). Ms. Sandekian joined the Engineering for Developing Communities Program (now known as the Mortenson Center in Engineering for Developing Communities) in spring 2004, just as the first EDC graduate track was approved. With MCEDC, her main duties have included student advising and academic program development. In ad- dition to her management role in the Mortenson Center, Ms. Sandekian has taught an Engineering Projects course around the theme of appropriate technology and conducted research on social entrepreneurship and sustainable community development in Nepal in 2008. Ms. Sandekian earned a Specialist in Education (Ed. S.) degree in Educational Leadership and Policy Studies from the University of Northern
Paper ID #26594Sustainability Competencies in STEM Education at Secondary Schools: ASystematized Literature ReviewJenny Patricia Quintana-Cifuentes, Purdue University Jenny Quintana is a Ph.D. student in Engineering Education at Purdue University. Ms. Quintana com- pleted her undergraduate studies on Technological Design in , Colombia. The degree focuses on prepar- ing teachers in technology education for K-12 settings. After her graduation, she worked as a technology teacher for six years. It helped her to gain experience in teaching as well as develop curricula in her field, Technology Education. However, Ms
undesirable byproducts [9].Lead is among the most toxic elements and has widespread presence in the environment [10, 11].Common treatment technologies for lead removal include chemical precipitation and adsorption.However, precipitation becomes less effective and more expensive at high metal concentrations[12] and successful adsorption depends on finding low-cost, high-capacity sorbents [12-23] ormicroorganisms that accumulate toxic metals [24-26]. Innovative nanospheres have shownpromise for lead complexation.Despite the research progress that has been made, there is very little effort to introducenanotechnology into undergraduate environmental engineering curriculum. The objective of thisproject was to introduce nanotechnology experiences into
. Page 14.533.2BackgroundOur Engineering College is committed to innovative methods of learning to best prepare studentsfor a rapidly changing and highly competitive marketplace [1]. Key objectives include: • Creating multidisciplinary experiences through collaborative laboratories and coursework; • Incorporating state-of-the-art technologies throughout the curricula; • Creating continuous opportunities for technical writing and communication, and • Emphasizing hands-on, open-ended problem solving, including undergraduate research.To help meet these curriculum objectives, the four engineering programs have commonEngineering Clinic classes (Clinics) throughout their programs of study. Students enroll inClinics in each of their
onreal world projects, with real constraints and unexpected problems. Through EWB projects,students can better understand the impact of technology while enhancing their communicationand leadership skills [12].EWB projects provide a platform to integrate social, economic, and environmentalconsiderations into engineering design in a significant way [11]. The goal of EWB is to createsustainable engineering projects in impoverished areas worldwide including United States. EWBprojects provide students with an opportunity to apply their engineering skills to solve thecommunity problems. Through EWB projects, students develop skills not often taught in class,such proposal writing, project management, professionalism, interacting with clients, team work
/energy.html). At Washington University in St. Louis, there is a Department ofEnergy, Environmental & Chemical Engineering. Despite the unique department name, theyonly offer a B.S. degree in chemical engineering (CHEN). The University also offers a minor inEnvironmental Engineering Science, which is jointly provided by Chemical, Civil (CVEN), andMechanical (MCEN) Engineering (http://eec.wustl.edu/). At the University of California -Berkeley there is an energy and resources group, which offers an undergraduate minor(http://socrates.berkeley. edu/erg/index.shtml).At the Massachusetts Institute of Technology (MIT) there are energy related research and/orcourses highlighted by both CHEN and CVEN. Chemical Engineering emphasizes its energyand
Paper ID #18041Innovations in Environmental Engineering Education ProgramsDr. Inez Hua, Purdue University Dr. Inez Hua is Professor in the Lyles School of Civil Engineering and the Division of Environmental and Ecological Engineering. Her research and teaching areas include aquatic chemistry, water pollution control, environmental sustainability in engineering education, and sustainable electronics. Dr. Hua has a Ph.D and an MS in Environmental Engineering and Science from the California Institute of Technology (Caltech), and a BA in Biochemistry from the University of California, Berkeley.Dr. Loring Nies, Purdue
