underrepresented groups into the Humanitarian Engineeringprogram. We believe that the emphasis on humanitarian engineering will prove to beparticularly effective in drawing women and minority students to engineering, andthereby promote campus diversity. We also expect it to be attractive to a broad spectrumof engineering students.We will focus on our existing strengths – in energy systems, geotechnical andgeoenvironmental engineering, remote sensing, signal processing, and image processing,and new technologies for “sustainable Engineering,” and in emerging engineering Page 8.647.1disciplines including, bioengineering, information systems, and micro-nano
range from 300 to 1200.Microsoft® Windows and Access LicensingWindows98Microsoft® Windows 98 operating system can make your computer work and play better thanever before. It works better by making it simple to access the Internet, and by providing bettersystem performance along with less maintenance. Your computer will increase in performanceand reliability with faster application open and close times. Windows98 also takes advantage ofthe newly emerging hardware technologies such as USB, DVD, multiple monitors, and WebTV.With the purchase of windows there is a single user license included with the package. For fourlicenses, buying the four copies separately will be in the client’s best interest, as it will cost less.Access2000Microsoft
looking at ways to increase diversity among science,technology, engineering, and math (STEM) faculty, little has been done to increase therepresentation of faculty with disabilities. Moreover, despite recent attention to increasing theparticipation of students with disabilities in STEM education, this work has rarely been extendedto include faculty with disabilities. This paper describes efforts taken by AccessADVANCE, apartnership between two institutions, to influence institutional change to increase theparticipation of women with disabilities among STEM faculty. Faculty and student successes areinterrelated; the goal of AccessADVANCE is to identify effective interventions for systematicallyaddressing issues impacting the career advancement and
a key skill in engineering. With the rising complexity and magnitude of thechallenges engineers handle, teamwork has become increasingly important. This is reflected inthe Accreditation Board for Engineering and Technology accreditation student outcome criteria3.5, which specifically highlights an ability to effectively function on teams. Engineeringeducation literature further demonstrates the importance and the responsibility of facultyinvolvement in the development of effective teamwork. To assess teamwork functionality,instructors can distribute a survey among teams for team members to provide feedback abouteach other. This kind of feedback is helpful not only for that specific team and class but also foridentifying broader, systematic
work qualitatively examines how youth narrate their engineering selves, and how they come to know and do engineering design. Her work sits predominately in ”everyday” and informal spaces, though she has designed engineering design curricula for formal high school settings. Situating this work socioculturally, she aims to challenge the exclusionary history of engineering and reimagine engineering spaces truly as inclusive and diverse. American c Society for Engineering Education, 2021 Burning bridges: Considerations from a structure-agency perspective for developing inclusive pre-college engineering programming (Work-in
generate specialized courses tied to traditional and emerging energy systems, includingrenewable energy systems as well as energy resource management. Given the ubiquity of energy-focused courses on a college campus, it is convenient to use the real-live energy systems of thecampus itself to emphasize concepts learned in the class - using the campus as a livinglaboratory.A living laboratory is considered a real-world system that can be observed and manipulated bythe user to drive improvement and innovation [1, 2]. The concept first emerged within the fieldof computing and information technology. Within the University setting, the concept began tostrongly unfold in the context of sustainability education. Some of the key features of
ensuring students and teachers in many K-12 classrooms across theUS will be engaged with engineering education. The framework upon which the NGSSis based states, “Students should learn how science is used, in particular through theengineering design process, and they should come to appreciate the distinctions andrelationships between engineering, technology, and the applications of science”2.Science and engineering complement each other in many ways, but teach studentsdifferent, yet equally important, skill sets. “If the core of science is discovery, then theessence of engineering is creation”3. The challenge of including engineering in schoolprograms is evident4, especially at the elementary level where time dedicated to scienceinstruction is far
