, critical thinking, and root cause analysis. One of the most direct connections to engineering education, this parameter develops the skills necessary to apply knowledge to solve problems and develop applications for industry.3. Applying engineering technology knowledge and processes to real world experiences, through internships and high-level on-campus projects.5 A major divergence between engineering and ET, ET is based on the application of knowledge, hence the need for hands- on projectsin and beyond the classroom.4. Working individually as well as in a team to solve problems.5This applies to technology programs school wide as cross-discipline work will prepare students for the “real world” of engineering technology. Importantly
AngelesUnified School District, the Partnership for Los Angeles Schools, MESA, Great Minds in STEM,local industry, and local PhD granting institutions such as the University of Southern California.In addition to providing a pathway for students, many researchers have commented that thesepartnerships are essential for helping to change perceptions of both higher education and STEMcareers among the Hispanic community.4, 5 Table 1. Characteristics of Partner Schools for IMPACT LA Project (API refers to Academic Performance Index and ELA refers to English Language Achievement).School Name Percentage English Free or Academic ELA/Math of Learners reduced Standing
- System Architecture 3CIT 672 - Advanced Database Administration 3CIT 696 - Best Practices in Information Technology Seminar 3MBI 650 - Information Technology Project Management 3The first two classes from this category give an in-depth perspective on the CIT field in two veryimportant areas: systems architecture and databases. Both of these classes cover an advanced setof concepts, and the students are expected to have the relevant background experiences necessaryfor applying these concepts in practice as well as contributing to insightful classroomdiscussions. The third class constitutes the capstone experience for a MSCIT graduate
. The weeklong TEC camp is Page 15.962.2designed to expose campers to a wide range of engineering disciplines early in their educationsin order to inspire campers to consider college majors and careers in these important fields. Thecamp is highly interactive with hands-on projects in areas such as webpage design, robotics,structural design, and transportation engineering. Campers are given the opportunity to exploreengineering through interactive courses, seminars and laboratories that are lead by Georgia Techprofessors and graduate students. Campers are encouraged to interact directly with the graduatestudents and to ask questions about life
learning in sophomore engineering courses, and investigation of the career motivations of women and men as they relate to engineering.Lisa Benson, Clemson University Lisa C. Benson is an Assistant Professor in the Department of Engineering and Science Education at Clemson University, with a joint appointment in the Department of Bioengineering. Dr. Benson teaches first year engineering, undergraduate 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
Processing Industries. Williams holds an M. S. in Mechanical Engineering Technology from Purdue University and is certified as a Vibration Analyst Category III from the Vibration Institute.Joseph Kmec, Purdue University Joseph F. Kmec is currently Associate Professor in Mechanical Engineering Technology at Purdue University, West Lafayette, IN. His teaching areas of concentration are energy-based and include Applied Thermodynamics, Internal Combustion Engines, Motorsports, and Power Plant Systems. His recent activities involving student projects include engine simulation, power plant performance analysis, and nuclear technology. He may be reached at: kmecjf@purdue.edu
, June, 2009.3. Carl J. Spezia, “A Task-Oriented Design Project for Improving Student Performance,” Journal of Engineering Technology, Spring 2009.4. Stewart J. I., “Teaching and Assessing Using Project-based Learning and Peer Assessment,” Journal of Engineering Technology, Spring 1999.5. Akins, Leah, M. and Ellena E. Reda, “Implementation of an Integrated Project for the Electrical Engineering Curriculum,” Journal of Engineering Technology, Fall 1998.6. Gerhard, Glen, C., “Teaching Design with Behavior Modification Techniques in a Pseudocorporate Environment,” IEEE Transactions on Education, November 1999.7. Wei Pan, S. Hossein Mousavinezhad, Kenyon Hart, “Digital Signal Processing: Theory and Practice, Hardware
visiting position in the Mathematics Department at Vassar College in NY. She is a Teaching Assistant Professor in the Department of Mathematics at NC State University. Dr. Duca's research interests are in the Non-commutative Algebra and Model Theory. More recently, she has been active in various mathematics education projects, such as developing a calculus course for Elementary Education students, working on improving the engineering mathematics curriculum, and starting Math circles - a mathematics enrichment program -for enthusiastic and motivated middle school students. Page 15.239.1
