: Page 10.1472.3 • This project is not a passing fad; it appears that it is really going to happen. ASCE has committed considerable time, effort, and talent to change the requirements for Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education professional licensure and raise the bar for the profession. While the obstacles are formidable, there is a plan to work with universities, the accreditation board, the state licensing jurisdictions, and the other professional societies over the next two decades to achieve this goal. Engineering education is important and
high school girls excel in relatingscience concepts to design projects – processes more akin to the way professional engineersoperate in the real world.35In his role as P.I. of the NSF-funded National Center for Learning and Teaching NanoscaleScience and Engineering, Chang is spearheading a new effort to develop, test, and implementinnovative nano-centered STEM curricula in secondary schools. The National ScienceFoundation’s decision to fund the NCLT is a further example of the way in which the NationalNanotechnology Initiative is catalyzing new developments in engineering education with far- Page 10.955.7 “Proceedings of the 2005 American
completing a capstone-type project, an approach antithetical to way peoplereally learn. As a result, learners often learn content with little or no regard for the world inwhich the knowledge is to be applied. This approach is analogous to having all of the requiredbuilding materials delivered to construction site but having no blueprint to work from – howdoes it all fit together?The goal of engineering technician education should not be limited to the transfer of knowledgefrom instructor to student, but more importantly the development of proficient individuals;individuals who have a well-organized knowledge base and skills set that they can apply to solvereal-world problems and who are ready to learn and adapt as technology changes7
two courses in thermofluids as well as the materials-science course have a lab component. Students are also required to take two courses inelectronics and instrumentation during this year, which also have a lab component. The two-course sequence in vibrations and controls emphasizes the fundamental understanding of thetopics involved and utilizes MATLAB heavily for studios and projects. Group projects andstudios, both experimental and analytical, are required to be performed in several of thesecourses, culminating in technical presentations and reports.Several of the mechanical engineering courses and some engineering science courses havedesign component to some extent through studio or term projects, providing the opportunity tointroduce
grade level, applicationof the engineering design process through redesign and design projects, student teaching ofengineering topics, and team development of interdisciplinary engineering curricula. Pre- andpost-workshop student surveys indicate that the intended learning outcomes of the workshopwere met. The experience positively impacted how students viewed engineering and theirintentions for including it in their teaching.INTRODUCTION “Most people think that technology is little more than the application of science to solve practical problems…They are not aware that modern technology is the fruit of a complex interplay between science, engineering, politics, ethics, law, and other factors. People who operate under
object.• Labeling the nature of the connections between concepts.• Identifying locations on the map where concepts are quantified.Several weeks into the course, this initial map was revised. The need for revision becameapparent when students were assigned a project to analyze the structural safety and efficiency ofthe Washington Monument. Their questions and the ways they were putting concepts togetherrequired a map that more accurately reflects how an engineer uses the concepts (see Figure 2).The revised map more effectively shows how loading and geometry are combined to calculateinternal forces and stresses. The emphasis on grouping concepts as internal and external to theobject was replaced with an emphasis on how the concepts are combined in
” experience of the analytical/computational component required by machine orprocess design. With this in mind, we used Mathematica extensively in the classroomto show how it can be used to remove the tedious algebra from the kinds of problemsthey were encountering in their homework. In addition, we used it to show the motionassociated with many of the solutions obtained in class in the form of animations. Weencouraged students to use Mathematica in their homework and required them to use iton the team-based projects that they did in class. As is to be expected when learning anew computer language, the students had some initial difficulties with the Mathematicasyntax. However, the vast majority of them were able to quickly pick up the new syntaxand
