licenses. Taylor holds a BS in Biology with Chemistry minor, MS in Science Education, and Ed.D. in Curriculum and Instruction.Carolyn Plumb, Montana State University Carolyn Plumb is the Director of Educational Innovation and Strategic Projects in the College of Engineering at Montana State University. She works on various curriculum and instruction projects including instructional development for faculty and graduate students. She also serves as the college’s assessment and evaluation expert, currently evaluating the success of various programs and projects, including the Designing Our Community program, the Providing Resources for Engineering Preparedness program (funded by the U.S
-Israel Institute of Technology Igor M. Verner is Associate Professor at the Department of Education in Technology and Science, Technion – Israel Institute of Technology. He received the M.S. degree in Mathematics from the Urals State University and the Ph.D. in computer aided design systems in manufacturing from the Urals State Technical University (1981), Yekaterinburg, Russia. Dr. Verner is a certified teacher of mathematics and technology in Israel. His research interests include experiential learning, cognitive and affective development, design projects, and robotics. He is involved in organization of international robot competitions and guidance of school teams
codify what we know about open (source) design with a view to using thisknowledge to develop and evolve new courses and projects with these methods. We take opensource to be a transparent, collaborative process for developing public knowledge that is free atthe source, whether for a design or otherwise. The most well known examples are Linux andWikipedia, but there are many enterprises that qualify such as the Open Source Initiative, theElectronic Frontier Foundation, YouTube, Scribd, Creative Commons and Firefox. Here we willtell the story around the case of Linux.1The paper maps the philosophy and concepts of Open Design,2 linked historically to a distinctsocial philosophy frequently dubbed libertarian in the United States but which has equal
University of Texas at Tyler Department of Civil Engineering is a relatively new CEprogram; graduating its first class in 2008 and achieving its first ABET accreditation in2009 (retroactive to 2008). The senior design experience was conceived as one thattouches seven sub-disciplines of civil engineering – hydrology, structures, transportation,environmental, geotechnical, construction management, and surveying, and is organizedaround a major project design (building and site development, bridge and roadway design,etc.) from initial needs gathering in client interviews through completion of the 100%design activities. The Civil Engineering program took the position that all of the programoutcomes could be assessed during the two-semester senior design
AC 2010-878: SPECIAL SESSION: ASSESSING MORALITY, IDENTITY, ANDMOTIVATION IN A FIRST-YEAR MATERIALS ENGINEERING SERVICELEARNING COURSETrevor Harding, California Polytechnic State University Trevor Harding, Ph.D., is Professor and Chair of Materials Engineering at California Polytechnic State University, where he teaches courses in engineering design from a materials perspective. His research is focused on the educational outcomes associated with service learning and project-based learning with a particular focus on ethics education. He is also PI on several projects investigating the degradation of biomedical materials in physiological environments. Dr. Harding serves as Associate Editor of the
design the vehicle in a real-worldatmosphere. Sponsors of the competition provide teams with the engineering tools andequipment needed to create a realistic vehicle design project. Using these tools the ERAU team,the EcoEagles, have devised a Power-Split EREV propulsion system. The team will build aprototype vehicle that will be tested at GM’s Desert Proving Grounds in Yuma, Arizona andMilford Proving Grounds in Detroit, Michigan.Vehicle electrification is a major component of the vehicle design. The team designed around a25-mile electric range, which provides a significant benefit for most consumers. The averagecommuter (50%) drives less than 40 km per day. This means that a consumer using theEcoEagles vehicle almost never has to use the diesel
Engineering and industry in the State of Maryland. Initialprograms included: • On-campus incubator opened in temporary buildings and moved to a permanent building in 1998 • Program to establish industrially oriented laboratories • Manufacturing extensionIn 1987, a new program was added to facilitate R&D projects for Maryland companies, carriedout on campus by faculty and graduate students – Maryland Industrial Partnerships (MIPS).Since 1999, Mtech’s entrepreneurship programs have evolved significantly with the followingtimeline:1999 Hinman CEOs residential program for juniors and seniors2001 Technology Startup Boot Camp University of Maryland Business Plan Competition