Paper ID #44393Work in Progress: Teaching Engineering Students to Self-Transform: Parallelismsbetween Product Innovation and Student Career Path PlanningDr. Noe Vargas Hernandez, The University of Texas, Rio Grande Valley Noe Vargas Hernandez researches creativity and innovation in engineering design. He studies ideation methods, journaling, smartpens, and other methods and technology to aid designers improve their creativity levels. He also applies his research to the desDr. Javier Ortega, The University of Texas Rio Grande Valley Dr. Javier A. Ortega is an Associate Professor in the Mechanical Engineering Department at the
and Environmental Justice. The project is in two parts, knowledge andcurriculum development and pedagogical development. The theoretical framework adopteddraws from threshold concept theory and critical pedagogy. The first part of the project, whichwill the focus of this paper, is supported by an multidisciplinary team consisting ofrepresentatives from engineering and education together with history, environmental history,Asian studies, anthropology, philosophy, Indigenous studies, Law and science and technologystudies. This team was asked to consider a range of questions to inform the critique of currentpractices as well as to develop a knowledge base for the socially and environmentally justengineer. They were asked to bring to the table
of Information Sciences and Technology at the Penn- sylvania State University, Berks. Dr. Konak also teaches graduate courses in the Master of Science in Cybersecurity Analytics and Operations program at the College of Information Sciences and Technology, Penn State World Campus. Dr. Konak’s primary research interest focuses on modeling, analyzing, and optimizing complex systems using computational intelligence combined with probability, statistics, data sciences, and operations research. His research also involves active learning, entrepreneurship education, and the innovation mindset. Dr. Konak’s published numerous academic papers on a broad range of topics, including network design, system reliability
acontribution to the emerging discourses of engineering education as a “culture”.1. IntroductionSome researchers have suggested that engineering education may be described as a “culture” inwhich knowledge, beliefs and practices are shared.1, 2, 3, 4, 5 Less attention has been paid to thenuances within engineering education, the variability in the degree to which members accept orshare a base of knowledge, beliefs and practices. Quantitative methods can be used to testwhether cultural constructs are shared among some engineering educators. One anthropologicalresearch method, “cultural consensus analysis,”6 measures the extent to which group membersagree or disagree about beliefs or practices. Specifically, to what extent do individuals agree ordisagree
engineering professional values (specifically theresponsibilities of an engineer and their obligation to society). Potential topics to considerincluded the VW emissions scandal, the Boeing 737 Max 8 crisis, or the emergence of generativeAI. Students were also encouraged to choose their own topic (which needed to be approved bythe instructor). To gather information, students had to use at least 2 to 3 references beyondWikipedia. Although no specific infographic design tool was required, students were encouragedto use Canva, Piktochart, or simply PowerPoint. Students had 5 weeks to complete theinfographic; after 2 weeks, they were required to submit a check-in in which they stated the topicof the infographic and provided a work plan with a list of
functional Stirling engine. Sener 9 appliedproject-based instruction to construction engineering education and opined that, in contrast totraditional lectures that mainly convey information, this approach leads to knowledge, which isgained by using information for particular applications. Rubino 10 presented the implementationof project-based instruction into a freshman engineering technology course. Havener and Dull 11developed an information resource web-page to support the implementation of problem-basedlearning in a freshman engineering course. Genalo 12 discussed the application of a project-basedapproach for teaching design of experiments in the framework of a materials science course.Haik 13 reported the development of an engineering
learnedengineering design concepts in an after-school studio setting with mentor/facilitators and acollaborative ICT-embedded environment. The driving research questions guiding theinvestigation were: 1. How are students’ perceptions of their abilities shaped by learning engineering design with an information communication technology (ICT) component in an afterschool setting? 2. How are students’ attitudes toward engineering, science, and computer technologies impacted by the intervention? 3. How are the actions of the teachers and other facilitators related to the motivation students have to learn engineering and participate in the design activities?These research questions were well suited to the theoretical framework of social
personal computer is being inspired by nanotechnology.1 Nanotechnologyexamples, such as light emitting diodes (LEDs), shape memory alloys, amorphous metals, andferrofluids, illustrate the increasing impact of this field. Page 8.682.1 “Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition 2003, American Society for Engineering Education”The importance of this emerging technology to society and industry requires that undergraduateinstitutions take steps to adapt their curricula to ensure a capable future workforce as well as amore scientifically literate general population
