Engineering Department at Lawrence Technological University will offer a program in which our graduates have: (a) an ability to apply knowledge and principles of mathematics, science, and engineering in the solution of civil engineering problems (b) an ability to design and conduct experiments, as well as to analyze data and interpret results (c) an ability to design a civil engineering system, component, or process to meet desired project needs (d) an ability to function on multi-disciplinary teams including participation in a senior-level design project sequence (e) an ability to identify, formulate, analyze, and solve engineering problems
Paper ID #8204An Effective Leadership Development Experience through Modular Skill BasedSimulationsMr. Tim Boyd, Northrop Grumman Corporation After graduating from the California Institute of Technology in 2006, Tim started working at Northrop Grumman as a Systems Engineer. Since 2006, Boyd has not only been involved in performance analysis and on-orbit sensor characterization but has also managed technical teams as a technical team lead and a deputy Integrated Project Team lead within the SEIT (Systems Engineering Integration and Test) organi- zation. Boyd has presented his work at both academic and industry
a B.A. in English from the University of Notre Dame. She received a Master of Science degree in Aerospace Engineering from the University of Texas at Austin.Ms. Gloria A. Murphy, NASA Gloria A. Murphy is currently the Project Manager of the Lunabotics Mining Competition at NASA’s John F. Kennedy Space Center (KSC), Florida. Ms. Murphy began her career in 1990 with NASA as a cooperative student in the Payload Processing Directorate. Her first engineering position was an experi- ment test engineer for the Spacelab Program. In 1998, Ms. Murphy began working on the International Space Station (ISS) Program as a systems engineer for the Multi Element Integrated Test (MEIT). She continued to develop her engineering
Theory as a basis for MEPP Course DesignThe work of course design for MEPP has benefited from the direct assistance of GregKearsley as a course consultant. In “Engagement Theory: A framework for technology-based teaching and learning,” (1999), Kearsley and Shneiderman summarize the basis forengagement as “Relate-Create-Donate.” This simple formula captures the essence of theeffective on-line course and explains the fundamental principles of CTI. 1. Relate – “Emphasizes team efforts that involve communication, planning, management and social skills.” 2. Create – “Students have to define the project (project domain) and focus their efforts on application of ideas to a specific context.” 3. Donate – “Stresses the value
Engineering as well as Former As- sociate Dean of Engineering at California State University, Fresno. Loscutoff received his B.S.M.E., M.S.A.E., and Ph.D. from the University of California, Berkley. He worked at Flow Industries, Inc., as Executive Vice President & COO of Flow Research, Inc..; Vice President & General Manager of Flow- Dril Corporation; Manager of Research & Technology Division, at Pacific Northwest National Laboratory through Battelle Memorial Institute; Associate; and Project Manager; Program Manager, Section Man- ager and Rocketdyne: Research Engineer. He was also Assistant Professor at University of California, Davis, and Adjunct Associate Professor at Washington State University before
paper, we describe a novel afterschool engineering program targeted for middle schoolgrades. The afterschool program builds on our many years of experience in conductingengineering-based professional development for K-12 teachers. The program is founded on athree-pronged approach of: 1) engaging students in inquiry-based learning opportunities thatfeature motivation of engineering concepts with readily-available technology examples, andteam-based design projects with the National Academy of Engineering 21st Century GrandChallenges themes; 2) professional development and support for teachers to guide students inmeaningful engineering design activities; and 3) informing parents and caregivers of the fullrange of STEM college and career pathway
week for relevant training sessions. The meetings were standardized. The lead facultymember gave a short presentation, followed by a group question-and-answer session, and cappedoff with private team meetings with one of the three faculty members. Near the end of thechallenge a team of students needed a way to create a 3-dimensional electronic prototype of theirpizza container idea.The team of management, marketing, and accounting students sought help from the COB team,and who then then sought help from the engineering faculty. An engineering faculty memberagreed to incorporate the design challenge as part of a class project. The business studentsdetailed their idea to the engineering students, and the engineering students produced a
