highly prescribed timeline of project deliverables to keep thegroup interactions active and on schedule. The required deliverables ranged from quiteminor (e.g., documentation of confirmed planned meeting time for the group) to moresignificant (e.g., submission of draft report from one university to the other). A lessdetailed timeline was used for the first exercise in Fall 2011. The second interaction thatsame term reverted back to the highly prescribed timeline for collaboration, whichproduced more timely results.Team communications were monitored closely for evaluation of the project activities. Apublicly announced dedicated email account was established that was required to becopied for all email correspondence of the teams. This method
choose and adopted the Scrummethod for organizing their project work. In some cases, the company representatives hadexperiences from using Scrum or other agile methods in their software engineering groups,but Scrum had not previously been used in mechatronics design projects. In the capstoneprojects, Scrum applied to the student projects motivated the students to take a higher degreeof responsibility in terms of project organization, overall and detail planning and dynamic re-organizations. In all cases the student teams voluntary choose to base their projectorganizations on Scrum after being presented with this opportunity by the faculty.In this paper, results are presented of a study where the mutual learning outcomes have beeninvestigated
such as Enerfuel Inc., Solar sources and BV Engineering Inc. Excellent working relationships with local governmental units and agencies such as the South Florida Water Management District, USGS, Florida Department of Environmental Protection, and various County Planning Offices. Rapidly escalating local job markets highly geared towards alternative energy, environmental analysis, sustainability leadership and planning in South Florida. Ocean energy technologies are emerging as an area of significant R&D at Florida Atlantic University and Florida is at the forefront of this trend7. Inspired by the abundance of this natural resource in the state and by the world-class expertise in the field that has been
students understand what their project entailsand details exactly what work product is to be delivered at the end of the project. This verbiage ischosen specifically to familiarize students with its use in contracts or proposals that may beencountered in the workplace.Capabilities and Requirements DocumentThis is a written document; alternately know as a specification, that details the functionality ofthe work product associated with a student project. This document can be expanded to includetest plans and accept / reject criteria for a particular project function. Page 25.282.6Project PlanThis document encompasses the project schedule, with
order the projects. Thefaculty then make team assignments based on student preference. The teams create three writtenreports and make three oral presentations to communicate their design (Table 1). Table 1. Primary deliverables from capstone design teams at RHIT Deliverable Week Due Key Content Proposal 4 Description of problem, client's goals, Proposal Presentation 6 and team's plan to achieve those goals. Progress Report 13 Progress to date: typically preliminary Progress Presentation 15 feasibility study, geotechnical investigation, description of options for
engineering innovation hands-on projects by usingHP’s technology. The new STEM-preneur learning modules will help students understand STEMconcepts and improve entrepreneurial thinking through hands-on experiences. This curriculuminnovation will also give the students the opportunities to work on the real life hands-on projectsat an Innovation Lab that serves as a connection between college and local industries. A specificevaluation plan is designed to address progress, achievement, and impact of the projectobjectives and overall goals.Literature Review: A large portion of the engineering education research focuses on factorsused to predict the likelihood that a student will successfully complete an undergraduate degreein engineering. These factors
need was assessed by two events. At a meeting of the EET industrialadvisory committee, the need for employees proficient in FPGAs was expressed. In addition, thesoftware company Altium Limited expressed an interest in working with the EET program todevelop FPGA curriculum material for a university program.In the fall semester of 2011, the FPGA curriculum was used in an advanced digital logic course.Previously, programmable array logic (PAL) devices and generic array logic (GAL) deviceswere used. This course serves as a required course in the newly created embedded systemsemphasis area in the four-year undergraduate Electronics Engineering Technology (EET)program at Pittsburg State University in Pittsburg, Kansas. It is planned to include the
