challenges for students when taking robotics courses are also investigated and thesuggestion for instructors in course design and delivery are addressed. Finally, a suggestedstructure of senior/graduate level introductory robotics courses in ME or EE departments ispresented. The authors also put forward a robotics curriculum, including an outline with theconnections between different robotics courses.ObjectivesThe main objective of this paper is to combine knowledge of engineering education (effectiveapproaches for student engagement and learning) with the authors’ experiences in roboticsresearch to design a senior/graduate level robotics course. In recent years, as a new course in MEand EE programs, robotics is playing more and more of an important
Masters program with 150 students, areadministered by 4 departments with a combined fulltime faculty of 38 and a professional staff of5. Page 15.1271.2Our experience parallels other institutions in seeking new and better ways to addressaccreditation and assessment planning1-9. Given the level of work required to demonstrateprogram achievement and faced with substantial teaching, research and service loads, programadministration must be streamlined. Since continuous improvement and embedded outcomeassessment is an integrated effort on the part of faculty, small efficiencies become magnifiedwhen applied across the College.Continuous ImprovementOver
more appropriate for graduate students who may have a more rigorous mathematical education than undergraduate students.The basic FE method is currently offered as an elective introductive/senior project course inmechanical, civil, and aeronautical engineering programs1,2,5,9,11. However, more effectiveinstructional methods may be available to a broader spectrum of students if FE analysis issequentially integrated throughout required engineering courses3,4,10An important goal of this work is to educate diverse undergraduate engineering students with abasic knowledge of FE theory, along with practical experience in applying commercial FEsoftware to engineering problems. The lack of experience in using numerical computationalmethods
important dynamical phenomena. The examples presented were: (i) a comparison betweensome non-linear systems and their linearized counterparts; (ii) an exploration of the effect oftime-dependent frequency on resonances; (iii) an illustration of the existence of multipleequilibrium states and their stability.References[1] www.maplesoft.com[2] A. Mazzei, "Integrating simulation software into an undergraduate dynamics course: a web-based approach," Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition, Nashville - TN, 2003.[3] P. Gharghouri, "Integrating a computer algebra software into engineering curriculum: problem and benefits," Proceedings of the 1998 American Society for
student'scapability of integrating into professional teams and coping with completely new topics andtools that they have never worked before with. The main challenge is the harmonization ofindustrial and academic expectations and requirements that at times differ. We also have tocope with the extremely high degree of secrecy in the automotive and railway industry.IntroductionThe third phase of our 3-Phase Multi Subject Project Based Learning1,2,3,5 method is a part ofthe degree program curriculum, Figure 1. During the industrial internship the students leavethe department for at least 3 months and work under real industrial conditions. The students’aims are to improve their technical knowledge and collect professional experience in the realworld, as well as
discussed in detail, as well as, the academic benefits and educational potentialderived from the inclusion of CDM in engineering academic curriculum. Mathematical,graphical and numerical documentation are presented in order to substantiate the suitability ofCDM as an educational tool to teach Nondestructive Testing in engineering programs such as:Mechanical engineering, Chemical engineering, Civil engineering, Aeronautical, Aerospaceengineering, Power Plant Engineering, and Nuclear engineering.IntroductionNondestructive testing and evaluation of materials is an ancient practice. Early metalworkers, forexample, report the use of “visual” or “sonic” techniques to determine the quality and usefulnessof their products. Today, Nondestructive Testing
