skill.16Questioning students is critical for guiding their reasoning as well. Questions can be inserted atmultiple points in the learning process, such as during self-directed instruction with web-based,flipped-classroom materials; progress reviews; or team-based problem solving efforts in theclassroom.11 Prodding students to articulate answers drives them towards completion of a task.15Prompting them with questions that require explanation and justification of their solutions atdifferent phases of the project, as during frequent progress reviews, can assist them in planning,monitoring, and evaluating.19 Therefore, requiring students to develop coherent argumentsscaffolds them in solving ill-structured problems and also provides one of the best
completed at this point. Therefore, assessing the prototypes forcompleteness and extent of testing completed at this point has been found to be a good predictorof team effectiveness. The prototypes are assigned a score of 1-5 for completeness, where 5indicates a completed prototype and 1 indicates that no prototype is likely by the end of thecourse. Testing was also rated on a 1-5 scale, where 5 indicates that prototype verification testingis complete and 1 indicates that testing was not planned or discussed. This validated rubric ispresented in Table 2. In addition to scoring the executive summary, grades are determined basedon oral and written reports and whether the final projects met the specifications laid out by theteam and their advisor at
, process testing, facility layout and location, material handling system design. Management and Simulation Systems - 309/311 Cherry Hall Manufacturing Processes and Resource planning, scheduling and control systems, supply chain management, teach Systems - 206 Cherry Hall using simulation exercises, case studies and
students.This exercise again segmented the students into three groups. However, this was not done bysection, but by performance on the laboratory practical. Students were either asked to bring in acontextual object (not one they had used previously) of moderate complexity or were providedeither a drawing of physical model of stylized component. These are shown in Figure 6. Studentswere given approximately one hour to model their component. Prior to the modeling exercisestudents were interviewed about the procedure they planned to use and how they would deal withany challenges that arose. During the exercise, the Camtasia screen capture software was used torecord participant screens. After the modeling exercise, students were interviewed again to
probablily of being exposed toheavy metals. Scenario 3 minimic workers in the plan working without personal protectiveequipment and being exposed to heavy metals at a high rate. Lab Skills: Statistical Analysis ofdata, hazardous waste, public health, risk. (Figure 1)Case 2: Role Play - Ms. Hines and the sick 5th Grade Class Students participate in a role play exercise where an elementary teacher calls into work tolet her principal know that she is ill. The principal proceeds to inform the teacher that otherstudents in her 5th grade class are ill too. The day before the class had a field trip to a local parkthat is known to have a high population of geese. The students and the teacher were exposed tocontaminated water when and went to a local
madeprogress on placing teaching materials online to help faculty at the pilot school train newrecruits. For instance, we created a set of teaching materials including instructional slides withdetailed teaching notes. Equally important, we created and posted online a high quality video ofa sample engineering ambassador presentation [18]. This video can be viewed atwww.engineeringambassadors.org.Greatest Challenges to the Network and Our Plan to Address Those ChallengesOur team has identified the following challenge as the greatest facing the EngineeringAmbassador Network in this first year of the Type II TUES grant: Maintaining the momentumand quality that the pilot schools had coming out of the inaugural national workshop. Althoughwe will run on-site
partnerships were organized from highest to lowest based on theoverall lab scores and the functionality of the receiver. Factors such as habitual absenteeism,tardiness or events such as problems between partners were identified and those pairs wereeliminated from the study. The questionnaires were then rearranged by lab partners.Commonalities and differences between partners were first identified. In particular, the degreesof active vs. reflective, sensing vs. intuitive, visual vs. verbal and sequential vs. global learninghad to be reviewed. Each partnership was then described based on the learning styles presentand the degree to which these learning styles were found.ResultsThis study is in it’s infancy with follow on studies planned to increase the