through Thursday spring quarter 2009. Classes have been modified tofit this schedule, staff will be in the building for extended hours M-Th and the computer lab willcontinue to be open M-Th until 11PM and Sunday from 3PM to 11PM. The departmentunderstands that there is a potential that this modified schedule may impact students ability toaccess certain laboratories. Faculty and staff encourage students to work within these modifiedparameters by modifying their behaviors and plan out intended laboratory work to avoid lastminute crunches. As in industry constraints are a fact of life. “Staff worked four days a weekand only faculty had access to the building on Fridays.The spring schedule modification was a pilot project. Potentially, the modified
exercises described in this paper were prepared for a junior level design course in amechanical and manufacturing engineering technology program. The CAD portion of the courseis taught in a laboratory with each section comprising ten to fourteen students. The laboratory isone hour and fifty minutes long. The software used in the course is Pro/Engineer Wildfire 4.0.Each laboratory session consists of two parts. The first part is a guided exercise during whichthe students watch the instructor perform the steps required to create the desired geometry. Theinstructor’s screen is projected and the students follow along, performing the same steps at theircomputers. During the second part, the students are given a representation (either drawing orrendering
examples adopted in this coursewere first created by Eann Patterson as part of a National Science Foundation sponsored projectto change the undergraduate mechanical engineering curriculum and make it more attractive to adiverse group of students. Specifically, this paper critiques the adaptation of five real lifeexamples taken from the original project. Student response to the lecture material was measuredby specific survey questions about the real life examples, survey questions about the course as awhole, interviews, and standard student course evaluation forms.1. Introduction A considerable amount of attention has been given to the retention of engineeringstudents in recent years. In fact, most universities with engineering programs are
proveninnovative teaching methods based on a project-based, hands-on, active-learning approach to engineeringeducation. The main teaching method to be adopted is studio-based4, 5, which combines hands-onexperimenting with lecturing, as opposed to the traditional lectures and lab sessions. The use of projectsin the curriculum motivates student learning and facilitates understanding of class material6. The Page 15.1035.2developed curriculum allows students to graduate as engineers after taking a total of 126 semester credithours distributed into core courses, cognate courses, electives, and general education requirements. Thefacilities planned for
AC 2010-918: PH.D.S IN ENGINEERING: GETTING THEM THROUGH THEDOOR AND SEEING THEM GRADUATE- FACULTY AND INDUSTRYPERSPECTIVESMonica 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 explore the
AC 2010-503: MEETING THE EDUCATIONAL CHALLENGE INMICRO/NANOROBOTICS FOR BIOMEDICAL APPLICATIONSYi Guo, Stevens Institute of TechnologyShubo Zhang, Stevens Institute of TechnologyArthur Ritter, Stevens Institute of TechnologyHong Man, Stevens Institute of Technology Page 15.866.1© American Society for Engineering Education, 2010 Meeting the Educational Challenge in Micro/nanorobotics for Biomedical ApplicationsAbstractWe present the progress of our NSF CCLI project to design teaching materials onmicro/nanorobotics for biomedical engineering students. We have developed a case study and alaboratory module, both of which are centered on a vitamin pill
(7)where xi and yi are arbitrary raw scores and their scaled values correspond to each of the A, B, C, D, andF categories; αj and βj (j = 1, 2, …, 5) are linear transformation coefficients.Let us assume that the instructor assesses the correspondence to each LG category of raw scores so thatm1, M1 (minimum and maximum) correspond to the limits of the raw score of F LG; m2, M2 correspondto the limits of the raw score of D LG, etc.; also, on the projected scale we have F (m’1, M’1), D (m’2, M’2),C (m’2, M’2), etc. Then the coefficients αj and βj can be calculated as M 'j / m 'j m'j M j / m j M 'j χj ? ;δj ? (j = 1, 2,…, 5) (8) M j / mj
courseshave become a common component of many undergraduate engineering programs. Severalstudies have examined the effectiveness of various types of introductory courses. Hoit et al.showed that the conversion of a lecture-based multidisciplinary introductory course to a Page 15.697.2laboratory-based course that engaged students in “hand-on” activities for each undergraduateengineering discipline resulted in significant improvements to retention in engineering1. Asimilar attempt to implement active learning through a freshman year course that focused on aninterdisciplinary design project was attempted by Courter et al. with no evidence of
