internal functional components, and using two-semester design-and-build project, engineering majors have designed and tested the enclosure.2. Benefits of a Design-and-Build ProjectDesign-and-build projects are employed by several faculty to provide students with problem-based learning opportunities. These projects afford students the opportunity to use engineeringskills learned in the classroom, acquire new engineering skills based on the project, and honetheir communication and teamwork skills [1]. These projects have most impact when theapplications are highly practical and have a real customer [2].From a more technical perspective, design-and-build projects require students to improveproblem definition, develop and evaluate conceptual solutions
and proposals for further support,student entrepreneurial teams gather, evaluate and interpret both technical and marketinformation using processes that surprisingly resemble those that engineering faculty must nowlearn to assess the state of existing engineering programs and plan for continuous improvementunder ABET EC2000. Both sets of tasks involve conceptual integration at a higher level thanis usual in undergraduate engineering education, but is more commonly practiced in the liberalarts.1. Product Development as Design InstructionProviding authentic instruction and experience in design-based engineering entrepreneurship isalways a challenge. Set-piece design innovation problems may be new to individual students,but they cannot
Paper ID #49661Proof of Concept: Offshore Workforce Development Using YouTube MethodsDr. Heidar A Malki, University of Houston - COE Heidar A. Malki is currently a Professor and chair of Engineering Technology Department at the College of Technology. He also has a joint appointment with Electrical and Computer Engineering Department at UH. He holds a PhD. degree in Electrical Engineeri ©American Society for Engineering Education, 2025 1 Session: Enhancing the Student Experience Proof of
design, design thinking, and design innovation courses. Dr. Lande researches how technical and non-technical people learn and apply design thinking and making processes to their work. He is interested in the intersection of designerly epistemic identities and vocational path- ways. Dr. Lande received his B.S. in Engineering (Product Design), M.A. in Education (Learning, Design and Technology) and Ph.D. in Mechanical Engineering (Design Education) from Stanford University. American c Society for Engineering Education, 2021 Investigating How Mechanical Engineering Students Design and Make the Now and the
Session 2649 MicroStation® Applications for Highway and Transportation Structures Design as Part of the Software Series in Civil Engineering Technology Independent Learning Program at Fairmont State College Thomas Nicholas II, Fairmont State College Anthony L. Brizendine, University of North Carolina at Charlotte Ted Stilgenbauer, Fairmont State CollegeAbstractThe authors developed a series of computer aided drawing instructional modules utilizingMicroStation® software as part of the Software Series in Civil Engineering
effectiveness of cyber attacks continue to grow and show no signs of abating.At the center of this cyber epidemic are college students whom rely on their computing andcommunication devices and the Internet more than any previous generation for their educational,social, and entertainment needs. Yet these same students have little knowledge of the threatsthey face, the potential short-term and long-term consequences of their actions and the context tomake informed security decisions.The objective of this paper is to describe our approach to practical computer security educationfor students of non-computer disciplines at the university level. Our primary objective is not todelve into the technical workings of computer security, but instead bring security
. The Chem-E-Car competition is a powerful tool to enhance technical writing skills,provide engineering analysis opportunities [1], and apply team management skills. Since itsbeginning in 1999, the Chem-E-Car Competition has evolved as the major attraction at theregional, national, and international American Institute of Chemical Engineers (AIChE) studentconferences [2]. The basic principle of the competition is that each team has to design a car thatwill carry up to 500 mL of water and travel a specified distance (up to 100 feet). Teams arenotified of the water weight and travel distance one hour prior to the competition. A chemicalreaction must be used to propel the car, and no mechanical mechanisms may be used to stop thecar. The components
Session 1668 Animation Programming with QuickBASIC to Aid the Teaching of Kinematics Ing-Chang Jong, Stanley N. Onggowijaya University of Arkansas AbstractAnimation of mechanical systems is an effective means to enhance the learning of dynamics.Nevertheless, when the available software lacks the flexibility to animate a desired specific task,such as the generation of the locus of the velocity center of the coupler link of a four-bar linkagemechanism, what