factor analysis and confirmatory factor on a large survey sample to reduce theinstrument and identify the factor structure are in press elsewhere.1 Our earlier published workdescribed the importance of assessing teamwork in the engineering classroom and the challengesit represents and laid out the ambitious assessment plan that would help develop an instrumentthat is easy to use and yet meaningful for both faculty and students, 2 described and demonstratedthe benefit of a behaviorally anchored rating system,3 detailed the process of creating a newbehaviorally anchored rating scale to simplify administration, data analysis, and reporting, andmake feedback more understandable.4 This paper shows how the behaviorally anchored ratingscales are
interface displays the vector of each sensor in real-time. This tool will be utilized bystudents the next time the Electromagnetic Fields course is offered. The author plans to have thislab repeated with the improved tool to assess the next class of students and determine if the labimproves their level of understanding over this recent class using multiple assessment tools (suchas pre and post lab student surveys), and to test the hypothesis that reducing the gap between datacollection and analysis for the multipoint experiment will improve student understanding ofdivergence, curl, and gradient as reflected in the student lab reports.References[1] I. W. Wait, A. P. Nichols and W. A. Zatar, "Comparison of Learning Styles for International and
plan:(1) Instructor will ask students to modify the frequency tank circuit after the initial success to generate three specific frequencies (95MHz, 100MHz and 105MHz) that a customer can switch from one frequency to another.(2) Students who are unable to complete the project design and demonstration within four weeks, will be given an opportunity to complete the project with two weeks extension for 10% reduced points on their own time.ConclusionThis project in Electronic Communications II creates criticalthinking by introducing a design component in the critical part ofthe project which is the high frequency oscillator circuit togenerate the required carrier frequency for modulation. Whenstudents understand modulation process
growth and biofuels experiments attheir home schools. Page 15.1247.10 9After the NIST Summer Institute ends and teachers return to their home schools, plans are madeat NIST to invite the teachers back for Science Afternoons at NIST. All teachers who are pastparticipants in the NIST Summer Institutes are invited so the attendees are a unique new mix ofteachers, all of who can learn from each other. Science Afternoons have evolved to focus on asingle scientific topic, one that may not be of interest to all the teachers but may be of
with the PI and co-PIs or senior personnel. The lab sessions will serve as practice for the graduate students to exercise the implementation of good teaching practices. Typically, graduate students (even those with teaching assistantships) lack the experience of designing educational activities, as these are usually designed by senior instructors/faculty members, whereas teaching assistants are only responsible for the implementation. This training will provide graduate students the educational training that they will need as they progress in their careers, especially if they plan to secure an academic job.(iv) To develop a multi-platform nanotechnology educational app—i.e., an app that will be able to run on
-Programmable-Chip (SOPC)AbstractTo better prepare students in the areas of computer architecture, embedded systems and controlsystems, an advance digital control systems laboratory is currently under development as part ofour strategic plan to offer a Computer Engineering Program next year. In order to bridge the gapbetween the computer engineering design courses and practical industrial control system courseswe designed experiments, one example of which will be explained in details, to provide studentswith the ability to take what they have learned in digital design courses and apply it toward whathas been learned in a control system courses. This approach also provides us with a moreefficient use of our laboratory resources in terms of both space
what is becoming a technician employment crisis.When ST&M looked into training for entry level personnel it was plain to see the availableoptions. Most options were not feasible solutions for a commercial enterprise. To compare tothe military training plan which required nearly a year of intense 8 hour per day classroom andlab training, a company would have to hire an employee and send them to school for a 2 yearAAS degree. This option was simply not affordable or practical. A second option was an onlineMetrology program. The often heard drawback to this program is the lack of a hands-oncomponent. A third option was to develop a full course to be given through the company. Onceagain this would be very expensive and the downtime of the
. Some meandering of the streams results in loss of illumination inadjacent streams in still-frame captures, but the flow characteristics are still clearly evident inlive video. Spreading or dithering of the light sheet could be used to enhance the definition ofthe still-frame captures, or alternatively this could be done through the use of frame averaging.The results thus far are very encouraging, and numerous other duct flow test sections arecurrently planned for testing. The construction materials are very inexpensive—typically genericflat black finish foam board, which is available form any art supply store. Flat black duct tapewas used to temporarily attach the duct model to the inside of the tunnel wall, and the model iseasy to remove and
