Paper ID #6254Interdisciplinary, real-world, client-based term projects in an introductoryenvironmental engineering and science courseMajor Andrew Ross Pfluger, P.E., United States Military Academy Major Andrew Pfluger is an officer in the United States Army and an Assistant Professor at the United States Military Academy (USMA) in the Department of Geography and Environmental Engineering. He holds two graduate degrees from the Department of Civil and Environmental Engineering at Stanford University and is a Professional Engineer in the State of Delaware. He current teaches Environmental Science, Environmental
in their degree programs. The importance ofcommunicating that knowledge must be an integral part of their education. Page 23.142.8Appendix IStudent ChecklistThe following items make up the elements that will be evaluated in the formal reports forcomposition. Refer to Guidelines for Preparation of a Formal Technical Report (included in this labpack) for writing style guidelines and additional information. Teaching assistants will comment onthe inadequate elements, and you will have to address those comments.Examples of all these items can be found in the lab and in the library in the reserved reading.ONLY SUBMIT CLEAR AND CONCISE REPORT TO
Paper ID #6498Implementation of Active Cooperative Learning and Problem-based Learn-ing in an Undergraduate Control Systems CourseDr. Sanjay Jayaram, Saint Louis University, Parks College of Eng. Dr. Sanjay Jayaram is an associate professor in the Aerospace and Mechanical Engineering Department of Saint Louis University. He obtained his Ph.D. in Mechanical Engineering from University of Central Florida in 2004. He teaches control systems/mechatronics, space systems engineering and astronautics related courses as well as engineering sciences courses. He has published several peer reviewed journal and conference papers in
variation, measurementoptions, and other process options seem an integral part of an engineering or engineeringtechnology student’s introduction.Introduction and discussion of engineering concerns at the equipment is meant to link the processoperation to the deeper learning objectives. However, we found that students are increasinglyimpatient with demonstration discussion on engineering considerations and tend to disregard asirrelevant topics beyond what they think they need immediately to operate that equipment.Certainly those of us instructing in the lab (instructor and lab technician) were also frustrated atthe time it seemed to take to introduce important processes, tooling, and the processconsiderations. We were already examining ways to use
essential for graduate students, especially for those who plan on pursuing a faculty career. Thevarious aspects of the graduate student role defined in this study is useful information forgraduate students to know about prior to providing one-on-one mentoring to undergraduatestudents. Third, mentoring program for graduate students have been developed, however, theywould benefit from integrating these findings into their curriculum. Therefore, academicinstitutions that are expanding or developing undergraduate research experiences should alsoconsider implementing programs to prepare graduate students to take on the role andresponsibilities that come along with providing one-on-one mentoring to undergraduate studentsin research.Bibliography1 Hu
Technology-Enabled Nurturing of Creativity and Innovation: A Specific Illustration from an Undergraduate Engineering Physics CourseAbstractThere is general agreement that creativity and innovation are desirable traits in the toolbox of21st century engineers, as well as in the future workforce in general. However, there is a dearthof exemplars, pedagogical models, or best practices to be implemented in undergraduateengineering education to develop and nurture those talents.In this paper, we use a specific example of a classroom activity from a course designed to helpbridge the transition from learning the fundamental principles of engineering physics inintroductory courses to being able to creatively and
feedback is necessary to help students further develop these skills and ithas been suggested such feedback is best when situated in the context of authentic engineeringtasks 3. We hypothesize that in such a context, students are more likely to take up feedback onprofessional skills because these skills will be viewed as an integral part of what an engineerdoes. There are two parts to providing students with feedback on these skills: (a) we first musthave a firm understanding of what it means to have professional skills in engineering, and (b) weneed to know how to effectively provide students with feedback on these skills.The case study described in this paper focuses on discourse as students receive feedback whilethey engage in an industrially
Paper ID #8129The LowCost Vertical Axis Wind Turbine Project: An exercise in learningacross disciplinesDr. Narayanan M. Komerath, Georgia Institute of Technology This is a student-led paper guided by Professor Komerath. Dr. Komerath is a professor of aerospace engineering at Georgia Institute of Technology, and director of the Micro Renewable Energy Systems Laboratory. He has over 300 publications, over 120 of them peer-reviewed, plus 3 US Patents, and has guided 15 PhDs , 50+ MS and over 160 undergraduate research special problem projects. He is a former Chair of the Aerospace Division.Akshay Milind Pendharkar, Georgia
