Compatibility & Coatings Research Lab • Materials Degradation Test Facility • Materials Test and Evaluation Laboratory • FLC representative: Phone: 9372555669 Email: Gregory.McGath@wpafb.af.mil 10 What’s possible in a partnership? • Equipment donations • Facilities usage (free or at negotiated rates) • Personnel exchanges (both directions) • Data exchanges • Thesis/dissertation committee participation • Events to encourage STEM enrollment 11 What’s possible in a partnership? Joint proposal submissions & project execution • Depends upon the terms of the Broad Agency
Compatibility & Coatings Research Lab • Materials Degradation Test Facility • Materials Test and Evaluation Laboratory • FLC representative: Phone: 9372555669 Email: Gregory.McGath@wpafb.af.mil 10 What’s possible in a partnership? • Equipment donations • Facilities usage (free or at negotiated rates) • Personnel exchanges (both directions) • Data exchanges • Thesis/dissertation committee participation • Events to encourage STEM enrollment 11 What’s possible in a partnership? Joint proposal submissions & project execution • Depends upon the terms of the Broad Agency
principlesby analyzing a catapult for a medieval exhibit at a British Museum. These projects areintroduced before the material is covered, serving as a form of inductive learning and hopefullymotivating the material. Finally, we have included conceptual questions during each class periodto help the students think more deeply about the material (rather than just plugging numbers intoequations). Assessment will be presented using three metrics: final exam averages, scores on theDynamics Concept Inventory, and student attitudinal surveys.IntroductionLandmark publications such as How People Learn and Educating the Engineer of 2020 (alongwith numerous other publications) have suggested that we need to change the traditional way ofeducating engineering
undergraduatestudents. The last two examples are the individual courses where individual MfgE/MEfaculty developed a course or a lab project in biomedical manufacturing. Page 15.1182.3 2Example 1: Biomedical Engineering Specialization Program at University of Calgary [5]The Engineering Programs at the University of Calgary offers the BiomedicalEngineering Specialization program, which allows undergraduate engineering students totake a series of biomedical engineering classes on top of the regular engineering classes.This group of students is called ‘the Biomedical Engineering Specialization students.’They are from various
final test of their project 5-6.The electrodynamics course at the United States Naval Academy begins withtransmission line theory, considered to be a useful pedagogical link between circuitanalysis and the vector calculus required for describing free space propagation ofelectromagnetic waves. This approach has successfully helped students understand wavepropagation concepts even before the course included a laboratory. The added laboratoryprovides an immediate illustration of transmission line topics using SONNET ™, a 3DPlanar Electromagnetic software package for the design and simulation of microstripcomponents.( SONNET Lite™ is free online but a University Program makes thesoftware available at a discount for colleges and universities.) After
from the University of Wisconsin, Madison, and his M.S. and Ph.D. degrees from Stanford University. He teaches courses in engineering design, and is interested in integrating the use of design projects and active learning throughout the curriculum to improve engineering education. Page 15.789.1© American Society for Engineering Education, 2010 Interactive Learning Using a SPIRAL Approach in a Large Required First-Year Mechanical Engineering ClassAbstractThe use of active learning is being implemented in a large, required first-year MechanicalEngineering two-course sequence that is part of a
. An excellent source ofreal life examples can be found at the Winter Simulation Conference1. The papers presented overthe past 10 years of the Winter Simulation Conference were analyzed for such examples to beused in courses such as Systems Modeling or Modeling and Simulation Languages.In addition, the projects described in each paper were analyzed for characteristics that would beuseful for use as potential student projects. These projects could also be used as the basis forengineering and technology students to become involved in health care DES research.One of the first characteristics analyzed was the ranking of the DES software products beingused. Figure 1 shows that across all sectors, business, healthcare, and government, Arena
