presentation.Educational laboratory modules and outreach experiencesParticle properties and powder mixing experiments throughout the curriculum:A V-mixing laboratory experience4, 5 was designed last year for students to investigate the effectof mixing time, particle size and loading configuration in a statistical design. The experimentsand data analysis can be conducted over multiple class periods, and students were exposed toexperimental design strategies. A 5 L constant frequency V-mixer was used for laboratoryexperiences in courses, projects and research. Figures 1a and b show the mixer and the loadingoperation for a mixing experiment. Page 22.931.3Figures 1 a
team has developed exercises for theintroductory Statics course that serves as most students’ first introduction to engineeringproblem solving.Currently, the U.S. engineering workforce remains 90% white and male; engineering, inparticular, has not attracted women and URMs. Baccalaureate degrees received by bothURMs and women in engineering peaked in 1999-2000 and have trended downwardsince then[1] A study conducted by Engineers Dedicated to a Better Tomorrow used theNSF WebCASPAR database to document that although about one half of earnedbaccalaureate degrees in S&E as a whole go to women, in physics, engineering,engineering technology, and computer science, these rates dropped to one in five[2].While in 2008 women earned 18.5% of
in aqualitative study, the small sample has informed theories about a larger sample that could beaddressed in future work.Table 1: Interview Participants’ Post-Graduation Plans Student Post-Graduation Plan Relationship to Signals & Systems Amy A less technical career (management, law, Some systems engineering) Beth Graduate school in electrical engineering Close Charles Graduate school in mechanical engineering Some Diane Currently working for an engineering Close company using electrical engineering Edward Job
required by different learning circumstances are increasingly recognized ascritical for successful learners. Such awareness and monitoring processes are often refer to asmetacognition –“ the processes in which the individual carefully considers thoughts in problemsolving situations through the strategies of self-planning, self-monitoring, self-regulating, self-questioning, self-reflecting, and or self-reviewing” [1]. The contention of this research is thatmetacognitive awareness on the part of students can be improved through systematic and directinstructions on strategic thinking. To support that, three important metacognitive interventions,as detailed below, are carefully designed into the interactive game activities.• Road Map training
development of a hands-onapproach to manufacturing education. This offers students skills that directly prepare them forcareers in manufacturing, design and product realization. Four knowledge areas withcorresponding detailed learning outcomes were identified for study namely: (1) drafting/design,(2) manufacturing process, (3) process engineering, and (4) CAD/CAM. Based on these, a corecurriculum shared between the partner institutions was developed. This encapsulates the MILLmanufacturing competency model. Assessment instruments to measure student learning werealso developed. Sample test items were developed for all competencies in a series of internalmeetings held among MILL Project staff. The preliminary results from a field test indicate
. Page 22.495.1 c American Society for Engineering Education, 2011 Development of Haptic Virtual Reality Gaming Environments for Teaching Nanotechnology1. IntroductionNanotechnology is a key high technology field that is becoming increasingly important tothe United States’ economy. Maintaining leadership in key technologies, such asnanotechnology, is increasingly being recognized as important for Americancompetitiveness.1 There is, therefore, a strong interest in attracting K-12 andundergraduate students to pursue future careers in this area. However, the abstract natureof current learning methods of how things interact and behave at the nanoscale (< 100 nmin any dimension) can be
user and grid connectivity. Physics of panelsemiconductor will be left to other courses. Integration of our research finding from previous andcurrent work [1, 2] will be a major factor in the course design.Project Objectives Page 22.497.2The project focuses on four objectives: Proceedings of the 2011American Society for Engineering Education Annual Conference & Exposition Copyright © 2011 American Society for Engineering EducationObjective 1:Expand capacity of existing solar panels and establish a 2.5 KW PV test station with associatedinstrumentation. This will be completed within the first year of the
industry. More and more manufacturing companies in US aremoving out to oversea due to inexpensive labor cost and other resources. Manufacturingindustry becomes sensitive about cost effectiveness issues due to recent economic crisis.Manufacturing companies are cautious about sustainable workforce, particularly inequipment operation. The workers’ faulty operations could cause significant damage ofthe facilities and personal injuries and safety hazards. Moreover, through recent literaturesurvey, the fundamental challenging problem in manufacturing education: (1) How toimprove teaching and learning effectiveness in online course and facility training; (2)How to better educate students online facility training without interaction withinstructors1