75 minutes session at the AVC (see Fig. 1. Students observing the visualization of EM-Fig. 1). This is complemented with an wave propagation inside a coaxial cable.introductory lecture recording that needs tobe seen before arriving to the AVC lecture. The audience present at the lecture can use polarizedlenses to fully enjoy these animations just as if they were observing a movie in a 3D-capabletheater. This tool aims to allow students to comprehend more fully how electromagnetic fieldsare distributed in space, the physical and mathematical meaning of vector operations, and theirimportance as a base knowledge for any electrical engineer.In this paper, the 3D visualizations that are presented to the students are on a
. Eachlaboratory module will be built upon a physical system that involves integration of severalsubsystems as summarized in Table 2. Table 1: Brief Description of Target Courses Course Description EET 3180 - Operational amplifier; adder, comparator, integrator and Analog differentiator circuits; single and multiple input amplifier; mixer; Electronics low-pass, high-pass and band-pass filters; signal generators EET 3300 - Frequency and impulse responses, Fourier Transform, spectrum Applied Signal analysis, Signal to Noise Ratio, A/D and D/A conversions, sampling Processing theorem, filtering and
, or processes). The also believe that engineers problem solve and managepeople and/or projects. It is interesting to note that students generally answered the question with Page 7.1310.5 "Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education"a concept rather than a specific task. There were a host of miscellaneous reasons, but very fewhad reoccurring responses. Of these miscellaneous non-reoccurring responses, many were related Table 1. Students’ desired profession Table 2. Student
Ph.D. students tocomplete a Teaching Practicum course during their doctoral studies. Students work closely withfaculty mentors in teaching a course. While the focus of the class is on pedagogy, the goal is forstudents to find the experience useful regardless of whether they are going into academia,industry, a research laboratory, or other career pursuits. In addition to issues dealing withteaching engineering, sessions are organized for career planning, success in both academia andindustry, ethics, and basic counseling and mentoring skills. This paper is a study of theeffectiveness of the Teaching Practicum experience. Survey responses are analyzed from nearly100 Ph.D. alumni for the period from the summer of 1996 to the spring of 2009. The
, which is shown in Appendix B. A bar chart was generated based on likert scale and this is shown in Appendix C.Data Analysis Referring to the bar chart, one can draw certain conclusions and make thesefollowing important observations. It is interesting to note that none of the characteristics observed secured themaximum possible likert scale score of 5. We should also observe that none of thecharacteristics studied secured the minimum possible likert scale score of 1. Five characteristics have recorded an acceptable score of 4 on Likert Scale,indicating that there is enough of room for improvement. These characteristics are: • Reduce dependence on lectures
demonstrate to the TAs how to workwith students in a lab session. We give general advice, we demonstrate how to ask leadingquestions, and we direct the TAs to useful resources, just as we want them to do with theundergraduate students.On Fridays, we conduct grading / norming sessions during which TAs will grade student labreports under the supervision of the technical instructor and the writing instructor. In thesesessions, TAs are expected to provide scores and feedback that will be consistent across thedozen + sections of our course. More important, by constraining the grading time, we expect toconcentrate our grading and commentary on the thinking-related components of the studentreports, in contrast to the format-driven commentary that is
minor in AppliedPhysics (in addition to the traditional minor in Physics). Students are allowed to count theirintroductory General Education courses towards the Applied Physics minor, and approximatelyhalf of the students enrolled in the course choose that option. The PNM course was designed to build upon the foundation laid in the first-levelintroductory physics course. The content of the PNM course includes: ≠ Waves & Sound, ≠ Electricity & Magnetism, ≠ Light, Color, & Optics, and ≠ Modern Physics.The PNM course was developed through the use of current research in physics and engineeringeducation. As a result, the course is taught using an integrated lab-lecture approach. Duringthese activity-oriented sessions
