AC 2008-1675: STATISTICAL PROCESS CONTROL LABORATORY EXERCISESFOR ALL ENGINEERING DISCIPLINESJeremy VanAntwerp, Calvin CollegeRichard Braatz, University of Illinois at Urbana-Champaign Page 13.1096.1© American Society for Engineering Education, 2008 Statistical Process Control Laboratory Exercises for all Engineering DisciplinesAbstr actDespite its importance in industry, statistical process control (SPC) is rarely taught inundergraduate controls courses. However, one or two lectures, coupled with the hands-on assignment in this paper, are sufficient to give a good introduction to the topic. Thispaper presents a case for why all engineers
college of engineering thatbenefits humanity by educating socially responsible engineers inspired for life-long learningusing an innovative learn by doing philosophy in partnership with industry and otherstakeholders.” PBLI is consistent with this mission because it promotes the use of a multi-disciplinary, participatory, learn by doing, “hands-on” laboratory, project and design centeredapproach. The PBLI enhances educational outcomes for students in accordance with the strategic Page 13.1010.2plan, it enhances the professional development of the faculty in conformance with the strategicplan, by encouraging and supporting expansion of faculty
of an REU Summer ProgramAbstractAn NSF-funded Center, a three-university partnership with research focused onnanomanufacturing, has held a Summer Research Experiences for Undergraduates (REU)Program for undergraduate students over the past three years. Over 70 students have participatedin the program, in which each student is guided in a project to learn more about research relatedto nanomanufacturing. In our laboratories, students with diverse technical backgrounds gainskills in electron and atomic force microscopy; chemical synthesis; MEMS and NEMSfabrication; dip pen nanolithography; template-guided assembly and transfer of polymers andnanoparticles; high rate polymer processing; assessing the impact of nanoparticles on theenvironment
integration, electric and pneumatic actuators, power transmission, materials and static force analysis, controls and programmable embedded computer systems, system integration and robotic applications. Laboratory sessions consist of hands-on exercises and team projects where students design and build mobile robots. RBE 2001 UNIFIED ROBOTICS I First of a four-course sequence introducing foundational theory and practice of robotics engineering from the fields of computer science, electrical engineering and mechanical engineering. The focus of this course is the effective conversion of electrical power to mechanical power, and power transmission for purposes of locomotion, and of payload
of proposed courses, outlined in Tables 3and 4. Table 3 organizes the proposed courses as a typical student would progress through the4-year, 120-credit curriculum. In order to better compare the proposed curriculum with thevision and design elements described earlier, the credit hours in Table 3 are broken down andorganized by curriculum area in Table 4. Page 13.262.7 Table 3: Proposed Courses for New Engineering Degree (L) indicates courses with one or more integrated laboratory credits Freshman Fall Freshman Spring Calculus I 4 Calculus II
resources together forthe course to promote student learning. The instructors engage in meaningful dialogueconcerning their assignments, lesson preparations, laboratory exercises, and their results. Theinformation flow between instructors from different departments encourages faculty learning bypushing the instructors beyond their own discipline. This paper illustrates some of the coursedetails employed between two engineering departments to advance and enrich aninterdisciplinary controls engineering course. Advantages to empowering an interdisciplinaryfaculty are also described. The techniques described allow the students to benefit from the workof an interdisciplinary faculty team and enrich the students’ understanding by bringing in realworld
, and toprovide hands-on experiences with the analysis, processing, and interpretation of earthsystems data. Page 13.947.10Bibliography1. Spanias, A.; Atti, V., “Interactive online undergraduate laboratories using J-DSP,” IEEE Transactionson Education, vol. 48, no. 4, pp. 735- 749, Nov. 2005.2. Spanias, A., Atti, V., Ko, Y., Thrassyvoulou, T.,Yasin, M., Zaman, M., Duman, T., Karam, L.,Papandreou, A., and Tsakalis, K., “On-Line Laboratories for Speech and Image Processing and forCommunication Systems Using J-DSP”, IEEE DSP Workshop, 2002.3. Yasin, M.; Karam, L.J.; Spanias, A., “On-line laboratories for image and two-dimensional signalprocessing,” IEEE
, and has developed and taught many of the freshmen engineering courses, including ENGR 107 (Intro to Engineering) and ENGR 108 (Intro to Design). Other courses she is teaching are Dynamics, Dynamics of Machinery, and Engineering Materials. She is a member of ASEE and is developing a biomechanics laboratory as a center for research in bone and joint care.Eric Sprouls, University of Southern Indiana Eric Sprouls has been the Chair of the Department of Engineering at the University of Southern Indiana (USI) since 2002, where he has been teaching engineering technology and engineering courses since 1977. He holds a MS in Civil Engineering from the University of Illinois. Prior to coming
