this paper highlights the study in its current form inorder to describe what will be presented at the poster session that corresponds to this paper. Theoutcomes of this ongoing investigation will be relevant for engineering educators who arefocused on sharpening the social and technical competencies of their students. As we inengineering education seek to develop engineers that competently navigate a sociotechnicalpractice, this study provides a detailed snapshot of how social and technical perspectives ofengineering
aretechnical standards, the important role they have for the global economy and what benefitsstudents could have by using standards. To reach these goals, it was necessary that the workshopprovide a general introduction to standards and provide a forum to allow interaction betweenfaculty, students, staff and standards personnel. In order to represent the extensive impact thattechnical standards have on a wide range of industries, it was necessary that a variety of differentstandards bodies and faculty from various disciplines be represented. This wide representationwas necessary to maximize the reach to students of different engineering disciplines.Consequently, the workshop was organized as two panels sessions, each including time forquestions and
arerequired to take the course for their degree, while a handful of students take the course as anelective (3 Chemistry, 1 Electrical Engineering/Physics.)The format of the course is a flipped learning model, in which the students are given 4 to 6 5-minute instructor-generated videos on the lecture content before class. Although alignedtextbook readings are also noted for those that prefer that method of preparation, the vastmajority of students self-report that they only watch the videos to prepare for lecture. For thefirst 5-10 min of each 65 min class period, the students are quizzed, first, individually and, then,in groups on their ability to remember and understand of the content of the videos. This is meantto test the lowest levels of Bloom’s
theoretical background and technical details aboutthe assigned homework problems, knowledge beyond the original context of the problems, andalternative approaches to solve the problems. In this study, we investigated the effect of thesupervised homework sessions on students’ homework and exam scores. We found that thesupervised homework sessions had the most influence on the homework scores of the studentswith low native ability. Also, as the byproduct of the study, we investigated the effect of theScholastic Aptitude Test (SAT)-Math scores on students’ academic performance. We found thatthe SAT-Math score was not correlated with the exam score. In order for us to rigorously studythe effect of student attributes (independent variables) on the
science andengineering books. At this time, few library schools offered courses in technical information andreference work. One exception was the University of Illinois, which provided fourth-yearstudents in the library science program with an introduction to engineering literature through aseries of lectures given by the heads of engineering departments.15Professor Burgess also acknowledged that engineers lacked the perspective to recommend booksthat were appropriate for the general public. He proposed that SPEE should form a committee toprepare, in cooperation with “some of the leading librarians,” a list of recommended books forlibraries.The paper and following discussion made such an impression that the members presentimmediately approved a
channels.Through collaboration among the three participating institutions (Wright State University, MiamiUniversity (a mostly undergraduate serving institution), and Central State University (anHBCU)), the developed SDR based general modulation/demodulation platform will be integratedin undergraduate curricula of all three institutions. 1. IntroductionNeed and Motivation: We are living in a world of wireless communication and networking.More than 90% of the US population use wireless services such as cell phones and WiFi everyday [1][2]. Communication and networking has become an integral part of the ElectricalEngineering, Computer Science, and Computer Engineering curricula. Additionally, thisexplosion of wireless technology poses a new promising
(Jan 1, 2015 – Dec 31, 2018) with the goals of producing significant improvements infreshman and sophomore retention rates in Chemistry, Computer Science, Engineering,Engineering Technology, Mathematics and Physics and increasing the number of female,Hispanic and African American students completing undergraduate degrees in these STEMfields.The funded NSF - IUSE project comprises the following strategies and supporting activities:1. Improve instruction by (a) establishing a STEM education active learning faculty summerinstitute and quarterly brown bag and (b) redesigning introductory CS courses.2. Establish early and motivating field-of-study and career explorations for students through a)Summer Orientation Sessions for first-year STEM
Paper ID #15257Dedicated Curriculum, Space and Faculty: M.Eng. in Technical Entrepreneur-shipDr. Michael S. Lehman, Lehigh University One will find Michael S. Lehman at the intersection of entrepreneurship, science, and higher education. Dr. Lehman is a Professor of Practice at Lehigh University, co-developing and teaching in the Master’s of Engineering in Technical Entrepreneurship, which received national recognition for its role in talent de- velopment by the University Economic Development Association. The faculty appointment also includes roles with Lehigh’s Baker Institute for Creativity, Innovation and
and non-business courses. c American Society for Engineering Education, 2016 Generating Start-up Relevance in Capstone Projects1. IntroductionAccreditation Board for Engineering and Technology (ABET) requires students to complete acapstone design experience that prepares them for engineering practice through team-basedprojects incorporating the knowledge and skills acquired in earlier course work [1]- [4].While capstone course pedagogy differs widely from one program to another, in all cases,students are expected, through the process of completing the capstone project, to understanddesign constraints, such as economic factors, safety, reliability, ethics, and social impact. Inaddition, students are