the unit of analysis in a study. It is bounded in the sense that itsdefinitional borders are clear. This was a multi-case study, with each FC institution forming aseparate case, and for those programs that had designed both freshmen and sophomore curricula(RHIT and TAMU), separate cases were constructed for each curriculum. We completed a totalof eight case studies in this research project. For each case, members of our team went to thatinstitution and conducted individual interviews with faculty, staff, and administrators in thatprogram. We usually interviewed between 20 to 25 people at each institution, working closelywith the FC coordinator at each site to select a range of participants—faculty members who haddesigned and/or taught in the
during one of two Saturday “labs.” This experience buildscamaraderie and trust among class members.The second section of the course focuses on Interpersonal Development, and we use severalinteractive activities that help students to identify their tendencies and characteristics in relatingto others. A key focus of this section of the course is empathy, as we believe that empathy is afoundational component of emotional intelligence. Students complete an empathetic listeningactivity and reflect on their strengths and weaknesses in this area. Students also organize andimplement a Service Project as part of the second experiential “lab.” Working in teams, theyselect and plan a Service Project, often with the help of the UIUC Office of Volunteer
University. She has a B.Eng. in chemical engineering from McGill University, and an M.S. and a Ph.D. in industrial and systems engineering with a Ph.D. minor in women’s studies from the University of Wisconsin, Madison. She is Co-PI and Research Director of Purdue University’s AD- VANCE program, and PI on the Assessing Sustainability Knowledge project. She runs the Research in Feminist Engineering (RIFE) group, whose diverse projects and group members are described at the web- site http://feministengineering.org/. She is interested in creating new models for thinking about gender and race in the context of engineering education. She was awarded a CAREER grant in 2010 for the project, ”Learning from Small Numbers: Using
learning methodologies do necessarily require additional work onthe part of students as well as faculty (Barrows, 2000). A pioneer in the area of problem-basedlearning, McMaster University Professor Emeritus, Dr. Donald R. Woods describes acurriculum that is significantly different from the traditional discipline centered curriculum(Woods, 1994). Discovery approach aims to march a step further, when compared with problem-basedlearning. Here the instructor may benefit from the ideas provided by Intel Education. (http://www.intel.com/education/designprojects/) 1. Authentic project work puts students in the driver's seat of their own learning. 2. Instructors should take advantage of curriculum developed by teachers in a large
to facilitate information retrieval about the ETD history at Virginia Tech,all the sources cited are available on-line, and URLs have been provided.FundingIn 1996 Virginia Tech received funding from the Southeastern Universities Research Associationto explore ETDs as SGML documents. This was followed in 1997 by funding from the U.S.Department of Education’s Fund for the Improvement of Post-Secondary Education, whichwould allow Virginia Tech to extend ETDs to the national level.1 In addition, Adobe SystemsInc., IBM and Microsoft provided software and hardware support for the project.2 Page 5.253.1Networked Digital Library of Theses and
ensure accuracy ofthis particular result.Overall, we believe that the project provided a solid foundation in terms of development ofcontent and assessment strategies. Significantly more work needs to be done in order to obtainmodules and assessment results which have been definitively shown to enhance studentslearning. Continuation of this work is planned. Others are welcome to use our modules orassessment results in any way they feel is appropriate. To obtain these resources, simply contactone of the authors. Page 4.186.18This work has been partly sponsored by the Air Force Office of Scientific Research and by NSFunder contract DUE-9751315
that canuncover cultural opportunities and challenges for advancing equity-related work, and how thisapproach to understanding an organization can be replicated at other institutions. We will discussthe first three drafts of the survey, the feedback process for each draft, and how this process hasinformed how we see the utility of this survey in our context. 1.2. Overview of Larger Project This work is one part of a larger collaborative NSF-funded project (Award # 2217640).The goal of the larger project is to establish a Center for Equity in Engineering (CEE) focused onorganizational transformation for graduate education at a single predominately-white institution.To this end, a team of practitioners and researchers have been
wasessentially an attendance grade. Students had weekly homework assignments. Homework wascompleted by hand and submitted on paper, which the instructor graded as well as annotated withfeedback. As the semester progressed and became increasingly busy, time constraints influencedthe annotated feedback to appear less frequently. Students in the control group also completedthree exams, a final group project which included a written report, and a final exam as part of thecourse. Although the final project includes a writing aspect, the grade students receive isessentially for completion (i.e., students who meet the requirements receive full credit). BecauseHCC does not employ a +/- grading system, all grades assigned are straight letter grades where A= 90