suggest that studentsshould gain a solid hands-on experience on all measurement devices, hardware and softwarepresented in Table 2. Only Java received a low scoring compared to other topics. Therefore, it iscritical that the curriculum to be designed to add laboratory components to help students gainhands-on experience with the hardware and software listed in Table 2. As part of this proposalwe plan to develop a proper curriculum for these topics and cover them within at most a threecourse communication curriculum as detailed in Section 2.The results of Figures 1 and 2 confirm that the current practice of teaching Communicationcourses such as Wireless Communications, Communication Theory, and Digital Communicationsare not fully consistent with
an introduction to NorthAmerican Electric Reliability Corporation (NERC) Transmission System Planning PerformanceRequirements 1. The transformation of the national grid into smart grid demands variousmodeling and simulation techniques, and software modules to be developed and the entire powersystem to be thoroughly studied 7. Page 25.455.2 Transmission T TranSCADA/ EMS system r a
experiments.The course was offered with a new syllabus in Fall 2009 and we worked on the planning the courseactivities during the Summer 2009.The implementation process started with the developmental work in association with technical helpfrom Mathworks, Inc. First we identified concepts for laboratory modules that could be able to workthrough a spiraling framework: Introduction of electrical voltage measurement to measurement usingadvanced sensing systems. Each laboratory module was planned to build on the skills learned from theprevious laboratory exercise. For example, the second lab involved temperature measurement usingthermocouple and thermistor that involved measurement of voltage either directly or using a voltagedivider circuit. The flow
by 2010 [4].The problem presented by these new facts is not new but has becoame more pressing with thedevelopment of a global economy. So, how do we help the teachers find new ideas and newmethods that will attract and excite students to learn difficult subjects such as Math and Science?How do we empower them to take initiative and develop new projects and lesson plans that willhelp students accept and overcome the modern world’s technical challenges?In the 1950s, a famous French mathematician, Hadamard [5], found a massive disconnectbetween how we teach math and science and how mathematicians and scientists actually work.He concluded that what the intellectual tools mathematicians and scientistsy used to accomplishtheir work was more
collectively to support discipline based collections with multiple interdisciplinaryrelations, such as engineering.The other action taken was to update the profile for the engineering approval plan to broaden thecoverage to specific geographic areas corresponding to places where the university offersinternships and study abroad programs, as well as to extend the plan to include titles withinterdisciplinary treatment. The collecting focus for the engineering library has actively shiftedtowards areas of the world with high output of STM research and scholarship, such as Asia andSouth America and selective collecting in other languages than English has been initiated. Tothis extent, specific subject areas have been identified (Engineering, Soil &
feedback mechanism involving suitable metrics and assessment plan to improve course content and teaching methodology.A careful analysis of the available resources indicated that the short term objectives of theprogram can be achieved in the amount of time available if it is focused on students whose majoris Electrical Engineering.Course DevelopmentThe course development was guided by the following principles: 1. Electrical Engineering students will be introduced to wide-ranging aspects of nanoelectronics through a course targeting senior/junior level students. 2. Students will be provided knowledge and skills which will enable them to participate in nanotechnology research and development work. 3. The course will be
courses assigning a single team to each project.4Capstone design courses face the cumbersome but necessary task of incorporating a vast array ofcoursework into a single comprehensive project. Research advocates integrating courses fromnot only the technical curriculum but also general education curriculum as well.6 Withinengineering programs, this coupling of technical and professional topics is apparent. Accordingto the results of a 2005 survey,4 over half of programs surveyed included the following topics intheir capstone design courses: written communication (87%), oral communication (83%),engineering ethics (76%), project planning and scheduling (72%), decision-making (68%),teambuilding (66%), team dynamics (63%), engineering economics (61
University. She has extensive experience with curriculum planning and development, designing and implementing professional development opportunities for teachers and faculty, and facilitating programmatic evaluation in the United States and abroad.Dr. Michael Hollis, U.S. Air Force AcademyDr. John Anthony Christ, U.S. Air Force AcademyDr. C. Andrew Ramsburg, Tufts University Page 25.105.1 c American Society for Engineering Education, 2012 A Student Centered Learning Lab to Increase Motivation & Interest in Environmental EngineeringAbstractProblem based learning (PBL) is a
