particularly problematic when amplified bygender and under-represented minorities (URM) issues. And such faltering so early in the majorcan cause a student to leave engineering.While difficulties in the course arise for several reasons, our project seeks to address the problemof context. Our hypothesis is that women and minorities particularly, and students generally, aremore likely to do well in statics when the problems are placed in the context of real worldusefulness. An approach to teaching that effectively scaffolds students' efforts at model buildingand connects abstract principles/concepts to real world, every day applications will benefit allstudents while promoting diversity in engineering. Towards that end, we have been developingInTEL
Systems (3) ENGR4030 Project Engineering (3) ENGR4200 Safety and Methods Engineering (3) ENGR4700 Robotics and Automation (3) ENGR4801 Rapid Prototyping and Reverse Engineering (3) o One from: ENGR3080 Design Of Industrial Experiments ENGR3250 Automated identification Systems (3) ENGR4030 Project Engineering (3) ENGR4200 Safety and Methods Engineering (3) ENGR4700 Robotics and Automation (3) ENGR4801 Rapid Prototyping and Reverse Engineering (3)In Figure 1, the
homeland aftergraduation, strengthens the higher education and also helps breaking the walls of suspicious andpessimism. Educational partnership projects, with all of the obstacles are still the best, if not theonly, way to elevate the level of understanding of the administrative body of the highereducational system in Afghanistan. This will eventually increase their involvement andleadership which is the key to their success.ConclusionReconstruction of the nation in its different forms and fields depends on the nation’s education,and higher education is the backbone of any economical, social and cultural development. Asstated in the Strategic Development Plan by the Ministry of Higher Education of Afghanistan, astrong system of higher education
AC 2010-2369: CHALLENGES AND OPPORTUNITIES IN BRIDGING K-12 ANDENGINEERING EDUCATION RESEARCHLisa Romkey, University of Toronto Page 15.270.1© American Society for Engineering Education, 2010Challenges and Opportunities in Bridging K-12 and Engineering Education Research: A Researcher’s Narrative Page 15.270.2This paper describes the process of selecting a theoretical framework conceptualized,tested and used in the K-12 research arena, and applying the framework to a proposedresearch project in engineering education. Through describing my own experience, I raisequestions about the differences between K-12
engineering disciplines, it is not part of a capstone project andstudents have little or no formal experience in business or training in teamwork. AnotherProceedings of the 2010 Midwest Section Conference of the American Society for Engineering Educationimportant consideration is the difference between the experience of undergraduate students andthe experience of those for whom most leadership development programs are targeted. Table 4highlights some of the differences between industry and university students of leadership.Table 4 Situational comparison of Leadership Development environment for industry anduniversity participants. Professionals StudentsIdentified by others as having
to undergraduate students, graduate students, and postdoctoral researchers participating in the proposed research project.”[1]The National Institutes of Health (NIH) had already had RCR training requirements for allparticipants in funded training, education and career development grants.The author of this abstract was a participant in a National Academy of Engineering (NAE)funded workshop to develop recommendations for addressing this mandate.[2] This workshopcame forward with a number of recommendations for providing effective RCR instruction toNSF trainees. These include: 1. Online training alone, without instructor guidance and/or discussion exercises, is less effective for student learning. 2. Training should focus both
CHOOSING THE RIGHT PARAMETRIC MODELING SOFTWARE FOR YOUR ET PROGRAM Greg Murray, Tim Thomas Pittsburg State University, Pittsburg, KSAbstractKeeping up with technology has always been a challenge, and parametric modeling software is aprime example. This paper presents findings from a project that deals primarily with answeringa few key questions that every Engineering Technology program should ask when incorporating3D graphics software into its program: What software is being used in industry? Whichsoftware packages should we use? Is it beneficial for students to be familiar with more than onetype of software? How important are
, enrollment prediction, modeling responses to institutional financial aid, and developing an integrated model of student persistence within Carnegie Mellon's six undergraduate colleges. She is currently a member of ASEE, the Association for Institutional Research, and the Association for the Study of Higher Education.Cynthia Finelli, University of Michigan Cynthia Finelli, Ph.D., is Director of the Center for Research and Learning North at U-M. In addition, she actively pursues research in engineering education and assists other faculty in their scholarly projects. She also is past Chair of the Educational Research and Methods Division of ASEE and guest co-editor for a special issue of the
