, component, or process to meet desired needs (d) an ability to function on multi-disciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) an understanding of professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of engineering solutions in a global and societal context (i) a recognition of the need for, and an ability to engage in life-long learning (j) a knowledge of contemporary issues (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.II. Project-Based Service LearningThe first step towards broadening the curriculum is
, development, and operations, in addition to increasing formal instruction inboth oral and written communication skills and teamwork skills, in order to produce graduateswho are conversant with engineering ethics and the connections between technology and society(ABET 2017; Banik 2016). Teamwork skills are closely linked with communication, as it hasbeen shown that students can improve their communication skills by participating inmultidisciplinary teams (Garcia Lorca et al. 2015). Collaboration with industry in designprojects, such as in the senior capstone design course, is one way in which universities areproviding students with proper communication training. Universities are recommended to buildupon these best practices by connecting with
presentation for each project.During the presentation, the students are required to demonstrate understanding of the project,the needs, and the approach. If the instructor considers the proposal from a team as satisfactory, aproject is awarded and the students can start working on the project. All capstone projectsinvolve: (a) understanding the problem from a client’s perspective, (b) formulating, designing,and comparing alternatives, (c) applying engineering standards and modern computing tools, and(d) consideration of economics, aesthetics, sustainability, manufacturability, and impact to thenatural environment, ethics, social impact, political context, and public health and safety. - New Approach for Capstone Projects: The Grand Engineering
global, cultural, social, Conduct an evaluation of alternatives to evaluate economic and environmental, and economic environmental tradeoffs and select the best design factors” [4] Discuss definitions, challenges, and principles of sustainability, the Student Outcome 4. “an ability to evolution of engineering design, and green engineering recognize ethical and professional responsibilities in engineering Comprehend the multifaceted complexity of engineering problems situations and make informed
College next year will initiate an engineeringgraduate program with an emphasis on renewable energy and sustainability. ABET (Accreditation Board for Engineering and Technology) criteria, in concert with theUniversity mission, require engineering programs to produce “graduates who pursue life-longlearning through continuing education and/or advanced degrees in engineering or related fields.ABET criteria also require that graduates be able “to design a system, component, or process tomeet desired needs within realistic constraints such as economic, environmental, social, political,ethical, health and safety, manufacturability, and sustainability.” (ABET 2014).1 In accordance with ABET, the ASCE Body of Knowledge initiative and
ethics. This urges a different teaching pedagogy for a GeDC from that which isrequired for teaching a course in a student’s major discipline 2.Course: Introduction to Water Resources ManagementIntroduction to Water Resources Management, a three credit hour course, has been taught tofulfill the general education-natural science requirement for non-Water Resources Management(Non-WRM) majors and the core course requirement for freshmen Water ResourcesManagement Department (WRM) majors. Three major programs, Water ResourcesManagement, Geology and Geography require WRM 2200 as a core course. Each semester, thiscourse is taught in three sessions with twenty students per session by two or three instructors.The university catalog description of the
area ofconcentration in an effective, ethical, and clearly communicated way. Tying all the subjects ofan engineering education together into a professional toolset, however, is difficult. ABET, the higher education accrediting body that helps set an engineering student onto theroad towards professional licensure, puts forward several criteria that help shape the student’sexperience and make it more likely they will be successful in their chosen field. Specifically,ABET General Criterion 3 (Student Outcomes) and General Criterion 5 (Curriculum) outline aneducation grounded in math, science, and engineering that is capped with an all-encompassingdesign experience.2 Crucially, this design experience helps the student make the
activity. Additionally, these activities could be expanded if basic waterquality analysis equipment is available. For example, the water could be assessed pre and postpurification so students have more quantitative data to factor into their assessment.Measurements such as turbidity, suspended solids, total dissolved solids, biochemical oxygendemand (BOD), coliforms, and nitrate could be conducted as part of the class and also serve as amethod of introducing those contaminants. Another possible option is to make this set ofexercises a multidisciplinary effort, where students taking an environmental course in sociologyor philosophy such as Population and Global Issues or Environmental Ethics complete the taskstogether and engage in debates using
, ethical research,proposal writing, presenting research posters/talks, and writing a research paper. The cohorts willbe required to attend 12 weekly meetings per semester during the year-long program in a varietyof settings, including conference room, laboratory, or the field depending on the topic of thatweek’s meeting. During these meetings, they will receive hands-on training in laboratory skillslike extraction techniques, separation techniques, and analytical techniques including nuclearmagnetic resonance (NMR) spectroscopy and liquid chromatography-mass spectrometry (LC-MS). They will receive hands-on training in identifying plant species, planting/potting process,propagating plants and harvesting plant material.Objective 2: Develop a