2006-1661: TAC-ABET ACCREDITATION – A NEW PROCESS, A NEWBEGINNINGNicholas Scambilis, Sinclair Community College Dr. Scambilis, a Professor at Sinclair Community College, is the Chair of the Environmental Engineering Technology, Safety Engineering Technology and Fire Science Technology programs. He has a PhD in Environmental Engineering from the University of Missouri. He retired as a Colonel from the U.S. Air Force where he served as a Civil Engineer. He has been at Sinclair for nine years.Jennifer Wise, Sinclair Community College Jennifer Saygers-Wise earned her Bachelor in Mechanical Engineering from the University of Arizona and her Masters in Engineering from the University of
than those experienced by other engineering disciplines. An American Society ofEngineering Educators 2002 report identified that U.S. environmental engineering enrollmentsdeclined by around forty-four percent between 1997 and 2001.9 This shortage in environmentalengineering undergraduate enrollments exists both domestically and internationally.10,11,12 Figure 2. First Year Enrollment Trends for Smaller Engineering Disciplines8What factors potentially contribute to the decline in environmental engineering enrollments andwhat recommendations can be offered to stop this downward spiral? A Massachusetts Instituteof Technology enrollment study prepared in 2002 identified several key issues that affected howundergraduate students selected a
retain faculty withexpertise in environmental biotechnology. In particular, notices seeking faculty candidates oftenspecifically request applications from individuals with expertise in molecular biology (e.g.,available job posting of the Association of Environmental Engineering and Science Professorsweb site at www.aeesp.org). Although genomic technology is revolutionizing many of theresearch programs in environmental engineering, these technologies have not been transferredsuccessfully to the undergraduate and graduate curricula at many institutions.4ApproachThe overall objective of this project is adaptation and implementation of a successful NSF CCLI
2006-641: DEVELOPMENT OF AN ENVIRONMENTAL BIOLOGICALPROCESSES COURSE IN AN UNDERGRADUATE ENVIRONMENTALENGINEERING CURRICULUMMichael Butkus, U.S. Military AcademyWilliam Epolito, U.S. Military Academy Page 11.467.1© American Society for Engineering Education, 2006 Development of an Environmental Biological Processes Course in an Undergraduate Environmental Engineering CurriculumIntroduction Environmental engineering students study a wider variety of scientific subjects than mostother engineering students due to the breadth of the environmental engineering field.Traditionally, the biology taught in many environmental engineering programs has been focusedon biochemical
AC 2009-606: APPLICATION OF THE EXCEED TEACHING MODEL TOIMPROVE GRADUATE TEACHING IN ENVIRONMENTAL ENGINEERINGCOURSESAudra Morse, Texas Tech Page 14.223.1© American Society for Engineering Education, 2009Application of the ExCEEd Teaching Model to Improve Graduate Teaching in Environmental Engineering Courses Page 14.223.2AbstractMany universities employ graduate teaching assistants to help reduce faculty teaching loads.However, the graduate teaching assistants may receive little to no training on teachingeffectiveness. Some universities may have programs to mentor graduate students in effectiveteaching strategies
William Davis is an Associate Professor in the Department of Civil & Environmental Engineering at The Citadel in Charleston, SC. He obtained a B.S. in Civil Engineering from the University of Alabama, M.S. from Auburn University and earned a Ph.D. in Transportation Engineering from the Georgia Institute of Technology. Dr. Davis is a member of ASEE, American Society of Civil Engineers, Institute of Transportation Engineers and Transportation Research Board. He serves as Chair of the Education and Student Chapter Committee for the Institute of Transportation Engineers – District 5. Page
2006-2544: BRIDGING THE GAP BETWEEN ENVIRONMENTAL ENGINEERING,CHEMISTRY, AND BIOLOGYAlexa Rihana-Abdallah, University of Detroit Mercy The Author has written a number of articles published in the ASEE Annual Conference proceedings over the years. The Author teaches at the University of Detroit Mercy in the Department of Civil and Environmental Engineering. Page 11.285.1© American Society for Engineering Education, 2006 Bridging the Gap between Environmental Engineering, Chemistry, and BiologyAbstractRecognizing the intellectual merit of interdisciplinary studies to
subsequent career as opposed to degree name for categorization. 1The main purpose of our recent effort is to evaluate the diversity of the environmentalengineering field. Our study evaluates gender diversity and ethnic diversity among U.S. citizensand permanent residents in terms of African Americans, Hispanic Americans, and NativeAmericans. Engineering diversity remains a problem in the USA despite ongoing efforts bygovernment, academia, and the private sector. Chubin et. al. (2005) reported that since 1995, theproportion of women and minority freshman in engineering is declining.2 However, for a similartime period, the representation of women and minorities in science, technology, engineering andmathematic (STEM) fields at both the baccalaureate