Paper ID #17540Preparing globally competent and competitive STEM workforce of the 21stcentury in the Global STEM Classroom RDr. Vitaliy Popov, 1. University of San Diego. 2. The Global STEM Education Center Vitaliy Popov is a Post-Doctoral Research Scholar at the Mobile Technology Learning Center, University of San Diego, USA. In addition, Dr. Popov is a consultant at the Global STEM Education Center. For his PhD dissertation, he designed and implemented studies in which over 500 students from more than 55 countries worked together with the help of online collaborative technologies. As a postdoc he is currently conducting a
-off of not being able toanalyze large sections of the data, but a small slice. We are hoping that the thin slice of datawould be complemented by the thick analysis that we present.AnalysisOur selected segment for analysis comes from the second focus group meeting. This was the firsttime that they were meeting to discuss a concrete socio-technical case study on wastemanagement in Delhi and the conflict between informal waste workers and companiesincentivized under the Clean Development Mechanism of the Kyoto Protocol. On the first focusgroup session (the week before), the conversation had focused on getting the group members toknow each other a bit more, setting ground rules, and exploring potential topics to discuss atlength. As the
simulations influence the design of sustain- able built environments. Prior to joining the faculty at Syracuse, Bess was a HASS Fellow at Rensselaer Polytechnic Institute’s Center for Architecture Science and Ecology (CASE), where she received her Ph.D. in Architectural Sciences. She has practiced with Lubrano Ciavarra Architects and with Skidmore, Owings, & Merrill (SOM) on the design of international projects that integrate next-generation building technologies. Bess teaches technical and design courses focused on the integration of building systems, environmental data, and user feedback loops into design processes. She leads the Interactive Design and Visualization Lab at the Syracuse Center of Excellence (COE
. Her other interests include reading, photography, cooking, sewing, and various writing projects.Prof. Tonya Troka, Colorado Technical University Tonya Troka, with more than 10 years of experience working with online students, has been a leader of the adaptive learning implementation project since its initial launch in October 2012. As the University Program Director for General Education/Psychology, she works directly with the general education cur- riculum that was used to integrate the adaptive learning technology into the classroom. Troka has also provided insight into using the technology in the classroom and how success should be measured.Prof. John M. Santiago Jr., Colorado Technical University Professor John
use an existing product or component to function differently in a newconcept. For example, an engineer could take an existing mechanism like a bicycle and apply itas a power source for a generator. This one Design Heuristic can be applied repeatedly togenerate other concepts (e.g., using a water bottle to squirt water and turn a wheel). Other DesignHeuristics (e.g. ‘Change direction of access’) can be added and combined (placing the pedals inthe air with the rider beneath) to produce a variety of novel ideas. The many prompts available inthe 77 Design Heuristics ensure a large supply of possible directions to pursue.This set of Design Heuristics were identified in empirical studies including 1) behavioral studiesof student and expert
2 summarizes the results of the scoring exercise. For entries with twonumbers, the first number is the number of 3 scores (Definitely) and the second number is thenumber of 2 scores (Partially). Table 2: Ideation Results of Ideation Experiment Ideation Results Group A Group B Session Criteria (# of 3 Scores / # of 2 Scores) Total Ideas Generated 83 71 Novel Ideas (47 / 26) (29 / 31) Day 1
is a statically determinate structure. Hence the bridge required few simplifyingassumptions for the students to understand its structural behavior and allowed them to explorethe influence of different design changes such as increasing the number of cables, using adifferent cable arrangement, inclining the tower, and altering the tower configuration.Figure 1. Sabrina Footbridge in perspective. Photograph courtesy of Philip Halling2.The course learning objectives associated with this project combined three forms of language:words, graphics, and mathematics3 and focused on emphasizing critical design skills such asproblem scoping4, brainstorming, sketching5, generating and evaluating design alternatives, andcritique6. The specific learning
Agilent 33210Afunction generators such that all teams could design and debug their C code without waiting touse test facilities or risking the mess of a mineral oil spill. The LabVIEW VI block diagram ofthe HIL fluid level probe simulator is shown in Appendix A.Objectives and OutcomesThe pertinent objectives of the third-year course that are covered by this project are as follows: 1. Implement computer data acquisition systems to collect data. 2. Apply engineering principles to design a measurement system, given performance specifications. 3. Write clear and effective technical reports and product specifications.The effectiveness of the course to cover these objectives is easily measureable from the writtenspecification
University in 1986. In 1984, he joined General Electric (GE) Company, AESD, as a design engineer. In 1988, he joined the faculty at Penn State Erie, The Behrend College. In 2007, he became the Chair of the Electrical and Computer Engineering Technology Program. His research interests include wireless sensor networks, data acquisition systems, and communications systems. c American Society for Engineering Education, 2016 Programmable System-On-Chip (PSoC) Usage in an Engineering Technology ProgramAbstractPart of the requirements for courses in an Electrical and Computer Engineering Technology(ECET) program includes the ability to design, analyze and debug electrical