Page 25.140.3defined laboratory project kit complete with several developed laboratory exercises. Thefollowing sections will provide some detail on the existing and planned digital content, as well asbackground on the new laboratory kit initiative.Digital contentThe project’s strategy for technical content development was to develop modules that could beeasily used in existing courses as opposed to developing a completely new course. This approachwas taken partly based on team member’s experiences with adding new courses to curriculumand partly based on the fact that there are large number of manufacturing programs that are notcompletely aerospace-centric, but may wish to include aerospace examples.The digital content available is developed to
assessstudents’ awareness of sustainability beyond materials covered in class. In other words, thesurvey sort to assess how learning about sustainability was going on beyond materials covered inclass. To put the survey in context, the authors will like to inform the readers that thisMidwestern University prides itself for being the owner of the largest geothermal project in theUS. Thus, it was anticipated that students should be aware of the subject beyond materialscovered in class. The results of the survey suggests that more work is required to increasestudents awareness about sustainability above the current 64% level to at least 80%.In subsequent years, the authors plan to use the survey differently. That is, they plan toadminister the survey in the
, S. Annual Impact Report of the Quality Enhancement Plan on Student Learning: Strengthening the Global Competence and Research Experiences of Undergraduate Students. Georgia Institute of Technology, Atlanta, Georgia. 2008. Available at http:// www.provost.gatech.edu/assets/2007-08QEPAnnualImpactReport.pdf10 Georgia Institute of Technology. Georgia Institute of Technology’s Quality Enhancement Plan: Impact Report. Georgia Institute of Technology, Atlanta, Georgia. 2011. Available at http://www.accreditation.gatech.edu/wp- content/uploads/2011/03/QEP-Impact-Report_SACSCOC_March-25-2011.pdf11 Hammer, M., Bennett, M., and Wiseman, R. Measuring Intercultural sensitivity: The Intercultural Development Inventory
interest in science-related activities, we plan to replicate this study next year once thefull-year curriculum in in place to determine whether an extended period in the SLIDERcurriculum can lead to changes in these areas. We have, in fact, collected baseline survey dataon the 7th graders who will be instructed with the SLIDER curriculum in their 8th grade year.Though this study supports the theory that instruction in PBL can positively affect students’attitude about science and their confidence in their science ability, it should be noted that thestudy took place in one school with a non-random sample. Additionally, due to constraints at theschool, we were not able to implement the full SLIDER curriculum and had to rely on a shorterintervention
student scholars and faculty mentors. Anyfull-time undergraduate student with at least a 2.8 GPA may apply for a research assistantship bydeveloping a research proposal with a faculty mentor. The faculty mentor submits a proposal forundergraduate research assistantship funding to OSRCA that includes the project title, projectdescription, expected outcome, role of the student researcher, and role of faculty mentor.Proposals are then evaluated based upon the following criteria: (1) Originality of the project, (2)the mentoring relationship between the student and faculty mentor, and (3) the project’sdissemination plan. Although there are no fixed award amounts, typically OSRCA fundedundergraduate research assistantship have been in the amount of
activities (within and outside of the institution) include Department, 2000-present, Engineer- ing Assessment Committee, 1984-present, multiple faculty search committees,1995-present, Mechanical Engineering Coordinator School, 2007-2009, Strategic Plan Committee, 2005-present, Curriculum Com- mittee, 2008-present, Chair, EMS Committee on Outstanding Undergraduate Student Award Committee University, 2009-2011, University Committee on Promotions and Tenure (Panel C), 2005-present, Direc- tor of the Honors Program, 2008-2010, University Senate, 2010-present, AQIP Committee Professional, 2000-present, ABET, Mechanical Engineering Evaluator. The most important publications and presenta- tions from the past five years: Bipin
examples to our database. Page 25.1494.8Phase 2: Implement the proposed learning module management system, design the web interface,develop the functions for different users, and test the system in targeted courses. To fully utilizethe modules and engage students in class activities, we also plan to revamp the teaching plan.More interactive exercises and quizzes will be defined in formats that can stimulate students’interests and assist collaboration (e.g. Jeopardy Game). Furthermore, we are incorporatingadvanced testing functions to the system. We anticipate that in the long run, the system can serveas a truly comprehensive online training/testing
