example applications to expose students to advantagesand disadvantages of a) phase field, sharp, and level set microstructural evolution methods and b)numerical techniques such as finite differences, finite elements, and finite volumes.To attain the goals of the course, two computational tools, OOF and FiPy, have beenincorporated into the class. OOF (Reid et al., 2009) 3 is a tool designed to calculate the spatial Page 15.584.2distribution of physical fields and the macroscopic properties from images of real or simulatedmicrostructures (see Figure 1). The code provides an intuitive Graphical User Interface to enablethe user to perform Finite
addressing real world needs in their localcommunities.This one-year pilot project consisted of four key phases that were implemented in nearly equalquarters, i.e., (a) the creation of a vibrant partnership to assess, motivate and inform teachers andcounselors about engineering and its societal connections, workforce barriers, and curricularrelevance, (b) the development of a viable education pathway to successfully engage 8th gradestudents in the full spectra of STEM-based learning that captivate their interest throughintegrated activities that span across science, mathematics, language arts and social studies, (c)the implementation of semester-long science and engineering fair projects chosen by studentswho were mentored by ASU engineering
to: a) advancing the state of the artin conventional manufacturing processes such as metalcasting; b) new trends in manufacturingsuch as rapid prototyping, c) emerging technologies such as nanomaterials and manufacturing offuel cells and special coating materials, and d) enabling technologies serving manufacturingprocesses in general such as intelligent optimization. Manufacturing is a field where boundariesbetween disciplines disappear opening opportunities for multidisciplinary research. The researchprojects and faculty mentors participating in the program represent 5 different disciplines in thecollege of engineering. This offers the teachers a multi-perspective view of how underlyingmathematical and scientific concepts are integrated in
trigger curricular change. Table I showsa subset of courses from the ME curriculum to illustrate some of the embedded assessments.Each PO is typically assessed in 3-4 courses with no course spanning more than 3 Criterion 3(a-k). Page 15.1271.4 Table I Subset of courses used for PO assessment ME Program Required Program Outcomes [Criterion 3(a-k)] Course/Course Title a b c d e f g h i j kES 101 Engineering Freshmen Dialogue
reflection on these observations, we came to a conclusion that a good way toaddress the question above would be to gain experience in (and test-run) Project-Based Learning(PBL). It appears that engineering has inherent appeal due to its strong “hands-on” component –we have not met a student of engineering yet who wouldn’t be fascinated by the applied natureof the subject, which translates into “building something” or “seeing something work.” PBL isalso advantageous from the perspective of structuring the coursework to maximize its impact onthe students’ ability to a). Find a desirable job, and b). Succeed in it – and it’s no secret thatpresent-day industry operates in terms of projects. Thus, it has been decided that our teachingproject will focus
bookend curriculum. Page 15.586.12AcknowledgementsThis project was completed with the support of the University of Colorado at BoulderIndustry/University Cooperative Project Center (I/UCPC).Bibliography1. Brown, B. F., Sr. and Brown, B.“Problem-Based Education (PROBE): Learning for a Lifetime of Change.” ASEE Conference, Milwaukee, Wisconsin, 1997.2. Dym, C., Agogino, A., Ozgur, E., Fry, D., Leifer, L., “Engineering Design Thinking, Teaching, and Learning.”Journal of Engineering Education, Vol, No 94, January 2005, pp. 103.3. Savage, R., Chen, K., Vanasupa, L.,“Integrating Project-based Learning Throughout the Undergraduate
