-media project devoted to the characteristics, principles and physical phenomena of water from an energy/momentum perspective. The systems functions are to be integrated into an interactive mode, in which the viewer(s) may observe, experiment and inquire through the utilization of visual/sound and computer animation relating to an actual real time experimental demonstration. The concept of vertical programming will be employed as defined by an unrestricted development of an idea or vision. In the development of the presentation the following guide lines are to be followed. The presentation must: be entertaining stimulate the viewer relate to real world
that need, andprovides an introduction to concepts such as the nature of information, representation ofinformation as bit streams, means for data compression, bandwidth, types of transmission andstorage media, and the fundamental principles governing information technology. Through theuse of laboratory project-based "personality modules" customized to address different studentdisciplinary interests and backgrounds (e.g., mechanical engineering, the sciences, the arts,management), the course will expose students to professional applications of these technologies.This course is being developed with support from the National Science Foundation’s Course andCurriculum Development program. Following are the overall goals of the WPI project
Application Issues Some of the exercises were targeted directly at application issues. Discovery of the issueswas a natural outcome of collecting and analyzing experimental data. SPC is aboutunderstanding the sources of variation in a process. The process of collecting data to generatecontrol limits created the opportunity to ask additional questions. For example, asking why aprocess has so much variation leads directly to exploring the possible causes of the variation.People skills It is extremely important that engineers posses excellent people skills3. Students in the IMEdepartment are introduced to the basic principles of effective teams in a second year course.Team projects are included in most IME courses. In the SPC laboratory, students
improved understanding of the science they use in the service of designcompletion.6 In this paper, we describe a curriculum research and development project devotedto exploring this hypothesis. We consider the theoretical background that supports this endeavor,the initial set of four engineering design-based science curriculum units that have been created,and the preliminary findings on the science content learning that occurs during unit enactment.The purpose of our project is to explore an overarching research question: what are theconsequences of using engineering-design-based activities as contexts for specific sciencecontent instruction in the upper elementary grades? To investigate this question, we havecollaborated with local teachers to
. Most reported it increased their understanding and confidence in their ability to use SPCtools, develop benchmarks and formulate a quality improvement plan. Students also indicated Page 15.1185.10that the laboratory should be used for future classes.Future ResearchThis laboratory has been taught the most and is closest to be completed. The most pressing needis to improve the project description regarding benchmarks for production and defect rate. Thecurrent implementation is well suited for kinesthetic/tactile and visual learners due to thegraphical nature of the websites and the opportunity to “mouse around” the websites. Howeverthere is
AC 2010-904: DEVELOPING A GLOBAL REAL-TIME ASSESSMENT TOOL FORTHE TEACHING ENHANCEMENT OF ENGINEERING GRADUATE TEACHINGASSISTANTSMonica Cox, Purdue University Monica F. Cox, Ph.D., is an Assistant Professor in the School of Engineering Education at Purdue University. She obtained a B.S. in mathematics from Spelman College, a M.S. in industrial engineering from the University of Alabama, and a Ph.D. in Leadership and Policy Studies from Peabody College of Vanderbilt University. Teaching interests relate to the professional development of graduate engineering students and to leadership, policy, and change in science, technology, engineering, and mathematics education. Primary research projects
participants to reflect on their learning.In compliance with these principles, we consider extending the course in the future toalso include additional technological subjects as well as project-based learning in thecourse.Bibliography1. Barlex, D. (Ed.) (2009). Design and technology for the next generation, Whitchurch, UK: Cliffeco Communications.2. Hacker, M. & Burghardt, D. (2008). Technology education: Learning by design, Boston, MA: Pearson Prentice Hall.3. Mitcham, C. (1994). Thinking through technology, Chicago: University of Chicago Press.4. De Vries, M.J. (2005). Teaching about technology: An introduction to the philosophy of technology for non-philosophers, Dordrecht: Springer.5. Bertalanffy, L.V. (1968). General system theory