learning experience is taking place,including the past offering when 100% of the students received at least B- (80%) letter grade.Course evaluations also indicated ratings mainly in the range of 4 - 5 in 5 scale.In summary, students gain 15 weeks of hands-on practical experience on industrial grade robots.They learn about trajectory planning, program planning and logic with flow-charts and state-flowdiagrams. The students also study the wiring process of inputs and outputs to the robotcontroller. But, most importantly they get exposed to scenarios replicating real-life cases such ashand-exchange and setting of a TOOLFRAME, palletizing and depalletizing, and mostimportantly wiring and programming of an actual work-cell, possibly twice – one with an
and Quinn, 2004, p.5). Developing, designing, and building a device, product, or process affords students theopportunity to apply their engineering content knowledge, problem-solving and planning skills,implementation abilities, and self-directed learning skills (Kitts and Quinn, 2004).The curriculum developed for the instructional lab reported here is somewhat of a hybrid. It isgrounded in the principles of Problem-based Learning but also includes a Project-based Learningdesign-and-build element as indicated by the student-enacted protocols and labs for thetechniques students conduct as physical artifacts. For this paper, we will use the lower-casedesignation “pbl” to denote our approach that combines elements of both PBL and Proj
for their work on mild and selective polymerizations using lipases. Page 25.1111.1 c American Society for Engineering Education, 2012Regulatory Compliance Training in Bio/Chemical Engineering Courses I WOULD LIKE THIS PAPER TO BE IN A REGULAR SESSION Page 25.1111.2Introduction:Regulatory compliance (RC) refers to a set of federally mandated guidelines under whichindustrial processes and scientific experiments are planned, conducted, monitored, recorded, andreported. RC is typically achieved through a set of well-developed
assess certainperformance indicators, leading to results that were not as meaningful as they should have been.Consequently, the course instructors made some relatively simple changes to course assignmentsto ensure that students provide evidence of achievement of each of the desired performanceindicators. This serves both to facilitate assessment and to emphasize to the students what theyare expected to know and be able to do. The following sections describe how this has been donein ELEC 3040/3050.IV. Course assignments and assessmentIn the past few years, Auburn University has emphasized writing across the curriculum. Eachprogram in the university has been required to submit a plan for writing within the majorcourses, with students expected to
” oninstructions sets for colleagues rather than for their own immediate experimentation. Thebenefits and advantages of this procedure, accruing to the students learning and the author‟sdesign philosophy and plans, are discussed below.Fuel Cell Experimentation SystemThe fuel cell experimentation system used was manufactured by h-tec, Wasserstoff-Energie-Systems GmbH (see www.h-tec.com) and included the U102 Stack Experimentation SetComplete (Figure 1.). The system includes apparatus sufficient to complete experiments: aphotovoltaic module (converting light energy to DC electric energy); an electrolyzer (using thephotovoltaic module DC current output, or optional wall-plugged AC/DC power supply output,to separate hydrogen from oxygen in distilled water); a
2013SP 2015 To graduate Page 25.1203.6Student 5: Took Dual Enrollment Precalculus in Fall 2005. Freshman in Fall 2008 in B.S.Computer Science program. Plans to graduate in Spring 2012.Student 6: Took Dual Enrollment Precalculus in Fall 2005. Freshman in Fall 2008 in B.S.Computer Science program. Plans to graduate in Spring 2012.Student 7: Seems to have found his niche in Psychology. However, has only take one upperdivision course. Needs 33 more hours of upper division courses and 20 hours of lower divisioncourses to graduate.Student 8: Completed only one semester. Accepted into Calculus I but then earned “D
work, project planning and management. The Americansystem contains a series of software applications including calculation, presentationsoftware for CAD and analysis, such as MATLAB, MS Office, SolidWorks, Algor, etc.Chinese students emphasize individual design performance and one-on-one meetingswith their faculty adviser. The Chinese system requires more detailed analyses and reviewof specific calculations, such as gear tooth strength verification, bearing life calculations,and other specific calculations.With all these recognized differences, a few commonly agreed upon objectives are clear.For the benefit of training global engineers, and for the efficient teaching of the seniorcapstone design course, it is desirable to develop a common set
AC 2012-5460: TEACHING FRESHMEN ENGINEERING DESIGN VIAHYBRID MODE: A CASE STUDY IN THE MIDDLE EASTDr. Jaby Mohammed, Petroleum Institute Jaby Mohammed is a faculty at the Petroleum Institute, Abu Dhabi, UAE. He received his Ph.D. in Indus- trial engineering from University of Louisville (2006), master’s in industrial engineering from University of Louisville (2003), and also a master’s in business administration from Indira Gandhi National Open University (2001). His research interests include advanced manufacturing, design methodologies, Six Sigma, lean manufacturing, and enterprise resource planning. He previously taught at Indiana University- Purdue University, Fort Wayne in Indiana and at Morehead State