improve the outcome of tendon injuries through engineering. As a graduate student, Dr. Dischino became heavily involved in educational outreach work with inner-city public school students in Philadelphia. It was through this work that she realized her passion for teaching technology and engineering concepts at all levels and encouraging students to achieve their full potential in these fields. She is currently a member of the American Society of Engineering Education, the International Technology Education Association and the Association for Science Teacher Education, as well as a Champion Board Member of the Connecticut branch of the National Girls Collaborative Project and Board
Session 3441 Engineering Ethics and the Drexel University Library: A Collaborative Teaching Partnership Jay Bhatt, Mark Manion, & Eli Fromm Drexel UniversityAbstractAt Drexel University, the present undergraduate engineering curriculum has evolved from theEnhanced Educational Experience for Engineering Students (E4) project and the GatewayEngineering Education Coalition, both National Science Foundation (NSF) funded initiatives tore-engineer undergraduate engineering education. Since its institutionalization in 1994, thecurriculum has served as a model
their engineering training to specific projects in their professionalcareers.” (NSCU Course Objectives statement, FLS 212,http://courses.ncsu.edu/hon.html)Course Content FLS 212 utilizes not only teach the structure inherent in an intermediate languageclass by integrating vocabulary, issues, and projects that would be of special interest tothe technical student, but also integrates cultural and technical issues in our globalsociety. The object is to enlist the student’s enthusiasm for technology in the process oflearning a foreign language and studying international cultural and technological issues.In our global society, our students are acutely aware already of the professional value ofthe ability
arriving at the target, spanningover a period of three years, provided unique experiences of mobilizing human and physicalresources akin to a large-scale project management. Out of this experience came severalstrategic initiatives that will position KAAU to be a leader in engineering education in theMiddle East. The two most important initiatives are: (1) the offering of a new mandatorycourse, Introduction to Engineering Design, and (2) the creation of the EngineeringConsulting and Professional Development Office (ECPDO). The goal of the new course is tointroduce students to the Engineering Method which can be accomplished by focusing on 1)Self Regulation, 2) Communication, 3) Working Cooperatively and Collaboratively, 4)Problem Solving, 5
5. Perceived Importance of Engineering Knowledge & Skills 7. Ability to Solve Open-Ended Problems IDENTITY 2. Motivation for Studying Engineering 3. Interpersonal Confidence 15. Extra-Curricular Fulfillment EDUCATION 8. Opportunity to Solve Open-Ended Problems in Courses 9. Exposure to Project-Based Learning Methods 10. Interaction with Faculty 11. Interaction with Teaching Assistants 12. Satisfaction with Academic Facilities and Services 13. Overall Satisfaction with Collegiate Experience
learn to develop and trainANNs through small projects and activities that lead up to an independent research project.Examples of student projects are presented including the application of ANNs for modeling theozone disinfection of water, the price of real estate as determined by housing features in a localmarket, and admission into an independent boarding school based upon admissions applicationdata.INTRODUCTIONThe field of robotics has becoming increasingly accessible to students of all ages. For example,Lego robotics kits are now commonly used to teach robotics in K-12 classrooms. However,other branches of artificial intelligence (AI) still remain inaccessible to pre-college students inspite of their educational potential.In this paper we
numerous works cited above, the use of ePortfolios in education, especially inengineering education, is still in its infancy. In a seminar delivered at the Virginia Tech campuson October 17, 2003, Yancey14 discussed various models, definitions, and promising directionsrelated to electronic portfolios. She raised thought provoking questions related to portfoliodevelopment including ‘Where will students do this work, and why?’, ‘What effects willportfolios exert?’, ‘Is there a relationship between electronic linking and cognitive linking?’These questions and others are among those beginning to be studied through a pilot ePortfolioprogram at Virginia Tech.3. Pilot ePortfolio Project at Virginia TechVTeP, the new university wide Virginia Tech
often been avoided. With a heavy emphasis on teamwork via industry and accreditationstandards, group projects are a high priority.There are two primary problems to resolve when students work on teams. The first problem isthat students are rarely taught how to work on teams. The second problem is the need to assesseach individual’s contributions (or lack thereof) to the team.Assessing teamwork, by its very nature, is usually deemed as a subjective process. Thus, theapproach employed to perform the assessment must be structured in a manner that can beobjectively and quantitatively measured via a methodology emphasizing the teaching of teamworkand the evaluation of individual contributions to a team. The individual assessments areaccomplished