new games) in order to enhance the learning ofwireless communication systems and technologies through experience with real worldrelationships, theoretical and physical, within the game systems and simulations.Marrying course methodologies from the Video Game Design curriculum in the School of Mediaand Communication with the content and subject matter of the School of Engineering andTechnology seemed both novel and challenging, and offered the promise of unique outcomesthat would significantly enhance learning by providing “virtual apprenticeships” to engineeringgraduate students. The overarching concept was influenced by Shaffer’s3 work on epistemicgames, but, this project went further by introducing the concept of video games designed by
, pro bono legal work, food safety, the electoral college, influences of cultural differences in cancer survival, the training of osteopathic physicians and others.Colleen McDonough, Michigan State University Colleen A. McDonough is a graduate assistant in the College of Engineering at Michigan State University. She is the coordinator of three component projects of a National Science Foundation grant focusing on retention issues and engaging early engineering students, and also serves as an academic advisor. Prior to coming to MSU, Colleen spent ten years as a development officer in the non-profit sector. She earned her bachelor’s degree in sociology from William Smith College and
the program ≠ Graduates do receive compensation commensurate with their teaching commitmentsThe program is described in detail below, as well as a dialog with a previous mentee/mentor pair.EF Mentoring StructureThe mentoring program within Engineering Fundamentals has two possible structures: 1)Masters students who typically teach for one or two semesters and 2) Doctoral students whoteach for multiple semesters throughout their course of study. Typically, the Masters students, asexpected, receive more guidance than the Doctoral students and have less responsibility.Prior to teaching in the department, the graduate students are paired with a mentor who has theprimary responsibility for the basic course material, class projects, exam
future “team-oriented” relationships in the real world. This courseis structured to be a multi-disciplined environment where third-year engineering technologystudents can explore a number of relevant topics pertinent to their success as a student as well asa future practicing engineer. The resulting diversity served well as a precursor to examiningthese outcomes from different engineering perspectives. The teaching strategy necessarilyrecognizes that an ability to understand professional, ethical, and social responsibilities extendsquite naturally into the other areas of emphasis included in the outcomes. Presentations and classwork include traditional instruction, guess speakers, group projects, extensive writing, andstudent presentations on
in the department of educational leadership and policy studies at Iowa State University. Her research focuses on gender issues related to STEM.Mary Darrow, Iowa State University Mary Darrow is program coordinator for an NSF funded project focused on the pathway from community college to engineering and doctoral student in higher education at Iowa State University. Page 15.436.1© American Society for Engineering Education, 2010 Educating Future Engineers: Role of Community Colleges AbstractThis study is based on the efforts of a dissemination project to
surveys, questionnaires before, in the middleand after the implementation of the project are conducted to assess the effectiveness and outcomes ofthis project. Samples of the warm-up questions, the implementation and assessment plan of thePETL are described in the paper. In the end, a summary concludes that the proposed method showseffective in the teaching and learning of digital electronics course at IPFW.Keywords: Active Learning, Multimedia Delivery, WebCT, JiTT.1. IntroductionIn a traditional classroom, students are passive listeners most of the time. They come to theclassroom unprepared and just listen to the instructor and take notes. This classroom environmentlacks interactions between faculty and students, and between students themselves
modifiers.In this project, faculty members developed new course modules and introduced them into thecorresponding computing classes. Preliminary results were obtained and obstacles werediscussed, and in the future, we are going to develop more new course modules and also involvemore computing courses to be enhanced.Background Teaching computer courses is challenging these days since this generation of studentswitnessed the fast development and wide spread of computer techniques. Most of them are Page 15.1039.2already enthusiasts in popular computer applications, such as video games. However, theteaching of college level computer classes does not
AC 2010-1545: A NEW APPROACH: USING ELECTRONICS LABORATORYMORE EFFICIENTLY AND SAFELYFaruk Yildiz, Sam Houston State University Page 15.63.1© American Society for Engineering Education, 2010 A New Approach: Using the Electronics Laboratory More Efficiently and SafelyAbstractUse and administration of the electronics laboratories are very important due to safety concernsand variety of parts and equipment. There are a variety of components and devices which need tobe organized and monitored for different lab experiments. Electronics laboratories serve a varietyof students with different knowledge levels for their lab classes and various projects
