assess the both general and specificoutcomes of the laboratory experience.IntroductionMeasurement and instrumentation courses are typically the ‘catch-all’ course for topics inexperimental design and execution in mechanical engineering curriculum. Course objectivesinclude the introduction of modern data acquisition systems and techniques, the development andpresentation of statistical techniques for data analysis, and the introduction of formal uncertaintyanalysis. These three course topics are employed in nearly every rigorous engineering experimentthat a student would perform in either an industrial setting or during advanced graduate research.However, most laboratory experiments are ‘canned’ and handed to the student with a detailedprocedure
user interfaces (GUIs) programmed in MATLAB. In the following sections, we willdescribe features of the GUIs, and some different scenarios where they have been successfullydeployed. In this section, we show why MATLAB [2], or an equivalent language, should be chosenfor developing of high quality GUIs. Another consideration for our curriculum is that our studentsalready use MATLAB for many courses, so they have universal access to MATLAB.GUIs that illustrate engineering concepts typically require an advanced numerical engine, asophisticated plotting package, and professional user-interface capabilities. When choosing acomputer language for developing GUIs, these requirements must be balanced with other issues suchas the complexity of the
-technical process constructed from small sub-systems or networks of role players (notnecessarily human) whose interactions drive the system forward. Such structures are open toconflict both within and between them. For example, as Larry Bucciarelli has showndesigners work in a social system and the resultant designs are as much a result of the culturecreated by the system as they are of anything else [8]. Elsewhere it has been suggested thatunderpinning all these knowledges is the desire of an organization to learn [9].Therefore to be technology literate an individual requires an integrated knowledge from anumber of disciplines including engineering. This in turn means that a curriculum composedof engineering plus a variety of subjects in the
participants. She served as one of thefounding faculty of Coconino Community College, building an academic organization from the groundup, including development of institutional policy, organizational structure, curriculum and assessment,and establishing community and institutional relationships. She served as co-chair, editor, and contribut-ing author of the self study for accreditation by the Higher Learning Commission.Dr. Kathy Wigal holds a Doctorate in Educational Leadership (Ed.D), a Masters in Business Administra-tion (MBA), and a Masters in Community College Education (M.Ed) from Northern Arizona University.She has taught both graduate and undergraduate courses in educational administration and educationalpedagogy, as well as courses in
programs. Development of an interdisciplinary minor innanotechnology will also be discussed. This effort is supported through the National ScienceFoundation under the Course Curriculum Laboratory Improvement (CCLI) program.Introduction and BackgroundRecent growth in the field of nanotechnology has put a new demand on educators to train aknowledgeable workforce in this field with suitable background to meet the demand ofnanotechnology based industries. According to Jack Uldrich 1 of Nano Veritas, the U.S. willneed between 1 and 2 million new workers trained in nanoscience, with a majority requiringskills that must be taught at undergraduate level. Developing new learning facilities andforging collaboration between different academic institutions
/engineering earned in the United Statesduring the last twenty years shows that less than 20 percent of graduates account forunderrepresented minorities which place this population in great disadvantage with other ethnicgroups. Given that New Mexico is a state with high percentage of underrepresented minorities,the Department of Engineering at Northern New Mexico College through the support of GoogleInc. and the National Science Foundation has organized and developed Computational Thinking(CT) workshops and activities for K-12 teachers and pre-service teachers during the last twoyears as an approach to increase the awareness of Computer Science among K-12 students inNew Mexico. The curriculum developed in the workshops have provided teachers andpre
an REU Site project because potentialapplications are exciting and research topics encompass a variety of disciplines, making theresearch naturally interdisciplinary. Key areas of research in which students can participateinclude mechanics, micro sensor/actuator design, electronics/control system design, designoptimization, and advanced micro-manufacturing. The integration of such research activity willresult in development of new technologies for automatic microassembly systems. A polymerbased electro-active grippers have been utilized for micro-parts gripping and assemblyoperations. An infrared vision system, as a position sensor, identifies and calculates the preciselocation and orientation of a microcomponent before manipulating it to
