flocculation andsedimentation basin. It was found that some but not all of the desirable characteristics of theexisting project can be mimicked in the new sedimentation design project. Together the existingand new course sections are intended to engage freshman Civil and Environmental students in ahands-on design experience that introduces fundamental engineering analysis concepts whileproviding instruction on computer programming based analysis tools, and provides contentengaging to all Civil and Environmental Engineering majors.Introduction Within the College of Engineering at the University of North Carolina at Charlotte arethree engineering departments (Civil and Environmental, Mechanical Engineering andEngineering Science, Electrical and
. A Research-Rich Environment. Washington, D.C.: Project Kaleidoscope.9 Tobias, Sheila. 1990. They’re Not Dumb, They’re Different: Stalking the Second Tier. Tucson, AZ: ResearchCorporation10 Tobias, Sheila. 1992. Revitalizing Undergraduate Science: Why Some Things Work and Most Don’t. Tucson,AZ: Research Corporation.Biographical InformationJACK L. WAINTRAUB is Professor and Chairman of the Electrical Engineering Technology Department atMiddlesex County College, Edison, NJ. He currently also serves as the Executive Director of NJCATE – a NationalCenter for Advanced Technological Education. He holds a MS in EE from Rutgers University and is a licensedProfessional Engineer. He is also the author of several textbooks in Electrical Engineering
categories might be considered antecedents to other ways of experiencinghuman-centered design. Beginning with Category 3, "User as Information Source Input to LinearProcess," the categories become hierarchically related, wherein each more ‘comprehensive’category includes and builds on the design behaviors and attitudes of preceding categories [2].Figure 1 shows the hierarchical relationship between these categories.Category 7, "Empathic Design," describes the most holistic way of experiencing human-centereddesign [2]. According to Zoltowski et al., empathic design is characterized by a deep connectionbetween the designer and the user that extends "beyond scope of the project" and into a deepcontextual awareness of elements that affect the user (e.g
learning,” Proceedings of the 2012 ASEE Annual Conference & Exposition, Paper ID #5102.21. Sattler, M. L. et al., “Integrating sustainability across the curriculum: engineering sustainable engineers,” Proceedings of the 2012 ASEE Annual Conference & Exposition, Paper ID #4152.22. Pierrakos, O., et al., “An innovative two-year engineering design capstone experience at James Madison University,” Proceedings of the 2013 ASEE Annual Conference & Exposition, Paper ID #7464.23. Watson, M. K., Barrella, E. M., Wall, T. A., Noyes, C. R., and Rodgers, M. O., “Development and application of a sustainable design rubric to evaluate student ability to incorporate sustainability into capstone design projects,” Proceedings
AC 2012-5106: ON INTEGRATING APPROPRIATE TECHNOLOGY RE-SPONSIVE TO COMMUNITY CAPABILITIES: A CASE STUDY FROMHAITIDr. William Joseph Frey, University of Puerto Rico, Mayagez William Frey teaches business, computer, and engineering ethics at the University of Puerto Rico, Mayagez. For several years, he directed the university’s Center for Ethics in the Professions. His interests, besides practical and professional ethics, include moral pedagogy and moral psychology. He is active in the So- ciety for Ethics Across the Curriculum and the Association for Practical and Professional Ethics and has presented and participated in workshops at ASEE since 2000. He is also a Co-investigator on the project Graduate Research and
Paper ID #8895Engineering Technology Pathways: The Food and Foodstuff Supply ChainDr. Chad M Laux, Purdue University, West Lafayette Dr. Chad Laux is an Assistant Professor in the Technology Leadership & Innovation Department at Purdue University in West Lafayette, Indiana. He teaches courses in Six Sigma and Lean Manufacturing. His research interests include Lean Six Sigma, food security, and quality management systems. Chad is a certified Six Sigma Blackbelt from General Electric, Caterpillar, and the American Society for Quality and has 20 years experience and has numerous publications in the quality field. He is an
in this project and to change this culture together.Current status:a. Obtained a shared vision. Because a shared vision is an important foundation for a culture,significant efforts were devoted to obtaining a shared vision of “Engineering with Engineers.”Focusing on how "Engineering with Engineering” could improve undergraduate education unitedthe faculty. Brainstorming produced ideas that led to new curriculum. In the “critical doing” ofdeveloping this new curriculum, faculty examined the current system, identified issues to beaddressed, and built the shared vision. Students’ input on the meaning of “Engineering withEngineers” also was solicited.b. Revised department mission. A department vision day was held for faculty to discuss andupdate