it isNP-complete [8]. Many problems related to Tetris are also NP-complete, even for off-line games when thesequences are known in advance [8]. It is computationally expensive to find the minimum height or themaximum number of cleared rows. Some researchers consider Tetris as an optimization problem [9]. Someeducators use Tetris for teaching game development [10–15]. In the fall semester of 2009, we used Tetris as a semester-long project in a course of object-orientedprogramming. This course teaches both Java and C++; the Qt library is used to create graphical userinterfaces for C++ programs. The students had taken at least two programming courses (C Programming andAdvanced C Programming) as prerequisites. Many students had taken or were
andmanipulation of biological molecules 6,7,8,9. The imaging capability of AFM combined withmanipulation allows precise control of nanoscale components over which nanostrucures aremoved and characterized at each step of manipulation or assembly.Scanning probe microscopes have been expensive and were used mainly by the researchuniversities and high tech industry. However due to the increasing use of AFM for teachingpurposes, the leading providers of AFMs have developed low cost, high-value scanningprobe microscopes. The goal of our project is to set up an instructional lab using low costAFM and develop instructional material for visualization and manipulation of nanoscalecomponents for two and four year engineering technology programs. The paper will
competencies required of the Smart Grid implementation.This project proposes to achieve the following objectives: 1. Develop and deliver innovative smart grid enhanced curriculum beginning September 2010. 2. Develop and deliver a comprehensive, regional Distance Learning offering of associate, undergraduate, certificate, master and doctorate degrees beginning May 2012. 3. Expand Distance Learning curricula to meet national workforce needs by completion of project in April 2013. 4. Establish an innovative and experience-rich distance learning system incorporating best in class courses from all partner institutions and facilities. 5. Create a specialization in Smart Grid cyber-security. 6. Create a specialization in
energy efficiency and renewable energy projects. As mentionedearlier, sensor networks are an enabling technology for many applications that can increaseenergy efficiency. The Office of Electricity Delivery & Energy Reliability (OE) has $4.5 billiondollars for Smart Grid and efficient energy transmission projects. Sensor network technology isthe enabling technology for the Smart Grid. The DOE has already called for proposals from theelectrical power distribution industry to begin the long needed up-grade of the aging electricalgrid infrastructure in the United States. Recently, matching funds in the amount of $3.4 billiondollars were awarded to approximately 100 Smart Grid Investment Grant applicants by OE2.Some in this industry have termed
, and a senior member of IEEE. Page 15.224.1© American Society for Engineering Education, 2010 AVS: Science and Technology Virtual MuseumAbstractThe American Vacuum Society (AVS) has a desire to create a “virtual museum” as a way toarchive historical items. The items were used by vacuum technologists in the past for themanufacture of integrated circuits (ICs). The vacuum related equipment (e.g., pumps, gauges,and meters) represents important information regarding the history of the AVS. The AVSHistory Committee provided this project as a learning opportunity for a student in the Computer-Based Honors Program at The University
, and (3)manufacturing of plastic pellets using the creation of pixel cookies as a hands-on classroom activity.The undergraduate mentors leverage their industrial and academic experiences to create the lessons andact as role models for college and professional success. Evaluation of the activities includes a mappingto academic content standards, student interest surveys, and mentors’ reflections on their experiences.1. IntroductionThe Computer Science Investigations (CSI: Cincinnati) project brings undergraduates in engineeringand computing-related fields into urban STEM classrooms to interact with and teach high schoolstudents. CSI: Cincinnati is funded under the National Science Foundation’s Broadening Participation inComputing program and
• Resource • Environmental Analyst Manager Consultant • Operations • Sustainability Manager Consultant • Project ManagerBased on these job descriptions, a draft of program learning outcomes (PLOs) wasdeveloped. These PLOs were circulated among a group of professionals involved in localsustainability initiatives (http://sustainsd.wordpress.com/) to ensure that the learningoutcomes are consistent with the employer requirements. With their help, the programlearning outcomes were finalized.Program Learning Outcomes (PLOs):Upon completion of the MS program, graduates from sustainability management will beable to:• PLO # 1