course led to theextension of KSB usage to the ENGG 170 laboratory course.The ENGG 170 laboratory course is taken by mechanical engineering seniors. Therewere twelve (12) students in the Spring 2008 offering of the course. This paper describesthe course and the use of KSBs in detail. It includes one of the KSB documentsdeveloped for the course. It also discusses the students' responses to the use of KSBs andoutlines planned future work.BackgroundKnowledge and Skill Builders (KSBs) were originally developed for middle schoolstudents. They are a progression of short, focused activities by which students increasetheir knowledge and skill base before addressing a specific design problem. The KSBsare an integral part of the "informed" design process
AC 2010-1187: KEY SUBJECT INDICATORS AND ADMISSION IMPACT FROMSUBJECT GRADES IN MECHANICAL ENGINEERING-BASED BACHELORPROGRAMS AT CHULALONGKORN UNIVERSITYKuntinee Maneeratana, Chulalongkorn University Kuntinee Maneeratana is an Associate Professor in Mechanical Engineering at Chulalongkorn University, Thailand. She earned a Ph.D. and a B.Eng. in Mechanical Engineering, both from Imperial College of Science, Technology and Medicine, UK as well as a B.Ed. in Educational Measurement and Evaluation from Sukhothai Thammathirat Open University, Thailand. Her area of expertise is computational mechanics.Angkee Sripakagorn, Chulalongkorn University Angkee Sripakagorn is an Assistant Professor in
description of thesecourses to include the topics covered in the training sessions, thus making them an essential partof the course content.What We Hope to Achieve: We want to expose our students, faculty, and staff to inclusion anddiversity issues of which they might not be aware. By requiring students to go through training inboth the sophomore and seniors years, we hope to achieve maximum impact. The early exposureas sophomores will give the students a chance to apply the concepts they learn throughout theiracademic careers, while the second round of training as seniors will serve as a refresher coursebefore they begin their team-based senior projects and, later, enter the engineering workforce.We specifically designed this training curriculum to
effectively integrate technical principles with practical demonstrations ofskills in 2-3 minute video clips. Our experience is that engaging topics can be analytical,graphical, hands-on, or philosophical in nature. Because of their brevity, student teams canrapidly develop a story line, illustrate their concept in a story board, and receive feedback frompeers/instructors that allows them to collect and edit relevant footage in an afternoon. Resultsfrom different engineering cinematography teams are organized thematically and posted on theMindworks website.Students are introduced to individual videos in the Mindworks library through a 10-15 minutecycle of classroom viewing and critiquing. Considerable flexibility exists in classroom use ofthese videos
Paper ID #14391A Flipped Solid Mechanics Course Designed Based on the Interactive, Con-structive, Active, and Passive (ICAP) FrameworkDr. Haolin Zhu, Arizona State University Dr. Haolin Zhu received her PhD in Solid Mechanics and Computational Science and Engineering from Cornell University. She is currently part of the freshmen engineering education team in the Ira A. Fulton Schools of Engineering at Arizona State University. Currently she focuses on designing the curriculum for the freshman engineering program as well as the NAE Grand Challenge Scholars Program. She also designs and teaches courses in mechanical
., “Modernization of a Mechanical Engineering Laboratory using Data Acquisition with LABVIEW”, ASEE 2003 Session 22663 McConnaughay,K., Welsford,I., Stabenau,E., “Inquiry, Investigation, and Integration in Undergraduate Science Curricula”, Council on Undergraduate Research Quartley, pp14-18, September 19994 Mantei,E.J., “Using Internet Class Notes and Power Point in the Physical Geology Lecture – Comparing the Success of Computer Technology with Traditional Teaching Techniques”, Journal of College Science teaching, pp301-305, April 20005 Regan,M., Sheppard,S., “Interactive Multimedia Courseware and Hands-On Learning Experience: An Assessment Study”, Journal of Engineering Education, pp123-131, Apr 19966 Riggs,B., Poli,C., Woolf,B
integration, yet few engineering undergraduates understand thisprocess.2 Bokulich [2] adds “the state of education in this country, especially in science,engineering and technology, has become a matter of increasing concern to many of us inAmerican industry.”At the graduate level, industry and universities actively collaborate in research and developmentprograms. This results in a supply of highly qualified technical specialists which industry uses tocontinue the process of development. This collaboration is not typical at the undergraduate level,and industry simply “accepts the ‘output’ from university with the knowledge that they have tocomplete the training process through in-house training programs.”3 In an increasing