engineering technology 4-year programs among US academic institutions have acurriculum component in hardware description language and programmable logic design.Similarly, only 16.5% [3] of electrical and computer engineering technology 2-year programshave a curriculum component in hardware modeling and programmable logic design.The applications utilizing FPGA as a design medium are predominant [1]. FPGAs have been usedextensively not only in logic emulation but also in custom-computing machines. There-programmable nature of Static Random Access Memory (SRAM) -FPGA makes it theworkhorse of many new applications that require re-programmability. SRAM-FPGA’s are themost popular and are becoming the tools of choice in many re-programmable applications
this experiment, freshman students produce drug-containing alginate spheres andinvestigate the factors which affect the rate of release of the drug from the polymericmicrospheres. (Technically the spheres produced are not microspheres since their diameter isabout 1-3 millimeters). The model drug used in this experiment is food coloring. Drug releasestudies are performed by placing the drug-loaded microspheres in a beaker containing water.Concentration measurements are made periodically by measuring absorbance of the surroundingsolution (into which dye has been released) using a spectrophotometer. The release rate of thedrug from the microspheres is analyzed using an Excel spreadsheet. The learning objectives ofthe experiment are: 1. Define a
Acquisition Acquired and Apply SoftSensor parameters Image processed images Blob Analysis Data Output Decision making Quality Control Figure 1: Solar cell vision system processing flow chart Page 22.515.4Figure 1 displays the flow diagram for the processing procedure of a vision system. The visionsystem is comprised of a smart
ability to function on multi-disciplinaryteams.” To help students be effective team members and develop leadership skills in amultidisciplinary environment, S-STEM recipients were required to register for a one-creditcourse that utilizes a team project.Adams and Simon suggest a teamwork model and believe that ABET requirements and theengineering industry’s need for teamwork suggest four questions concerning teamwork; 1. What does it mean to function on a multi-disciplinary team? 2. What should be used to measure students’ ability to do so? 3. How will teamwork in the classroom be used to enhance this ability? 4. What effect does teamwork have on the enhancement of learning?Answering these questions is essential if engineering
textbookproblem without any additional time required in lecture. Even if a student is not motivated toresearch beyond the problem statement, benefits will still result. As an example, forthermodynamics an existing power plant might be chosen for the scenario. Whereas students aregenerally told “a turbine exists at these conditions,” here they will be told what type of turbine itis, what the turbine’s purpose is, and where the operating conditions come from. The addedvisual information and the move from a generic problem to one with its’ own identity has beenshown during Phase 1 to increase student engagement and subsequently performance.This type of material would be infeasible for traditional paper textbooks due to space and formatlimitations. For this
* Don Murphy* Robert Q. Thames* James Vales* *Department of Electrical Engineering and Computer Science ** Department of Communication Studies Loyola Marymount University 1 LMU Drive Los Angeles, CA 90045-2659 310-338-5973 saugust@lmu.edu mhammers@lmu.edu waterrose9@aol.com dshokrgo@lion.lmu.edu dmurph21@lion.lmu.edu rqthames@yahoo.com jamesvales226@gmail.comAbstractRather than waiting for students to pursue STEM education, virtual worlds and games can beused to bring science, technology, engineering, and mathematics to the students throughengaging and socially
AC 2011-1091: ENGINEERING EDUCATION RESEARCH TO PRACTICE(E2R2P)Steven W. Villachica, Boise State University Steven W. Villachica, PhD, CPT, is an Associate Professor of Instructional and Performance Technology (IPT) at Boise State. His research interests focus on leveraging expertise in the workplace. A frequent conference presenter and author, Steve co-authored a chapters on cognitive task analysis and performance support systems that appears in the Handbook of Human Performance Technology and the Handbook of Training and Improving Workplace Performance: Volume 1. Instructional Design and Training Deliv- ery. A certified performance technologist, he completed his doctorate in educational technology at the
operations; heat transferoperations; mass transfer operations; and chemical reactor design. Over the three-year CCLIproject, activities/modules will be developed and incorporated into each of these courses, witheach activity/module focusing on a particular element from the process intensification spectrumand designed to also enhance vertical concept integration. This poster presentation focuses onthe activities and modules developed in Year 2. The preliminary assessment data collected fromYear 1 implementation are also presented.IntroductionThe chemical industry faces numerous challenges in the coming years due to decreasingavailability of raw material and energy resources. Thus, existing processes must operate in anefficient manner, with maximum