Nature of Thermodynamics Learning ProblemsIt is critical to understand and to correctly frame problems associated with thermodynamicslearning and teaching. It is also essential to identify the root causes of these problems. Doingthis can form a foundation for eradicating these problems, and can guide curriculum and Page 23.1280.11textbook design. It also can inform and positively influence new instructional strategies.Close scrutiny of the literature outlined above reveals that in addition to conceptual difficulties,students have difficulty integrating concepts and principles and recognizing their relevance insolving problems.10,15,22,32,47,66
master’s degree in international education from George Washington University.Stephanie Moore Ph.D., University of Virginia Stephanie L. Moore, Ph.D. is Director of Engineering Instructional Design and Lecturer in the Engi- neering & Society Department in the School of Engineering and Applied Sciences at the University of Virginia. She is the instructor of the course, which she redesigned into a live, fully online, interactive environment and co-designed the class’s simulation activity with her German colleague from Technische Universitaet, Dominik May. She is co-PI on an NSF grant (EEC #1136205, PI: John Bean) supporting the development and educational assessment of the integration of the simulation into this and
Special Topics - Physics Education Research, vol. 8, p. 020104, 2012.[16] J. E. Froyd, M. Borrego, S. Cutler, M. Prince, and C. Henderson, "Use of Research-Based Instructional Strategies in core electrical or computer engineering courses," IEEE Transactions on Education, in press.[17] M. J. Prince, M. Borrego, C. Henderson, S. Cutler, and J. Froyd, "Use of Research-Based Instructional Strategies in core chemical engineering courses," Chemical Engineering Education, in press.[18] E. J. Pedhazur and L. P. Schmelkin, Measurements, Design, and Analysis: An Integrated Approach. Hillsdale, NJ: Lawrence Erlbaum Associates, 1991.[19] R. M. Felder and R. Brent, "Active Learning: An Introduction," ASQ Higher Education Brief, vol
course in question, Structure of Materials, is an entry point intothe undergraduate curriculum in materials science and engineering (MSE) taken by mostprospective major students in the autumn of their second year of study. Being a gateway sciencecourse, it is important for students to develop a deep conceptual understanding of foundationaltopics before they embark on more advanced coursework. Structure of Materials is also taken bystudents from other departments, most notably from biomedical engineering, who can take it asan elective as part of a focused group of courses on biomaterials. These students are typically at amore advanced level of study (third or fourth year) than the MSE majors.The primary instructor has taught Structure of
Engineering and Physics DepartmentAbstractOur department, which offers an Engineering Physics program, with majors in ElectricalSystems, Mechanical Systems, and Physics, as well as a Biomedical Engineering program,requires all of its majors to enroll in a two-hour “Introduction to Engineering and Laboratory”course that integrates lecture, laboratory, and design components. The objective of thelaboratory and design experiences is to prepare freshmen and transfer students for upper-levelengineering laboratory courses, as well as senior design courses, required for our majors. Eachlaboratory module, presented during two-hour laboratory sessions, at a rate of one module perweek, provides either an introduction to concepts and tools required to complete
becompleted by an engineering technology student, of an efficient solar energy system using anautomated solar tracker for the optimum harvesting of sunlight. This project also exemplifies theintegration of various aspects of the engineering technology curriculum, such as automation,product and process design, design for manufacturability, and continuous improvement, with thesenior design project.IntroductionA senior design project is a vital part of a four-year undergraduate engineering technologyprogram. The students majoring in this program are required to complete a two-semester long (4credit hour) senior design project. The students are expected to demonstrate the application ofproduct and process design principles with their projects. One of the
interaction with an industry partner.1. Background and Problem DefinitionAgricultural residues are those vegetative materials produced around the world that are not usefulfor their food or other value. One such material produced in the region is grape pomace. Grapepomace is the residual fruit solids remaining after pressing plus the expended filter paper left fromthe vacuum filtration process used to extract the juice from the press. In rare cases, the pomace canbe used as fodder or fertilizer, but in most cases, it is discarded as a waste and must be truckedfrom the fruit processing plant back to the fields where it decomposes, yielding little benefit to thefarmer since it typically contains few nutrients. As one of the nation’s grape harvesting