Graduating Senior in Computer EngineeringPatrice Kamdem, University of the District of Columbia Graduating Senior in Electrical Engineering Page 15.350.1© American Society for Engineering Education, 2010 Design and Implementation of a Virtual Web-based Power Measurement Module for a Hybrid Renewable Power SystemAbstractThis paper presents the implementation of a hardware and software interface monitoring systemfor the power measurement and performance evaluation of a 4.54KW Solar/Wind comboRenewable Energy system designed for a Zero Energy Home. The project includes a low cost,LED based power level indicator working
6WritingThe last part of the project requires students to write a report about their project, explaining eachstep. At this step students are given the task of explaining the parameters developed in thephysical model. In order to develop higher order thinking, students are given a set of interpretivequestions to use in their narrative. For example, using Fig. 2 students would be expected tonotice the differences between the curves for the linear and non linear pendulum. The two curvesare virtually identical for the first period, but they begin to change during the second period.Comparing the curves for the second and third period we notice that the time for the nonlinearcurve to obtain its peak is delayed. Once a student makes this observation, the
Video stabilization and motion detection using Matlab video processing toolbox. Paterne Sissinto Morgan State Univeristy Email: sissinto@yahoo.comAbstract This paper presents video stabilization and motion detection using Matlab Simulink.Simulink is a classroom learning tool that offers an environment for multi-domain simulationand model-based design for dynamic and embedded systems. The project utilizes that tool tosolve not only a problem common to amateur videos but also a situational awareness issue. Thestabilization process starts with computing the optical flow between successive frames
Introduction an innovative method to enhance a senior level course in water sustainability Bahar Zoghi Moghadam Zoghimb@farmingdale.eduAssistant professor of the Architecture and Construction Management Department of the Farmingdale State College, 2350 Broadhollow Road, Lupton Hall, Farmingdale, NY 11735AbstractAn innovative project of water sustainability related was assigned to the senior students of StateCollege of the Sate University of New York. The assignment was related to the present concernof water sustainability. According to a recent review by International Circle of Blue, GlobeScansurveys
Video stabilization and motion detection using Matlab video processing toolbox. Paterne Sissinto Morgan State Univeristy Email: sissinto@yahoo.comAbstract This paper presents video stabilization and motion detection using Matlab Simulink.Simulink is a classroom learning tool that offers an environment for multi-domain simulationand model-based design for dynamic and embedded systems. The project utilizes that tool tosolve not only a problem common to amateur videos but also a situational awareness issue. Thestabilization process starts with computing the optical flow between successive frames
6WritingThe last part of the project requires students to write a report about their project, explaining eachstep. At this step students are given the task of explaining the parameters developed in thephysical model. In order to develop higher order thinking, students are given a set of interpretivequestions to use in their narrative. For example, using Fig. 2 students would be expected tonotice the differences between the curves for the linear and non linear pendulum. The two curvesare virtually identical for the first period, but they begin to change during the second period.Comparing the curves for the second and third period we notice that the time for the nonlinearcurve to obtain its peak is delayed. Once a student makes this observation, the
targeted towards undergraduate students. An important component of the project was theproposed development of a set of laboratories which would give undergraduate students inElectrical and Computer Engineering (ECE) the opportunity to explore these importanttechnologies. In this paper, we detail these newly developed laboratories (based on a 10 weekterm) that allow students to gain hands-on experience with real-world biometric technologies.Each set of laboratories is based on a different clue and the ultimate goal of each laboratoryexperiment is to identify the persons responsible for an imaginary crime. The first threelaboratories are based on a speech signal clue and this gives students an opportunity to reviewmaterial from their introductory
AC 2010-1374: AN OUTLINE OF EDESIGNM. Reza Emami, University of Toronto M. Reza Emami, Ph.D. in robotics and mechatronics from the University of Toronto, worked in the industry as a project manager in 1997-2001. He is a professional engineer and has been a faculty member at U. Toronto Institute for Aerospace Studies since 2001. He is currently the Director of Space Mechatronics group and Coordinator of the Aerospace and Design Laboratories at the University of Toronto.Michael G. Helander, University of Toronto Michael G. Helander received the B.A.Sc. in engineering science from the University of Toronto, Toronto, Canada, in 2007. He is currently working towards the M.A.Sc. in