sourcematerials such as quotes, with little regard to how those materials support, constrain, interrogateor make problematic their arguments.” 21 Our review of data from surveys, interviews and focusgroup discussions revealed, in turn, that students were inclined to overrate their abilities aswriters. In addition, the attitude survey from that year reveals a marked decrease in thepercentage of students agreeing or strongly agreeing with the following statements: “Writing inEngineering courses helps me understand course material”; and “Writing plays an important rolein Engineering courses.”We ended our third-year report with a call for strongly articulated writing heuristics in theengineering classroom and indeed throughout the Engineering curriculum
]. Electrospray thrusters are now being considered as high specific impulse(propellant efficient), low thrust devices for small satellite maneuvering and control [4,5].Electrospray thrusters for flight missions are a complex technology, requiring a balance ofelectrical performance, fluid flow management in micro-gravity, and manufacturing precision forhigh performance, and system lifetimes. However, the basic principles of the devices can easilybe demonstrated in a lab setting as part of an undergraduate curriculum using a simplifiedterrestrial version of the thruster to demonstrate key principles and operational considerations.Minor modifications can be made to the such a set-up to convert it to a thruster suited to agraduate level curriculum where the
Factory (MTF) at Arizona State University East is a15,000-sq.ft class 100 cleanroom equipped with late generation semiconductor devicefabrication tools. The Electronic Engineering Technology (EET) curriculum with amicroelectronics concentration integrates an intensive laboratory component into thecourse work in this special environment. In order to accommodate the schedules ofworking students, the courses are offered using flexible schedules. Figure 1, shows atypical course delivery design to accommodate the working student population. Thecourse development strategy is based on the following outcomes.Graduates should be able to: • Adapt easily to new technologies • Be capable of independent thinking • Communicate quantitatively thru 360
: Techniques in Reverse Engineering and New Product Design, Prentice-Hall.Otto, K., Wood, K., Bezdek, J., Murphy, M. and Jensen, D., 1998, “Building Better Mousetrap Builders: Courses to Incrementally and Systematically Teach Design,” 1998 ASEE Conference Proceedings, Session 2666.Sheppard, S., 1992, “Mechanical Dissection: An Experience in How Things Work,” Engineering Foundation Conference on Engineering Education: Curriculum Innovation & Integration, January 5-10, Sacramento, CA.Stice, J., 1987, “Using Kolb’s Learning Cycle to Improve Student Learning,” Engineering Education, 77(7):291- 196.Tett, R. and Jackson, D., 1991, “Personality Measures as Predictors of Job Performance: A Meta -Analytic Review,” Personnel Psychology 44
-22057. Zanganeh, S.E. and R.E. Efimba (1994). "A Computer-Integrated Approach to Teaching Engineering Mechanics," paper presented at the First ASCE Congress on Computing in Civil Engineering, Washington, DC, Proc. v.2, pp. 1265-1272.8. Zanganeh, S.E, and R.E.Efimba (1997), “Integration of Design in Engineering Mechanics Courses: A Practical Approach,” Paper presented at an ECSEL Coalition Workshop on “Learning by Design” held at Howard University, October 1997.9. Bedford, A., and W. Fowler (2008, Engineering Mechanics: Statics, 5th ed., Pearson/Prentice-Hall.10. Beer, F.P., and E.R.Johnston (2007), Vector Mechanics for Engineers: Statics, 8th ed., McGraw-Hill.11. Hibbeler, R.C. (2004), Engineering Mechanics: Statics, 10th ed
andespecially those of tomorrow need to be innovative, creative, inventive, inspired, and original inlearning how to do more with less. It is not any surprise then that the American Society of CivilEngineers (ASCE) is also simultaneously pushing to see these types of skills integrated intoacademic curriculum. ASCE has indicated that one of the attributes that should be embraced bythe Civil Engineer of 2025 is creativity, leading to “proactive identification of possibilities andopportunities and taking action to develop them.”2 ASCE has further indicated that civilengineering students need to also develop the ability to critically think.3 If our civil engineeringstudents are to achieve success in professional engineering practice, they must develop the
2022 and 2023 years were correlated with their summer activitypreference. In the Civil Engineering curriculum at The Citadel, summer courses are not required,however they are encouraged for students who are behind, particularly in Calculus. Summercourse offerings can also enable incoming juniors to “get ahead” by taking one or two junior-level courses early. Additionally, rising juniors rarely participate in military training exercises forthe entire summer thus minimizing that effect on the data. As seen in Figure 3, rising juniors inthe lowest GPA group (cumulative points less than 2.5) are more likely to take a class over thesummer, either by itself or at the same time as an internship. This finding confirms expectationsthat students with
Paper ID #6714Use of Flash Simulations to Enhance Nanotechnology EducationDr. Lifang Shih, Excelsior College Li-Fang Shih received her Ph.D. in curriculum and instruction with specialization in online instruction from the State University of New York at Albany. Dr. Shih is current the Associate Dean for the School of Business and Technology at Excelsior College. Her researches have focused on issues related to quality online instruction, outcome assessments, online communication, and the development of online commu- nity, etc. Her papers have been presented in national conferences such as American Education Research
