technical professional.2 - Global I am aware of regional variations in technical standards, code, etc.3 - Global I can make ethical decisions in the context of a different culture.4 - Global I am familiar with cultural differences in professional ethics.5 - Global I understand how my technical perspective is different from those in other regions.6 - Global I am prepared to work with people who define and solve problems differently.7 - Global I am aware of how culture influences technical work.8 - Global I can adapt my technical knowledge and skills to different local conditions.9 - Global I can coordinate technical work that spans multiple countries.10 - Global I can function effectively as a member of multinational
Paper ID #25641Teaching Across Boundaries: Examining the Institutional Process of Estab-lishing Multidisciplinary CoursesMr. Samuel Aaron Snyder, Virginia Tech Sam Snyder is a first year Ph.D. student in the Department of Engineering Education at Virginia Tech. He received his Bachelors of Science in Materials Science and Engineering in 2017 from Virginia Tech. His current research interests are in engineering ethics education, social network analysis, and institutional change.Desen Sevi Ozkan, Virginia Tech Desen is a Ph.D. candidate in Engineering Education at Virginia Tech and holds a B.S. in Chemical and
and competencies they are acquiring in their programs [4].Transfer of knowledge can occur in a classroom setting when students are solving real worldproblems, however, that is not always possible. Hence, students try to find contextualized workscenarios such as internships or co-ops, where they can be involved in a real project in acompany. This particular setting provides students with an understanding of the workenvironment and also brings benefits to industry and universities [5]. On one hand, industrydemands an integral formation of individuals that are competent in technical skills in their areaof discipline, but with elements that enable them socially, ethically and professionally. On theother hand, society requires answers to its
them a STEM breadth, which builds their knowledge of the environment and hasthe potential to influence their environmental ethic [21]. We educate these students to viewchallenges from an environmental perspective. These T-professionals of other disciplines whotake the environmental engineering sequence bridge the divide among disciplines that wouldotherwise be accomplished by environmental engineers. Examples of these contemporary issuesinclude addressing urgent vapor intrusion risk at a Naval base in California [22], characterizingthe potential risk of food irrigated with hydraulic fracturing flowback water [23], or mitigatingthe impacts of sea-level rise on a major economic port, like New York City [24]. The focus ofthis study is to evaluate
multidisciplinary team setting where “(1) each team member serves in awell-defined role in the team; (2) each team member brings a particular expertise to bear insolving the problem; and (3) the scope of the problem is sufficiently broad that no one teammember could successfully solve the problem alone [8, p. 20].”ABET addressed the liberal arts through a professional component by requiring “a generaleducation component that complements the technical content of the curriculum and is consistentwith the program and institution objectives [6, p. 2].” ABET directed that program outcomesand student assessments demonstrate that some of the skills related to the liberal arts as having:(1) “an understanding of professional and ethical responsibility”; and to (2
tasks, optimize flexibility, creativity, and productivity after a sprint per week.”Liberal Arts Core Experience for All StudentsIn designing the core courses, interdisciplinary teams of faculty worked alongside co-designersin learning how to create a curriculum for the context of the institution. The resulting seven corecourses that all students, regardless of major, are expected to complete by the end of their secondyear of study, are intended to transcend traditional disciplinary boundaries and to expose studentsto different ways of thinking. They are: ● Rhetoric ● Scientific Inquiry ● Vietnamese Studies ● Visual Studies ● Ethics and Moral Philosophy ● Logic & Limitations ● Creating & MakingThis common core
becamethe school’s concerted effort to supply work-ready engineers who have had the opportunity tohone their professional skills through multiple linked courses requiring: written and oralcommunications; project management; open-ended problem solving; ethical and professionalresponsibilities; public health and safety; and an understanding of global, cultural, social,environmental, and economic factors.PBL senior-level activities (Capstone) are carried out by the School of Engineering +Technology (SET) in conjunction with the Rapid Center in the College of Engineering andTechnology (CET). These PBL efforts are strongly supported by the school faculty, which serveas faculty mentors on the various projects. The Rapid Center is the engagement arm of