educators with regard to desiredcharacteristics of emerging technology content such as technical area, depth, supporting materialetc. The survey results were used to create the module content and characteristics that wouldmake integration of emerging content easier for educators. A modular approach can also be usedto emphasize the same foundational math and science knowledge and skills in different coursesin an applied technology context. This approach reinforces basic skills in a meaningful way.Many types of modules (content, length, cost etc.) can be used at the secondary and post-secondary level with few changes. There are also a large number of STEM (science, technology,engineering and mathematics) courses at both levels that are appropriate
Paper ID #6210Using Video to Tie Engineering Themes to Foundational ConceptsDr. Darshita N. Shah, Teaching and Learning Laboratory at MIT Darshita (Dipa) Shah is the Associate Director for Teaching and Learning in MIT’s Teaching and Learning Lab (TLL). Dipa’s primary role is to assist in the development of curricular innovations on campus and to provide professional development around teaching and learning for graduate students and faculty. Before joining TLL, Dipa played an integral role in developing instructional materials for the Engineering is Elementary (EiE) project at the Museum of Science in Boston. Used by more
rudimentary or elementary level. We can alsoconclude from the results that most faculty agree that more should be done to implement furthera deeper and more thorough culture within the College which supports and embraces EthicsAcross the Curriculum as primary and essential throughout the undergraduate educationalexperience. To discover what faculty might currently already be doing in classes with ethics.The results indicate that some faculty members are currently addressing ethics in some of theirclasses. However, the current general approach to ethics in engineering courses is viewed assecondary or peripheral. It is often an ‘addendum’ or perhaps addressed on a superficial level. Inmost instances, ethics is not presented as an integral
impact of engineering solutions in a global, economic, environmental, and societal context, a recognition of the need for, and an ability to engage in life-long learning, Page 23.1049.6 a knowledge of contemporary issues, and an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.2.4. CURRICULUM The program has a structure that integrates foundational concepts from Computer
Page 23.642.1 c American Society for Engineering Education, 2013 GIS and Introductory Environmental Engineering: A Way to Fold GIS into An Already-Existing CourseThe use of Geographical Information Systems (GIS) was implemented in the upper-divisionundergraduate technical elective Introduction to Environmental Engineering at Harvey MuddCollege. Students integrated technical engineering skills, newly-learned geographicalinformation system (GIS) skills, and the engineering design process, all in the context of thedesign of a debris flow barrier for a wilderness land parcel acquired by a local conservancygroup.Junior and senior general engineering students, the majority of whom had no experience
vision, simulation and off-line programming. Actually, robot hands-on experience plays a key role in engineeringeducation. It is an effective tool for student learning, as well as for encouraging participation inclass learning and in research outside the classroom. In general, industrial robot programmingsubject can be integrated with the MET curriculum in three different ways: (1) for manufacturingautomation class that is specifically designed to teach students how to program differentindustrial robots; (2) for Computer Integrated Manufacturing (CIM) class that is designed toteach students how to integrate industrial robots into a production system; (3) for advanced levelprogramming classes or other specific topics such as robotic simulation
, itbecomes evident that it is pertinent for the organizations to adopt an organizational culture thatwill foster well-developed means of communication, strive for development as well as flexibilityin order to adapt well to the environmental trends. In both instances one could gain acomparative advantage in adaptation to environmental trends such as market trends competitors,technological developments, economic climate etc. that are crucial for the success of anorganization. The authors will use the above logic to explain to engineering managers the need toincorporate more psychological concepts into the EM curriculum so as to understand how tobetter the organization as an entity and to improve its organizational strength
. Page 23.185.8The authors hope that this paper will spark ideas on how other universities can alter a traditionallaboratory course they are teaching to become a similar open-ended research experience for thestudent. The altered new paradigm of teaching will help us all train the next generation ofengineering innovators.Bibliography 1. Richter, D. C., “The use of Self-Directed Laboratory Experimental Learning in the Undergraduate Curriculum”, Proceedings of the American Society of Engineering Education Annual Conference & Exposition, June 2005. 2. Olds, Barbara and Ronald Miller, “The Effect of a First-Year Integrated Engineering Curriculum on Graduation Rates and Student Satisfaction: A Longitudinal Study,” in Journal
