Teaching Engineering Ethics in the Classroom through a Town Hall Meeting Activity Sarah Seraj1*, June Young Park1, Michael Pieratt2 1 Department of Civil, Architectural and Environmental Engineering, The University of Texas at Austin, 301 E Dean Keeton St, Stop C1700, Austin, TX 78712 2 General Atomics Aeronautical Systems, Inc., 14200 Kirkham Way, Poway, CA 92064 *E-mail: sarahseraj@utexas.eduAbstract nature of their projects, even a small mistake or misstep in Engineers often contribute to projects that impact many their work can endanger the health
. The steps in the project development will bedescribed along with the contributions of various team members and how their work wasevaluated. The regulatory aspects of this project will be described along with how an on-goingsearch is made for competitive devices. Finally, the future direction for this project including:next generation developments, partnering with the Veterans Administration, other educationalinstitutions, selecting manufacturing facilities and setting up future supply chain distribution willbe presented.1. Introduction (By Michael Marcus)As an Associate Professor of Engineering at Pennsylvania State University, York Campus, Ihave worked with students on design projects for various courses that I teach. In addition, I
provides aFigure 1. Overview of the GENI current generation “Spiral 3” repository for various device implementations.nationwide network, which will support SDN using theOpenFlow protocols [17]. CUNY presently has seven NetFPGA cards, donated by Stanford University, which are used in our SDN labs. Three to four students work together on each card. An SDN switchEstablished by the National Science Foundation and supported design for NetFPGA, implementing the OpenFlow protocolby a consortium of corporate sponsors, GENI [17] provides a [19] has been
M., Aaron D. Levine, Robert Kirkman, Laura Palucki Blake, and Matthew Drake. 2015. “NavigatingBioethical Waters: Two Pilot Projects in Problem-Based Learning for Future Bioscience and Biotechnology Professionals.”Science and Engineering Ethics: 1-19. doi: 10.1007/s11948-015–9725-2. Besterfield-Sacre, Mary, Larry J. Shuman, Harvey Wolfe, Cynthia J. Atman, Jack McGourty, Ronald L. Miller, BarbaraM. Olds, and Gloria M. Rogers. 2000. “Defining The Outcomes: A Framework for EC-2000.” IEEE Transactions on Education43 (2):100–110. Collins, Allan, J.S. Brown, and S.E. Newman. 1987. Cognitive Apprenticeship: Teaching the Craft of Reading, Writingand Mathematics. In Technical Reports. Champaign, Ill. : Centre for the Study of Reading, University
Session T3A2 Pre-Engineering Education and the STEM Career Expressway John W. Hansen Center for Technology Literacy University of Houston AbstractThis project describes the statewide activities of the University of Houston’s Center forTechnology Literacy to transform Technology Education in 6 – 12 public schools into theScience, Technology, Engineering, and Mathematics (STEM) Career Expressway. The STEMCareer Expressway represents the integration of the physical sciences, mathematics
1: Produce graduates who will have successful careers in Computer Engineering Technology and related fields, thereby, fulfilling the purpose mission of the university in serving a diverse ethnic and socioeconomic population Questions Answer: 1 to 10 1.1 How do you rate the technical skill of the employee 1.2 How comfortable you are in hiring our graduates in the future? 1.3 The employee deserves special recognition 1.4 The employee is enthusiastic about taking challenging tasks 1.5 The employee’s communication skills 1.6 The employee’s skill to work on
technique that has the ability tohandle conflicting objectives in both preemptive and weighted manners. In this paper, we present apreemptive goal programming model for the School of Engineering at the University of Bridgeport. Dataand case studies are provided along with a list of objectives for the Engineering School.Keywords: School of Engineering, Enrollment, Sustainability, Quality of Education, Preemptive GoalProgramming, Multiple Criteria Optimization.1. IntroductionToday, ever-decreasing budgets and dynamic variations in the number of both faculty and student bodiesare two major challenges that most U.S. universities deal with. In addition to the effort to solve theseproblems, every higher education institution also concentrates on ensuring
technique that has the ability tohandle conflicting objectives in both preemptive and weighted manners. In this paper, we present apreemptive goal programming model for the School of Engineering at the University of Bridgeport. Dataand case studies are provided along with a list of objectives for the Engineering School.Keywords: School of Engineering, Enrollment, Sustainability, Quality of Education, Preemptive GoalProgramming, Multiple Criteria Optimization.1. IntroductionToday, ever-decreasing budgets and dynamic variations in the number of both faculty and student bodiesare two major challenges that most U.S. universities deal with. In addition to the effort to solve theseproblems, every higher education institution also concentrates on ensuring