322 Low-Cost Take-Home Experiment on Classical Control Using Matlab/Simulink Real-Time Windows Target Eniko T. Enikov, Vasco Polyzoev, Joshua GillAdvanced Micro and Nano Systems Laboratory, Department of Aerospace and Mechanical Engineering, University of ArizonaAbstractThis paper presents a low-cost hands-on experiment for a classical undergraduate controls courseoffered on behalf of non-electrical engineering majors. The setup consists of a small DCelectrical motor attached to one of the ends of a light rod. The motor drives a 2-in propeller andallows the rod to swing
data (b) ≠ the ability to function in teams (d) ≠ understanding of professional and ethical responsibility (f) ≠ the ability to communicate effectively (g) ≠ a recognition of the need for, and an ability to engage in life-long learning (i) ≠ a knowledge of contemporary issues (j) ≠ the ability to use some of the basic techniques, skills, and modern engineering tools necessary for engineering practice (k).If these outcomes are clearly articulated and effectively assessed by the TYC program, this willhelp the program articulate smoothly with the engineering program(s) at the four-yearinstitutions. Community college programs are advised to work with their four-year partner(s) todevelop an assessment and evaluation process that
changes.Bibliography1. Krathwohl, D. R., “A Revision of Bloom’s Taxonomy: An Overview”, Theory into Practice, 41(4), 212-218, 20022. Nakamura, M.S., S. Sakakibara, R. Schroeder, “Adoption of Just-in-Time Manufacturing Methods at US- and Japanese-Owned Plants”, Transactions on Engineering Management, 45, 230-240, 1998.3. Moskal, B. M., “Scoring Rubrics: What, When and How?”, Practical Assessment, Research & Evaluation, 7(3), 2000a.4. Moskal, B. M., “Scoring Rubric Development: Validity and Reliability”, Practical Assessment, Research & Page 15.766.5 Evaluation, 7(10), 2000b.5. National Research Council (NRC), How People
structure isillustrated as follows: 1. Establish the necessary differential equation(s) based on its free-body diagram(s) and the fundamental laws, such as Newton’s law, D’Alembert’s law, Hook’s Law, etc. 2. Take the Laplace transform to the differential equation(s) including possible initial conditions, 3. Solve the obtained Laplace transform equation(s) algebraically 4. Evaluate the inverse transform(s) to obtain the system solution(s) in the time-domain.The following example demonstrates the application of the procedure:The translational system shown in Figure 3 has the parameter values M=1 kg, B= 4 Ns/m, andK= 3 N/m. The applied force is f a (t ) ? 9u (t ) N. The mass has no initial velocity, but it isreleased from a position
course-specific evaluation (Appendix B), a similar four-level scoring rubric was usedwith 1=disagree, 2=somewhat disagree, 3=somewhat agree, and 4=agree. The mean responsewas a 3.85 over all questions indicating that the students felt the course had been a positiveexperience. The highest scores were given to questions 1, 3, 5, and 7 and indicated that hands-onactivities and ‘human factors’, including communication between the instructors and the studentsand lecture style, had a significant impact on the students’ evaluation of the course. From theirresponses, the students felt that the visual and active learning tools (e.g., visual images,experiments, CFD simulations, scavenger hunt, ‘fluids in the news’) used in the course hadsignificantly
). Fig.3. Typical LevelAddressing the challengesIn September 2009, Department of Energy issued a call for proposal DE-FOA-0000152Recovery Act – Workforce Training for the Electric Power Sector seeking applications that willsupport and greatly expand job creation and career advancement opportunities within the utilityindustry and the electric power system equipment manufacturing sector. Two types ofapplications were specified:Topic A. Developing and Enhancing Workforce Training Programs for the Electric Power Sectorwith subtopic Strategic Training and Education in Power Systems (STEPS) and Topic B. SmartGrid Workforce Training. The objective of STEPS is to support educators at universities andcolleges (including community colleges) in developing