adultlearning theories of Knowles and Lawler, the experiential learning theory of Kolb, therecommendations of the Veterans’ Education for Engineering and Science workshop report, andthe recommendations developed from a case study completed by the University of KentuckyMilitary Veterans of America. The three focus areas of our approach are: 1) Recruitment andSupport Constructs, 2) Transition, and 3) Integration of Technical Experience. Recruitment andRetention strategies include development of “dummy proof” advertising and structuredcurriculum plans which incorporate BCTCblue+, a transfer/dual enrollment program betweenBCTC and UK that includes advising, guaranteed admission, UK courses at BCTC tuition rates,and more. This program offers pathways for
ofunderrepresented minority students. The project goals are three folds: 1) Establish a cyber-infrastructure to enable remote learning which significantly improve the learning efficiency ofstudents on a commuter campus; 2) Foster students’ hands-on design and implementation skillsin networking field; 3) Improve teaching and learning efficiency by integrating project-based andinquiry-based learning pedagogy.This paper presents our current progress on the CCLI project, which is focused on thedevelopment of a sequence of scalable remote labs using OPNET to enable the integration ofcollaborative project-based and inquiry-based based learning into existing computer networkingcourses in both Computer Science and Electrical Engineering departments. The remote
Page 22.617.1 c American Society for Engineering Education, 2011 Enhancement of Student Learning in Experimental Design using Virtual Laboratories – Year 3IntroductionCapstone courses in which students have an opportunity to practice engineering are an importantaspect of undergraduate engineering curriculum. In the last 20 years, capstone courses have beenintegrated into engineering curricula nationwide in response to ABET accreditation requirementsand feedback from industry.1 In addition to providing students the opportunity to practiceengineering, capstone courses facilitate the development of creative and critical thinking, whichare crucial in the practice of engineering. By design
storage engineers and technicians. Thispaper presents the collaboration between university and community colleges to create anadvanced energy storage curriculum; setup an industrial-based energy storage laboratory;develop and deliver a short course for on-site training of engineers, technologists, and collegeinstructors working in the alternative energy and advanced automotive propulsion fields; developand deliver a series of workshops and seminars for K-12 science teachers, corporate partners,energy and automotive professionals; and provide transfer student advising by university faculty.1. IntroductionThe growing demand for energy and the increasing concerns about man-made climate changeshave called for clean and sustainable energy development
areas with poor usability. Initial improvements to theinterface were made based upon feedback from the questionnaire. Page 22.652.2 1. INTRODUCTION The goal of this research project is to test usability of the Risk in Early Design(RED) application when used as an expert knowledge source for tasks previously thoughtto require engineering experience. As technology progresses, it is critical that educationalefforts focus on preparing students to build on the new developments, rather thancontinuously teaching them to “reinvent the wheel.” The teaching of new technology isnot limited to the integration of novel
approaches have been presented to developappropriate educational material in microelectronics 1-4. Here, we describe our efforts tointroduce microfabrication technology in a comprehensive, cross-curricular way throughlectures, demonstrations and experiments from freshman through junior classes across fourdisciplines (Electrical and Mechanical Engineering, Chemistry, and Physics). In particular, wedescribe the capstone multidisciplinary fabrication experiments that we have designed. Junior level courses from four departments will integrate microfabrication experimentalmodules into the existing syllabi. These modules will expose students to the concept of a cleanroom, the concept of microfabrication, and attract and interest them in the
theengineering workforce. A 2009 NSF Workshop on Enhancing the Post-9/11 VeteransEducational Benefit1 indicates that new, more generous veterans’ educational benefits create anopportunity to expand the technical workforce while benefitting those who have served ourcountry. The workshop further indicates that the veterans include a diverse and qualified pool offuture talent for the nation’s engineering and science employers.There are two main aspects to this Kansas State University project: (1) an accelerated track forveterans into bachelor’s degrees in engineering for those with no bachelor’s degree or with anon-technical degree and (2) bridging to engineering master’s degrees for those with bachelor’sdegrees in technical non-engineering areas. The