classroom designed for 72 students sitting at eight largeround tables. Dual computer projection screens and multiple white boards are available. Thearchitecture enables and encourages peer instruction and collaboration. Students are assigned tocertain tables and reassignments occur after each major test. We try to have more than onestudent within any underrepresented group assigned to any given table. We make assignmentsso as to include a range of GPRs and class performance levels at each table. We have at leastone or two undergraduate learning assistants who move through the room along with theinstructor providing assistance and guidance during the in-class learning activities. The roomcan become wonderfully noisy during their in-class work and it
AC 2010-441: "IT KIND OF CHOSE ME": AGENCY AND INFLUENCE INWOMEN'S DECISION TO MAJOR IN ENGINEERINGEleanor M. Jaffee, Smith College Eleanor M. Jaffee is a Research Associate with the Liberative Pedagogies Project at Smith College, and a doctoral candidate in Social Welfare at the University at Albany.Donna Riley, Smith College Donna Riley is Associate Professor of Engineering at Smith College. Page 15.2.1© American Society for Engineering Education, 2010 “It kind of chose me”: Agency and Influence in Women’s Decisions to Major in EngineeringIntroductionMuch of the research regarding
to allow greater studentparticipation. Although, some scholars say that such a method puts forth a completely differentapproach to college education compared to a traditional lecture format (Midgley, 2002). Therefore, it is important to assess the students’ learning capabilities and not just his/hermemory (Brown & Cooper, 1976). In other words, assessment of learning is not a third-partyresearch project or someone’s questionnaire; it must be viewed as a community effort or nothing,driven by a faculty's own commitment to reflect, judge, and improve (Marchese, 1991 & 1997). Hawkins and Winter’s ACORN model also helps to document ideas and providesguidelines to conquering and mastering change (Hawkins and Winter, 1997
it fits for the purpose of this study in that it is desirable for researchers andeducators to have a comprehensive understanding of what parents are aware of, how parents feel,and what kinds of activities parents do with their children in an effort to improve engineeringeducation for children. With insights from these procedures, items were fundamentally generatedby six members of the project team from the areas of engineering education and educationalresearch. In total, 72 items were generated. Through several internal rounds of review,thoseitems were polished to accomplish an accurate match between the purpose of this study and thecharacteristics of items. Also, wording and grammar of the items were thoroughly checked toensure that the
variety of institutions. We might be able to conclude that there are provenmethods that can be adapted to a specific institution to work in a particular context.Furthermore, by looking at the literature on inclusivity across diversity (gender, minority, andlearning disabilities) we can see if there are commonalities in effective approaches that can beleveraged. Applying such strategies in an engineering context also has some unique challengesthat need to be addressed.The literature that was reviewed for this project covered three major populations: women,minorities, and people with learning disabilities. While it is possible to find hundreds ofcitations for each of these categories, references were chosen for breadth. For this reason someof the
options: ≠ On the job Page 15.709.3 ≠ On the job-professional development ≠ Grad school ≠ Co-op or internship ≠ Undergrad lecture ≠ Undergrad project/lab ≠ K-12 ≠ Other ≠ N/ALater in the survey, respondents were asked to describe a notable work event that gives a gooddescription of what it means to be an engineer. As a follow-up to their narrative answer, theywere asked to identify the skills/attributes most important to that notable work event.Second, practicing engineers were interviewed by trained student research assistants who hadbeen prepared with human-subjects training and instructed on good interviewing
, due to our inability to project how we will interact withnew technology or decisions. Typically, these consequences are negative, “unpleasantly ratherthan pleasantly surprising,” as Edward Tenner suggests,2 ranging from the trivial andinconvenient (Wii addicts who accidentally throw their remotes through television screens due tosweaty hands) to the potentially life-threatening (the arms race that ensued from the ManhattanProject). Because they are unpredictable, unintended consequences naturally flow from virtuallyevery invention, action, and decision that we make.3This paper examines the phenomenon of unintended consequences, focusing on definitions,types, a case study, contemporary examples, and offers pedagogical suggestions for exploring