regarding ethical challenges and how to respond to ethical challenges in the workplace. • Team Activity: In self-selected teams, selected a real-world issue, defined that issue as a problem, refined the problem statement through iterative analysis to propose a potential engineering solution to that problem. • Examined the potential engineering solution in greater detail using the Six Thinking Hats [6] (6TH) process. • Prepared and delivered a presentation regarding potential engineering solutions to a real- world challenge. o Regulations and prevention methods for earthquake-resistant housing in Mexico City. o Solutions for resiliency in rebuilding the electrical grid in
% Prefer not to disclose* 1% Directly from high school* 93% After time working / a break* 4% Entry into program Transferred from another school/program* 2% Another route* 1%* values estimated from self-disclosure on optional surveyAll incoming engineering students take APSC 100, an introduction to engineering course in thefirst term. The course covers a broad array of engineering topics including design, decision-making, sustainability, professionalism, and ethics. APSC 100 is the only engineering-specificcourse taken by all first-year engineering students in the first term. As such, it is used as aplatform for
students face in their learning. Wealso qualitatively assessed the degree of reinforcement and attitude propagation within eachcohort as potential mechanisms for the enhancement or suppression of student interest on anindividual basis. This study may offer insight into the value of strategic targeting of differingstudent demographics to systemically enhance STEM performance and interest during key pointsin students’ early careers, such as the end of secondary school and during the transition to post-secondary study.Methods Ethical statementAll data collection involving students was approved by the University of Toronto HealthSciences Research Ethics Board (Protocol # 34825) and the Toronto District School BoardExternal Research Review
/expanding the educational methods used in the formation of engineers.Dr. Nathan E Canney P.E., CYS Structural Engineers Inc. Dr. Canney conducts research focused on engineering education, specifically the development of social responsibility in engineering students. Other areas of interest include ethics, service learning, and sus- tainability education. Dr. Canney received bachelors degrees in Civil Engineering and Mathematics from Seattle University, a masters in Civil Engineering from Stanford University with an emphasis on structural engineering, and a PhD in Civil Engineering from the University of Colorado Boulder.Dr. Benjamin V Fell P.E., California State University, Sacramento Professor Fell joined Sacramento State
process to build the robotic cat and solve the mystery, Sadina and her friends learn about artificial intelligence and experience ethical dilemmas paralleling the kinds of situations that professional engineers and technologically literate citizens might face. In TimeTilter, fourteen-year-old Singer joins a band of displaced teens in a futuristic gaming site created by the mysterious company Collusia. Trapped in the TimeTilter, Singer and her team become the unwilling subjects of Collusia’s dangerous research on the limits of human perception. Under the influence of a new and proprietary chemical called the superzeitgeber, the team loses all sense of time—while other senses become mysteriously enhanced. In order to escape
, June 26-28, 2018Environmental Forensics: An Authentic Blend of Science, Engineering, and Liberal Arts Ingredients Ashraf Ghaly, Ph.D., P.E., Professor Engineering Department, Union College, Schenectady, NY 12308ABSTRACTEnvironmental forensics is a rich topic that encompasses many technical as well as non-technical fields. These include science, engineering, ethics, law, insurance, society,litigation, policy, economics, pollution/contamination, cleanup, testing, standards, andsustainability. This interesting mixture of subjects provides a fertile ground for aninterdisciplinary course. Sources of environmental problems are usually related toemissions, pollution, contamination, and
, severalstudents mentioned that this experience was sure to provide good practice for industry and postgraduate work in the industry. The students’ hypotheses were directly in alignment withAmerican Institute of Architects Code of Ethics which states one of their main tenets as“obligation to the public.” (AIA 2017).At the end of the semester, students spend more time reflecting on their experiences from theservice learning project. The final class session is spent talking through the strengths andweaknesses of the project and the course. Additionally, the class views each student’s digitalstory, and each student submits a two page narrative to answer the questions posed in JournalAssignment #5.A common thread seen from the students of this semester was an