communication. The paper will also discuss activities andstrategies that are used in these technical communication courses. As a result ofthe various strategies used at the Petroleum Institute, the quality of writing in thefinal senior design projects have improved significantly.IntroductionMost universities in the US are multidisciplinary, presenting challenges in the technicalcommunication curriculum[1]. Technical communication programs are addressing thisissue by building partnerships with programs in mechanical engineering and industrialengineering as has been discussed by Wojahn, et al.[2] This paper describes and examinesthe technical and professional communication competency strategies taught at thePetroleum Institute (PI) of Abu Dhabi in the
presented to students are both highly valued andrequired by accrediting organizations such as ABET. According to Paretti et. al, capstone designcourses serve as critical preparation, providing students with confidence to learn new things andstrategies for building new knowledge. The courses provide authentic industry experiencesthrough open-ended projects that place students out of their comfort zone. And requiring studentsto seek and connect with subject matter experts supports this notion. Through capstone design,students assimilate the knowledge they have gained in education, and use skills in a setting thatrequires professional attitudes and behaviors. The faculty teaching capstone design can helpprepare students for this self-directed learning
Session 2625Health (NIOSH) initiated Project SHAPE (Safety and Health Awareness in PreventiveEngineering) to enhance the safety awareness of safety engineering faculty and assist in thedevelopment of course materials for the integration of safety, health, and environmental conceptsin the engineering curricula.One significant problem is how to add additional safety and health related material to an alreadyovercrowded engineering curriculum. In some situations, the University of Utah for example, theBoard of Regents has established a maximum number of credits that can be required for a 7baccalaureate degree in any discipline. It has been proposed by Bloswick that there are
independently.Undergraduate research also serves as an instrument for social change. When STEM educationintersects with social issues, a unique connection to individual’s communities and greater societalconcerns develops. For students, they become catalysts for social change by being empowered to bridgephysical and social sciences (Weinberg et al, 2018). For teachers and mentors, integrating social changeinto education combines inquiry with collaborative-based learning, experiment-based learning, andreal-world based learning to enhance students' knowledge and creativity (Nguyen et al, 2020).National Science Foundation Research Experience for Undergraduates (REUs) is one model of suchprograms. REUs provide undergraduate students with intensive research projects over
significant.In a previous study, the innovation self-efficacy of undergraduate students enrolled in two juniorand senior level environmental engineering courses was found to increase after studentscompleted an activity on designing K-12 STEM projects related to the course outcomes (See fullinstrument in Bolhari and Tillema, 2022). In a follow-on study, it was of interest to evaluate theimpacts of the addition of mentors into the curriculum design activity. Previous research foundthat various forms of mentoring might increase innovation self-efficacy. In co-curricularactivities with communities via the group Design for America (DFA), student teams receivedbrief weekly coaching sessions with professional designers, and interviews identified these
Brian Faulkner faulkne1@rose-hulman.edu Department of Electrical and Computer Engineering Rose-Hulman Institute of TechnologyAbstractProgress through standard mathematics coursework represents a major barrier to engineeringstudent graduation rates. Long prerequisite chains of mathematics courses have high failure rates,and must be passed to enter engineering coursework. This project aimed to investigate themathematical expectations of engineering faculty, particularly the ambiguous quality of“mathematical maturity” seen in some engineering-mathematics education research duringinterviews or workshops. This research aims to create a better understanding of how engineeringfaculty
Institute of Technology. He holds a PhD in Mechanical Engineering from the University of Texas - Austin, an MS in Electrical Engineering from the University of Southern California, and a BS in Electronics and Communication Engineering from India. Dr. Shekhar also holds a Graduate Certificate in Engineering Education from Virginia Tech. Prior to his current appointment, he worked as a Postdoctoral Researcher and Assistant Research Scientist at the University of Michigan. He is the recipient of the 2018 Outstanding Postdoctoral Researcher Award at the University of Michigan; and serves as a PI/Co-PI on multiple projects funded by the National Science Foundation, National Institutes of Health, and Kern Family Foundation. He
program/discipline specific criteria. For decades, technical programsleading to an electrical/electronics technology (ET) or engineering technology (EET) associate’sdegree have tended to follow a cook-book type approach to new curriculum development and/oradoption by focusing on a “parts-centric” approach to the introduction of new technology and the Page 25.1254.2electronic devices that enable it. In fact, the vast majority of these programs, even now, follow afairly standard collection of technical courses1, whose content is oftentimes dictated by the bestselling textbooks on the particular subject matter. To be sure, faculty with industry