Traditional Electrical Engineering Courses for Non-Traditional Students,” Proceedings of the 2008 ASEE Annual Conference, Pittsburgh, PA, June, 20083. M. Plett, D. Peter, S. Parsons, and B. Gjerding, "The Virtual Synchronous Classroom: Real Time Off-Campus Classroom Participation with Adobe Connect," Proceedings of the 2008 ASEE Annual Conference, Pittsburgh, PA, June, 2008.4. J. Crofton, J. Rogers, C. Pugh, K. Evans, "The Use of Elluminate Distance-Learning Software in Engineering Education," Proceedings of the 2007 ASEE Annual Conference, Honolulu, Hawaii, June, 2008.5. H. Salehfar, J. Watson, and A. Johnson, "Internet Based Class Presentations to Enhance Distance Engineering Degree," Proceedings of the 2003 ASEE Annual
for embedded system education. Proceedings of the International Conference on Information Technology Research and Education, Hsinchu, Taiwan.6. Hadgraft, R., Goricanec, J. (2007). Student engagement in project-based learning. Proceedings of the 1st International Conference on Research in Engineering Education, ASEE, ISBN: 0-87823-193-5.7. Wooden, J and Jamison, S. (1997). Wooden: A lifetime of observation and reflections on and off the court. McGraw-Hill New York.8. Nater, S. Gallimore, R, and Walton, B. (2005). You haven’t taught until they have learned: John Wooden’s teaching principles and practices. Fitness Information Technology, Inc9. Jackson, P. (2003). The Last Season. Hyperion. Proceedings of
AC 2010-1019: EDUCATING FUTURE ENGINEERS: ROLE OF COMMUNITYCOLLEGESFrankie Santos Laanan, Iowa State University Frankie Santos Laanan is associate professor and director of the Office of Community College Research and Policy at Iowa State University. His research focuses on the role of community colleges in serving as a pathway for women and minorities in STEM.Dimitra Jackson, Iowa State University Dimitra Jackson is a doctoral student and research associate in the Office of Community College Research and Policy at Iowa State University. Her research interests focuses on underrepresented students in STEM fields.Soko Starobin, Iowa State University Soko Starobin is assistant professor
required for Engineering Levels [1-3]; b) Part II addresses theOrganizational Leadership Skills and Actions required for Engineering Levels [4-6], and; c) Part IIIaddresses the Strategic Leadership Skills and Actions required for Engineering Levels [7-9]. The overallanalysis sets the foundation for building a coherent professional graduate curriculum and dynamiceducational process reflective of how experienced engineering professionals learn, grow, and create newtechnology in industry. This paper addresses Part II: the Organizational Leadership Function, Skills andActions that engineers must learn and develop from Group Leader, Functional Area Manager, SystemsEngineer through Technical Program Manager Levels [4-6
Axiom HC-KP 16 key (4x4) keypad and HC-LCD 80 character (4x20) LCD module.CML12S-DP256 SpecificationsUpward code compatible with 68HC114K Bytes EEPROM512K Byte Flash EEPROM14K Byte SRAM2 Enhanced SCI Ports3 SPI Port (Synchronous Serial)5 CAN 2.0 A or B InterfaceTwo 8 Channel 10 Bit Analog ConvertersBackground Debug PortEnhanced 16 bit Timer w/ 8 channels 16 Bit Pulse Accumulator8 PWM ChannelsTwo 8 bit Key Wake-up portsPLL Clock Oscillator SupportRTC and COP featuresUp to 91 I/O4Mhz reference oscillator for up to 24MHz operation.External Memory: 256K Bytes (128K x 16) SRAMCOM1 Port – HC12 SCI0 w/ RS232 and DB9S connectorCOM2 Port – HC12 SCI1 w/ RS232 and 3 pin headerINDICATORS – Power and RESET.BUS-PORT – 40 Pin Socket HeaderMCU I/O PORT - 60
Page 15.456.3our redesign effort along with results of the pilot and full implementation phases of Staticsredesign at Mississippi State University. We also discuss the results of a survey to highlight theviews of students on the redesign initiative and our implementation of the emporium approach,in particular.Performance TrendsOn average, four sections of Statics are offered in the spring, two in the summer, and seven inthe fall semester with multiple instructors in each term. Over a four-year period from Fall 2001to Spring 2005, 1024 students took Statics at Mississippi State University and received a lettergrade (A, B, C, D, F, or W). Table 1 shows the numbers of students under success and failurecolumns for each semester. The number of