educational facilities to employ the tool. Additionally, fully immersiveVR is not practical for group environments such as classrooms and serves to isolate the studentfrom supporting course material and input devices.A cost effective stereoscopic projection system composed of a single 1GHz PC with 512 MB ofmemory, two DLP projectors (Infocus LP 530), polarizing filters, a dual head NVidia Quadro4900XGL graphics card, a silver projection screen, and polarized glasses, was developed. Thesystem works by first rendering a scene using the OpenGL graphics library. On the hardwarelevel of the graphics card, the scene is captured from two different perspectives meant tosimulate the position of each eye in the physical world. These two streams are fed out on
physics institutes which cover • Matter, Mechanics and Energy • Electricity and Magnetism • Optics and Sound.As a means of spreading the concepts and influence of the program beyond the Columbia area,the project personnel have recently completed development of a CD-ROM called "ExploringPhysics: Electricity and Magnetism," designed for use by in-service teachers, and whichcontains hands-on activities from the electricity and magnetism unit aimed at children in grades5-9. The Electricity and Magnetism CD has been field-tested at an in-service training institutefor teachers, has received favorable reviews from such prestigious groups as the National
, studentstake a course in fluid mechanics. They are introduced to fundamental concepts in heat transferduring the first semester of the senior year. Some students choose to take Energy SystemsLaboratory at this time. However, most students take the laboratory during the second term ofthe senior year. The course, therefore, also serves as an excellent review opportunity for theEIT/FE exam. Strategies used in the thermodynamics, fluid mechanics, and heat transfer coursesinclude homework problems, reports, presentations, and design projects. These strategies allowstudents to apply and analyze fundamental concepts in energy systems. In the prerequisitecourses, student progress toward learning outcomes is assessed with traditional tools such asforced-choice
allows the generation of unique and high quality, out-of-the-box multiple solutions in a short period of time. The methodology can be easily taught,learned, and used, and may be practiced by individuals as well as teams.The new course uses hands-on problem-based learning and emphasizes expanding creativity andthinking skills of students. The activities include 3-D mechanical puzzles, games, mind teasers,LEGO® Mindstorms competitions, and design projects. These activities allow for self-paced,semi-guided exploration. They lead to out-of-the-box inventive thinking, imagination, intuition,common sense, and teamwork. The course and the use of the Eight-dimensional methodologyhave been recently evaluated with encouraging results. Proceedings of
division courses. Several changes were made tospecific courses to improve students’ integrative understanding of calculus and the physicalsciences, and to emphasize applications to engineering. Various data have been collected toinvestigate the impact the reforms had on student learning, as well as to gain insight intostudents’ experiences during their undergraduate engineering career. Interviews were conductedwith engineering students and faculty to garner feedback about integration efforts and studentsperceptions of the curriculum. This paper describes the interview project and outlines theinterpretive framework we established for the analysis of the interview data. Initial analysissuggests that students have difficulty understanding lower
purposefully employed in all areas of life: design of anyobject or product or service has to be in line with the three pillars of economic, social, andecological sustainability. As this is an integrated design process that demands cooperation frommany different sides of the design team, the role of systems engineering and engineeringmanagement to oversee these projects becomes extremely important.This is why today’s systems engineers will have to have a great understanding of sustainabilityand how the triple bottom line could be and should be met for every project. They need tounderstand many different principles of sustainable design, for example, how to use low-impactmaterials that are non-toxic, sustainably-produced or recycled materials; how to be
that can be used in science, math,engineering and technology. The course is based on: a) well established systematic and non-systematic approaches to inventive problem solving, b) results from NSF support to FAU onunified frame for inventive problem solving strategies, c) proven successful methods that havebeen used in high-tech innovative industries, and d) on going E-teams projects sponsored by theNational Collegiate Inventors and Innovators Alliance (NCIIA).One of the core ideas of the class is the Eight-dimensional methodology for inventive andinnovative problem solving. It is a systematic approach that stimulates innovation by effectivelyusing both sides of the brain. The methodology is a unified approach that builds oncomprehensive