in groups based on the Carl Jung’s and Isabel Briggs Myers’personality test results to work in the engineering management course project, were also placedin groups randomly using a lottery system to work on a highway engineering course project(electrical engineering students who took the engineering management course do not have totake the highway engineering course since it is not part of their curriculum). The highwayengineering project involved the design of a two-lane highway using CIVIL 3D, software thatstudents were not very familiar with. The project required five deliverables including the finalsubmission. There was also a competition for the best course project. The winning projectreceived 2% extra at the final course grade. In
presentations, written reporting, graphics, technicaldrawings, and presentation of engineering mathematics and numerical data. How we teachcommunication is also important such as having the appropriate mixture of lectures, activelearning, homework, projects and laboratories. Similarly, a series of progressive reinforcementsover the four year curriculum is ideal.This paper, however, will primarily focus on efforts to determine which design topics should betaught.2.0 Before ABET 2000In 1991, Dixon2 wrote a seminal article discussing the state of engineering design. He suggestedthat we broaden the scope of engineering design to include the entire product realization process(PRP) to include design and manufacturing processes that convert information
by Henderson et al. [31]. From an extensive review of articles on facilitatingchange in STEM education, Henderson et al. indicated four necessary areas of change: sharedvision, reflective faculty, relevant curriculum and pedagogy, and supportive policies. Manyactions were taken, and many changes were made in each of these four areas., Our previous NSFGrantee papers [1]-[5] chronicled the actions we took in these four areas of change. This paperoutlines the audit process used to evaluate our actions and summarizes what we identified as themost impactful actions for further dissemination.Summary of Project Activities: The Beginning of the Audit ProcessTo organize the actions and changes needed for this culture of “Engineering with Engineers
Learning Theory, and Information Technology: A Catalyst forSystemic Engineering Education Reform," National Science Foundation Four Year Grant (#99-72758), College of Engineering,Bucknell University, Lewisburg, PA, October, 1999.[5] Prince, M. J., M. F. Aburdene, B. S. Hoyt, D. C. Hyde, E.J. Mastascusa, et al., “Project Catalyst: Successes and Frustrations ofIntroducing Systemic Change to Engineering Education”, Proceedings of the 2001 ASEE Annual Conference, Albuquerque, NM,June 24-27, 2001[6] Prince, M., , M. Hanyak, B. Hoyt, D. C. Hyde, E.J. Mastascusa, et. al., "A Conceptual Framework for Progressively DevelopingStudents' Team and Problem Solving Skills Across the Curriculum", Proceedings of the 2002 American Society for EngineeringEducation
chemical engineering unit operations laboratory.7Recently, a Design-Build-Test (DBT) approach has been used in undergraduateengineering laboratories.2,8,9 In most DBT projects, students are required to design anarticle, typically small and inexpensive, using design guidelines that include mathematicalcalculations. Allen et al., developed a curriculum in electronic materials that "abandonthe cookbook" approach in favor of a multi-course sequence of open-ended laboratory Page 8.51.2 Proceedings of the 2003 American Society for Engineering Education Annual Conference and Exposition Copyright ©2003
girls. Her research interests include dynamics and system modeling, geometry modeling, project based engineering design, and robotics in manufacturing, artificial intelligent in Manufacturing, and engineering education.Dr. Federica Aveta Federica Aveta received the B.S. and M.S. degrees in Electronic Engineering from La Sapienza University, Rome, Italy, in 2012 and 2016, respectively, and the Ph.D. degree in Electrical and Computer Engineering from the University of Oklahoma (OU), Tulsa, Oklahoma, in 2020. Before joining Wentworth Institute of Technology, Federica has worked as an Optical Engineer where she designed, built, and tested optical fiber lasers for medical applications. She is currently an Assistant
implement sustainability. Students surveyed by Bernstein, et al.9 wereskeptical about their ability to design green products, the receptiveness of industries toincorporate greener materials or manufacturing techniques, and the ability for start-up companiesto afford to spend time on sustainability without government funding. Burian10 also points toanother barrier perceived by students, noting that civil engineering students in a design coursethat had failed to incorporate sustainability into their projects did so because the companies oragencies they interned with did not incorporate sustainability.10 Even in a study of studentstaking an energy and fuel class at the high school level, students lacked the knowledge orconfidence that they as