Paper ID #24533Icarus: The Development of a Voluntary Research Program to Increase En-gineering Students’ EngagementMr. Homero Gregorio Murzi, Virginia Tech Homero Murzi is an Associate Professor of Practice in the Department of Engineering Education at Vir- ginia Tech. He holds degrees in Industrial Engineering (BS, MS), Master of Business Administration (MBA) and in Engineering Education (PhD). His research focuses on contemporary and inclusive ped- agogical practices, environmental, ethics and humanitarian engineering, and non-traditional knowledge transfer. Homero has been recognized as a Fulbright scholar and was inducted
engineers to obtain 21st century skills related to communication, leadership, and cultural, humanities, and ethical sensitivities, Provide opportunities for students to gain in-depth experiences in Challenges areas, as a mechanism to prepare them for engineering careers broadly, and to prepare them to be the future innovators to help solve these challenges. Figure 1: National Academy of Engineering, Engineering Grand ChallengesBelow are details of the implementation of strategic messaging in K-12 programming, theapplication process, and first-year engineering program in support of improving studentperformance metrics:B.1.1 Pre-College Programs: The College of Engineering at University Name has a substantialPK-12
multidisciplinary teams 77% Exhibit prototyping and fabrication skills 73% Use modern engineering tools 73% Design a product or process to meet desired needs 73% Manage time 67% Engage in professional and ethical practice 65% Communicate effectively (verbal and technical writing) 60% Design and conduct experiments
professional behaviour. a. Identify and utilize standards of academic honesty/integrity. b. Indentify how the foundations of engineering ethics impact their experience. 2. Articulate unique, personally relevant examples of how the things they are learning apply to the real world. 3. Demonstrate interpersonal and relationship skills, such as tact, diplomacy, teamwork. 4. Demonstrate logical thought process to break up a complicated problem into simple, resolvable steps or segments. a. Utilize algorithmic/computational thinking/design processes. 5. Apply basic principles, relationships, and mathematical laws to solve problems. 6. Understand the principles of developing a model for a complex system, and
efforts mentioned above.Table 3. Course learning objectives Course objectives ABET student outcomes Applying appropriate mathematical and scientific models to solve client- a based problems Designing a system, component, or processes to meet desired engineering c and k needs Determining the impact of contemporary issues on the design process j considering realistic constraints such as economic, environmental, social, political, ethical, health and safety, regulatory, manufacturability, and sustainability Developing an understanding and being able to explain the importance
Genomics Working with genomic databases 3 Measuring genomic data Visit to on-campus sequencing and flow cytometry facilities 4 Data Carpentry Workshop Basics of using R, a statistical computing language 5 Plant development and basic plant Macro- and micro-dissection of major plant research anatomy species 6 Research Ethics and Field trip to local company Communications 7 Data Mining Finding, downloading, and cleaning data sets 8 Machine Learning Making inferences using data sets 9 Plant Physiology Trip to
literature review and what 3 Support table & Map for topic must it contain? Support & Map Topic Devel. & Readings. Fine tune literature map, What possible research structure(s) & ethical issues 4 identify research discipline or genre should be consider for your thesis topic? Ethics Philosophy & K & R Ch. 1 & 7, Bring journal article How do research philosophy, scientific theory & 5 with methodology you might use methodology impact research outcome? Methodologies
,collecting data from the seminar, rather than a different course in the major, made it less likelythere would be confounds due to differences between instructors across sections. In addition, noother first-year course is mandatory for all first-year engineers (e.g., students with appropriateAdvanced Placement scores do not enroll in Calculus I). Each survey was one of severalassignments that could be completed for credit, and so not every student was required toparticipate. In alignment with the ethical standards required to protect participants in research inpsychology, students were given the option to complete the survey for points toward their grade,but elect to exclude their data from analyses from our research without penalty. Aside from
knowledge and methods required to evaluate sustainability concepts and systems. • Design, manufacture, and manage processes in an environmentally conducive manner. • Analyze engineering and management problems in their social and environmental context. • Develop economic, environmental, and social sound sustainable decisions. • Evaluate the impact of products, processes, and activities through life cycle assessment. • Develop written communication skills required for this profession. • Demonstrate professional, legal, and ethical responsibility in decision making practicesPLOs clearly enunciate both the technical and the management skills needed to be a leader in anorganization. The objective of