, including minorities and women, to its engineering and engineering technology programs, due to expanded opportunities.6. Undergraduate senior design project teams will be able to perform reliability analysis and qualify their product designs.7. RIT’s reputation will grow as a state-of-the-art engineering and engineering technology institution.Evaluation PlanAn evaluation team has been assembled and will be involved in the planning, implementationand assessment stages of the REAL project. The evaluation team has already participated in thepreliminary discussions that led to conceptualization of REAL and the selection of lab equipmentrequested in this proposal. The team consists of a faculty from RIT’s-Center for Quality andApplied Statistics
’ interestin STEM fields.GoalsThe author had taught engineering statics for many years and it has always been a littleperplexing to him that many students struggle with the basic concept of torsion. So in addition togiving students more hands-on experience of the physical activity/phenomenon called “torsion”or “torqueing,” the goals of this lab are (1) measure torsional material property (yield strength,ultimate strength) for regular grade steel bolts, (2) understand the use of torsion formula in dataanalysis and lab planning, (3) understand the use and limitations of material properties data fromengineering literature/handbooks, (4) understand that material property is a statisticalphenomenon, i.e., it has a spread, (5) develop a physical sense of
driver to stay in lane, but do not allow fullautonomous driving4-7. GM, in particular, warns that their lane keeping system should not beused while towing a trailer or on slippery roads, as it could cause loss of control of the vehicleand a crash5.Project DescriptionThere are two types of lane assist systems: Lane Departure Warning (LDW), which warns thedriver of lane departure; and Lane Keeping Systems (LKS), which actively apply steering torqueto direct the car back to the center of lane. This project is focused on the lane keeping system. ARC toy car was modified to stay in the center of a lane as it drove along the road by integratingan optical sensor with actuators controlled by a computer and strategy planning/coding. Thevehicle platform
, Multidisciplinary Engineering Laboratory. • American Society of Mechanical Engineers • American Society of Engineering EducationProf. Jeffrey A. Holley P.E., Colorado School of Mines Jeffrey Holley, PE received a BS in Engineering from Colorado School of Mines in 1988, a MBA from the University of Colorado in 1993, and a MS in Environmental Science and Engineering from the Colorado School of Mines in 2011. As a practicing civil engineer registered in 14 western states his specialties include planning and construction document preparation for grading, drainage, infrastructure utility, and storm water quality enhancement design. As an instructor at CSM he has had the opportunity to teach Water and Wastewater Treatment, Fluid
to build something and test it.” Other students, however, were frustrated by the lack offreedom in the design process: “I would have liked to have more creativity for the project (likecreating our own version of the converter). Additionally, several students noted that the manualcreation of the waves was challenging and frustrating. Several teams also had trouble with thedata acquisition using the myDAQs.Plans for the FutureFall 2015 was the first time this project was implemented. For the Fall 2016 implementation, weplan to make several changes. One such change is developing an automatic wave generator tocreate uniform waves, which will minimize the nuisance of manual wave generation and itsinfluence on the results. We plan to give students
equally difficult, or equallyvaluable. Some require significant understanding and reflection; others are straightforwardsimple tasks. By providing an indication to the students as to which milestones are which,the students have more information with which to plan their work.For instance, a ±10% error margin may be acceptable in the project specification, but a ±1%is preferable. If the accuracy milestones are rated for difficulty, students who find themselveswithin the 10% margin can then decide whether they wish to invest the time and effort toachieve the smaller tolerance, and thus the additional mark, or whether to focus their energieselsewhere.Four difficulty categories were chosen for the milestones: Easy, Standard, Hard andChallenging. The
theexperience level of the student trainee. Figure 7: User testing of the training scenarios; a: Window VR, b: HMD4. Curriculum development and assessmentTo integrate the different training simulators with the Aircraft Maintenance Technologycurriculum, it was necessary to devise a curriculum development and assessment plan. Alongwith the training provided using the Virtual Reality simulators, the current educational materialis enhanced by integrating a computer-based inspection training program focused on improvinginspector performance entitled GAITS (General Aviation Inspection Training System) [13] intothe curriculum. GAITS was developed using the task analytic approach for aircraft inspectionthat is anticipated to standardize and