environmental design topics and project management topics to junior and seniorlevel undergraduates in Civil Engineering at both Ohio Northern University and the SouthDakota School of Mines and Technology. The paper is presented here as a case study of aspecific project for the professional development of engineering faculty.It is suggested that a definition of Liberation Engineering for the governance of international Page 11.1436.2service work be considered in guiding the efforts of our society members in their internationalservice pursuits: “Liberation Engineering is the study and implementation of practices anddesigns to meet the “life needs” of
engineering projects7. Learn to professionally communicate technical findings and develop ability to work effectively in a groupThe objectives of the new EnvE course are as follows:1. Develop understanding of water quality parameters used in characterizing water and wastewater pollution (augmented by laboratory experiments)2. Motivate the need for water and domestic wastewater treatment3. Develop knowledge of commonly used technologies in water and wastewater treatment (augmented by laboratory experiments)4. Given raw water quality and effluent requirements, recommend and justify a train of treatment of processes5. Develop knowledge of commonly used technologies in air pollution treatment (augmented by laboratory experiments)6. Given input
such as history or mathematics.• A Performance Level defines the scholarly depth of the task.Core competencies have been defined in outcomes and required knowledge areas areidentified for each outcome.OutcomesThe Environmental Engineering BOK Outcomes have been arranged in three groups (seeTable 1). The first group includes an outcome that provides foundational basis forenvironmental engineering education. This fundamental outcome ensures abilities inscience, mathematics, and areas of discovery and design that will enable environmentalengineers to succeed in a future of technological change. Page 13.383.3The second group identifies outcomes essential
Paper ID #33549Short-term Study Abroad: Engineers Gaining Intercultural CompetencyDr. Inez Hua, Purdue University, West Lafayette Dr. Inez Hua is Professor in the Lyles School of Civil Engineering and the Division of Environmental and Ecological Engineering. Her research and teaching areas include aquatic chemistry, water pollution control, environmental sustainability in engineering education, and sustainable electronics. Dr. Hua has a Ph.D and an MS in Environmental Engineering and Science from the California Institute of Technology (Caltech), and a BA in Biochemistry from the University of California, Berkeley
Health Engineering in the Depart- ment of Civil, Architectural and Environmental Engineering and the Director of the Center for Research in Water Resources at the University of Texas in Austin. Dr. Reible holds a Ph.D. in Chemical Engi- neering from the California Institute of Technology, and is a Board Certified Environmental Engineer, c American Society for Engineering Education, 2020 Paper ID #28764 a Professional Engineer (Louisiana), and was elected to the National Academy of Engineering in 2005 for the ”development of widely used approaches for the management of contaminated sediments”. His
AC 2011-460: USING SCREENCASTS TO ENHANCE INTRODUCTORYENVIRONMENTAL ENGINEERING EDUCATIONPhilip J. Parker, University of Wisconsin, Platteville Philip Parker is a Professor of Environmental Engineering at the University of Wisconsin-Platteville. He received his B.S., M.S., and Ph.D. from Clarkson University in Potsdam, NY. Page 22.1635.1 c American Society for Engineering Education, 2011 Using Screencasts to Enhance Introductory Environmental Engineering EducationOverviewActive learning is widely accepted as a best practice in higher education
2006-279: GREEN ENGINEERING DESIGN THROUGH PROJECT-BASEDINDUSTRIAL PARTNERSHIPSC. Stewart Slater, Rowan University C. Stewart Slater is a Professor and Founding Chair of Chemical Engineering at Rowan University. He received his Ph.D., M.S. and B.S. from Rutgers University. His research and teaching interests are in the area of membrane technology where he has applied this to fields such as specialty chemical manufacture, green engineering, bio/pharmaceutical manufacture and food processing. He is the recipient of the 1999 Chester Carlson Award, 1999 and 1998 Joseph J. Martin Award, 1996 George Westinghouse Award, and the 1989 Dow Outstanding New Faculty Award.Mariano Savelski, Rowan
result of this ongoing effort by the United Nations to increase sustainability education, theperiod between 2005 and 2014 has been declared the United Nations Decade of Education forSustainable Development3.The importance of sustainability in engineering education is now recognized in engineeringaccreditation criteria developed by the Accreditation Board of Engineering and Technology(ABET). The current ABET Criteria for accrediting programs for reviews done during the 2013-2014 cycle4 includes sustainability in two of the a-k student outcomes required for allengineering programs: (c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political