remained stagnant or declined(Clewell & Campbell, 2002). Given these numbers, it seems imperative that universityengineering programs focus efforts on the recruitment and retention of women. Tonso (1996)argues that "engineering education must change before inclusion of women is realized" (p. 217),and that this change must represent substantive changes not only to the curriculum, but also tothe very culture of engineering education.One response to this problem is to develop and implement curricular and instructional strategiesthat move to restructure the cultural norms in engineering education in ways that are moreinclusive of and effective with girls and women. We argue that an innovative new program inChemical Engineering at the University of
much as, if not more than, by precept. In other words, the examples set by teachers or lecturers are often decisive in influencing how learners actually behave. (p. 13) Page 3.485.2This position was based in part on the results of an Australian study [5] which investigated thecontribution of undergraduate education to graduates developing a predisposition towardslifelong learning. The authors considered the curriculum (structure and content), teaching andassessment methods, and availability, nature, and use of student support services. The actualbehaviour of academic staff was shown to be far more influential than all the official
entrepreneurial need for engagementIntroduction Someone recently asked me, “What do you do in your class? I mean, I walk intoyour classroom, sit down, then what happens?” Ok, I thought, I know how to answer thisquestion: I wanted to enthusiastically explain the structure of the class as a theoreticalblend of psychology, engineering design methods and art; discuss the intentional purposeof building the curriculum iteratively and differently every term, based on the uniquedeveloping social dynamics 13, 41 of every class. Something stopped me and I resisted responding. In that moment, I rememberfeeling the need to shift from an automatic theoretical response 48 to some other,hopefully novel approach, that would underline how I teach; clarify
enabled troubleshooting of bimodal grade distributions in classeswith poorly prepared students. Employing the DCI as a CPI tool has created anenvironment in which distractions from the dynamics material, like the broadcastenvironment and textbook selection, can be minimized while effective demonstrationsand class discussions can be developed. This paper discusses the results of employingthe DCI as a CPI tool along with changes made to curriculum delivery. The nextincrement of changes to content delivery is also discussed.Introduction Continuous Process Improvement, CPI, is an established industry practice withthe goals of reducing variability in a product, eliminating non-value added steps fromprocesses, and improving customer
American c Society for Engineering Education, 2021 Paper ID #33197Dr. Sarah E. LaRose joined the Department of Agricultural Sciences Education and Communication atPurdue University in the fall of 2018 as an Assistant Professor of Agricultural Education. She earneda Bachelor of Science in Animal Science and a Master of Arts in Curriculum and Instruction from theUniversity of Connecticut, and her Ph.D. in Agricultural Education and Communication from the Uni-versity of Florida. Dr. LaRose has over 13 years of experience in agricultural education in secondaryand postsecondary settings. Since joining the faculty at
control. Prof. West is the recipient of the NSF CAREER award and is a University of Illinois Distinguished Teacher-Scholar and College of Engineering Education Innovation Fellow.Dr. Mariana Silva, University of Illinois at Urbana-Champaign Mariana Silva is an Adjunct Assistant Professor and Curriculum Development Coordinator in the Me- chanical Science and Engineering Department at the University of Illinois at Urbana-Champaign. She received her BSME and MSME from the Federal University of Rio de Janeiro, Brazil and earned her Ph.D. in Theoretical and Applied Mechanics from the University of Illinois at Urbana-Champaign in 2009. Besides her teaching activities, Mariana serves as an academic advisor in the Mechanical
courses, we conducted experiments, surveys and focus groups to determine whether thealpha version of our multimedia actually improves learning, and to determine whatimprovements should be made for our beta version. We found significant learning effects in themore focused study in the OOSE course and marginal results in the broader study in theCS0/CS1 course.In addition to our studies on the multimedia course material, we are developing an inquiry-basedlearning framework. In the CIMEL system, we are integrating a text mining and visualizationframework for the detection of incipient emerging trends in order to facilitate inquiry-basedlearning. An emerging trend is a topic area for which one can trace the growth of interest andutility over time. An
