(h).Figure 4 provides a more detailed conceptual map for the tasks involved in the data capture andanalysis. As the tank is draining, images are captured (step a.) and pressure versus time data isrecorded (step b). After the draining is complete and the data logging is stopped, the jet lengthvalues, L, are extracted from the images captured by the digital camera (step c). The pressuretransducer values are converted to depth (step d). The time ti at which each image was capturedis used to interpolate in the depth versus time data, and to extract a set of h(ti) valuescorresponding to each of the images used to measure L(ti), (step e). Finally, the L(ti) and h(ti)data are combined to yield a plot of L(h), (step f). Figure 5 is an annotated
Figure 5(a). Vantage Pro 2 Console Figure5(b). Integrated Sensor Suite (ISS)The Vantage Pro2 can display up to 24 units of data, such as the last 24 minutes, hours, days, andmonths. When it is connected to a PC, using its WeatherLink software package it can log dataevery 10 seconds. The wireless ISS has a range of 400 feet through walls, 1000 feet line of sight.Other modules include a system designed to be run solely or predominantly in the daytime, thatwill not be needed or rarely used in the night, such as, an attic exhaust fan which will be usedmainly during the day to help keep down the temperature in the roof and operate solely onrenewable energy in conjunction with a thermostat. A solar powered led display system to showan
Arab GulfStates. Proceedings, 2005 Annual Conference of the American Society for Engineering Education.[8] Al-Sammik, A., Al-Shehabi, H. (2006) Special Issue: From Region to Countries: Engineeringeducation in Bahrain. IEEE Technology and Society Magazine 25. 2. Pg. 12-17.[9] Akili, W. (2005). Active Learning: A Range of Options Intended for Engineering Faculty in the Arab GulfStates. Proceedings, 2005 Annual Conference of the American Society for Engineering Education.. Page 15.739.12[10] (2009) Education City Enrollment. TAMUQ Internal Document. 12-9-2009.[11] Oberst, B., Jones, R. (2006) Today and Tomorrow: Engineering Education
category for the pre-test. Concept Category Question/task No. % Passed A General OBD concept 1,2,3,4,5 14.5 B Electronic circuit design and manufacturing 6,7,8,9 22.7 C General Embedded system concepts 10,11,12,13 45.5 D Hardware interface 14,15,16,17 38.6 E Software programming 18,29,20,21 65.9 F Development tool 22,23,24,25 38.6In order to evaluate the effectiveness of the classroom activities, we needed to investigate theimpact of the course. After comparing the post-test with
AC 2010-1209: NEW DIRECTIONS IN ENGINEERING EDUCATION: THEDEVELOPMENT OF A VIRTUAL LAB COURSE IN ELECTRONIC CIRCUITS ATMICHIGAN TECHNOLOGICAL UNIVERSITYGlen Archer, Michigan Technological University Glen Archer is a senior lecturer in the Department of Electrical and Computer Engineering at Michigan Technological University. He received his BSEE from Texas Tech University. He brings nearly 30 years of experience as a U.S. Air Force officer to the university setting. He retired from the Air Force at his final assignment as the Commandant of Cadets at AFROTC Detachment 400 at Michigan Tech. He earned an MA in Information Systems Management from Webster University. He currently teaches Circuits and
AC 2010-108: A LINEAR CONTROL SYSTEMS COURSE WITH EMPHASIS ONEMBEDDED CONTROLChiu Choi, University of North Florida Page 15.48.1© American Society for Engineering Education, 2010 A Linear Control Systems Course with Emphasis on Embedded Control Chiu H. Choi Department of Electrical Engineering University of North FloridaAbstractThis paper describes the embedded control courseware and its benefits in our linear controlsystems course. The embedded control courseware consists of a set of lab experiments thatteaches the students how to
AC 2010-1444: EXPERIMENTAL TESTING TO ENHANCE THE DESIGN OFDAYLIGHTING SYSTEMS. A CASE STUDY ON THE IMPLEMENTATION OFLABORATORY-ORIENTED DESIGN IN UNDERGRADUATE EDUCATIONKhaled Mansy, Oklahoma State University Page 15.559.1© American Society for Engineering Education, 2010 Experimental Testing to Enhance the Design of Daylighting Systems. A Case Study on the Implementation of Laboratory-Oriented Design in Undergraduate EducationAbstractThis paper addresses a timely topic, which is designing and enhancing the performance ofdaylighting systems in buildings early in the design phase. Currently in academia
) is available to provide a quick andconvenient way to reflow entire smaller boards (Figure 1(b)). Lastly, a 7” bench top drill press($1,700, McMaster-Carr, model no. 8929A21) in the laboratory facilitates through-hole drillingin the final etched board. This allows students to integrate surface-mount and through-holetechnology in their projects. Page 15.518.4 (a) (b) Figure 1. Circuit board reflow options available in the SMT/PCB facility: (a) Cuisinart TOB-165 toaster ovenwith thermocouple temperature gauge for larger area boards and (b) conventional hotplate
to be coupled witheach other in a manner that transportation requirements may be met. The springs are to be usedin the design of the mechanisms to satisfy the required modes/configurations of the modulesduring their: a) transport, b) expansion, and c) the final intended geometry. For full details of thescenario and the activity, refer to Appendix “A”.If there are to be four (4) groups of students [comprised of three (3) or four (4) members] forconducting the experiment, each group will collect data on only one of the sample sets. Eachgroup will then share the results of their measurements with the other groups. In this process,each group has established an average “K” value for “each and all” of the 25 springs in oneassigned set. Since five