technique that has the ability tohandle conflicting objectives in both preemptive and weighted manners. In this paper, we present apreemptive goal programming model for the School of Engineering at the University of Bridgeport. Dataand case studies are provided along with a list of objectives for the Engineering School.Keywords: School of Engineering, Enrollment, Sustainability, Quality of Education, Preemptive GoalProgramming, Multiple Criteria Optimization.1. IntroductionToday, ever-decreasing budgets and dynamic variations in the number of both faculty and student bodiesare two major challenges that most U.S. universities deal with. In addition to the effort to solve theseproblems, every higher education institution also concentrates on ensuring
Session T1C3Ethernet Control of Microcontrollers using the Built-in Interface Chad Lloyd and Dr. Saleh M. Sbenaty Department of Engineering Technology and Industrial Studies Middle Tennessee State University AbstractThis paper describes the use of a new generation of microcontrollers that runs a smallweb server and is capable of responding to events triggered by the end user. Only veryrecently such a microcontroller has been available on the market. The use of one of theearliest networked microcontrollers, the Dallas Semiconductor DSTini, in a
Session 7-3 How Flat is the World? Arup K. Maji Civil Engineering Department University of New Mexico AbstractThere is a lot of discussion among engineering faculty and professionals on the implications of 1Thomas L. Friedman’s book “The World is Flat- A brief history of the twenty-first century” . Thefundamental issues are concerns regarding the large number
Session ETD 325 Engineering Technology Capstone Projects: Microcomputer-Based Solutions Dr. Immanuel A. Edinbarough, Dr. Jesus A. Gonzalez, Adriana Olvera The University of Texas Rio Grande ValleyIntroductionThis paper describes the success examples of previous capstone projects, where the studentswere challenged to solve problems in technology development and smart environments. Theseexamples provided the students with a team-based experience in the product design cycle, fromresearch, design, parts fabrication, product assembly, to the implementation of microcomputer-based systems to solve a real-world problem
applied at itsinput and u (n) is the unit step sequence. Of course, analytically using the convolution relationone can compute the response [6] as follows: ⎧0, ∀n < 0 ⎪y (n) = ⎨10[1 − (0.9) n +1 ], 0≤n<9 ⎪10(0.9) n −9 [1 − (0.9)10 ], n≥9 ⎩The above set of equations provides little engineering insight into the convolution process and theresult. However by using a graphical technique where a folded-and-shifted version of h(k ) canbe moved from left to right, a lot more is learnt about convolution operation. This movementoperation will generate a non-zero output y (n) only when both x(k ) and h(n − k ) have someoverlap. Since the folded-and-shifted version of h(k ) is moved
Session 12-4 Sustainable Building Design Raja. S.R. Gardimalla Civil Engineering Department Lamar University Texas Enno “Ed” Koehn Civil Engineering Department Lamar University Texas AbstractSustainable development is the integration of economic, environmental, and social goalson which reasonable people may agree in principle, but passionately disagree in practice.Yet, sustainable development is fundamentally
Engineering for the BiggadikeInnovation Grant which supported this work, and the Biggadike family for their gift to theUniversity of Arkansas. Special appreciation is given to Dr. Willie E. (Skip) Rochefort atOregon State University for his discussions and assistance related to the technical design of thepyrolysis reactor. The authors also extend their thanks to Dr. Laura Ford of the University ofTulsa for providing additional information on sustainability courses from the 2024 ASEEelectives survey.References[1] Brundtland, G., Report of the World Commission on Environment and Development: OurCommon Future. United Nations General Assembly document A/42/427, October, 1987.[2] University of Arkansas, Office for Sustainability, Sustainability minor
1 Session 2023 The JUMP into STEM Experience Dr. Nelson Fumo Mechanical Engineering Department The University of Texas at Tyler AbstractThe JUMP into STEM is an online building science competition for undergraduate and graduatestudents at U.S. colleges and universities launched by the Oak Ridge National Laboratory. Theprogram recognizes the need of increasing the number of graduates from building science programsto cover