Biomaterials is an upper-level undergraduate course cross-listed withmechanical and bio- engineering. Enrollment is about 50 students with a near even gender split.In addition to weekly, case-based lectures, there is a required professional development lab. Inthe lab, students identified their learning styles with Felder’s online assessment tool.2 Learningstyles are discussed explicitly and incorporated into lectures, exams, assignments, and a team-based project. For the final course project, teams of about four students were assigned so that allmajors, learning styles, and genders were represented in each team. The final project included anoral presentation, a written report, and an outreach teaching activity at a local children’s sciencemuseum. The
Design. Dueto the relatively small size of the department (undergraduate and graduate population ofapproximately 300 students), EE 433 is the only course available to the students in the field ofmicrowave circuits. For this reason, the course has tried to sample a significant number of topicsfrom the field of microwave circuits, though in the past the course was almost entirely devoted tocomponent-level design.Over the last several years, a popular microwave engineering text1 has been used for the course,and prior to the fall of 2009, the content of the course could be summarized by the lecture topicsand lab exercises listed in Table I. The fact that system-level knowledge is of value to studentsand implementation of system-level projects can be
(PEO) “Graduates” are defined as civil engineering alumni within 3-5 years of graduation Objective 1: Graduates will be actively engaged in a professional career as a civil engineer or pursuing advanced study. Objective 2: Graduates will understand professional practice issues and demonstrate a commitment to professional licensure and continuing education. Objective 3: Graduates, guided by the principles of sustainable development and global interconnectedness, will understand how civil engineering projects affect society and the environment.Web-based Alumni SurveysPaper-based alumni
to give Baylor University studentsa foundation upon which to build an informed understanding of complex energy issues. Withunderstanding comes the ability to begin answering the questions confronting society.Specifically, the four learning objectives are:1) To develop scientific energy literacy;2) To closely examine the production and consumption of energy in both developed and developing countries;3) To examine the social, political, environmental and ethical problems of an energy-dependent civilization.4) Understand, hypothesize, propose and execute a research project in the theme, “The campus as an energy-efficiency and alternative-energy laboratory.”The four semesters for Energy and Society ELG followed the learning
College ofLetters and Sciences. The assessment of the ability of SOET students to communicate effectivelyin writing is most often done through an analysis of the formal documentation accompanyingend-of-program capstone projects (undergraduates) or master’s projects and theses. Data in someprograms have shown an increase in the length of time required for students to complete theseend-of-program projects, many times as a result to needing additional time to correct and polishwritten documentation. Other anecdotal evidence across many SOET programs indicates thatstudents reaching these capstone and master’s projects are frequently not fully prepared toprofessionally document their results in writing. Due to the importance of writtencommunication
AC 2010-2222: A QUALITY MODEL OF OPENCOURSEWARE APPLIED TOENGINEERING COURSESEdmundo Tovar, Polytechnic University, MontegancedoNelson Piedra, Universidad Tecnica Particular de LojaManuel Castro, Universidad Nacional de Educacion a DistanciaMartin Llamas, Universidad de Vigo Page 15.80.1© American Society for Engineering Education, 2010 A Quality model of OpenCourseWare applied to Engineering coursesAbstractThe OpenCourseWare (OCW) project started at the Massachusetts Institute ofTechnology (MIT), in the year 2001, with the aim of offering pedagogical materials inan open and free of charge basis to society. The main objective of this
engineering in China, as isLTU is in Michigan. The initial phase of the collaboration has been a certificate program for SUESstudents. The SUES students receive a certificate recognizing their achievement of five courses that aretaught by LTU American professors, who teach the courses in English in Shanghai. The SUES studentundergraduate programs are the Automotive Engineering BS degree and the Electrical Engineering BSdegree. The courses include Introduction to Engineering, Introduction to Electrical Engineering, QualityControl, Automotive Microcontrollers, VLSI design, Project Management, Engineering Cost Analysis,Electrical Machines, Control systems. This program is ongoing and has been since 2005. Each year,continuous improvements and