AC 2010-1138: VENUES TO INTRODUCE AND TEACH IMPACT OFENGINEERING IN HISTORY, SOCIETY, AND HUMAN DEVELOPMENTKelli Huser, Iowa State UniversityMani Mina, Iowa State UniversityThomas Kelly, Iowa State UniversitySeth Ballou, Iowa State UniversityJoseph Crispin, Iowa State University Page 15.1350.1© American Society for Engineering Education, 2010 A technological literacy approach to introduce and teach the impact of engineering throughout the human historyAbstractThis paper provides a possible approach to introduce and teach impact of engineering to non-engineering students with a focus on the technology and engineering aspects. One effective wayto enhance
, J.W. and G.M. Zhang, A Freshman Engineering Design Course. Journal of Engineering Education, 1993. 82(2): p. 83-91.12. Natishan, M.E., L.C. Schmidt, and P. Mead, Student Focus Group Results on Student Team Performance Issues. Journal of Engineering Education, 2000. 89(3): p. 269-272.13. Eide, A., R. Jenison, L. Northup, and S. Mickelson, Engineering Fundamentals and Problem Solving. Fifth ed, ed. B. Stenquist. 2008, Boston: McGraw-Hill.14. Creswell, J.W., Qualitative Inquiry and Research Design: Choosing Among Five Approaches 2nd. Ed. 2007, Thousand Oaks, CA: Sage Publications. Page 15.869.2115. Lincoln, Y.S. and E.G. Guba
10 Likert scale questions that can be seen in Table 1. Each questionused in the pre-survey was given a letter for simplicity during analysis. Demographicinformation collected in the pre-survey was gender, age, previous year enrollment, and previouscoursework. This information was collected and used to describe the subject groups. TABLE 1 PRE-SURVEY QUESTIONS WITH CORRESPONDING ANALYSIS LETTERSBefore designing the experiment: A I have a good understanding of how to design experiments. B I feel the task description was adequate. C I understand the purpose of the experiment. D I understand the physical set-up that I will need to use. E I can identify all of the variables to be manipulated
Studying Calculus: A Look at the Lives of Minority Mathematics Studentsin College. College Mathematics Journal 23(5), 362-72.3 Kraemer, B. A. 1997. The Academic and Social Integration of Hispanic Students into College. Review of HigherEducation 20(2), 163-179.4 Vogt, C. M. 2008. Faculty as a Critical Juncture in Student Retention and Performance in Engineering Programs.Journal of Engineering Education 97(1), 27-36.5 Besterfield-Sacre, M., M. Moreno, L. J. Shuman, and C. J. Atman. 2001. Gender and ethnicity differences infreshmen engineering student attitudes: A cross-institutional study. Journal of Engineering Education, 90(4), 477-489.6 ABET Engineering Accreditation Commission. 2008. Criteria for Accrediting Computing Programs. 2
Page 15.302.7engineering hires and (b) after a few years on the job. We requested the Delphi participants toanswer these questions, providing as much detail as possible.These six Delphi questions were: 1. What computing competencies are required for new technical hires at your company? 2. What computing proficiencies do you expect your technical employees to develop during their first few years on the job? 3. What new computing skills and processes do you see emerging in the next couple of years in your field? 4. Once fluent, what types of problems do you expect your technical employees (with 3-5 years of experience) to solve using computing tools? 5. Once fluent, what types of projects do you expect your technical
, attitudes, and/orbeliefs have been mastered.Step Three: Develop a Pedagogy and Instructional Methods ProfileCreate an instructional design for the unit. This includes (a) identifying a learning theoryframework (such as social constructivism) and (b) tentatively selecting types of activities (suchas teamwork). Determining the mix of technology and non-technology in the learningexperiences is central to this phase of lesson planning.Step Four: Develop Content and Integrating PRISM’s Learning ToolsWith a theory-driven framework in hand, the teacher develops a case or a scenario that containsat least one major research question for students to investigate. Using an active learningparadigm, the inquiry culminates in a product that reifies learning