. A transformation was used onresponse variables whose distributions were non-normal. The results showed that the many ofthe outcomes were significantly correlated to prior GPA, including the total course score and theexam scores. A clear, statistically significant, benefit to the spreadsheet use could not be found,mainly due the strong influence of prior GPA and the relatively small samples sizes. Severalexam questions did show improved performance when using spreadsheets, but larger samplesizes are needed to be certain of the effects. We plan to add additional control data and continueusing the spreadsheets in other sections to obtain better statistics. In addition, we feel that morein-class use of the spreadsheets in an active learning
. Labs using hardware are equallygood, maybe even better, but that takes more time for the students to implement and debug. Ithink Multisim is the best choice.”Conclusions and Future WorkAssessment data from electric circuits classes of on-line, non-traditional, applied engineeringstudents show a 10-30% increase in students’ satisfaction with their learning, the teacher, coursecontent, and technology when remote laboratory experiments using ELVIS equipment was used.Assessment data from digital circuit design classes in computer engineering using Multisimshow a 28-48% increase in these areas. Further horizontal integration of these remotelaboratories in other Applied Engineering classes is planned, with additional vertical integrationwithin the
Time Mang. Stress Mang. Visual Personal Academic Management Academic Plan of Advising Study
courses taken by nearly all enteringfreshman. These courses include topics from all of the disciplines and are taught with anemphasis on either common disciplinary topics or a collection of topics from different disciplinesso students can gain a better understanding of the different majors before entering the majorclasses. One of these two freshman courses is quite unique and has few comparable courses atother universities, EAS109 Project Planning & Development. There are two major projects forthe course, a manufacturing floor simulation and a feedback control project. The manufacturingfloor simulation is done with small robots and conveyor belts where AutoCAD drawings, controlprograms and project management documentation are required. The
Page 24.436.2 power isolation for digital/analog controls and motor drives.5. Available Op-Amp, EEPROM, and DAC operations.6. Available SPI bus communication and interface.7. Available GS encoder (EVEGA2).8. Available isolated power FET/IRF530*8 for stepper and DC motor controls.9. Available 2.2”*6.5” breadboard for additional interface.10. Available header socket and molded jumper wire for easy interfacing. Photo1. PIC Training SystemPlan of Project Implementations The plan for this project has been designed to achieve these goals through multipleproject components that will contribute to the development of exemplary undergraduate STEMeducation. These include:1. Use workshop attendee, student
degree? How long do you plan on remaining in an engineering related profession after graduation? (Possible follow-up question: How long after graduation do you plan on using technical information as part of your day to day work?) What parts of your education do you see as relevant to your future? (Possible follow-up questions: What skills are relevant to ideal self (who you would ideally like to be)? What skills are relevant to who you think you could be? What parts of your education do you see as not relevant to your future?) What skills do you view as important for your profession? How did you develop these conceptions of your future?Short-Term Tasks/Goals What is an engineering problem? (Possible follow-up
. (6) W ( s ) mL s cs 2 2Using Simulink RTW environment, it is straightforward to implement the suggested feedbacklaws (3) and (4) as illustrated in Figure 4. Page 25.1406.7 Figure 4. Impleementation of Non-Linear N Feeeback Linearizaation LawsIn the th hird installm ment, studentts are asked d to identifyy the dynammic characteeristics of a unit-feedbackk system formed from around thee plan (6). This task iis designed to illustratee theapplicatio
), ability to plan and design a system, component orprocess that meets desired needs (abet c), ability to use techniques, skills, and modernengineering tools necessary for engineering practice, including computer tools and informationtechnology (abet k), and the ability to design and conduct experiments as well as to analyze andinterpret data (abet b).The course topics include computer aided structural analysis of trusses, structural design oftrusses, computer aided structural analysis of 2D-frames for gravity and lateral loads and loadcombinations, computer aided structural design of 2D-frames, setting up of an experiment on asmall shake table and dynamic experimentation, computer aided structural dynamic analysis withtime history, and verification