AC 2010-388: STUDY ABROAD TO SEE THE WORLD AND BECOME A BETTERENGINEERKimberly Talley, Datum Engineers, Inc. KIMBERLY G. TALLEY, Ph.D. is a Graduate Engineer at Datum Engineers, Inc. where she works on new building design and historic preservation projects. She earned her Ph.D. in 2009 from the University of Texas at Austin where her research focus was on the assessment and rehabilitation of deteriorated concrete. She received two B.S. degrees from North Carolina State University and her M.S. from the University of Texas at Austin. Contact: kimt@datumengineers.comCatherine Hovell, University of Texas, Austin CATHERINE G. HOVELL is a PhD student at the University of Texas at Austin. Her
introduceengineering and the engineering design process (EDP) to K-12 students and that have aimed tocontextualize and motivate STEM subject learning through design tasks (e.g., the InfinityProject, Project Lead The Way, Learning By Design, LEGOengineering.com). State standards inMassachusetts and New York include engineering design among the basic process skills studentsmust learn. New materials are needed that scaffold students with as-needed content-basedtutorials, support team-based design work, and help student avoid common pitfalls whendesigning. Common pitfalls include students: doing “idea fixation”6, where design ideasremainunchanged over multiple iterations; not doing meaningful research, which could lead to betterdesign plans7; creating “design
engineering, research methods, and graduate engineering education courses. Her research interests include student-centered active learning in undergraduate engineering, assessment of motivation, and how motivation affects student learning. She is also involved in projects that utilize Tablet PCs to enhance student learning. Her education includes a B.S. in Bioengineering from the University of Vermont, and M.S. and Ph.D. degrees in Bioengineering from Clemson University. Page 15.898.1© American Society for Engineering Education, 2010 MuseInk: Seeing and Hearing a Freshman Engineering Student Ink
several others have recently started their own internal curriculum processesto get the degree program approved for offering in 2011.This community college Engineering Technology degree is part of a much larger statewideunified curriculum project that reaches the high school technology programs and careeracademies, incumbent worker training and bachelor degree programs. Embedding the MSSCSkill standards into the ET Core provides an industry-relevant articulation pathway fromsecondary programs that address these same industry skills. It also provides a pathway forincumbent workers to gain college credit by experience through certification. To accomplishthese articulations, FLATE has crafted the first-of-its-kind Statewide Articulation
AC 2011-1840: ADVANCE-PURDUE: RETENTION, SUCCESS AND LEAD-ERSHIP FOR SENIOR FEMALE STEM FACULTYSuzanne Zurn-Birkhimer, Purdue University, West LafayetteSusan Ruth Geier, Purdue UniversityProf. Chris Sahley, Purdue University, West Lafayette Page 22.145.1 c American Society for Engineering Education, 2011 ADVANCE-Purdue: Retention, Success and Leadership for senior female STEM facultyAbstractADVANCE-Purdue is an NSF-funded institutional transformation project designed to increasethe presence, retention and success of STEM female faculty. The Purdue Center for FacultySuccess (PCFS), the core of
AC 2011-1479: AN ACTIVE POWER FACTOR CORRECTION LABORA-TORY EXPERIMENT FOR POWER ELECTRONICS COURSEDale S.L. Dolan, California Polytechnic State University Dale S.L. Dolan is an Assistant Professor of Electrical Engineering at Cal Poly with experience in renew- able energy projects, education, power electronics and advanced motor drives. He received his BSc in Zoology in 1995 and BEd in 1997 from the University of Western Ontario. He received the BASc in Elec- trical Engineering in 2003, MASc. in Electrical Engineering in 2005 and PhD in Electrical Engineering in 2009 all from the University of Toronto. He is past chair of Windy Hills Caledon Renewable Energy, past chair of the OSEA (Ontario Sustainable Energy
, Computer Applications, Hotel Management and Catering Technology, and Applied Arts and Crafts 3 Page 17.7.4WHY INDIA WILL BE INCREASINGLY IMPORTANT IN THE COMING DECADES 4 Page 17.7.5 PROJECTED RELATIVE SIZE OF ECONOMIES Country GDP in US$ Terms GDP in PPP Terms 2005 2050 2005 2050USA 100 100 100 100JAPAN 39 23 32 23CHINA 18 94 76 143UK 18 15
theengineering design process to find a solution to the challenge. The goal is to time the stuntperfectly so that the free falling object nearly misses the CO2 car. Videos of students’ success andfailure will be shown at the end as well as student testimonials of the project. The testimonialswill show a higher level of student engagement and a deeper understanding of quadraticfunctions as a result of the challenge. The engineering design process is stressed during thechallenge to show students a proven method that is used by professionals to tackle challenges orsocietal issues. Students are encouraged at the end of the project to use the process to solve otherreal life problems. Hard copies of lesson plans will be provided to attendees.Authentic