order to meet thisobjective the COE is focusing on improving retention rates at the freshman and sophomore levelsbecause the attrition rate is highest during the first two years. The COE is implementing aholistic program to address common reasons for students leaving the engineering program,including lack of academic preparation; financial difficulties; difficulty in adjusting to collegelife; lack of a community atmosphere; and disappointment at not being able to experienceengineering principles during the first two years. Following an initial planning period, the COElaunched seven major initiatives in 2007 to achieve project goals. These initiatives include (1) anEngineering Residential College that forms the foundation of a new living
presentations that have featured experiential learning and engineering education topics as well as her engineering research in vehicle structural durability and the use of neural networks to model non-linear material behaviour.Schantal Hector, University of Windsor Ms. Hector is currently pursuing her Bachelor's Degree in International Relations and Economics at the University of Windsor. She is a Research Assistant at the Centre for Career Education and has applied her knowledge and skills as part of the project to develop learning outcomes for the cooperative education program over the past two years. She has been instrumental in the collection and statistical analysis of the learning outcomes
participants were able to make some connection betweenentrepreneurship and academic and/or career goals, the links were general and broad in scope(e.g., “One way that would be beneficial, if you find a project that you particularly want to do,you know an invention of some sort, but maybe the lab won’t fund it. So you have to find someother way on your own to fund it and work on it your own time. So it's basically your own littlecareer. So it's beneficial when it's something that you really want to do, but no one else wantsyou to do it. So you have to do it own your own.”).A similar trend evolved when discussing entrepreneurship and benefits to society. Participantseither could not, or were reluctant to, connect these two concepts, or again
, 2010 Modeling the career pathways of women STEM faculty through oral histories and participatory research methodsAbstractWomen increasingly earn advanced degrees in science, technology, and mathematics (STEM),yet remain underrepresented among STEM faculty. Much of the existing research on thisunderrepresentation relies on “chilly climate” and “pipeline” theoretical models to explain thisphenomenon. However, the extent to which these models follow women’s actual careerpathways has been undertheorized. Further, alternative metaphors may more aptly describe thecareer pathways of women STEM faculty. In our broader research project, we examine the wayswomen’s career pathways
have the option ofworking and attending school.As Dean of Engineering at the University of Detroit, and through his exposure to co-op programsas a doctoral candidate at the University of Cincinnati, President Lawrence saw the value thatexperiential learning adds to a student’s academic preparation. Lawrence Tech becamecommitted early on in offering and in actively encouraging experiential learning and workingprograms through co-op, internship and student projects where students would not only have anunderstanding of why something works, but how it will work in real life situations. At the heartof the University’s founding principles is the concept of theory and practice. Students arestrongly encouraged to integrate hands-on work experiences
Page 15.681.7and Gröδer charts11, to deal with semi-infinite solids (and understand the attractiveness ofthat usage), to calculate different convection heat transfer coefficients to cope with the factthat a rectangular prism, such as a fry, has horizontal and vertical planes; to simulate finbehavior, with the same dimensions, exposed to a high temperature fluid. A request from the Electrical and Electronics Department to assist on one of their studentteams on the best way to ensure a proper sequence of temperatures inside an oven where aprinted circuit was to be thermally treated/cured was the starting point for the 2007/08 PBLs.Finally, in the 2009 academic year, an ongoing EU funded project on biomass for energy thatneeded the assessment
and Arkansas, 1868-1872.Attended the University of Michigan, Civil Engineering program, 1874-1878.Received a Civil Engineering degree at the University of Michigan, 1878.Worked in the Survey Project of the Great Lakes, 1878-1881.Mississippi River Commission, Assistant engineer, 1881-1883.Professor of Civil Engineering, Washington University, St Louis, 1883-18999.“During the years spent in this position he gained a world-wide reputation by his valuablecontributions to engineering literature and his active work in connection with engineering andscientific societies.”Researcher, Forestry Division of the U.S. Department of Agriculture, 1892-1895.Dean, College of Engineering, University of Wisconsin, Madison, 1899-1902.Accidental death at his
Department of Information Resources (DIR) has launched a project that includes the design of a new portable communication tower to replace the main one while it is repaired. The emergency tower consists of a fixed pole of height 6 m supported by three cables having maximum cable force allowed of 30 kN. As an engineer, your challenge is to design a cable support system for this portable communication tower. Page 15.397.7 Figure 2. Challenge for Statics: Vectors and ForcesFigure 3 shows a sketch of the general situation for the portable communication tower and thecable support system. Fwind
