investigator on both NSF and NASA grants, as Adjunct Professor of Project Management (cost, risk, contract & procurement) at the Keller Graduate School of Management and as Adjunct Professor of Material Science at SUNY Maritime College. Dr. Spang has also served on the Editorial Board of the International Materials Reviews, a publication of ASM International and is a frequent reviewer of ASEE proceeding submissions.Vladimir Genis, Drexel University Dr. Vladimir Genis, Associate Professor and Program Director of Applied Engineering Technology in the Goodwin College, Drexel University, taught and developed graduate and undergraduate courses in physics, electronics, nondestructive testing
preparation and reflection requirements for the workplacement. The changes included a move to Project Based Learning (PBL) with a partiallyinverted curriculum, and the introduction of a dual award, the Bachelor of Engineering(Coop)/Diploma of Professional Practice.PBL and an inverted curriculum was introduced in 1998, with the aim being to ensure thatstudents were sufficiently prepared to work as junior engineers in industry at the end of theirsecond year of study. The PBL curriculum was intended to teach students in context, withcontent being integrated instead of delivered in discipline silos, as well as developing a numberof the professional practice skills required, such as teamwork, communication, critical thinkingand problem solving.The Diploma
technicalprograms. Intern, co-op and capstone experiences and preparation for professional certificationare popular benchmarks for relevance in these programs.2, 3 At Kettering University, all studentsparticipate in a mandatory co-op program from their first year, alternating every quarter betweenacademic terms and co-op work at an industrial or research-oriented sponsor. These culminate ina sponsor-driven thesis project, required for graduation.This fully co-operative model of education demands connection to practical applications inacademic courses. Students expect course topics explicitly tied to industrial needs orprofessional skills. Additionally, students bring a rich variety of experiences from their workterms, and will readily share what they’ve
till finally the nano-devices are shaped. Thenanolithography techniques, such as extreme UV lithography (EUV), X-ray lithography,E-beam projection lithography (EPL), ion projection lithography, microcontact printing,nanoimprinting, and SPM (scanning probe microscope) based techniques are used in top-down approach. In bottom-up approach, it creates a construct by assembling simplebuilding blocks (atoms, molecules, etc.) according to pre-designed scheme. It relies onthe self-assembly and self-organization of the molecules, which is totally different fromthe top-down approach used in VLSI fabrication in the past decades. In conclusion, microand nano fabrication techniques are important knowledge backgrounds to understand theMEMS and
solar cells 2 weeks: power deliveringThis part may be difficult to most of the students and it will cover some basic knowledge inpower electronics, such as DC Regulation and Voltage Conversion, Inverters, Fuel Cell/PV cellor Capacitor Hybrid Systems Page 14.752.6In the teaching of the above contents, discussions in the class are helpful to ensure that studentsare not overwhelmed by the multidisciplinary material or the course pace, thus they can followthe lecture notes with strong interest. In the mean time, the feedback from the discussion is veryhelpful to improve the course design, especially in the homework and project
of Phi Kappa Phi.Paul Curtis, Northern Illinois UniversityAndrew Barendregt, Northern Illinois UniversityAnthony Surillo , Northern Illinois University Page 14.122.1© American Society for Engineering Education, 2009 Design and Implementation of A Sun Tracking Solar Power SystemABSTRACTA senior design project is an integral part of the undergraduate engineering technologydegree program requirements at a four-year engineering technology institution. Allstudents are required to complete a two-semester long (4 credit hours) senior designproject. Three electrical engineering technology undergraduate students formed a seniordesign project
, except for handful institutionsthat offer a Master of Science program in M&S, no other educational program is currentlyavailable at the undergraduate level, especially for electrical engineers. This demands thedevelopment of a curriculum and requirements for its assessment, which is the topic of thispresentation. The development is part of a National Science Foundation (NSF) grant for acourse, curriculum, and laboratory improvement project called Undergraduate STEMEducation Initiative in Creative Educational (USE-ICE) innovation for electricalengineering students at the College of Engineering, the University of Nebraska-Lincoln(UNL).1. IntroductionGlobalization and international research and development have changed the way the UnitedStates
holistic “cradle to grave” approach Do things right, having decided the right thing to do Beware cost reduction masquerading as value engineering Practice what you preachThe third lecture builds on Egan Review Skills for Sustainable Communities7. This is included tostimulate student thinking about their skills development, the other professions who they may beworking with in the future and to support their year-long first year design project which is Page 14.800.5looking at conceptual design of an eco-town for 20 000 people.The Egan Review presents seven components that are core to realising a sustainable community.They are