materials.1) Cheryl Farmer is the founding program director of UTeachEngineering. In this role she hasled the successful development and launch of the design-based high school engineering courseEngineer Your World and has overseen the creation of degree programs for pre-service and in-service teachers of engineering at The University of Texas. Ms. Farmer is co-leading ongoingnational efforts to define standards for professional development for K-12 teachers ofengineering.2) Arnie Leslie is an educator at the Tesla STEM High School in Lake Washington SchoolDistrict (Redmond, Washington). His 26 years of secondary teaching experience includetraditional and project-based instruction in Physics, Environmental Science, and Engineering. InAugust 2015 he
engineering practices.Dr. Jacob Clark Blickenstaff Ph.D., Pacific Science Center-LASER Jacob Clark Blickenstaff, Ph.D. taught high school physics for five years before returning to UC Davis to earn a doctorate in Science Education. He taught teacher education and science education courses from 2004-2011. For two years he worked for the American Physical Society on their PhysTEC project, and in 2013 he joined Pacific Science Center as the Program Director for Washington State Leadership and Assistance for Science Education Reform (LASER). Page 18.27.1 c American Society for Engineering
middle and high school level, K-12 engineeringeducation, computational thinking.3) Tamara J. Moore, Ph.D., is an Associate Professor of Engineering Education within INSPIREat Purdue University. Her research is centered on the integration of STEM concepts in K-12classrooms in order to help students make connections among the STEM disciplines and achievedeep understanding. Her work focuses on defining STEM integration and investigating its powerfor student learning. She is PI on two K-8 STEM integration focused NSF-funded projects. WORKSHOP INFORMATIONProposed Title:Rehash Your Trash: An EngrTEAMS STEM Integration Recycling Curricular ModuleAbstract: Please provide a concise description that includes the workshop’s
interactive workshop will guide participants through the development of a customized planto make such connections in their own classrooms. It will move rapidly between shortpresentations, readings, small group discussions, plan creations, demonstrations and reflections.The workshop will use reflection as a vital activity and demonstrate its power in STEM relatedservice-learning. The facilitator has conducted over 100 presentations and workshops onengineering and service-learning.Small and large group discussions will be used to generate and refine ideas that can be tried attheir own schools. Each participant will leave with a set of resources and ideas for service-learning projects and sample lesson plans to implement within their own classroom
bus connector, and input and output signal connectors in BNC and audio,is designed and built for the DSP laboratory course. The DSP laboratory course usingFPGA offers opportunity for the students to implement and integrate what they learned indifferent courses such as digital signal processing, hardware design, and software design.This course can provide confidence for the students to initiate and complete projects inthe future.The experiments to be performed in the DSP laboratory course using FPGA includesampling and reconstruction of signals, generation of elementary waveforms,implementation of direct digital synthesizers, sound effects, finite impulse response (FIR)filter, infinite impulse response (IIR) filter, adaptive filter, modulators
Mechanical, Electrical, Civil, andComputer Engineering. With close proximity to the headquarters of the world’s topautomotive manufacturers, Lawrence Tech has a strong legacy in AutomotiveEngineering, which is offered as a concentration in its BSME program and at thegraduate (Master of Science in Automotive Engineering) level degrees.Engineering, technology, and advanced manufacturing are becoming increasingly global.Nearly every technical product is designed, engineered, and/or manufactured globally. Atsome point in their career, most of today’s engineering graduates will likely be working Page 10.65.1on projects that require interfacing with
.• Architectural graphics dates back to ancient times. In modern times, the Information Age has made possible the design of large and more complex structures. Typical structures designed using architectural graphics include buildings, bridges, towers, ships and many other structures. The methods of architectural representation include orthographic projection, plan and elevation views, and associated sections and details. Perspective drawings are commonly architecturally based. Additional architectural based graphics developed to fit within buildings include mechanical, electrical, pipe and ventilation systems. Without a basic understanding of the architectural design, it would be difficult to design components and systems of the
choose differentnumber of orthographic-projection views and dimensioning on chosen views by click GetModel Annotations -> Get Model Dimensions7. They can also adjust the text size andset up the precision for critical dimensions specified in the Model Parameters. Figure 8shows the final design drawing for the part shown in Figure 1. Figure 8. A Design Drawing Generated from the 3-D Modeling in Figure 11.4. SummaryA systematic approach to design a functional gage of a part specified in the GD&T isproposed. Through a hierarchical naming system, students can effectively locate atemplate file to set up all the critical dimensions identified in the “Comment” column ofthe Model Parameters. Equations to compute the virtual condition of the