engineering technologyfaculty may hold regarding their students' needs:Strong Technical Foundation: Faculty members often emphasize the importance of a solidunderstanding of core engineering principles and concepts. They believe that students shouldhave a strong foundation in mathematics, physics, and other relevant technical subjects.Practical Application: Practical application is often considered crucial in engineeringtechnology programs. Faculty members believe that students should have ample opportunities towork with equipment, conduct experiments, and engage in real-world projects to applytheoretical knowledge.Problem-Solving Skills: Engineering technology faculty often stress the development ofproblem-solving skills. They believe that students
education. The presented findings emanate from the fourth phase of anextensive multiphase mixed-method research project. The project seeks to elucidate theimpediments that underrepresented students, particularly women, face in pursuing graduateengineering degrees and the potential solutions to overcome those barriers.Our methodology in this phase encompassed a comprehensive mixed-method survey, garneringresponses from over 600 undergraduate and graduate engineering students within the Faculty ofEngineering. Preliminary analyses revealed that the decision to pursue graduate studies isinfluenced by intersectional identity variables.In the sphere of engineering education, the pursuit of diversity, inclusion, and equity has longbeen recognized as
quite a bit of knowledge on data science and machine learning, spurred by the wide range of emerging applications. Through various projects, he has gained extensive experience with deep learning models and data interpretation. As such, with an emphasis on theory and a strict adherence to the machine learning pipeline, he is always keen on delivering tried and tested products.Sarah Louise Langham, University of Florida Sarah Louise Langham is a graduate of the University of Florida with a Bachelors of Science in Materials Science and Engineering. She is a format and content reviewer for EQuIPD grant Data Science/AI curriculum development. She has researched polyelectrolytes and rheological behavior under Dr. Neitzel
into a tool can make a sequence ofactions effortless, but also has the potential to prevent further developments to practice. AsWenger writes (p. 59), “… I want to preserve the connotations of excessive concreteness and projected reality that are suggested by the dictionary definition. Indeed, no abstraction, tool, or symbol actually captures in its form the practices in the context of which it contributes to an experience of meaning.”Given the noted lack of attention to variability in engineering research [10] and education [11],we expected the student participant-researchers in this study to struggle to identify the presenceand relevance of variability in their engineering coursework. Reification as
contact with students Role Role ¾ Physical models & demonstrations Model Model Enthusiasm Positive rapport with students Frequent assessment of student learning ¾ Classroom assessment techniques ¾ Out-of-class homework and projects Appropriate use of technologyFigure 5. Seminar II Slide from the ASCE ExCEEd Teaching Workshop.Faculty must be excited to walk into the
. degrees from Massachusetts Institute of Technology (1981) and The Johns Hopkins University (1988). She worked in industry for 11 years with a defense contractor (HRB Systems/Raytheon), and then co-founded and worked for five years with a high-tech startup (Paragon Technology), which developed digital video add-in cards/modules for laptop and rugged portable computers. Since joining Penn State in 1999, Liz has taught design courses in the Mechanical, Electrical, and Civil and Environmental Engineering Departments, and in SEDTAPP. In 2001, she became director of the Problem-Based Learning in Entrepreneurship project (underwritten by the GE Fund), and in 2002 was named Director of the
Aerospace Club at WSU and has worked as an undergraduate research assistant at Dr. Abu-Lail’s laboratory for one year. fabiola.quiroa@email.wsu.eduAla’ Ibrahim Abu-Lail Ala ’ Abu-Lail is a Junior Biomedical Engineering Student at Jordan University of Science and Technol- ogy, Irbid , Jordan . She joined WSU past summer for an internship and worked on this project along with other students. 011-962-799-567596, alo2a13789@hotmail.comNehal I. Abu-lail, Washington State University Nehal Abu-Lail is an assistant professor of Chemical Engineering and Bioengineering at Washington State University . She did her M.S. at Jordan University of Science and Technology, Irbid Jordan , her Ph.D. at Worcester Polytechnic Institute