Paper ID #43419Engineering a Bridge Across Cultures: Insights to Support Dialogue withEngineering Professionals on Ethical and Social Design ConsiderationsMs. Tiffany Smith, NASA Tiffany Smith serves as NASA’s Chief Knowledge Officer (CKO) and Director of the Office of the Chief Engineer’s Academy of Program/Project and Engineering Leadership (APPEL). Ms. Smith is responsible for managing NASA’s APPEL Knowledge Services learning and development program, providing strategic communications and continuous learning to project management and systems engineering personnel, and overseeing knowledge services across the agency in
Paper ID #43559Developing Engineering Identity Through StoryDr. Michelle Marincel Payne, Rose-Hulman Institute of Technology Dr. Michelle Marincel Payne is an Associate Professor in the Civil and Environmental Engineering at Rose-Hulman Institute of Technology. She earned her Ph.D. in Environmental Engineering from the University of Illinois at Urbana-Champaign, her M.S. in Environmental Engineering from Missouri University of Science and Technology, and her B.S. in Nuclear Engineering from the University of Missouri-Rolla (same school, different name). At Rose-Hulman, Michelle is leading a project to use story to help
Paper ID #42186Board 265: Enhancing the Transfer Experience through a Collaborative CohortProgram: the Culmination of a 5-year NSF S-STEM Program at a CommunityCollegeDr. Claire L. A. Dancz, Clemson University Dr. Dancz is the Associate Director for Instructional Innovation in the Office of Teaching Effectiveness and Innovation at Clemson University.Dr. Elizabeth A Adams P.E., California Polytechnic State University, San Luis Obispo Dr. Elizabeth Adams is an Assistant Professor at Cal Poly in San Luis Obispo, California. She a civil engineer with a background in infrastructure design and management, and project management. Her
is an IEEE Fellow (2005). He received the Distinguished Teaching Award at UC San Diego in 2019. He served as Associate Editor for IEEE Transaction on Signal Processing, Signal Processing Letters, IEEE Transaction on Circuits & Systems, and IEEE Transaction on Image Processing. See his research publication at Google Scholar. Prof. Nguyen is passionate about teaching and mentorship, creating initiatives that prepare students for career success. During his term as ECE department chair, with the help of faculty and students, he spearheaded the Hands-on curriculum, Summer Research Internship Program (SRIP), and the Summer Internship Prep Program (SIPP). He also co-created the Project-in-a-Box (PIB) student
Engineering IdentityAbstractThis paper is a work in progress (WIP) for an NSF project that explores first-generation students(FGS) in engineering technology (ET); specifically, their academic performance, engineeringidentity development, and use of social capital all compared to continuing generation students(CGS) peers. Despite the growing number of engineering technology degrees awarded annually,there is a scarcity of research focusing on the acquisition of engineering identity, particularlyamong FG students. Overall, this project will utilize a two phase, mixed methods approach. Inthe first phase, we will quantitatively assess academic performance comparisons between firstgeneration and continuing generation engineering students and utilize the
. When initially discussing what questions should be included in the pre-survey, wecame to the conclusion that we wanted to assess how critical a participant was of informationsources. But we also recognized that asking a direct question on this topic could influence theirbehavior during the observational session. As a workaround to this issue, we decided to ask thestudent about their previous engagement with research projects and their previous exposure tolibrary instruction. We feel that these questions will help us parse out students that have moreformal experience with information literacy and source evaluation in the final dataset. Thepost-survey questions are designed to provide both quantitative and qualitative data to betterunderstand
1. Before beginning an analysis on the bottle position, review what is known about aerodynamic drag on the bottle. The aerodynamic drag equation found in introductory fluid mechanics texts for flow (2-D) around a circular cylinder is: (4) where: CD is the coefficient of drag AP is the projected area ρ is the fluid density V0 is the free stream velocity This equation has been widely applied to flows perpendicular to the axis of cylindrical objects (pipes, tubes, wires, etc.). The coefficient of drag is found from empirical charts based upon the Reynolds number for a circular cross section: , (5) where: D is diameter, and μ is
audience.Each year, MATE selects a different competition theme, which helps students draw theconnection between the competition tasks and real-world situations. The themes and missiontasks are designed by the MATE Center in collaboration with industry professionals andscientists.In 2008, the competition theme showcased hydrothermal vents and the technology used to studythe deep sea environments (mid-ocean ridges) where these are found. As stated in the 2009annual report: The MATE Center worked with Ridge 2000 program staff to design a scenario and mission tasks that highlighted Ridge-related research projects and the potential hazards of working in a hostile environment. 2 For example, one mission