goals were set to improve the number of grants, quality of publications, and number ofstudents involved in research projects. One measure of our accomplishment is that this past yearwe received $ 36 million in external funding which was a three-fold increase since 1998. Theseincreased strategic commitments to research and economic development created a favorablebackdrop for establishing a technology-based business incubator.Our most recent document states: “Research and scholarship are essential components of theUniversity’s mission. The University supports quality research and scholarly activities in allareas of its academic programs and community service activities. These programs enhance thecontributions of East Tennessee State University’s
IndustryAdvisory Council has engaged in very intense activity to identify the process to create theroad map for the EET program. The paper covers some pertinent details embedded inthis process.The attempt is to address the future workforce needs using technological predictions.The ambiguity surrounding forecasts makes it difficult to project meaningful futureemployment numbers especially when the technology is still at its conceptual stage. Wehave used the following approach: 1st to identify what the generic graduate attributesneeded to meet the industry standards, 2nd fine tune these attributes, 3rd add a few morerelative to a specific industry. With the assistance of our Industry Advisory Board thefollowing prioritized list of attributes were identified
each of the disciplines about how they relate to oneanother in a larger picture.In the spirit of interdisciplinary product development, students in the College of Engineering andTechnology at Brigham Young University participate in a “Capstone” experience that is meant toexpose them to the comparative peculiarities of the three disciplines of Manufacturing,Engineering, and Industrial Design. Despite the success of various individual team projects, ageneral dissatisfaction exists in the ranks of the students about what the actual benefit is for alltheir collaborative effort.Interdisciplinary Product Development efforts (both in and outside of industry) suffer from onesided biases based on the discipline of the sponsoring body. Engineering based
at Rochester Institute of Technology teaching in the ComputerEngineering Technology program. His courses include technical programming, project management, operatingsystems and other computer technology courses presented in the classroom and over the Internet. WALTER BANKES is a Professor at Rochester Institute of Technology and is responsible for teaching the micro-computers and micro-controllers courses in the Computer Engineering Technology program. Walt is currently inthe transition to retirement program, and his long term interest lay in the area of world travel and visitinggrandchildren.JEFF LILLIE is a design engineer with a BSEE (1988) from Rochester Institute of Technology, and a MSEE (1993)from the University of Rochester in Image
environmentalengineering emphasis.This project was initiated as an effort to solve the following problems:1. I have found that students do very little of the assigned readings in upper level courses. Perhaps I may perpetuate this problem by supplying the students with all the necessary information in lecture!2. I prefer to use lectures to discuss concepts rather than define vocabulary, explain the intricacies of regulatory rules, list out code requirements, etc. However, I cannot lecture on concepts if students don’t understand these basics.3. Although my lecture skills have been highly rated by students and they appreciate my enthusiasm and the active nature of my lectures, I still note that many students are not
accomplished byintroducing the student to a real-world multidisciplinary problem that can be broken into smallertasks or cases. The cases are interrelated by what is called the “Global Challenge.” The globalchallenge and its related cases can be simple for the use at the freshman or high school levels orcan be more complex for higher levels.V. The Case Files Learning CycleA. Case StructureOne highly effective structure for case studies is the “The Case Files Learning Cycle” shownbelow. This template is based on a learning cycle that was developed and piloted at VanderbiltUniversity and subsequently adapted by SEATEC for use in technological education. The modelis based on work done by SEATEC, Vanderbilt’s VANth Project, and from the frameworkdescribed
. The cases are interrelated by what is called the “Global Challenge.” The globalchallenge and its related cases can be simple, for applications at the freshman or high schoollevels, or can be more complex for higher levels.A. Case StructureOne highly effective structure for case studies is the “The Case Files Learning Cycle” shownbelow. This template is based on a learning cycle that was developed and piloted at VanderbiltUniversity and subsequently adapted by SEATEC for use in technological education. The modelis based on work done by SEATEC, Vanderbilt’s VANth Project, and from the frameworkdescribed in the National Research Council’s publication “How People Learn: Brain, Mind,Experience, and School4.”Relatively small, problem-based