professional behavior. Within these areas ofproficiency, graduates will exhibit the explicit skills and knowledge as detailed below.Technical Knowledge and Analytical Problem Solving: Graduates of the Engineering Management Program areable to analyze and solve complex problems utilizing:• a mastery of Engineering Management tools and techniques including those utilized in operations management, project management, Management of Technology and supply chain management• in-depth knowledge in at least one emphasis area within Engineering Management• an understanding of the fundamental principles and concepts of engineering• sound business judgment• relevant analytical and modeling tools such as statistics.Finance: Graduates
innovator’s colleagues(be they teachers, coaches, stakeholders, or other colleagues) likewise interact with the modelwhile interacting with each other—the model becomes a literal catalyst for enabling improvedteam interactions10,13,14.Throughout this paper, by “system” we mean a set of physically interacting components, asillustrated in Figure 2. System Component Figure 2: The System PerspectiveThere are three different modeled systems involved in this framework:• System 1--The Innovated System: The object of an innovation is a new or modified system (commercial product or service, student project
research area. He is currently the academic and research coordinator with the African Center of Excellence on New Pedagogies in Engineering Education (ACENPEE), Ahmadu Bello University Zaria; a World Bank funded Development Impact project with the aim of scaling up post graduate education at the MSc/PhD levels through regional specialization and collaboration in the West African Sub-region. Adrian is a registered Engineer with Council for Regulation of Engineering Practice in Nigeria (COREN), a member of the Nigerian Society of Engineers, a member of the American Society for Civil Engineers as well as the International Society for Soil Mechanics and Geotechnical Engineering (ISSMG).Fatai Olukayode Anafi, Ahmadu Bello
specificuniversity [7]. \ Figure 2: Conceptual Framework, adapted from Goldschneider (2023)This study seeks to address the following research questions: 1. In what ways, if any, do students’ pre-college socialization experiences influence their anticipatory sense of belonging to both their chosen university and their chosen discipline? 2. How do students’ anticipatory senses of belonging impact their eventual enrollment decisions?Broader Project BackgroundThe data used in this study are drawn from a broader pool generated as part of the UnderstandingKnowledge and Student Agency (UKSA) project, a collaborative effort between six
. Clarification of teachingwith blended learning [20]. methods in engineering education based on the use of technology andThe intentional design of blended learning environments digital media.using evidence-based practices has the potential to greatlyimprove learning efficiency by combining online self-study with traditional classroom teaching[21]–[23]. Blended learning has been proven to be highly advantageous for the field of engineeringeducation, specifically in cases where learning is centered around project-based activities [24]. Inthe context of chemical engineering design, the implementation of blended learning has been
make up 38% and31% of the population respectively. Projections show that Hispanic students will represent 20%of U.S. high school seniors by 2013, yet they make up only 13% of community collegegraduates, 10% of university graduates, and 6% of STEM graduates (U.S. Census Bureau, 2012;U.S. Department of Education, 2010c; U.S. Department of Education, 2010d; Taningco et al.,2008). Similarly, low-income students are also seriously underrepresented in higher educationand, by extension, STEM majors. For every 100 low-income students who make it to high Proceedings of the 2013 American Society for Engineering Education Pacific Southwest Conference Copyright © 2013, American Society for Engineering Education
obvious. While thehistorical documentation is abundant, there is much which is shielded from the public forproprietary and national security reasons. The publication and selection of standards as done bythe NIST in the US and other international organizations through open competitions anddisclosures has assisted in the development of specific projects and indirectly providedfundamental experiences. In what follows we develop the subject with the same unifying intentthat we introduced in the course. A Conceptual MapWe offer in Figure 1 the conceptual structure that guided us in our educational journey. Ofnecessity it starts with the concept of information measures with a probabilistic
sizing process applied to a fast turnaround project by using a dedicated knowledge-harvesting approach coupled with a unique sizing methodology to represent the first step in the conceptual design phase. Identify and visualize the solution space available for a hypersonic endurance (20 to 30 min) demonstrator that employs an air-breathing propulsion system. Propose prospective baseline vehicle(s) based on (1) available industry capability and (2) high-priority research (technology) required. Demonstrate a best-practice product development and technology forecasting environment that integrates the key team members, including (1) manager (decision maker), (2) synthesis specialist (integrator), and (3) technologist (disciplinary