a whole, the 2009 Math Jam was successful in achieving most of its goals except thoserelated to recruiting more students into the STEM fields, or helping them select an appropriatemajor.3. The Summer Engineering InstituteThe Summer Engineering Institute (SEI) is a two-week residential program held on campus atSan Francisco State University. The goals of the program are to introduce students to theengineering educational system and the engineering profession, to recruit students into anengineering field, increase student awareness of resources and skills needed for college success,and to increase student knowledge of specific engineering topics. Appendices B-1 and B-2 showa summary of the schedule of the 2009 Summer Engineering Institute
AC 2010-1526: UFAST – PRACTICAL ADVICE FOR ACCELERATING NEWFACULTY SCHOLARSHIPRobert Garrick, Rochester Institute of Technology ROBERT D. GARRICK, Rochester Institute of Technology, College of Applied Science and Technology. Robert is an Associate Professor. He holds a BS in Electrical Engineering, MS in Mechanical Engineering, MBA Ph.D. in Mechanical Engineering, and a PE license in Mechanical Engineering. Prior to this academic position Robert worked 25 years in the automotive component industry. His primary research interests are in the domain of product realization, and energy efficient buildings. He can be reached at rdgmet@rit.edu or through Linkedin.com.Scott Anson, Rochester Institute of
Emerging Frontiers in Research and Innovation EFRI Overview ASEE ERC 2010 Sohi Rastegar Office of Emerging Frontiers in Research and Innovation www.nsf.gov/eng/efri MANDATE AND VISION OF EFRI MANDATE EFRI will serve a critical role in helping the Directorate for Engineering (ENG) focus on important emerging areas in a timely manner. EFRI will recommend annually a prioritization, fund, and monitor initiatives at the emerging frontier areas of engineering research and education. VISION – All NSF ENG Programs support research at the frontiers of research and innovation. EFRI Office provides opportunities in interdisciplinary areas at the emerging frontiers of research and innovation that (a
Emerging Frontiers in Research and Innovation EFRI Overview ASEE ERC 2010 Sohi Rastegar Office of Emerging Frontiers in Research and Innovation www.nsf.gov/eng/efri MANDATE AND VISION OF EFRI MANDATE EFRI will serve a critical role in helping the Directorate for Engineering (ENG) focus on important emerging areas in a timely manner. EFRI will recommend annually a prioritization, fund, and monitor initiatives at the emerging frontier areas of engineering research and education. VISION – All NSF ENG Programs support research at the frontiers of research and innovation. EFRI Office provides opportunities in interdisciplinary areas at the emerging frontiers of research and innovation that (a
.34Specifically, they recommended that engineering programs at the state colleges a) continue touphold their heavier general education requirements, b) maintain all instruction at theundergraduate level, c) develop their staff and facilities in support of undergraduate education,not research, d) ensure that any further expansion of the state colleges‟ engineering programs betied to “long-term opportunities for employment” (i.e. projected labor market requirements), ande) develop no programs to meet ECPD accreditation criteria, nor seek such accreditation. At thetime, discussions in preparation for ASEE‟s 1955 Grinter Report, which were expected to serveas the basis for new ECPD accreditation criteria, suggested that faculty research would be animportant
all of the topics listed in Table 6 sharing instruction on more than50% of the campuses represent topics that have been regarded as essential computer sciencetopics for some time. About one-third of the campuses also share treatment of social and ethicalissues as well an introductory survey-type treatment of software engineering topics.Tables 7(a) and 7(b) depict those areas in which programs in software engineering and computerscience diverge. The data in these tables was compiled by considering those courses which wererequired by only one of the programs on a given campus, classifying them by the program towhich they were unique. This set of topics was compiled across all programs, so the data in thesetables has been aggregated across all