Paper ID #21418Reimagining Energy: Deconstructing Traditional Engineering Silos UsingCulturally Sustaining PedagogiesDr. Gordon D. Hoople, University of San Diego Dr. Gordon D. Hoople is an assistant professor of general engineering at the University of San Diego. His research interests lie in microfluidics, rapid prototyping, genomics, engineering ethics, and engineering education. He earned his MS and PhD in mechanical engineering from University of California, Berkeley and a BS in engineering from Harvey Mudd College.Dr. Joel Alejandro Mejia, University of San Diego Dr. Joel Alejandro (Alex) Mejia is an assistant
experienced them. However, elementssuch as the real-time interaction between students with their peers, instructors and mostimportantly the instruments were felt to be missing in the remote laboratory and this absencewas a matter of concern for them. They stated that each interaction type had a significant roleto play in their learning during the first-year of engineering studies and also for building astrong foundation of engineering concepts for further engineering studies in their degree.Students’ responses further indicated that internet-mediated interactions could also interferewith their acquiring some of the expected learning outcomes such as instrumentation,communication, experimentation, ethics and safety matters, and learning from failures
provides enrichment activities geared towardcreating awareness plus developing interest and providing logistical information about graduateschool. For example, workshops include topics on developing research skills, general graduateschool information, the Graduate Record Examination (GRE), research ethics andprofessionalism, and communicating research. Additional workshops are geared towardundergraduate student retention for expanding the pool of potential graduate students. Facultymentor the students in developing graduate school applications their senior year. Students arealso provided tools to help them obtain internships and undergraduate research experiences. AllSIIRE students have financial need, and scholarships are provided through an NSF
usedwas collected for a previous research project, and expected challenges of methodologicalintegrity [73] and quality of research exist. Since the researcher was also the instructor as datawas collected although for different purposes, this poses a threat to validity theoretically,procedurally, communication-wise, pragmatically, and ethically[74-76]. From preliminary application, this engineering epistemic frame shows potential forrevealing skills in interactions and conversations that are expressed differently or less frequentlycaptured on traditional paper methods. Specifically, it has the potential to capture values orepistemology that are not currently assessed in K-12 students. Another advantage of thisengineering frame is that it
experience males may have gleaned from tinkering with computers as teens [30].The first-year course also integrates discussions of societal and ethical issues related to computerscience. Larger increases in the number of bachelor’s degrees earned by women and distributionacross disciplines have remarkably changed gender diversity for a number of disciplines. Thisultimately produces some disciplines that are criticized for low participation of women andrelatively slow progress and others where an equivalent and declining participation of men garnersrelatively little attention or action. It seems possible that focusing on careers for some disciplines,and not for others, may in itself change the perception of those topics for students who
ethics, and “soft” skills such asleadership, communication skills, social awareness, etc. Figure 1 illustrates the kind of engineerswe want our graduates to be through the interdisciplinary curricula we designed for them. Figure 1. Goal of our interdisciplinary curriculaMultidisciplinary Design ProjectsThe freshman students matriculated into the JI do not declare a major until the sophomore year.In the first year, all students take an Introduction to Engineering course where they work inteams on self-proposed engineering design projects. In this course, they go through the entireengineering process from an initial idea to the design to manufacturing and finally to a workingprototype. They learn about the skills and
progress of the ankle, as well as custom exercises prescribed medically. Table 5: Criteria for Students’ Design (each criterion statement starts with the word “Student”) Understanding of professional and ethical responsibility • Is familiar with professional aspects of their discipline • Is familiar with and shows regard for professional and ethical considerations • Seeks information from sources outside of classes • Shows understanding of the need for continuing education and professional development Working knowledge of fundamentals, engineering tools, and experimental methodologies • Knows and is able to apply math