academic institutions, the current practices all seem well-warranted,despite the wide variation in the safety protocols followed.IntroductionAccreditation of civil and environmental engineering programs requires that students conductexperiments in at least two areas [1]. Out of concern for student safety, lab practices arereviewed. For accredited institutions, policies about safety in laboratories are documented inself-study reports to the Engineering Accreditation Commission (EAC) of the AccreditationBoard of Engineering and Technology (ABET) [1]. Therefore, all institutions have documentedsafety policies, but those may not be publicly available.Students should be trained in how to safely conduct experiments. One method proven to beeffective in
two workshops. Faculty identified four major areas where barriersto integrating sustainability concepts exist: (1) shifting paradigms around sustainability; (2) therigidity of the existing curricular structure; (3) requirement of new teaching methods; and (4)insufficient resources. The workshop participants agreed that the barriers that pose the greatestdifficulty (i.e., are the least “easy” to “fix”) are not technological but those involving the humansystem, such as “accepting sustainability as engineering,” or “new thinking and newcollaborations.” Page 25.294.4Figure 3. Challenges to integrating sustainability into existing engineering
students would like to learn independently and are lessinclined to work in teams. Typically, these students do not perform in a team-based and research-based learning environment. However, the above team-based and research-based laboratoryexercises can be very instrumental in improving the student learning of the subject matter.Especially, the engineering design courses are increasingly being recognized and taught as ateam process with multi-faceted socio-technological dimensions.Fig. 2. Assessment of laboratory activities - numbers represent percentages (As a result of theteam based laboratory exercises, Q1- Understanding of the environmental relevance of thesubject matter; Q2 - My interest in environmental engineering discipline and confidence
AC 2008-2064: AN INTERNATIONAL UNDERGRADUATE RESEARCHEXPERIENCE IN SUSTAINABLE ENGINEERINGCurtis Larimer, University of Pittsburgh Curtis James Larimer is a senior undergraduate majoring in Engineering Physics in The University of Pittsburgh's Swanson School of Engineering. He expects to graduate in the spring of 2008 and plans to go on to pursue a graduate engineering degree.Michaelangelo Tabone, University of Pittsburgh Michaelangelo Tabone is a junior at the University of Pittsburgh majoring in Chemical Engineering. While in school, he works as resident assistant in on-campus housing, volunteers as a teaching assistant of Organic Chemistry, and has served as a paper reviewer for the
minor in sustainableenergy systems engineering, for which this is a choice between two environmental impactscourses. For the other undergraduate students, the course is counted as technical or professionalelective and is categorized as a science, technology and society (STS) course to meet theirgeneral common education requirements.The objectives are included in Table 1 with reference to the ABET Criterion 3 program Page 22.1376.4outcomes. With the STS focus of this class as well as the in-depth analysis requirements, manyof ABET’s program outcomes are addressed.Table 1: Course objectives Course Objective
engineering and it deviated from Environmental Engineering. Throughout the semester I have become more and more interested in energy, specifically renewable energies and the technology behind them. Although Environmental Engineering has some energy applications, I feel that a more mechanical background would be better suited for that field. [The guest speaker] talk also cemented in my mind that if I wanted to go more into [energy], Environmental Engineering is not the most direct. Instead, going more into chemistry for biofuels, electrical for PV, or mechanical for working on engine processes would be a better approach.” “While I still value the environment as highly as ever, I feel that I would be more suited to protect it as an
college. Ohland et al. [21] found that 57% of the studentswho matriculated into engineering majors persisted in engineering to the 8th semester, the highestof all major groups (e.g. 51% social sciences, 41% other science/technology/math). The reasonsthat students leave engineering have been widely studied; a recent review clustered these intofive factors [22]: classroom and academic climate; race and gender; grades and conceptualunderstanding; self-efficacy and self-confidence; interest and career goals. Few students transferinto engineering [21] and engineering admittance criteria are usually more stringent than othermajors [23]. Thus, students with an environmental interest able to be admitted to engineeringmay choose that route, with the idea