. Martinez, C. M. Ouellette, L. T. Plante, B. M. Wallen, and J. A. Starke, “An environmental engineering sequence: Deliberately addressing and evaluating environmental attitudes and knowledge,” Proceedings of the 2017 Mid-Atlantic Section Fall Conference, American Society for Engineering Education, Penn State University - Berks, Reading, PA, 2017.[4] C. M. Ouellette, L. T. Plante, E. V. Martinez, B. M. Wallen, and J. A. Starke, “Informing an environmental ethic in future leaders through environmental engineering education,” Proceedings of the 2018 Annual Conference & Exposition, American Society for Engineering Education, Salt Lake City, UT, 2018.[5] B. M. Wallen, N. P. Sheehan, E. Martinez, L. T
localized human populations taking into account their uniquecultural history and socio-economic interactions with nature and their environment whilesubverting, contesting, and reforming the current engineering practices that transform the earththrough an overarching focus on development1.”Background for Haiti “Each society carries what we refer to as an “environmental imaginary,” a way of imagining nature, including visions of those forms of social and individual practice which are ethically proper and morally right with regard to nature2.”Haiti, which is the western one third of Hispaniola Island (Figure 1), is generally recognized asthe poorest country in the Western Hemisphere with approximately 80% of the population livingin
energy andresource limits provides the impetus behind at least five of the National Academy ofEngineering’s Grand Challenges1. Bolstering students’ understanding of what constitutessustainability is therefore an important aspect of an engineering education and can contribute toABET outcomes c (an ability to design a system, component, or process to meet desired needswithin realistic constraints such as economic, environmental, social, political, ethical, health andsafety, manufacturability, and sustainability) and h (the broad education necessary to understandthe impact of engineering solutions in a global, economic, environmental, and societal context)2.The importance of sustainability in environmental engineering decision making has
AgricultureHealth/water supply/sanitation Consumption and production patterns Protection of wildlifeHousing Waste management BiodiversityWelfare and quality of life Transportation Sustainable forest managementCultural Heritage Mining Global climate change/sea level risePoverty/Income distribution Economic structure & development Sustainable use of natural resourcesCrime Trade Sustainable tourismPopulation Productivity Land use changeSocial and ethical valuesAccess to
such as economics, environmental, social, regulatory, health & safety, constructability, and sustainability analyze real world situations to determine design needs, design requirements, and compare treatment strategies for site remediation know where to find information on chemical toxicity and site remediation methods understand the larger framework of site remediation, including ethical considerations, public involvement, cost/benefit analyses work effectively in teams and communicate technical information via both written and oral formatsOver the 15-weeks of the semester, the class met twice each week for 75-minutes per class.Class time was used primarily for lectures with a few
Engineering at the University of Pittsburgh. Dr. Mehalik has taught a variety of courses related to sustainable product innovation and design, including taking students to China and Brazil for hands on experience. He has written multiple journal articles in the areas of engineering sustainability and engineering education. Dr. Mehalik obtained a Ph.D. in Systems Engineering, with concentrations in innovation, ethics, and policy, from the University of Virginia (2001).Kim Needy, University of Pittsburgh Kim LaScola Needy is an Associate Professor of Industrial Engineering at the University of Pittsburgh. She received her B.S. and M.S. degrees in Industrial Engineering from the University of Pittsburgh
What do they do? Who can be an engineer? And how can one become engineer? An introduction to the concepts of green/renewable/sustainable energies 2 Green living and environmental issues. The course will include discussions on engineering ethics. An introduction to the Engineering Design Process, Computer Aided 3 Green design Design, and Green Design Framework Advanced Fundamentals of automated manufacturing systems including
Problem.3. Wals, A., Brody, M., Dillon, J., & Stevenson, R. (2014). Convergence Between Science and Environmental Education. Science, 344, pp. 583-584.4. Wiek, A., Withycombe, L., & Redman, L. (2011). Key competencies in sustainability: a reference framework for academic program development. Integrated Research System for Sustainability Science, 6, pp. 203–218.5. Jonassen, D., Strobel, J., & Beng Lee, C. (2006). Everyday Problem Solving in Engineering: Lessons for Engineering Educators. Journal of Engineering Education, 92 (2), pp. 139-151.6. Seager, T., Selinger, E., & Wiek, A. (2012). Sustainable Engineering Science for Resolving Wicked Problems. Journal of Agricultural Environmental Ethics
3.32 1.59 engineering 4. Name some potential future applications of the methods 3.05 1.94 5. Explain the basics of bioprocess engineering 3.37 2.12 6. Describe the ethical issues and arguments associated with genetic engineering 2.42 2.29 7. Describe the advantages and disadvantages of biotechnology methods relative to 3.44 1.82 conventional methods 1=Very Knowledgeable; 2=Somewhat Knowledgeable; 3=Not Sure; 4=Somewhat Unknowledgeable; 5=Very Unknowledgeable Denotes statistical significance