analysis; food safety and microbiology; foodprocessing and engineering; applied food science; and success skills2. As part of assessmentefforts at FE, the Food Engineering Undergraduate Curriculum Committee designed a strategythat uses both direct and indirect assessment measures.Direct assessments of the FE program outcomes were conducted through the analysis ofevidence collected (since spring 2009) in the food engineering undergraduate thesis andcorresponding defenses (by means of specific rubrics), as well as in the capstone course Designand Development of Food Products and Processes (by means of self-, peer-, instructor-, andoutside evaluators-assessment results, as well as final grades received by students). In the case oftheses and their
PhilosophyThe overall assessment philosophy of EPICS is guided by two core values of EPICS. First,EPICS seeks to provide an educational experience that will prepare students for professional Page 23.151.3practice. Second, we seek to meet compelling human, environmental and community needs.The assessment processes are integrated into the curriculum and designed to create artifacts thatcan be assessed. A key concept in PBSL assessment is to utilize authentic project artifacts(papers, reports, notebooks, blogs, reflections, etc.) that can be assessed and used to demonstratestudent learning. Whenever possible, the assessments are integrated into processes
small so asto ensure quality supervision received by the students. And the multi-disciplinary group willencourage cross-disciplinary exchange between the students thereby enriching the students’learning experience.Structure of the ProgrammeThe university’s engineering curriculum is divided into 8 semesters (4 years), and the structureof the EIM programme is shown in Fig. 1. While the students are enrolled in the programme,they continue to take the core modules and technical electives in their home departments(bioengineering, mechanical engineering and electrical engineering). The students enter theDCP-EIM programme at semester 3 (year 2) and work on the project for the next 3 years.Through an interview session, the students are selected based
resources.Project Integration into CourseIn Marshall University’s “Hydrologic Engineering” course (enrollment = 12), students learned ofthe course project on the first day of the course, when the basic principles of combined sewers,wet-weather flows, and rainfall-runoff relationships were also introduced in an introductory andqualitative way. The problem of combined sewer backups was used as a conceptual outline forthe course, highlighting different aspects of what contributes to the problem and how each can bequantified or understood. In a single 50-minute lecture, students were exposed to ideas such astemporal distribution of precipitation, time of concentration, degree of imperviousness of landcover, variation in infiltration capacity of soil, and
design provided anopportunity to see the impact of a controlled intervention on students (in a typical largeuniversity environment) who have had three years of training predominantly under the deductivelearning model where emphasis is often not placed on the application of theory to real worldproblems.The Experiment In the live simulation, the students experienced being an aircraft design engineer for afictitious aircraft company called Ace Aero. The students used a combination of electronic toolsand real world role playing in order to simulate the aircraft designer experience. These realworld industry level design tools included the computer CAD tool CATIA by Dassault Systems,the synthesis tool ModelCenter® by Phoenix Integration, and
Paper ID #6746A Large-scale Survey of K-12 Students about STEM: Implications for Engi-neering Curriculum Development and Outreach Efforts (Research to Prac-tice)Dr. Eric N. Wiebe, North Carolina State University Dr. Wiebe is a professor in the Department of STEM Education at NC State University and Senior Research Fellow at the Friday Institute for Educational Innovation. A focus of his research and outreach work has been the integration of multimedia and multimodal teaching and learning approaches in STEM instruction. He has also worked on research and evaluation of technology integration in instructional settings in
of students in these courses. The curriculum is divided into two strata (Taylor,Foster, & Ratcliff, 2006)—foundation courses (Introduction to Engineering Design andPrinciples of Engineering) and specialization courses (Aerospace Engineering; BiotechnicalEngineering; Civil Engineering and Architecture; Computer Integrated Manufacturing; andDigital Electronics). The sequence of courses ends with a capstone course (Engineering Designand Development) that requires students to take their own idea from design through development.In addition, Gateway to Technology is offered in middle school in selected school districts and isintended to maintain and increase middle students’ interest in STEM fields and to encourage thestudents to take the high