sufficientlyflexible to adequately meet the needs of the 21st century engineers” (Source: Engineering2020 Report, 2004)In June 2006, the American Society for Engineering Education launched an initiative to promotebroad-based discussions within the society on the role and importance of educational scholarshipto ensure the long-term excellence of U.S. engineering education. Those discussions led to aproject which began in October 2007 with support from ASEE and the National ScienceFoundation. The project represents an important step by ASEE to enable even broaderconversations across the American engineering education enterprise on creating a vibrantengineering academic culture for systematic and scholarly engineering educational innovation;these efforts hope to
/technology courses designed Page 15.15.5 to build students’ skills, improve their analytical abilities, and stimulate interest in math, science and technology. The program was piloted in 2007 and 2008. • Traineeship Experience Program. A 5-week mentored summer traineeship program for MACILE students who have completed at least 10th grade. Learning through research and discovery is the main focus. An aim is to engage students in relevant and interesting projects, showing the roles of engineering and technology in improving human lives. Other aims are to: o Improve understanding of the scientific
thiscurriculum, we propose to integrate TRIZ (a systematic problem solving approach) andsketching, and support the ideation process with technology enabled journaling (using PulseSmartpen). In this integration, TRIZ will provide the systematic innovative problem solvingmethod, sketching will externalize and enhance the design ideation, and Pulse Smartpen willcapture the ideation outcomes seamlessly, and might decrease the cognitive load. Below first weexplain our rationale for choosing these curriculum content and technology along with relevantliterature review. Then, we provide our plans for experimentation and project management.This research work proposed in this paper involves conducting research on undergraduateengineering education, assessing
? And, you‟re like, we just spent two hours fixing this thing. Now we get an hour to take all our data” (Beth, Senior).Some students also feel less autonomous when their ideas of a reasonable workload conflict withwhat the professors are asking of them, especially when the requirement was not explicitly at thestart of the project: “Senior design is kind of rough. Just the amount of work they expect you to put in outside of class. You know it‟s a three credit hour class so by the general rule it should be like nine hours outside of class and we get like a third of the way through the semester and our teacher‟s like, you know you guys should be doing like 20 to 25 hours outside of class. And we‟re like what?” (Hillary, Senior
AC 2010-1161: AN ATOMIC BONDING MODULE FOR MATERIALSENGINEERING THAT ELICITS AND ADDRESSES MISCONCEPTIONS WITHCONCEPT-IN-CONTEXT MULTIMODAL ACTIVITIES, WORKSHEETS, ANDASSESSMENTSStephen Krause, Arizona State University Stephen Krause, Arizona State University Stephen Krause is Professor in the School of Materials in the Fulton School of Engineering at Arizona State University. He teaches in the areas of bridging engineering and education, design and selection of materials, general materials engineering, polymer science, and characterization of materials. His research interests are in innovative education in engineering and K-12 engineering outreach. He worked on Project Pathways, an NSF
Corey Balint is a junior Industrial Engineering major at Northeastern University who volunteered to assist with this research project after experiencing it first hand. He has been active in FIRST Robotics since his freshman year of high school as both a student and mentor. He also has served on the Executive Board of the Institute of Industrial Engineers since 2007, as well as serving as a peer mentor for the College of Engineering.Christopher Wishon, Northeastern University Christopher Wishon is a junior Industrial Engineering student at Northeastern University (NU). He has been a member of NU's Institute of Industrial Engineers since 2007 and has served as the Vice President. Also while
information technology and desktop support, and software support for Engineering students. Additionally Dale coordinates information technology efforts that benefit the entire college and facilitates all college level information technology projects. Prior to joining Virginia Tech She began her Air Force career as Financial Systems Analyst shortly after graduating from Smith College with a degree in Computer Science. While in the Air Force, Dale earned her MBA from Auburn University in Montgomery.David Bailey, Virginia Tech David Bailey is an industrial and systems engineering graduate student at Virginia Tech. He worked in the telecommunications/IT industry as a network management