experience throughout the program and to develop a senseof community within the School of Engineering. The competition itself requires students towork in teams to design and build a device to launch a small projectile at a target. Teams arejudged on demonstrated accuracy, cost, weight of materials and disposal plan, and level ofcollaboration. In this way the competition incorporates the technical, economic, environmental,and societal criteria of our sustainable design philosophy.Motivation for CompetitionNumerous design competitions exist for engineering students or prospective engineeringstudents. Design competitions are often considered a means to generate a level of enthusiasm foracademic material not typically observed in the classroom and can
increased when students have easyaccess to the learning management system.While our literature review provided us with general guidance on developing online courses, wefound no studies discussing online courses for Ph.D. students. We were particularly interested inPh.D. level courses that require reading, analysis, discussion, and writing with feedback.We hoped to answer three questions ourselves: (1) Given the Ph.D.’s students’ high levels ofmotivation, what kind of environment would foster their engagement in online courses? (2)How can an institution best support faculty members for designing, developing, and deliveringthis kind of course? (3) What are the students’ experiences in these courses?Developing Online Courses for the Graduate
Paper ID #12418Team CARE model: Assessing team dynamics in first-year engineering stu-dent teamsMs. Nicole Lynn Larson, University of Calgary Nicole is completing her final year of her Masters in Industrial Organizational psychology at the Univer- sity of Calgary under the supervision of Dr. Thomas O’Neill. Nicole has been working with the Schulich School of Engineering for the past two years. During this period she has been involved in several initia- tives such as assessing student learning and engagement, implementing systems for peer evaluations, and leading teamwork training sessions. She is currently conducting
with regard to what may beconsidered best practices for IM usage. In the previous fall semester of CE300, 13 of 15 studentsin an IM section—in which the instructor used IM and carefully documented IM usage andstudent performance—chose to initiate at least one IM session with the instructor over the courseof a 40-lesson semester. 1 All but two of the sessions involved requests for assistance on assignedhomework problem sets, and 90% occurred outside of normal office hours—in the evening andwithin 48 hours of a homework due date.1 These data suggest that most of the students werewilling to initiate a conversation with the instructor via IM, and that the times they will seek outassistance via IM can be predicted from the course assignment
developed the focus became howcan we add value in a novel way to our program? It is oftenobserved that technical graduate education rarely includes anyexposure to the concept of leadership. As the careers of scientistsand engineers progress they increasingly find themselves in Page 11.959.3leadership position. Such positions are frequently critical to thehealth and wellbeing of an organization and having people with noprior leadership training in these positions can result in less thanoptimal outcomes for both the scientist/engineer and theorganization in general. Providing young scientists/engineers withtraining in this critical area clearly in needed. Other models such asthe
Session 1313 Lessons with LEGO® - Engaging Students in Chemical Engineering Courses Keith L. Levien, Willie E.(Skip) Rochefort Oregon State University "How can we generate more enthusiasm and improve the team skills of our studentsthrough incorporating hands-on experiences in chemical engineering based projects?" This isthe question we have tried to address at Oregon State University by initiating projects whichinvolve the popular LEGO® building system. This was initially motivated by the realizationthat the robotics line of these kits could
Greenwich Orientation Excursion toSaturday Market Day Travel Weekend South Bank Final Project Bath/StonehengeSunday London Tour British 10K Travel Weekend Free Day Final ProjectFigure 5 – Example ScheduleEvery five years, students in the Professional Writing Program (PWP) program interviewprofessionals about their workplace communication. Although not all the survey and interviewquestions were used for the site visits, the following 9 questions 7 were used as the starting pointfor the question and answer sessions: 1. Are oral and written
to obtain internships or paid work experiences with engineering firms. Thestudents often find these experiences extremely enjoyable, especially when they areencouraged to apply their technical skills to a current real-world problem. Are there anycorresponding experiences that can be offered to these same students to show them theexcitement of graduate school? Perhaps if a student has the opportunity to performchallenging undergraduate research, that student’s appetite for graduate studies and acareer in research will be whet. More generally, experience suggests that undergraduateresearch improves the quality of the education for the vast majority of the students whoparticipate regardless of what type of career they ultimately pursue.Both