scores obtained are used to assess how students’understanding of core concepts has improved by taking the course.Two separate exams were developed as part of the he SSCI effort: one that focused on ContinuousTime (CT) concepts and the other on Discrete Time (DT) concepts. Since the systems we hadstudents develop used discrete time signal processing, we had the students take only the DT- DTSSCI exam. This exam has 25 questions in total and the students are given 1 hour to completethe exam. Each ach question assesses students’ conceptual understanding of a core concept ratherthan students’ ability to perform mathematical calculations. The questions
Page 22.282.3by different camps during the summer, then the cumulative initial and maintenance cost shouldbe prorated as a recurring expense.For FLATE, as an example, each of our 1 week duration camps cost about $120/camper onaverage to run. This is an estimate of our recurring expenses such as snacks but not lunch,disposable supplies and materials, take-away items such as “T” shirts and does not include theinvestment in new and replacement robots. FLATE’s home institutions, HillsboroughCommunity College, St. Petersburg College, and the College of Engineering at the University ofSouth Florida do not charge for use of facilities and FLATE’s general policy when operating off-site camps is to require that the host institution cover any facility
Bridging the Valley of Death: A 360° Approach to Understanding Adoption of Innovations in Engineering EducationAbstractThere is a nationwide need to better translate engineering education research into the classroomsetting. Moving engineering education research into practice is a more complicated task than itmight initially seem. There are many significant barriers to hinder the transition from research toimplementation. These barriers can be categorized into two groups: (1) individual barriers, suchas personality characteristics that contribute to a lack of willingness to implement innovations, aswell as a lack of knowledge about engineering education research; and (2) environmentalperceptions, such as perceptions of the tenure and
interactions that influence under-represented students’ decisions to enter and persist in engineering.Research and Education GoalsThe specific goals of this NSF CAREER-funded project are to (1) build a conceptual model forunderstanding how engineering undergraduates develop, access and activate social capital inmaking academic and career decisions, (2) identify and characterize the potentially distinctmechanisms by which under-represented students utilize social ties that link them to resourcesrelated to engineering studies and (3) implement an education plan that provides research-to-practice training for university engineering outreach, recruitment, and retention practitionersusing webinars and workshops as learning forums.Theoretical FrameworkThe
-sessments across our partner institutions; broadening the library of usable MEAs to different en-gineering disciplines; and extending the MEA approach to identifying and repairing misconcep-tions, using laboratory experiments as an integrated component, and introducing an ethical deci-sion-making dimension [1, 2].Our overall research goal is to enhance problem solving and modeling skills and conceptuallearning of engineering students through the use of model eliciting activities. In order to accom-plish this goal at the University of Pittsburgh, we are pursuing two main research routes: MEAsas teaching tools and MEA as learning assessment tools. Under the first – using MEAs as ateaching tool – we are focused on three main activities: Development
the pre-service students can learn from the in-service teachers.Project TeamThis project is a collaboration between the University of St. Thomas’ schools ofEngineering and Education. Faculty from both departments are involved with thedevelopment of the courses for this program. The assessment for this project is beingcoordinated and executed by researchers from Purdue’s INSPIRE (Institute for P-12Engineering Research and Learning). An educator from the St. Paul Public School districtis serving as the educator consultant.Project TimelineThe grant for this CCLI project was awarded effective July 1, 2010. The summer of 2010 wasthen spent working on the development of the new courses and submission of the minorproposal.In the fall of 2010, EDU327
prepare forassessment activities and supplement learning in lecture environments. The learning activities(known as a module) are typically composed of an in-class guide for instructors, in-class and pre-class activities for students, and the post-class assessment activity. The complete sets ofassessment activities and modules are available online. Instructors using a subset of the modulesindicated that the modules are generally beneficial for students and instructors assessingprofessional skills and teamwork in the capstone course.1. IntroductionThe Transferable Integrated Design Engineering Education (TIDEE) consortium has developed aset of formative and summative assessment instruments that focus on aspects of team andindividual performance in