as a tool to examine complex environmental issues with a spatial context.Kelley notes, regarding the study: “While it can be used as-is with little preparation for anintroductory environmental studies course, other disciplines might want to preface the exercisewith a discussion of partitioning coefficients, remediation technologies, or environmental law,depending on the discipline. For my use, I spend a class period ahead of time discussing the useof chemicals in our society, the economic and political placement of the sites/businesses that usethese chemicals in our midst (often along railroad lines or barge terminals for bulk transport),some ethical considerations regarding where these sites are located (near poorer, or ethnic
theirproject. After the first few days, their comfort with the adverse conditions for the projectimplementation increased. Their self-confidence and commitment to their work also increasedas evidenced by their long work hours and excellent team work ethic, both within their team butalso with their co-workers from Peru.Impact of the course topic. Quantitative post-survey data indicated that 67% of courseparticipants found the course topic more interesting than those from other sections of the course.Qualitative analysis of open-ended survey responses and travel team interviews indicated twothemes in the data, one related to positive motivations generated by the course topic and anotherrelated to negative motivations.Subthemes under positive motivation
reform and engineering education research grant,Departmental Level Reform (DLR), awarded to a group of engineering and education faculty inthe university [4, 5, 6]. The first course in the program, Engineering Exploration (ENGE 1024),is the most affected course by the DLR project. This course primarily focuses on hands-ondesign, problem solving, professional ethics and skills, contemporary issues like sustainability,globalization, nanotechnology, and critical thinking skills [7]. This course is taken byapproximately 1700 freshmen every year. The course delivery format includes one 50-minutelecture followed by one 110-minute hands-on workshop every week.One of the learning objectives of this course is gaining the ability to develop and
4 Learning ethical conduct 5 5* student reported her confidence is at 5 for her NASA research, but 3.5 in generalShe also responded to some open-ended questions for the pre-survey:Why did you want to be involved with this research/apply to NASA Space Grant? “After going to AISES [American Indian Science and Engineering Society] nationalconference and seeing Native Americans presenting high-level research I made it my goal to oneday present there. I really admired researchers presenting science they were passionate aboutand hope to be like that one day.”What are your expectations from this year? “I hope to learn a lot and grow as a scientist. Instead of just studying
sustainability. Bielefeldt is also a licensed P.E. Professor Bielefeldt’s research interests in engineering education include service-learning, sustainable engineering, social responsibility, ethics, and diversity.Dr. Sharon A. Jones P.E., University of Portland Sharon Jones is the Dean of the Shiley School of Engineering at the University of Portland. She is a licensed civil engineer with degrees from Columbia University, the University of Florida, and Carnegie Mellon University. Her research interests focus on applying decision-making methods to evaluate sustain- ability policies with emphases on infrastructure, developing economies, and particular industrial sectors. She is also interested in engineering pedagogy
, there remain pocketsof practice and education in “sanitary engineering.” For example, the National EnvironmentalHealth Association (NEHA), founded in 1937, exists, “To advance the environmental healthprofession for the purpose of providing a healthful environment for all,” [10], and the AmericanAcademy of Sanitarians (AAS), founded in 1966, exists to, “elevate the standards, improve thepractice, advance professional proficiency, and promote the highest levels of ethical conductamong professional sanitarians in every field of environmental health” [11].In 1998, the final report of the National Science Foundation (NSF)-sponsored meeting,“Research Frontiers in Environmental Engineering,” raised an important question, namely,“Should the non
Flint Water Crisis (Table 2). To address cognitive issues, weused two online videos (Online Lesson 13.1 – Flint Water Crisis Overview and Online Lesson13.2 – Flint Water Crisis Chemistry) and an online formative quiz for each lesson. We also usedthree lectures. In the first lecture, we reviewed the chemistry aspects of the crisis, workedthrough example problems, and completed a concept map activity. In the second lecture, wecovered the story of the Flint water crisis, discussing the events leading to the water crisis, howthe crisis was uncovered, and the failures of government employees to address the crisis. Thesecond lecture ended with a minute paper related to engineering ethics and asked students tosubmit “muddiest points”. During the third
AC 2010-1860: ASSESSING THE EFFECTIVENESS OF USING A COMPUTERGAME TO BRIDGE A RESEARCH AGENDA WITH A TEACHING AGENDAKristen Sanford Bernhardt, Lafayette College KRISTEN L. SANFORD BERNHARDT is an Assistant Professor of Civil and Environmental Engineering at Lafayette College, where she teaches courses related to transportation, civil infrastructure, and engineering ethics and researches issues related to infrastructure systems modeling. Dr. Sanford Bernhardt received her Ph.D. and M.S. from Carnegie Mellon University and her B.S.E. from Duke University, all in Civil Engineering.Sharon Jones, Lafayette College SHARON A. JONES is a Professor at Lafayette College in both the Department of Civil