Programs,” Conference Proceedings,American Society for Engineering Education Annual Conference & Exposition. Columbus, OH.Paterson, K. 1999. “Student Perceptions of Internet-Based Learning Tools in EnvironmentalEducation,” Journal of Engineering Education, V.88, No. 3, pp.295-204.Pawley, A., C. Schimpf, and L. Nelson. (2016). "Gender in Engineering Education Research: AContent Analysis of Research in JEE, 1998–2012." Journal of Engineering Education 105(3):508-528.Ruutmann, T., & Kipper, H. 2013. “Rethinking effective teaching and learning for the design ofefficient curriculum for technical teachers.” International Journal of Engineering Pedagogy, V.3N.1, pp. 44-51.Yoder, B. L. 2013. Engineering by the Numbers. http://www.asee.org/papers
development of newprograms or courses that focus on computing in context rather than the computer. ThreeUS and three EU universities formed a consortium to carry out a project entitledInternational Cooperation in Ambient Computing Education (ICACE). This consortiumaims to broaden the perspective of computing students through curricular innovation and 1 Funded by The Fund for the Improvement of Postsecondary Education (FIPSE) and The Directorate General for Education and Culture of the European Commission under the auspices of EU-U.S. Atlantis Program (FIPSE P116J07-0057 and EU 2007-2065/003-001 CPT-USMOBI). Proceedings of the 2009 American Society for Engineering Education Pacific Southwest Regional Conference
First Year Experience for Digital-native Students Andrzej Zarzycki New Jersey Institute of Technology Session: First year experienceThis paper discusses undergraduate freshmen experience in the core studio design course in theprofessionally accredited architectural program. The studio curriculum focuses on teachingdigital and traditional tools in the design context while considering the level of knowledge andthe nature of a student body. Design studio curriculum introduces students to traditional modesof creativity such as sketching and physical models. This preliminary stage is paralleled by anintroduction of digital skills
inhibit theprocessing and real-time insights. Using qualitative research organization from harvesting the potential of their data to themethodology, the study analyzes case studies and literature to complete value while taking well-timed, well-informedcompare effective integration strategies. The findings from the decisions [1].research are that businesses whose data initiatives are aligned to Moreover, integrating analytical and operational informationorganizational objectives achieve enhanced analytic capabilities, requires the deployment of robust frameworks that provide theenhanced decision-making, and long-term competitive capabilities of interoperability and scalability
: PROJECT ASSIGNMENT FOR FALL 2007 October 9, 2007 MECE 3334: Thermodynamics II Projects Fall 2007Assigned: October 9thDue: November 29thResearch individually a topic selected from the list at the end of this document or propose yourown topic. Prepare two written documents (details below): 1. a technical report and 2. a two-page extended abstract.The form of the technical report may vary depending on the topic, but should include as aminimum: • a cover page (project title, course name and number, date, and your name) • an abstract (maximum of 250 words
Facilitator Guide Co-learner/co- investigator RQ 1 Mentors demonstrates experience and expertise x x Mentor Engagement and support to students x Communication between mentors and student x x researchers RQ2 Students’ express satisfaction with research mentors x x x Students desire enhanced guidance from their x x mentorsThe themes generated to answer the first research question showed that faculty functioned in theroles of facilitators, guide, and co-learners/co
, the teachers evaluated the presentation and theexperimental investigation.In addition to the daily general laboratory activities, specific blocks of time were scheduled forcurriculum mapping, as well as horizontal and vertical alignment among participants. Dr. HeidiHayes Jacobs advocates collecting real-time information about what is actually taught to createcurriculum maps.3 Teachers had real-time information to develop maps with other grade-levelteachers to align the activities to the Science Frameworks for each grade level. This activityensures smooth transitions between grade levels in order to avoid gaps and overlaps in thecurriculum.The Year 1 Institute concluded with a session on scientific action research, which focused ondata