experience as a possiblechoice for a required technical elective provided a range of research experiences which would bedifficult to achieve through a lecture or a laboratory course. c. Other programsModels for integration of nanotechnology education into the undergraduate curriculum havebeen discussed by a number of engineering educators over the past decade, and all haveemphasized the need for a multi-disciplinary, active learning and problem based approach.6Uddin and Chowdhury specifically concluded that development of a broad-based introductorycourse at the freshman/sophomore level, which includes general concepts and societal/ethicalissues, is essential.7 They also identified a capstone, design-oriented course as critical todevelopment of
for a new typeof science and technology program that provides a broad scientific and technical education,engages students with real-world problems, and seriously addresses societal influences andimpacts. The department cuts across typical disciplinary boundaries, focusing more on practicalproblem solving than on theoretical knowledge. The curriculum emphasizes learning-by-doing,and includes several hands-on laboratory courses and a 3-semester senior capstone project.Upper-level instruction in the department is organized around strategic industry sectors, withstudents choosing to concentrate their studies in biosystems, engineering and manufacturing,information and knowledge management, telecommunications, energy, or environment.In 1997, the
mediums by which students’ leadership skills could be assessed. Some areasare through co-operative education, internship, job shadowing, and many more. Given the factthat most students in the industrial technology program would have not been able to put intopractice their leadership skills before graduation, the integration of service learning and learningcommunities would be of immense benefit. While service learning would provide the avenue forstudents to put into practice the knowledge gained in the classroom and laboratory, the learningcommunities would function in the capacity of facilitators and mentors by giving constantfeedback on students’ performance while engaged in service learning to enhance their leadershipskills.The integration of
attitudes with respect to community service than did students and that only minordifferences existed based on participants’ age and gender.The current research builds from this prior effort. In Bauer et al., data were collected in theMultidisciplinary Engineering Laboratory, EGGN250, a sophomore level course in the fall of2004. This course was selected because it was required of all students and it preceded the courserequirements within the Humanitarian Engineering minor. In other words, the existence of theminor and the courses associated with that minor would not yet have impacted the students’attitudes. Using the same instrument, data was collected in the spring of 2007 in a senior levelcourse, a time period when most of the original student
AC 2008-2264: WHY A LIBERAL AND MULTIDISCIPLINARY EDUCATION ISNEEDED TO SOLVE THE ENERGY CRISISMatthew Heun, Calvin College Matthew K. Heun received his Ph.D. in Mechanical and Industrial Engineering from the University of Illinois at Urbana-Champaign. He was a staff engineer at the Jet Propulsion Laboratory in Pasadena, California and a Senior Engineer at Global Aerospace Corporation in Altadena, California before joining the Engineering Department at Calvin College in Grand Rapids, Michigan.Steven VanderLeest, Calvin College Steven H. VanderLeest is a Professor of Engineering and currently the Engineering Department Chair at Calvin College. He has an M.S.E.E. from Michigan Technological
over-lap into section (1) (the historic component of the course). Project 1 was on celestial mechanics(see §Appendix B: Celestial Mechanics Project) and required students to compute the orbit of theplanets by solving the system of ODEs that arise from analysis of Newton’s two-body equation,i.e., the mutual gravitational forces exerted between the sun and an orbiting planet such as Earth.Students use computer laboratories for the implementation of the design projects outside of class.Project 2 addressed the thermodynamic of heat dissipation (see §Appendix C: ThermodynamicsProject) and required students to compute both the analytical and numerical solution to the PDEthat models heat dissipation known as the heat equation. Students solved the
transition had been largely completed and the generalstructure for the “new” Engineering major had been formulated. Under these conditions, B.S.E.students are required before the beginning of the junior year: (1) to develop for approval theirindividualized program plan, and (2) to select one of several course “stems,” which provides asequence of related courses to an employable-skill level (a senior-level engineering course with adesign and/or laboratory experience). While this information about the structure andrequirements of the program is complete in the University’s catalog, there is also a multi-page setof worksheets to aid the student and program coordinator in developing and approving thecurricular plan for each individual student.With a