andcommunication [1]. Technologies such as computer-aided manufacturing hold much promise foreducating and training a workforce for the new millenium. In the 21st century, Americancompetitiveness and worker prosperity will be tied to the education and skill attainment of theworkforce [2]. Future workers will need to update their knowledge and skills continuously.Dynamic partnerships and collaborations are essential to ensure that all Americans haveaffordable and convenient access to acquiring the knowledge necessary for the 21st centuryeconomy. The economic health of the Nation and the individual well being rest on the success ofthis team effort
Engineers locally. Engineers (typically with aBSME), who participate in GEAE's internal "A-course" program, are admitted to our mastersprograms (either MS or MEng) with credit for 2 of the 10 course credits required. Typically,MEng projects count for 1 course credit while MS projects vary from 2 -3 course creditsdepending upon work scope (see Table 2). The GEAE-Tufts partnership is also interesting froman historical perspective given that General Electric was the largest participant in the oldapprentice program. The second interaction arena is our Industrial Advisory Council (IAC) with membersfrom several companies and the US government. This group was convened in the early 1990's toadvise our manufacturing engineering activities
; Margo Donlin, PhDc1,2; Kelsey Neal, PhDc1,2 Sarah I. Rooney, PhD1; Judson Wagner, EdD3; Laurie Dearolf, PhD2 M. Gail Headley5; Amy E. Trauth, PhD1,2,4,5; Jenni M. Buckley, PhD1,2,4,5 1 University of Delaware, College of Engineering 2 The Perry Initiative 3 Brandywine School District 4 New Castle County Vo-Technical School District 5 University of Delaware, College of Education and Human DevelopmentIntroductionBiomechanics is uniquely positioned to serve as a gateway for recruitment and retention ofdiverse engineering talent for
I . Session 2260 A Doctoral Program offered by the University of Wales and Penn State Great Valley : An essay in International Collaborations. David W. Russell The Pennsylvania State UniversityABSTRACT This essay details the establishment and progress of an innovative part-time doctoral program thatis available to engineering students at Penn State Great Valley, which is the graduate center for Penn Statein the
counting for uranium andreactor health physics.Radioactive Waste ManagementThe subjects covered in radioactive waste management include: an overview of thenuclear fuel cycle and power generation, first order decay and nuclear reactions, radiationsources, exposures, health effects of radiation, low-level waste management, spent fuelmanagement high-level waste management, TRU waste management, uranium milltailings management, mixed waste management, disposal of radioactive waste forms,environmental restoration, isotopes in everyday life, transportation, and decommissioningand decontamination.Nuclear Fuel CycleA survey of the nuclear fuel cycle, including resource acquisition, fuel enrichment andfabrication, spent fuel reprocessing and repository
and health education. Other student projects are in the disciplines of agriculturaldevelopment, social work, literacy studies, conservation and ecology, international economics,and education and health professions. The objectives of the course are to immerse students inthe issues and practical realities of living and working in a different culture, specifically in adeveloping country, and to make a significant positive contribution to the development of aspecific community.The spring course, team-taught by faculty from all the disciplines involved, is a 3 hour upperlevel humanities course; the summer session in Belize for engineering students will count as a 3hour engineering technical elective and an additional 3 hour humanities elective
-linesimulations and web-based computer laboratories. J-DSP is based on an object-orientedprogramming environment that enables students to establish and run DSP simulations onthe internet. The initial version of J-DSP has been developed in the ASU MIDL lab andtested in a senior-level Electrical Engineering Digital Signal Processing (DSP) course(EEE 407). The J-DSP Version 1 (CD-ROM ISBN 0-9724984-0-0) is approximately42,000 lines of Java code. Papers on J-DSP addressing several DSP related areas havebeen published previously in archival conference proceedings and journals [1-15].This paper presents sponsored work aimed at developing, disseminating, and assessingseveral new J-DSP capabilities. The project involves five universities and includessignificant