York University Tandon School of Engineering Jack Bringardner is the Assistant Dean for Academic and Curricular Affairs at NYU Tandon School of Engineering. He is an Industry Associate Professor and Director of the General Engineering Program. He teaches the first-year engineering course Introduction to Engineering and Design. He is also the Di- rector of the Vertically Integrated Projects Program at NYU. His Vertically Integrated Projects course is on the future of engineering education. His primary focus is developing curriculum, mentoring students, and engineering education research, particularly for project-based curriculum, first-year engineering, and student success. He is active in the American Society for
Paper ID #33612Student to Scholar: A Professional Skills Focused Library CollaborationDr. Matthew Frenkel, New York University Matthew Frenkel is the engineering librarian at NYU’s Bern Dibner Library, and an adjunct faculty in Mechanical Engineering at NYU Tandon. He is a member of the ASEE Engineering librarian division (ELD). Matthew’s background is in the experimental study of optical whispering gallery sensors, but his current research interests are in how undergraduate and graduate engineering students develop their professional skills.Dr. Azure Janee Stewart Azure is an interactional ethnographer whose research
forms.2O’Neill and Harris identify four categories of e-mentoring:3 Ask-an-expert: professionals answer questions on an ad hoc basis. Tutoring: usually a one-to-one exchange based on a rigorous master-to-apprentice scenario. Curriculum-Based Tele-mentoring: students pursue in-depth examinations of topics covered in the classroom, guided by their external mentor-expert. A Tele-mentoring Relationship: exchanges move beyond question-and-answer to achieve goals of broad-based affective and cognitive development.We have adopted the best practices from these successful approaches in order to use socialnetworking to build powerful mentoring relationships among 9th-grade girls and female
Florida State University in Tallahassee, Florida. He is set to graduate in the spring of 2021. His interests include mechatronics and environmental sustainability. c American Society for Engineering Education, 2020 Structuring a Mechatronics Open Design Project to Reinforce Mechanical Engineering Concepts and Design SkillsThe objective of this paper is to share guidelines and lessons learned for an open design projectin an Introduction to Mechatronics course. The open design project promoted projectmanagement, design skills, and hands-on experience in our mechanical engineering students.Historically, the undergraduate curriculum in mechanical engineering is front-loaded withlecture-style
real engineering problems and the mathematical concepts andtheorems learned in classes (Laplace transform, transfer functions, finite difference methods, forexample). Student feedback on these projects is positive.1 Introduction Mechanical engineering students usually complete Calculus I and II, Multivariate Calculus,Linear Algebra and Differential Equations in four or five semesters. All these mathematicalcourses are required in the program curriculum. Primary contents that students learn from thesecourses include: (1) differentiation and integration, calculus of one variable and infinite series inCalculus I and II; (2) differential and integral calculus of functions of two or more variables andvector functions in Multivariate Calculus; (3
. A., and Frey, W. J. (2003). An Effective Strategy for Integrating Ethics across the Curriculum in Engineering: An Abet 2000 Challenge. Science & Engineering Ethics, 9(4), 543-68.34. Barry, B. E., and Ohland, M. W. (2012). Abet Criterion 3.F: How Much Curriculum Content Is Enough? Science and Engineering Ethics, 18(2), 369-92.35. Streveler, R. A., Smith, K. A., and Pilotte, M. (2012). Aligning Course Content, Assessment, and Delivery: Creating a Context for Outcome-Based Education. K. Mohd Yusof, S. Mohammad, N. Ahmad Azli, M. Noor Hassan, A. Kosnin and S. K, Syed Yusof (Eds.), Outcome-Based Education and Engineering Curriculum: Evaluation, Assessment and Accreditation. Hershey, Pennsylvania: IGI
and analyzes assessment data.Introduction Importance of mechanical vibrations in the field of engineering is all too well known.Most engineers are fairly knowledgeable about the plenty of disadvantages vibrations pose.However, there are a few merits of mechanical vibrations as well. This is indeed stirring upengineers worldwide to concentrate their efforts to make advantages use of vibrations, whilecurtailing its disadvantages. For example, a vibrating string instrument like a guitar or a sitarcan provide melodious music. Vibration is commonly used when density separation techniquesare employed. Vibrating sieves are widely used in industry. One may prefer to have one’s cellphone in a vibrating mode. Vibration is an integral and
and Engineering endorse cultural ableism? • As we transition back into an in-person space, what are your thoughts, comments, or concerns for fall quarter 2021?One recurring theme throughout these Town halls was ableism. Many faculty, staff, and students hadobserved that the transition to a virtual teaching modality had highlighted for them a number of issuesof accessibility that were either improved or worsened in a virtual classroom setting. Ableism in STEMwas discussed in depth, specifically ways in which community attitudes and norms perpetuate ableismand what elements of curriculum and university infrastructure could be challenged to make STEM spacesmore inclusive. Many faculty were providing more thorough material online for their