3616.8 Table 3 Late Fall / Early Spring normal operational day (Ayman [14] with Modifications)Based on analysis in table 3 the Learning Barge will require about 3.7 kilowatt-hours ofenergy per operational day.After identifying each individual load and determining their power consumption, themost important analysis is to understand the solar radiation we receive each day. Table 4provides a thirty-year average, from 1961 to 1990, obtained from the National RenewableEnergy Laboratory (NREL) [1]. The average solar radiation, in the Money Point areawhere the barge will be located, from March to September is over four hours. However,the average of direct solar exposure is 2.5 hours or less in November
at Crime Scenes Laboratory • Logic Problems and Math GamesFri 7/20 • Evaluation Forms • Lunch to Celebrate!Day 10 Page 13.1324.5 • PosttestAcademic Year Follow-upThe first phase of this program was the implementation of the summer workshop. Thesecond phase occurred during the academic year. Throughout the academic year, a CSMgraduate student visited each of the participating teachers on a weekly basis and providedassistance as the teachers
-disciplinary teams”1. Western New England College has a long history of incorporatingengineering design into laboratory and course work. Additionally, interdisciplinary team effortsare initiated in the freshman year and continue for all four years.2,3 This paper describes theassessment instrument used in a senior-level interdisciplinary course that students take during thefall semester. The design project brings together students from mechanical, electrical, andcomputer engineering in teams typically consisting of 4-5 members. During the most recentdelivery of the course, due to a limited number of platforms and a larger senior class, the teamsconsisted of 7-8 students.To achieve a good level of interdisciplinary teamwork, educators need to motivate
system, light stimulationsystem, digital RF remote control unit, and motor driving unit. The whole circuit including themotors is supplied by eight rechargeable Ni-MH batteries. The layout of a printed circuit board(PCB) was designed and the PCB was fabricated in the laboratory of Electrical and ComputerEngineering Technology Department at IPFW. Figure 5 shows an image of the actual PCB. ThePCB was mounted to the underside of the mounting tray shown in Figure 4 that has beendescribed in the previous paragraph.The operation of the ISPU is controlled by a microcontroller. The microcontroller senses soundvia a microphone, and the units’ motion via two accelerometers. Based on those inputs and pre-programmed algorithms the units’ motors will be
. Previous work by the authors has focused onimproving the integration of CAE1,2 into mechanical engineering programs. Noble3 writes thatthere is “a need for a broad based individual that is capable of working in an integrated fashion ina team environment.” According to King and Lin4, “Industries need engineers who are versed instreamlining processes from design to planning to manufacturing.” Tsang and Wilhelm5developed a one-credit laboratory to “integrate the disciplines of materials science andengineering, manufacturing and design.” Noble3 also notes that “little is done to provide anysynthesis between the courses.”The goal of this paper is to document efforts to improve the experiences of students working inintegrated design project teams and
- F INBIBLIOGRAPHICAL INFORMATION1. Gallow, De, “What is Problem Based Learning?” Instructional Resource Center, The William and Flora HewlettGrant.” http://www.pbl.uci.edu/whatispbl.html, 2006.2. Scardamalia, M., and Bereiter C. “Student communities for the advancement of knowledge,” Communicationsof the ACM Volume 39 No. 4 pp. 36 – 37, 19963. Mehta, Y. and Najafi, F “Teaching Methodology of Flexible Pavement Materials and Pavement Systems,”Journal of SMET Education, 2003a.4. Mehta, Y. A, Orlins, J. and Lubelski, D. “Innovative Teaching Methods for Surveying and EngineeringGraphics,” Proceedings of Mi-Atlantic Conference, Kean University, NJ 2003b.5. Mehta, Y. A. “Innovative Techniques To Teach Civil Engineering Materials Laboratory
aclassroom setting but instead could be in the form of a field trip to a vendor’s installationor to an office or a laboratory. The purpose of the meeting is to tie together conceptualloose ends that the students may have regarding their design and to be able to refine thedesign based on professional “in the field” guidance and experience. The meeting withthe expert may lead to the need to collect different and/or more pieces of data. Thismeeting may also result in a new iteration producing additional design options and,consequently, more than one cost estimate.Cost estimate and design revision. The design module group refines their preliminarydesign based upon the expert’s recommendations and performs cost estimates on one ormore design options