additionaltopic for the Senior Design Project Class required to meet ABET criteria for accreditedengineering programs. It also suggests the sustainability categories that may best fit the FEtopics. Table 1. Mapping Core Engineering Topics to Sustainability ConceptsCore Engineering FE Exam Topic Relevant Sustainability CategoriesMathematics 1. Complex Systems & System DynamicsEngineering Probability and Statistics 1. Complex Systems & System DynamicsChemistry 2. Natural World Basics, 4. Chemicals and Materials 11. Chemicals & Materials for SustainabilityComputers
system constraints.In recent years, faculty at a number of universities have used hands-on approaches for teachinglean principles, particularly physical simulations, to give students an opportunity to practiceapplication and to engage them in actively learning lean topics1,5,8. In these activities, studentstypically simulate a process that is poorly structured and performs badly, then use specific leantactics to improve performance, often in multiple improvement rounds. Such simulations areeffective in providing opportunities for practice and decision-making, but are more controlled interms of content and time than projects done at company sites, for example2. When leansimulations are used, students’ abilities to apply lean ideas have improved
AC 2010-2155: HANDS-ON NUCLEAR ENGINEERING EDUCATION – ABLENDED APPROACHMarie-Pierre Huguet, Rensselaer Polytechnic Institute Marie-Pierre Huguet has been a course developer at Rensselaer since 2001. As such, she has been providing support and guidance in instructional design and instructional technologies to Rensselaer faculty who either seek to integrate emerging technologies into their face-to-face classroom, or teach Web-based or blended/hybrid courses. Dr. Huguet received her Ph. D. in Curriculum and Instruction at the University at Albany. For the past eight years, both at Rensselaer and SUNY Albany, she has been involved in several research projects that have looked at the
AC 2010-1808: STEPWISE METHOD FOR DEAF AND HARD-OF-HEARINGSTEM STUDENTS IN SOLVING WORD PROBLEMSGary Behm, Rochester Institute of Technology Gary Behm is a Senior Project Associate and Director of the NTID Center on Access Technology Innovation Laboratory and a Visiting Lecturer at NTID. He is a deaf engineer at IBM who received his BS from RIT and his MS from Lehigh University. He currently serves as a loaned executive at NTID/RIT working in the Center on Access Technology and the department of Engineering Studies. At IBM, he is a delivery project manager in the Rapid Application Development Engineering System. Behm has six patents and has presented over 20 scientific and technical papers
timestamps on everything provides anautomatic documentation of when actions occurred.Don’t delete data – flag items as inactiveProper software development says that data should never get deleted, but this recommendationhas more to do with good research technique. By specifying data as active or inactive, you willbe able to reconstruct a more complete sequence of events as they occurred. Much like therecommendation to timestamp everything, it will also help in developing a write-up of theresearch if there is a guarantee that no data is missing.Have a change management planRecognizing that projects evolve and interfaces and questions change throughout the life of aresearch project, having a change management plan in place to prepare for those
encouraged individual accountability within the group. The groups pursued aresearch question of their own for their final project which was based on multiple technologiesand skills sets learned throughout the class.Students’ pre- and post- test performance on statics and force concept inventories werecompared. Perceptions of learning gains and expert experience were assessed through studentinterviews and surveys. We will report on these results and discuss implications and limitationson learning through constructed contextual knowledge based on situated cognition andconstructivist theory.IntroductionStudy Abroad Program Description Page
Implications of Technology. He teaches Wireless Engineering, Network Engineering, Fiber Optic Communications, Technology and Society, and Project Management. He also advises students on their senior design projects. He is author of “The Telecommunications Fact Book, 2E” and co-author of “Technology and Society: Crossroads to the 21st Century,” “Technology and Society: A Bridge to the 21st Century,” and “Technology and Society: Issues for the 21st Century and Beyond.” He is a member of ASEE, and a senior member of IEEE.Abdul Qadeer, Urdu Science University Dr. Abdul Qadeer is the Director of Academic Planning and Development at Federal Urdu University of Arts, Sciences and Technology (FUUAST), Karachi