curriculum? and (3)What are the characteristics of a middleware framework that will allow the inclusion of real-world data sources within the classroom? Currently, we support a total of 1136 sensors from avariety of sources. This dataset contains sensor data of air temperature, water temperature, waterlevel, wind speed, air pressure, precipitation, conductivity, and soil moisture, and is being rapidlyexpanded to support a large universal set of open sensors.Success of this project provides a chance to bring practice-oriented education into engineeringclassrooms. Students will be able to access real-time, real-world sensor data with a single iPhoneapplication. Effective visualization and interface for navigation of sensor data helps
integrated presence inengineering curricula. Nationally, curriculum-wide integrations of engineering design instructionand project work are far from common place and vary in curricular structure. For example, thereare programs, such as the Stanford University Design Program [5] and the Segal Design Instituteat Northwestern [6], that focus strongly on design and enable students to receive a BS or MSdegree or a minor. Although such programs are well-regarded in design instruction, they do notoffer a curriculum with a strong science and engineering science to accompany the strongpresence of design instruction. Engineering programs that have a strong design and engineeringscience presence are also not common and examples of such programs include the
engineering and physics lab classes at various levels in thecurriculum, where students are expected to collect data and write reports. The work includesdevelopment of instructional modules to explore the use and limitations of AI with literaturereviews, processing of collected measurements, and report generation. A variety of thesemodules will be trialed in labs such as mechanical engineering senior experimental methods,instrumentation, automation, and electricity and magnetism. The goal of this project will be tocreate instructional materials for faculty that can in engineering education and more broadly incourses where students work with quantitative data.A critical goal is to establish the AI literacy learning outcomes and framework from which
Chief Technology Officer in the private sector and currently a partner in a small start-up venture. He received his BS degree in electrical engineering (1975) from California State University, Sacramento, and his MS (1980) and DE (1983) degrees in industrial engineering from Texas A&M University. His educa- tion and research interests include project management, innovation and entrepreneurship, and embedded product/system development.Mr. Hassanein Jaleel Radhi, California State University, Fullerton Page 26.533.1 c American Society for Engineering Education, 2015 Development of
finger, hand, and base designFigure 7. 3D printed prosthetic finger, hand, and string-driven bent fingers.Preliminary testing of the 3D printed prosthetic hand demonstrated the grasping function of thedesigned hand. As shown in Figure 7, the fingers of the prosthetic hand were able to becontrolled independently and used to enclose a given object. Even when the object hadcomplicated shapes, the five fingers were able to fully grasp the entity and each finger was ableto bend to various angles. Electrical motors can be installed to the base of prosthetic hand foraccurate control of each finger.Since Spring 2018, the design, 3D printing, and testing of prosthetic hands project has beenoffered both as senior design practicum (capstone project) and
graphics has been at the heart of engineering curriculum. Until recently, in mostschools, it was the only "engineering" course taught in the freshmen year. Traditionally, thecourse has been structured around the orthographic projections. Along with the evolution ofcomputers, the course content moved from pure manual drawing to a combination of manualdrawing and computer aided drawing using 2D CAD packages, such as AutoCAD. This shiftfrom manual drawing to 2D CAD packages was relatively minor, in academic terms, asunderlying philosophy, i.e. the orthographic projections, is the same. Students learned a few newtechniques such as pattern and mirror. These techniques accelerated the drawing process andhave NOT changed the design process. Note that
Paper ID #17215Introducing High-Performance Computing to Undergraduate StudentsDr. Suxia Cui, Prairie View A&M University Suxia Cui is an associate professor in the Department of Electrical and Computer Engineering at Prairie View A&M University (PVAMU). She joined PVAMU right after she obtained her Ph.D. degree in Com- puter Engineering from Mississippi State University in 2003. Her research interests include image and video processing, data compression, wavelets, computer vision, remote sensing, and computing educa- tion. Her projects are currently funded by NSF, United States Department of Agriculture, and
preparethemselves for transition to professional practice [4, 9-10]. It is an ABET accreditation requirementwithin AE Programs that graduates have a synthesis level of knowledge in one of the fourtraditional AE disciplines (HVAC, Lighting/Electrical, Construction, or Structural), withappropriate levels of application and comprehension of the remaining three disciplines [7].Capstones provide excellent mechanisms for assessing student knowledge, and in developing newleaders amongst graduating students in these areas [7, 11].Presently, there exist 25 ABET accredited Architectural Engineering programs in the United Statesand a total of 30 worldwide [12]. These programs can vary greatly in their curriculum structureand focus, but they all share the goal of