* Denotes work in progress Proceedings of the 2010 American Society for Engineering Education Zone IV Conference Copyright © 2010, American Society for Engineering EducationCONCURRENT SESSIONS, 10:15 A.M.-12:00 P.M.Session GE1: General Engineering Education“An Applied Mathematics/Software Engineering Co-Development Project to Dynamically Predict High- Altitude Balloon Position Using Quasi Real-Time Data”* Jim Fischer & Claude Kansaku.................................................................................................................. 74“An Overview of Engineering Education in the US under a Globalization Environment” Wangping Sun
Projects and D Demonstrations t ti 22 UIDP ProjectsSuccessful projects and demonstrations are at the heart of what the UIDP seeks to accomplish on behalf of itsof what the UIDP seeks to accomplish on behalf of its members:¾ Big and small ¾ Varying Topics Contracting IP Strategic Partnering Compliance 23 UIDP Projects ‐ ProgressEarly Stage Tech Screening Industry Survey L lW k h Local Workshops Niche Agreements Funding Webinars Corporate RFP Partnership Continuum
intellectual property Raising the profile of HP Labs Connecting Labs’ innovation to the HP brand 14 ©2009 HP Confidential ©2009 ALIGNING THE “R” WITH THE “D” Incubation projects Level of R&D in activity/ business HP Labs investment groups M&A activity “D” (Development) “R” (Research) Today 3 years 5 years 7 years Timeline15 ©2009 HP Confidential ©2009 THE CLOSED INNOVATION MODEL
intellectual property Raising the profile of HP Labs Connecting Labs’ innovation to the HP brand 14 ©2009 HP Confidential ©2009 ALIGNING THE “R” WITH THE “D” Incubation projects Level of R&D in activity/ business HP Labs investment groups M&A activity “D” (Development) “R” (Research) Today 3 years 5 years 7 years Timeline15 ©2009 HP Confidential ©2009 THE CLOSED INNOVATION MODEL
parking spaces, where such new spaces or parking lots could be located and the financing ofsuch construction. Unfortunately, transportation studies and parking lot layout and design werenot in the faculty member’s area of expertise. If they had been, the committee experiences mighthave been easily incorporated into the classroom leading to interesting class design projects withreal world application. This could have been documented in a paper resulting in a scholarlypublication.Service on curriculum committees can provide opportunities for publications. Curriculumdevelopment and revision often involves reviewing the literature to see what other institutionsare doing in a given area, determining what modifications are needed to suit one’s own
effectively analyze a complex problem arising from a variety of application fields. e. The student will learn how to work collaboratively and productively on complex projects that arise in current research. These projects will provide a capstone experience for Page 15.160.3 students in this degree. f. The student, upon completion of this program, will be able to find employment in a large number of industries including aviation and aerospace industries, or the student, upon completion of this program, will be able to pursue graduate work in either an applied mathematics program or a computational science program
Center Figure 1: The Virtual Training Environment (VTE) system overview.2.2 – Simulation and Animation for Interactive EducationThe VTE system supports multiple sessions and classrooms. Each course needs to have its ownpackage of model components to be integrated into the syllabus. To facilitate describing thissection we us a pilot course like Data Communications and Networking as an example. When amessage is sent from point A to B, the simulated model can project animation of the flowbetween the two points. Depending which portion of the course is under focus, the details of thecommunication pattern are projected. For example, the routing mechanism in the network andthe congestion handling process when part of the network becomes
in conducting this lab course. Section 2 outlines the course content that includes the possibleaudio and voice/speech projects using real-time DSK. Section 3 discusses the evaluation criteria ofthis course using the assessments and feedback of the students and the instructor.2. ELEG 459: Audio Processing LaboratoryLab FacilitiesHardware: Eleven PC stations. Each station is equipped with multimedia hardware capabilitiesincluding a real-time DSP board DSK5510. In addition, headphones, microphones, functiongenerators, and oscilloscopes are available for every workstation in the laboratory.Software: Each computer is equipped with general software tools for developing labs and projectsincluding MATLAB R2007a, Code Composer Studio (CCS), Microsoft