, and technologies (Simon, 1969). Design is itself a distinct discipline, with itsown methods of inquiry and body of literature, sometimes referred to as design science(Papalambros, 2015) or design studies (Cross, 1982). The practice and study of design isassociated with many fields, including engineering, architecture, information science, business,art, and more. In mechanical engineering, design is typically described as a methodologicalapproach that includes many different stages, tasks, and analytical decision-making processesthat assist design teams with the creation of functional products (Breiing, Engelman, &Gutowski, 2009). As such, preparing mechanical engineers with the necessary design knowledgeskills remains a central component
Education, 2024 Student Experiences with Parsons Problems in a First-Year Engineering CourseAbstractComputational skillsets have become ubiquitous in introductory engineering courses to equip thenext generation of engineers to solve modern-day problems during the technological age.Computing Education Researchers focused on improving computing curriculum development,assessment mechanisms, and computational activities to support learning in these contexts.Programmers in the elementary stages of development are challenged with disentangling thedense syntactical thinking prescribed in code creation requiring innovative approaches topedagogical decisions in aligning activities that proactively mitigate these challenges
Session 1625 An Online Learning Tool for Product Platform Planning Anand Srinivasan1, Janis P. Terpenny2, Steven B. Shooter3, Robert B. Stone4, Timothy W. Simpson5 and Soundar R. T. Kumara5 1 University of Massachusetts Amherst / 2Virginia Polytechnic Institute and State University / 3Bucknell University / 4University of Missouri- Rolla / 5 The Pennsylvania State UniversityAbstractProduct Platform Planning is an emerging philosophy that calls for the planned development anddeployment of families of related
, privilege, andoppression rather than individuals with multiply marginalized identities, and second, a call forresearchers to intentionally situate intersectionality within systemic oppression, social justice,liberation, and solidarity/coalition-building frameworks.Introduction As research exploring marginalized groups in engineering education has increased, newmethods and theories from across the disciplines have emerged to provide new insight into howmarginalized groups navigate broader systems and cultures of engineering. From education tosociology to feminist and critical theories, these perspectives help researchers, practitioners, andstakeholders in engineering education to engage in complex problems and needs of
for Engineering Education, 2023 Structure versus Curiosity: Developing a model for understanding undergraduate students’ childhood pathways into engineeringThis study seeks to further develop an emergent model of students’ pre-college pathways intoengineering. In our previous research with student makers, four pathways were identified basedon the nature of how pre-college activities were structured and the curiosity associated withengagement in the activity: structured-specific, structured-diversive, unstructured-diversive, andunstructured-specific. In pathways characterized by ‘unstructured’ activities, individualsidentified that activities in which they engaged were performed with a great deal of autonomy inboth how and what
mixed method researchdesign. The quantitative data was analyzed using Microsoft Excel and R. The qualitative dataanalysis was split between rural and urban. The data was read by the faculty advisor and twoundergraduate students. Using Emergent coding, the group found common themes in the data,and then the data were coded by the two undergraduate students using the software MAXQDA.The two undergraduate students were advised on how to conduct the qualitative coding by afaculty advisor. The coding was informed by The Coding Manual for Qualitative Researchers bySaldana [8] and The Qualitative Inquiry and Research Design book by Creswell [9].Qualitative Data ResultsThe qualitative data analysis focused on students’ responses to a series of open
to power the external outputs.Selecting proper components is an important step in the implementation of the proposed method. Atthe core must be a decentralized BMS. After reviewing and comparing many of the systemsavailable on the market, the Infineon Technologies Development Kit began to emerge as the bestchoice. When comparing price, design, and particularly availability the Infineon BMS kit became acomprehensive solution. The Infineon kit offers a decentralized BMS that utilizes a wired isoUART communication system. As designed, the BMS kit utilizes an AURIX microcontrollercoupled with the TLE9015QU board as the MCU. Each pack will operate as a Supervisory ControlUnit (SCU), utilizing the TLE9012AQU board that will provide both BMS