“entrepreneurial education through case studies.” The workshop had sessions on(1) entrepreneurial thinking/entrepreneurial mindset (2) importance of entrepreneurship inengineering education (3) role of engineering faculty and faculty development and (4) team workon entrepreneurial thinking and case study. All 28 engineering faculty participated in theworkshop.During September 16-17, 2010, KEEN Regional Conference on Innovation and Entrepreneurshipwas hosted by the CIE and MEEEP at the Mercer University School of Engineering. The overallobjective of the conference was to bring together faculty and students from KEEN schools on acommon platform and discuss about the progress made in each KEEN school in the areas ofinvention, innovation and entrepreneurship
cases, the instructor would wrap up the session by discussing those unobservedtheoretical concepts.At the end of the program, the students were assigned to design an IoT-based mechatronicsystem capable of performing a specific task for their term project. The available project optionsinvolved creating a control system for a robotic arm, a line-tracking vehicle, a vending machinedispenser system, an autonomous obstacle avoidance vehicle, and other projects with comparableaims. The specifics of the projects and evaluation criteria will be reported in the future.4. Student Response and Potential ImprovementsThe course is rated 4.6 out of 5. The feedback for the course has been generally positive, withstudents finding Arduino programming to be a
Session FA4-3 The Application of a Computer-Aided Data Acquisition System (NI ELVIS) during Physical Experimentation in an Undergraduate Mechanical Engineering Program Jerry K. Keska Mechanical Engineering Department, University of Louisiana at Lafayette Lafayette, LA 70504, USA AbstractIn order to increase student interest and the student’s own creative, hands-on, problem solving skills,a unique and innovative approach has been implemented that creates an opportunity to pushstudents to use their
provided in [50].Expected Impact Table 1 shows the possible impact on different audiences in different settings and environments. Theefficacy of the program discussed in this paper is based on teaching at the undergraduate/graduate(formal) and K-12 (informal) levels. It may be pointed out that no formal education research wasconducted to generate the Table 1. Thus, the data provided here is qualitative and is based on theassessment of instructors, parents and other professional observers (one of the observers had a doctoratein education). Table 1 Learning level (Basic, Intermediate, Advance), underlying STEMS areas (S, T, E, M), expected impact (Low,Normal, High), learner interest (Low, Normal, High), possible audience types (Families
provided in [50].Expected Impact Table 1 shows the possible impact on different audiences in different settings and environments. Theefficacy of the program discussed in this paper is based on teaching at the undergraduate/graduate(formal) and K-12 (informal) levels. It may be pointed out that no formal education research wasconducted to generate the Table 1. Thus, the data provided here is qualitative and is based on theassessment of instructors, parents and other professional observers (one of the observers had a doctoratein education). Table 1 Learning level (Basic, Intermediate, Advance), underlying STEMS areas (S, T, E, M), expected impact (Low,Normal, High), learner interest (Low, Normal, High), possible audience types (Families
child's poster as shown in Fig. 1. This promotional tool capturedlearning progress by identifying areas where students students' curiosity and encouraged interaction. The study tookplace at a public K-8 school in an urban setting. Students ahead), and a sophisticated evaluation function that considersparticipated in different grade levels. We introduced the game multiple strategic factors, such as board control and positionalto all groups through a brief one to two minutes session using advantage. We chose the Minimax algorithm because it isthe trifold poster. This short introduction was designed to spark effective for deterministic, turn-based games
College of Engineering student body reflectsthe overall diversity of the University. The ethnic breakdown of undergraduates in the collegeincludes 19% Hispanic, 3% African American, 40% Asian, 22% White, 6% Internationalstudents, and approximately 1% American Indian or Pacific Islander. Women areunderrepresented in the College, making up 14% of undergraduates. The majority of newstudents each fall in the College are first-time first-year students though a substantial number,approximately 40% of the new students, enroll as upper-division transfer students. These transferstudents come primarily from the extensive California Community College system. TheUniversity formed a formal retention and graduation initiative in 2009 and has