AC 2010-178: ENERGY PRACTICES IN RESIDENTIAL BUILDINGS: A GLOBALLOOKDaphene Koch, Purdue University Daphene Koch, PhD is an assistant professor at Purdue University in the Building Construction Management Department. Daphene has over 10 years of college teaching experience and over 10 years of construction industry experience. Her construction experience included mechanical construction and industrial petrochemical projects in Indiana , Texas and East Malaysia.Rajeswari Sundararajan, Purdue University Raji Sundararajan is an Associate Professor at Purdue University in the Department of Electrical & Computer Engineering Technology. She currently serves at president of t he Electrostatics
Implementing a Histogram Equalization Algorithm in Reconfigurable Hardware Stephanie Parker, Undergraduate Student, Stephanie_parker1987@yahoo.com J. Kemi Ladeji-Osias, Associate Professor, Jumoke.Ladeji-Osias@morgan.edu Morgan State University, Department of Electrical and Computer Engineering, 5200 Perring Parkway, Baltimore, MD 21251AbstractDedicated hardware can be used when images and video are acquired and processed. In this paper, ahistogram equalization algorithm is written in a Hardware Description Language for future implementationin reconfigurable hardware. The goal of this project is to implement a
. However, those techniques typically involve higher thanundergraduate level of expertise in mathematics and statistics. Introducing a simple algorithm forarrhythmia detection can be very useful for better conceptual understanding of signal processingfor the junior level undergraduate students. The main goal of the present work is to develop asimple method to extract required parameters detect arrhythmia condition AF using themorphological characteristics of ECG waveforms and applying basic signal processingtechniques.In this project, ECG waveforms are analyzed based on morphological differences between AFwaveforms and normal waveforms. A simple algorithm for determining R peaks, R-R intervals,QRS amplitudes and base-line drifts has been developed
Implementing a Histogram Equalization Algorithm in Reconfigurable Hardware Stephanie Parker, Undergraduate Student, Stephanie_parker1987@yahoo.com J. Kemi Ladeji-Osias, Associate Professor, Jumoke.Ladeji-Osias@morgan.edu Morgan State University, Department of Electrical and Computer Engineering, 5200 Perring Parkway, Baltimore, MD 21251AbstractDedicated hardware can be used when images and video are acquired and processed. In this paper, ahistogram equalization algorithm is written in a Hardware Description Language for future implementationin reconfigurable hardware. The goal of this project is to implement a
positive and advanceddevelopmental outcomes (3, 4, 5, 6). And, self-esteem may be influenced by peers andactivities (7).Current Research Thus, the specific goals of the current project are to (1) investigate socialnetworking in FIRST, (2) investigate the social benefits of participating in FIRST (e.g.,increased self-esteem, social awareness, social networking, social skills, etc.), (3)evaluate the usability and effectiveness of different networking and informationrepository websites that can by used by FIRST participants to better understand whatresources FIRST participants are using and why. MethodParticipants There were a total of 417 participants (255 male; 141 female; 21 Not specified
the United States (i.e., unlimitedeconomic growth reflected by an ever-increasing GDP). We also explored the sometimes subtledifference between “belief” and “knowledge.” In support of this lesson, the major courseworkcomponent was for the students to pick a sustainability-related belief that they held and write a“This I Believe” essay, modeled after the long-lived project started by Edward R. Murrow in the1950’s and continued today by National Public Radio[3]. This introductory section also includedlectures whose purpose was to present a common definition of sustainability which was referredto throughout the remainder of the semester.The Science of SustainabilityAfter defining sustainability, we examined it through the eyes of the natural
incubators extremely important devices in neonatal care athospitals. Modern incubators are very expensive making it difficult for hospitals, especiallysmall ones, to procure them especially with economic crunch and resource constraints for capitalequipment. The paper provides the details of a students’ project to design and build an efficientand cost-effective incubator to meet the clinical needs at low budget hospitals. The designinvolves controlling the temperature precisely within a small physiological range, whileconcurrently maintaining the desired humidity. The incubator is also designed to trigger alarmsin the event of failures of electromechanical nature. It is noted that the project is carried out as apart of the requirements for the