Effectiveness Assessment process and supports assessment of academic programs and administrative departments. She also designs statistical studies to provide information about student engagement, institutional conditions that enhance student learning outcomes, progression, and retention to provide actionable reports to decision makers to include upper administration, faculty and staff. Dr. Lancey has served as the outside evaluator for several NSF funded grant projects. Prior to this, she held positions at Johns Hopkins School of Public Health, Westat, Inc., University of Alabama, and Palm Beach Community College. She presents papers and workshops for faculty and administrators on educational
the majority havenow undertaken graduate studies. Two students (one in 2007 and another in 2008) made returnvisits to implement aspects of their designs. Another group of 4-6 students will participate in2009. These projects add to engineering capstone design opportunities by providing a moreglobal experience, a unique cultural opportunity, experiential10 and service learning11opportunities, humanitarian objectives, and the potential to aid in developing design solutionsthat could extend well beyond those of most undergraduate projects. This initiative wasestablished by Professor Ward who has lived in South Africa and has relatives living in thevicinity of Cape Town.Throughout the nation some engineering educators have instituted international
AC 2009-1281: PUTTING THE 'E' INTO STEM EDUCATION IN THEELEMENTARY SCHOOLMichael Pelletier, Northern Essex Community CollegeLinda Desjardins, Northern Essex Community CollegePaul Chanley, Northern Essex Community CollegeLori Heymans, Northern Essex Community College Page 14.998.1© American Society for Engineering Education, 2009 Putting the 'E' into STEM Education in the Elementary SchoolAbstract:During the summer of 2008, in year one of a three-year project funded by theMassachusetts Pipeline Fund and entitled "STEM ROCKS," a cooperative effort began tointroduce Engineering is Elementary into the elementary schools of four public
senior project at Oregon Institute of Technology combines communicationand engineering design in a group intensive, team-taught environment. Student teams, however,are not always serendipitous. The most common problem is conflict, usually the result of “socialloafing”: students who either ride the coattails of others or do not perform up to groupexpectations. Unresolved conflict can fester and result in group dysfunctionality. Peer review,as well as judicious faculty oversight, can help alleviate some of the more typical group Page 14.1287.2problems. This portion of the paper explains some common group problems, offers a peerreview instrument and
designs and the various technical topics are introduced as needed. Each ofthese courses includes elements of CS, ECE and ME. To add cohesion within courses, eachcourse in the unified sequence has its own focus, such as locomotion, sensing, manipulation, andnavigation. Students in the Robotics program also take other required and elective courses,selected from courses already offered by the various engineering departments. In addition, theprogram includes an entrepreneurship component to prepare future “entrepreneurial engineers.”6Like all majors at WPI, the program culminates in a capstone design experience wherein studentssynthesize their accumulated knowledge in a major project. The RBE program is designed sothat it can be accredited under the
aforementioned three fundamentalquestions: Page 14.1132.2Question 1: What is possible, based on our current understanding of the laws of the universe?This is projection, and is important in that it prevents the students from discussing their favoriteFaster-Than-Light travel methods and techniques for perpetual motion as part of the class, andalso makes them question closely the science behind current projects aimed at extremely esotericobjectives. Projection is rarely a negative, in that it is very difficult to say with certainty thatsomething is not possible. Rather, projection typically results in either a positive (a thing ispossible) or a neutral (it
communication tool. The AmericanSociety of Civil Engineers (ASCE) recognizes that the ability to communicate effectively is arequired outcome for civil engineering education, noting that in addition to written and oralcommunication skills, graphical communication is also important when interacting withtechnical and non-technical individuals.1Importance and Use of Hand-Drawn SketchesKivett2 notes free-hand sketching can quickly convey technical information to diverse audiences.At public meetings for proposed projects, clients often prefer free-hand architectural sketchesrather than CAD drawings since hand-drawn sketches imply the design is not set in stone,whereas the public may perceive the project as unalterable when CAD drawings are used.2According