, and performance.Project 1 was designed to make progress toward achieving the course goals in the followingareas: Technical area goals: (1. Structure, properties, performance connections; 9. Materials Science Body of Knowledge - Topics a, b, c, and e (details given in Table 1) Professional skills goals: (3. Environmental and societal context; 4. Information literacy; 5. Teamwork; 6. Communication; 7. Lifelong Learning; 8. Creativity)Some examples of consumer products that the students chose to work on included a toy Nerfgun, a calculator, a water bottle, a bicycle lock, a flashlight, a mechanical pencil, a cigar caddy, apocket knife, a fishing lure, and a stapler. The learning activities were designed to
,minority and lower socioeconomic status students do not typically participate in and or considerstudy abroad programs. Studying abroad is still viewed as something restricted to white affluent,upper or middle class students. It is also more associated with class and gender and being morefemales than males [1], [6]. Data has shown the minorities, students receiving federal aid, andfirst generations students are less likely to participate in study abroad programs [6]. This canbecome a hindrance when completing for jobs both stateside and abroad [3]. These populationsare underrepresented in study abroad program when compared to their relative populations attheir home institutions [1], [7], [8]. Minorities accounted for 37% of enrollment in
and the creative role of patents in today’s engineering and design education. Asthe philosopher of science, Thomas Kuhn, once stated, “Traditional engineering curriculumcreates people who are efficient researchers and highly productive, but this approach does notencourage creativity or innovation” [1] Teaching novel problem solving is challenging,especially with students who lack real world experience in engineering practices, or creativedesign. Focusing on design in engineering education is an opportunity to encourage creativityand technical innovation arising from an engineering discipline.While Kuhn’s comment is still relevant some 20 years later, this educational philosophy hasevolved. Contemporary engineering education is addressing this
innovation.Course content. Fis-Mat content covers (at least) all of the topics from a Physics 1 course and aMathematics 1 course for engineering students. Fis-Mat uses the physics curriculum as itsbackbone, with mathematics providing support for idea-building and operations. Themathematics concepts and procedures are studied from an application perspective.Figure 3. Concept map of connecting ideas of the first course of the integrated Physics andMathematics curricular sequence.Teaching strategies. A Physics professor and a Mathematics professor attend all the sessions ofthe course to teach what is needed when it is needed. Professors’ collaboration outside and insideof the classroom is fundamental for an almost seamless integration of the physics
research is developed to focus, guide and walkthrough a combination of Industrial practices and design phases of mechatronics technology. Thedesign of filling machinery basically begins with the container to be filled with the liquid productto be used. As this research is based on a Laboratory environment, so the liquid products areactually not involved here. The integrated machine was built based on a very general liquid likedrinking soda or water. Type Boston Round Diameter 1.75” Height 4.5” Table 1: Container Dimension and Specification Figure 1: Container used in the researchThis information about the container is the first step to begin the machine design. Depending onthis, the
GraphsIntroductionIn a previous publication we presented an argument that by organizing student learning outcomesand course objectives around the principle of the operational definition of technical terms that theassessment of student learning can in some ways be simplified. By operational definition wemean that students are describing a process, or operation, to give meaning to technical terms. Forexample we can give an operational meaning to “derivative”, by describing the followingoperation: drawing tangent lines on a position versus time graph at regular intervals of time,examine the slope of each tangent line segment and ask if it is positive or negative, and large orsmall, plot the value of the slopes of the tangent lines and generate a velocity versus
) country pre-visit overviews; and 5) skills for independent travel abroad.During the month of May, RSAP participants embark on a two week in-country experiencethroughout Italy, Switzerland, Germany and France. To broaden their knowledge of engineeringwith an added international perspective, students participate in a diverse array of technical visits,lectures, and tours. These experiences were intentionally chosen to demonstrate a broad base ofengineering industries (e.g., automotive, food processing, robotic, etc.) in other countries andcultural experiences in each country destination. The visits were also chosen to align with thefive course objectives:Immediately after the RSAP experience, student participants will be able to: 1. Define 'global
insoluble and not dividedat the molecular level. The particles are on the order of 20-50 microns in size.A useful comparison to make in class is to compare a solution and a colloid. These comparisonsare rarely made in general chemistry or materials courses, but important because students oftenmisuse the term solution. Students could be given the column and row headings and complete theelements of the table either individually, in small groups or as a large group classroomdiscussion. Table 1: Comparison of Colloids and Solutions Colloid Solution Phases Involved (solid, solid in solid; solid in liquid, solid in liquid, liquid in liquid, gas