AC 2010-1936: ON-LINE SURFACE ROUGHNESS MEASUREMENT USINGLABVIEW AND VISION METHOD FOR E-QUALITY CONTROLRichard Chiou, Drexel UniversityMichael Mauk, Drexel UniversityYueh-Ting Yang , Drexel UniversityRobin Kizirian , Drexel UniversityYongjin Kwon, Ajou University Page 15.920.1© American Society for Engineering Education, 2010 On-line Surface Roughness Measurement using LabVIEW and Vision Method for E-Quality ControlAbstractThe annual results of laboratory development under an NSF, CCLI sponsored project,“CCLI Phase II: E-Quality for Manufacturing (EQM) Integrated with Web-enabledProduction Systems for Engineering Technology Education” (NSF Award # 0618665
research focused on early engineering; his current research is supported by NSF/DUE and NSF/CISE.Ronald Rosenberg, Michigan State University Ron Rosenberg is Chairperson Emeritus of the Mechanical Engineering Department, Michigan State University, and Associate Dean for Research and Graduate Studies Emeritus of the College of Engineering, MSU. Prof. Rosenberg currently serves as Associate Dean for Special Projects, College of Engineering, MSU. His recent focus is on strengthening engineering undergraduate education and engineering education research. He is a mainstay in the development of a new curriculum for the Applied Engineering Sciences major at MSU. Prof. Rosenberg is a systems level
mathematical self-efficacy and problem solving skills). The research project is in its second year of implementation. Last year 120 students were introduced into the course, and this year 80 more students are involved in the project. Thus far, the results of the project have shown a strong correlation between student engineering interest, aptitude, programming understanding, and an increased understanding of mathematics.IntroductionMathematics has long been regarded as an essential skill, as noted by the American Society forEngineering Education’s mathematics division (Selingo, 2008). The Cold-War era “space race”pushed engineering awareness, mathematical, and scientific ability to the fore of our educationalsystem. And
A route to a resourceful water efficiency exploration: Residential Water usage of Water Efficiency section of USGBC, LEED Program Bahar Zoghi Moghadam Zoghimb@farmingdale.edu Assistant Professor of the Architecture and Construction Management Department of the Farmingdale State College, 2350 Broadhollow Road, Lupton Hall, Farmingdale, NY 11735 A project of water usage was assigned to the freshman students of Architectural and Construction management of the State College in fall 2009. In this project all students recorded their water usage for seven days and were able to calculate
A route to a resourceful water efficiency exploration: Residential Water usage of Water Efficiency section of USGBC, LEED Program Bahar Zoghi Moghadam Zoghimb@farmingdale.edu Assistant Professor of the Architecture and Construction Management Department of the Farmingdale State College, 2350 Broadhollow Road, Lupton Hall, Farmingdale, NY 11735 A project of water usage was assigned to the freshman students of Architectural and Construction management of the State College in fall 2009. In this project all students recorded their water usage for seven days and were able to calculate
Embedding LEGO Mindstorms in the Electromechanical Engineering Technology Curriculum Dr . Rathika Rajar avivar ma Depar tment of Computer Engineer ing Technology New Yor k City College of Technology Br ooklyn, NY 11201 Session: First year experience Abstract: The innovative use of LEGO as a tool for learning and exploring has leaped many boundaries. The use of LEGO is projected as a fun learning tool, while keeping the mind and the hands of the user engaged in creative activities. The degree of the diverse level of users captured by LEGO is practically boundless. The LEGO mindstorms is a fun learning tool for
evaluating the student learning outcome,(4) collect the exam or assignment,(4) Using the rubric, score the artifact and review the results, Page 15.326.5(5) Use the results for program improvement. The advantages of course-embedded assessment are multiple and diverse: (1) it is a process ofusing student activities, rather than nationally normed tests or surveys to assess skills andknowledge, (2) it builds on the daily work (assignments, tests, projects) of students and faculty,(3) it gets students to participate more fully as this is not a voluntary activity but part of theircourse work, (4) it is not "added on" to faculty work but is a part of their
AC 2010-33: A STRATEGY FOR INCORPORATING ADVANCEDMANUFACTURING TECHNOLOGIES INTO UNDERGRADUATE EDUCATIONDavid Wells, North Dakota State University David L. Wells has been Professor of Industrial and Manufacturing Engineering at North Dakota State University since January 2000. He teaches undergraduate and graduate courses in process engineering and production engineering systems design and in product innovation and entrepreneurialism. His instruction is characterized by heavy reliance upon project-based, design-centric learning. Course projects are drawn from real industrial applications with real industrial constraints, often interactive with a corporate sponsor. Students are challenged to