. The UC PFF program consists ofthree one-hour courses and a mentored teaching component. The first course, in the WinterQuarter, provides information on basic effective teaching techniques for engineering, includingKolb learning styles, and how to organize a course. In addition, cultural differences anddiversity are discussed in the context of science and engineering classes. The advanced teachingclass in Spring Quarter emphasizes advanced pedagogical techniques including Bloom'staxonomy, concept maps, project and team management for developing leadership skills,teaching evaluations, proposal writing, and mentoring and being mentored. ABET engineeringcriteria a-k are applied to syllabus development, and students hold a mock NSF review
progressed in steps over timeto where we are today. Perhaps even early technologies were misunderstood by the people of thetime and today’s lack of understanding is just a continuance of that tendency. This may even bethe case for today’s engineering students. For the most part, current technologies are included inthe engineering and engineering technology curriculum. However, technologies from the past arenot. To remedy the situation, a project was initiated to enhance the engineering student’sknowledge of how past technologies were developed. The objective was to improve theirawareness of technology’s historical heritage and foundation. In order to accomplish this anactive learning hands-on component was added to a traditional lecture based course
call option.Real options analysis is based on the same mathematics, but a new set of definitions: C value of a deferral (or delay) option S0 present value of the future cash flows ф(dx) cumulative standard normal distribution of the variable dx X project cost r risk-free interest rate T time to option expiration σ volatility of the project’s rate of returnUnfortunately, the translation from financial options to real options adds several layers ofambiguity. In determining the present value of the future cash flows (S0), what interest rate andwhat compounding technique should be used? In determining volatility, what method should beused? The answers depend on where you
Digital Simulator (RTDS) is an effective tool for modeling andsimulation of power and control systems. RTDS hardware employs high-speed DSP (digitalsignal processor) chips, operating in parallel, to compute simulation results with simulation stepsizes as small as two microseconds. This paper discusses projects and activities used in bothteaching and research activities to provide exposure of the Real Time Digital Simulator (RTDS)for power system applications.IntroductionThe approach to teaching traditional power system topics needs to be revisited to ensure that thenew graduates are equipped with the required knowledge needed in a more competitive industry.Also these new pedagogical approaches need to renew interest in power engineering to
data was supplied to them. An example of the questions is shown inTable 1. Table 1. Student Performance in Design An Open Ended Problem of Designing a Signalized Traffic Intersection Conduct 6 computer optimization runs using HCS 2000 (latest edition). Submit individual reports. You are provided with options in choosing the following variables on the open ended problem. 1. Signal phasing duration: Red, Green and Yellow timings 2. Design strategy for minimizing the global average vehicle delay of the intersection Answer the following. 1) What is the global minimum intersection delay? 2) Write a report on the project including a critique on the process, progress and results. East-West: Green time= 25-50 Sec., Cycle time
uniqueopportunity to establish strong links with faculty, gain hands-on laboratory experience, anddevelop an appreciation for research careers in academia and industry. TREX participantsreceive a $2,600 research stipend ($1,300 per semester) and are required to spend an average of10-14 hours per week on his/her research project throughout the fall and spring semesters. Inaddition, TREX participants are required to submit: (1) a research plan; (2) monthly progressreports; (3) a daily research journal; and (4) a final written report. Finally, TREX participantsare expected to attend weekly seminars/group meetings and prepare a poster and oralpresentation.Since Fall 2001, 97 students have participated in TREX. The retention rate in engineering forTREX
AC 2009-649: AN ENERGY-HARVESTING CURRICULUM DEVELOPED ANDOFFERED AT THE ILLINOIS INSTITUTE OF TECHNOLOGYOmer Onar, Illinois Institute of Technology (IEEE S’05) received his B.Sc. and M.Sc. degrees in electrical engineering from Yildiz Technical University, Turkey, in 2004 and 2006 respectively. He was a research scholar in Electrical and Computer Engineering Department at the University of South Alabama (USA) from August 2005 to August 2006 and involved US Department of Energy projects based on power management for fuel cell applications. Currently, he is a doctoral research assistant at the Energy Harvesting and Renewable Energies Laboratory (EHREL) at the Electric Power and Power Electronics Center