. Page 15.859.1© American Society for Engineering Education, 2010 Measurement of Hands-On AbilityIntroduction“Practical ingenuity,” according the National Academy of Engineering, is a necessary attributefor the engineer of 20201. Hands-on ability is considered an important characteristic of practicalingenuity2. Two of the ABET criteria address hands-on skills: ability to design and conductexperiments and interpret data (criteria b); and ability to use the techniques, skills, and modernengineering tools necessary for engineering practice (criteria k)3. Employers value hands-onability and routinely ask recruits about hands-on experiences outside of classes4. A “tinkeringdeficit” has also been identified that puts females
engineering proposal consisting of a problem statement, project objectives, preliminary B.O.M and a plan of action. This is due one week after the project is assigned. 2. Project Progress Updates: The students provide a weekly update to the instructor and their team either via email or through pre-scheduled meetings. Altogether 9 updates are required. In these updates the teams are required to communicate the following: a. What happened the past week? b. What will happen this week? c. What are the major issues the team is facing? 3. Project Report: At the end of the term the teams submit a comprehensive project report. This report provides the details of how the project is executed. It
does result in students obtaining more hands-onpractice. Also, the raw data can be seen in Table 5. In addition to evidence provided by studentsurveys, students in focus groups and in the Design Expo indicated that they spent a significantportion of their time in “hands-on” practice. Table 4. Shaded Representation of More Hands-On Practice in 120 and 121. 120 120 121 121 122 122 Item “Old” “LWL” “Old” “LWL” “Old” “LWL” A B C D Assembly Bending Cutting internal or external threads Drilling Implementing circuits on a breadboard Layout Milling Rapid
implementationissues. This environment allowed for extensive experimentation, performance comparison, anddevelopment of several practical control algorithms. It is expected that the techniques employedin the controller designed for the laboratory experiment will likely be used by the students intheir subsequent employment after completion of their college education.References1. H. Ashrafiuon and D. S. Bernstein, “Innovations in undergraduate education: Part II,” "IEEE Control Syst. Mag., vol. 25, no. 1, pp. 21-22, Feb. 2005.2. L. D. Feisel and A. J. Rosa, “The role of the laboratory in undergraduate engineering education,” Journal of Engineering Education, vol. 94, no. 1, pp. 121-130, January 2005.3. R. Molengraft, ML Steinbuch, and B. Karker
judged to be inappropriate. The laboratory experience required a low-voltage replica ofcommercial three-phase power: sinusoids with 120° phase separation. The faculty design teamwas unable to find such a source commercially at low cost and designed, built, and tested severaldifferent sources. In addition to a transformer solution, two electronic circuits were implementedin the initial trials of the laboratory exercises: (a) digital synthesis using synchronized counters,D/A conversion, and wave shaping, and (b) digital synthesis using EPROMS and D/Aconversion. Each of these three-phase synthesizers was developed with an estimated parts costof less than US$10 (assuming appropriate DC power availability).The design and implementation of the sources
. http://soa.asee.org/paper/jee/paper-view.cfm?pdf=800.pdf.6. Hsi, S. and Agogino, A. “Scaffolding knowledge integration through designing multimedia case studies of Page 15.593.9 engineering design,” Proceedings of Frontiers in Education Conference, vol. 2, pp. 4d1.1-4d1.4, Atlanta, GA, 1995.7. Linn, M.C. “Designing computer learning environments for engineering and computer science: Scaffolded knowledge integration framework,” Journal of Science Education and Technology 4(2): pp. 103–126, 1995.8. Slack, T. B., Smith, D. L., Franzone, J., and Proffitt, A., “A Course in Computer Networking with a Laboratory on
AC 2010-310: THE SCIENCE AND TECHNOLOGY EDUCATION PARTNERSHIP (STEP): GROWTH,CHALLENGES AND OPPORTUNITIES IN STEM OUTREACHDouglas Sugg, United States NavyElizabeth Gentry, National Institute of Standards and TechnologyJohn Fishell, STEP Conference Page 15.1254.1© American Society for Engineering Education, 2010 The Science and Technology Education Partnership (STEP): Growth, Challenges and Opportunities in STEM OutreachAbstract:This paper explores a comprehensive and proactive approach that is currently being used by theScience and Technology Education Partnership (STEP) Program in Southern California to helpensure that the pipeline of
SchoolScience Teachers, a collaboration between NIST and local school districts, is a two-weekworkshop designed to support middle school science teachers through a combination of hands-onactivities, lectures, tours, and visits with scientists and engineers in their laboratories.Throughout the workshop teachers are provided with in-depth material on topics in the middleschool curriculum taught by NIST scientists and also provided resources and instructional toolsto teach that material in the classroom.The NIST Summer Institute is designed to increase the teachers’ understanding of the subjectsthey teach, provide materials and resources to implement what they have learned at NIST in theclassroom, rekindle their enthusiasm for science, and provide a