14.666.9Bibliography 81. G. Crebert, M.Bates, B. Bell,C.J.Patrick & V. Cragnolini, “Developing generic skills at university, during work placement and in employment: graduates' perceptions”, Higher Education Research & Development. Vol. 23, No. 2, May 2004, p. 147-165.2. A. Kameoka, S.W. Collins, L. Meng & M. Hashimoto, “Emerging MOT education in Japan”, Presented at the Engineering Management Conference, 2003. IEMC '03. Managing Technologically Driven Organizations: The Human Side of Innovation and Change, 2-4 Nov. 2003, p 296-300.3. Gunasekara, Chrys S. (2004) The Third Role of Australian Universities in Human Capital Formation. Journal of Higher Education Policy and Management, 26(3). pp
, and G.F. Madaus (Eds.), New York, NY: McGraw-Hill.4. NCMST. 2000. Before it’s too Late: A Report to the Nation from the National Commission on Mathematics and Science Teaching for the 21st Century. Education Publications Center.5. Cantrell, P., et al. 2006. “The effects of engineering modules on student learning in middle school science classrooms.” Journal of Engineering Education 95(4): 301.6. Barker, B.S. and Ansorge, J. 2007. “Robotics as means to increase achievement scores in an informal learning environment.” Journal of Research on Technology in Education 39(3): 229-243.7. Barron, B.J.S., et al. 1998. “Doing with understanding: Lessons from research on problem-and project-based learning.” Journal of the
sites at UNC Ashville and UNC Wilmington. Whether delivery is synchronous orasynchronous, it is important that the technology be as transparent as possible, both to theinstructor and to the students. The audio and whiteboard/document information is significantlymore important than the video in most cases. The delivery system must include a real-time, high-resolution display on which the instructor must be able to point and draw, and asynchronousdelivery alone is not good enough for the undergraduate population. Lectures weresupplemented with live, two-way video-based office hours and/or problems sessions (on-site orlive, two-way video). In addition, the instructors typically visit the remote sites 2-4 times persemester to get to know the
In that program, Boeingemployees acted as adjunct or visiting faculty at universities where Boeing recruitedengineering graduates. For those universities located at a distance, the Fellow actuallytemporarily lived on or near the campus during the course. However, that arrangementproved to be unsatisfactory for the employees and the program was eventuallydiscontinued.Industry can help provide new course content, for example for emerging technologies,which can be taught by academia.3 Adjunct instructors from industry can temporarilyreplace faculty on sabbatical or on leave,4 help handle temporary increases in studentcourse enrollments,5 relieve full-time faculty so they can do research,6 or co-teach withfull-time faculty to help bring
escalate student engagementwith course content. As shown by B. Shneiderman a conceptual framework fortechnology-based learning and teaching has emerged as an engagement theory. 4 Thefundamental idea underlying engagement theory is that students must be meaningfullyengaged in learning activities through interaction with others and worthwhile tasks.While in principle, such engagement could occur without the use of technology, thetechnology can facilitate engagement in ways which are difficult to achieve otherwise.Thermodynamics together with other thermal-fluid sciences (thermodynamics, fluidmechanics, and heat transfer) are typically considered to be among the most difficulttopics taught in engineering curriculum.5 The Learning Tool described below
Foundation has analyzed the dynamics of the U.S. Page 8.234.1engineering workforce. This covers all engineers, not just civil engineers. This Engineering Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering EducationWorkforce Project involves four NSF Directorates: (a) Engineering; (b) Social, Behavioral, andEconomic Sciences; (c) Education and Human Resources; and (d) Computer and InformationSciences and Engineering (2). Some interesting facts emerge which suggests that engineering isan activity that may be quite different
AC 2012-4909: DESIGN AND DEVELOPMENT OF A PV ENGINEERINGCOURSE: FIRST YEAR EXPERIENCEDr. Hirak C. Patangia, University of Arkansas, Little Rock Hirak Patangia is a professor of electronics and computers in the College of Engineering and Information Technology at the University of Arkansas, Little Rock. He has served the University in various admin- istrative positions including Interim Dean, Associate Dean, and Department Chair before returning to full-time teaching and research. He is a strong proponent of undergraduate research and STEM education in high schools. With NSF funding, he developed a project-based freshman engineering course for en- gineering and other university students who want to explore
, plusmembers of the public sector interested in thermodynamic principles.This project is supported by the National Science Foundation (NSF) TransformingUndergraduate Education in Science, Technology, Engineering and Mathematics (TUES)program.ReferencesBaser, Mustafa (2006), 'Promoting conceptual change through active learning using open source software for physics simulations', Australasian Journal of Educational Technology, 22 (3), 336- 54.Bo-Kristensen, Mads, et al. (2009), 'Mobile City and Language Guides - New Links Between Formal and Informal Learning Environments', Electronic Journal of e-Learning, 7 (2), 85-92.Bransford, J., A. Brown, and R. Cocking (2000), How People Learn: Brain, Mind, Experience and School, (Washington