Associate Vice President for Visualization Computing. He formerly was Department Head and a Professor in the Department of Computer Graphics Technology. He is the co-founder of the Digital Enterprise Center in the School of Technology, and, in the 6 years he served as Department Head, he more than doubled enrollment, funded projects, and donations to the department. Prior to becoming department head he was on the faculty in Computer Graphics Technology for 4 years. Prior to joining the faculty at Purdue, Gary served three years as a faculty member in the College of Engineering and Department of Engineering Graphics at The Ohio State University. He has authored numerous papers in
AC 2009-410: SYSTEMS AND GLOBAL ENGINEERING: RESULTS OF A PILOTSTUDY FOR HIGH-SCHOOL STUDENTS AND TEACHERSMercedes McKay, Stevens Institute of TechnologyDebra Brockway, Stevens Institute of TechnologyBeth McGrath, Stevens Institute of TechnologyHenry Harms, Stevens Insititue of TechnologyEirik Hole, Stevens Institute of TechnologyDavid Janosz, NJTEA Page 14.1116.1© American Society for Engineering Education, 2009 Systems and Global Engineering: Results of a Pilot Study for High School Students and TeachersAbstractThis three-year project is designed to engage high school classes in New Jersey and elsewhere ina geographically-distributed systems
productive, effective, and innovative.Keywords: interdisciplinary collaboration, group formation, self-organizing unitsI. IntroductionWork teams are often led by project managers and situated in a large organizational environmentwhere routine and predictability are valued. In certain settings, such as in open source softwaredevelopment,1 groups can form without traditional project management structure in a looselycoordinated environment that is both self-organizing and self-managing. This concept of self-organizing invests group members with a greater commitment to be productive, effective, andinnovative. However, there has still been little discussion about self-organizing teams in aneducational setting. By breaking down disciplinary divisions to
AC 2009-2287: THE ENGINEERING SCIENCE PRAXIS SEQUENCE:CHALLENGES AND OPPORTUNITIES WHEN INTEGRATING SUSTAINABLEDEVELOPMENT INTO THE ENGINEERING DESIGN CLASSROOMJason Foster, University of TorontoAlexandra Heeney, University of Toronto Alexandra Heeney is a University of Toronto National Scholar in her 3rd year of undergraduate Engineering Science at the University of Toronto, majoring in computer engineering. She has been involved with Sustainable Development (SD) projects and SD education for several years, as a participant at the Design Science Laboratory at the United Nations in New York City, a delegate in sustainable development education for the Canadian Commission for UNESCO in Ottawa, and
the unique communal atmosphere thatcannot be found at many other schools, and that helps develop the students further than otherprograms might. The following sections describe the work and social atmospheres referenced,detailing certain aspects that are, from a student’s perspective, crucial to the unique nature of thisprogram.Working TogetherAt FSEL, working with your fellow students is not just a suggestion. The lab is set up toencourage multiple arenas for collaboration between students, including group research projects, Page 14.652.3shared resources, and copious amounts of communal space.Common Entering CurriculumThree courses are the
Copyright © 2009, American Society for Engineering EducationDatabase Engineering Requirements (42 Credit Hours)All students graduating in database area of specialization must complete 42 credit hours whichconsist of 27 credit hours core and 15 credit hours electives:Database Engineering Core Courses: 1. CS 2450, Software Engineering (3.0 CR) Presents concepts, methodology and best-practices necessary to develop large scale software projects. Includes step-wise software requirements analysis, design, implementation, testing and release. Discusses software generation, reuse, scheduling, verification, and maintenance. Emphasizes current “real world” industry best-practices and tools
. IntroductionThis is the fourth of four invited papers prepared for the special panel session of the ASEE-National Collaborative Task Force on Engineering Graduate Education Reform. This paperaddresses the importance for federal government and U.S. industry to invest in a nationaldemonstration project with innovative universities across the country to accelerate thedevelopment of professional master of engineering and doctor of engineering programs that meetthe needs of engineers in industry in bolstering U.S. technological innovation for the nation’sfuture economic growth, global competitiveness, and national security.1.1 Benchmarking National StrategiesToday, as the United States competes in the global economy, its industries are facing
improve student performanceand retention challenges unique to minority institutions by using the Conceive-Design-Implement-Operate (CDIO) framework as the context for engineering education. Thisframework facilitated a systems engineering design process by benchmarking andformulating the skills, knowledge, and attitudes desired by stakeholders (industry,faculty, students) as requirements for the design, engaging freshman students early andcontinuously in the program with continuity in the courses and relaxation ofprerequisites, establishing mutually supporting contents and proficiency in skill levelsamong the courses, integrating the teaching of personal and interpersonal skills into thedesign projects, using active and experiential learning