, no. 4, pp. 248-261, 1997. 77. Wood, K., Jensen, D., Bezdek, J. and Otto, K., “Reverese Engineering and Redesign: Courses to Incrementally and Systematically Teach Design”, Journal of Engineering Education, pp. 363-374, July 2001.8. Sheppard, S.D., “Mechanical Dissection: An Experience in How Things Work”, Engineering Foundation Conference on Engineering Education: Curriculum Innovation and Integration, Santa Barbara, CA, Jan. 6-10, 1992.9. Sheppard, S., “Dissection as a Learning Tool”, Proceedings, IEEE Frontiers in Education Conference, 1992.10. Lamancusa, J., Torres, M., Kumar, V., and Jorgensen, J., “Learning Engineering
learning as an acquisition and integration process, thisis further reinforced when the concept of a spiral curriculum is also considered. Kolb (2000) in his Experiential Learning Theory (ELT) highlights the necessity ofcyclical instruction. ELT divides the learning cycle in to four phases: experiencing, reflecting,thinking, and acting. As a model for education, this process is both planned (formatted) andresponsive to the situation and content/skills being learned: activities are structured and plannedbut flexible to include individual. The cyclical nature of ELT supports this project in thenecessity of revisiting concepts at various points, over time to solidify and deepen a learner’sknowledge or concept acquisition and mastery
practicing engineers, to applyindustrial-strength simulation software to obtain useful and reliable solutions to practicalengineering problems, an important skill for the modern engineering workforce. At the sametime, simulation offers the opportunity to enhance learning through an interactive, visual mediumand build excitement among students about engineering.2. Pedagogical ApproachA university-industry workshop, ISTEC 2008, on the Integration of Simulation Technology intothe Engineering Curriculum was organized in July 2008. The purpose of the workshop was tobuild a community of educators and practitioners collaborating on the deployment of simulation
curriculumwas somewhat skewed in favor of integrated circuit-related courses because of thegrowing importance of this industry in the region. The offerings included severalmechanical engineering courses which were given both as service courses and as part ofthe electrical engineering curriculum. Faculty were added, one per year, for a total of sixfull-time tenure-track. In addition, specialists in local industries were used as adjunctfaculty. The program began in 1989 and received ABET accreditation in 1994.For the most part the department offered a basic curriculum tailored to the needs of thelocal industrial community which, in turn, provided much-needed monetary assistance,equipment and political support. The latter was particularly important in a
curriculum to incorporate opportunities for students to exercise theirentrepreneurial mindset. The Kern Family Foundation has established a network of institutionsthat are committed to changing their pedagogy to develop entrepreneurial mindset inundergraduate engineers, known as KEEN (Kern Entrepreneurial Engineering Network). KEENhas established an entrepreneurial mindset framework that involves the three C’s: curiosity:“students will demonstrate constant curiosity about our changing world and explore a contrarianview of accepted solutions”, connections: “students will integrate information from manysources to gain insight and access and manage risk” and creating value: “students will identifyunexpected opportunities to create extraordinary value
design of mechanisms was mechanical, but in the present mechatronicage, the design is multidisciplinary, i.e., mechanical, electrical, electro-mechanical, hydraulic,and pneumatic. Mechatronics is the synergistic integration of physical systems, electronics,controls, and computers through the design process, and is the best practice for synthesis byengineers driven by the needs of industry and human beings. One of the most common mechanisms in the world is the slider crank. Its most commonapplication is the internal combustion engine, but it is also used in an automatic toothbrush. Amechatronic approach to the design and implementation of any mechanism has been developedand is applied in a case study to the slider crank. The approach
? 6. Did you feel constrained with the requirements? 7. Does it matter what the system you are trying to control is? 8. Do you recommend this project and laboratory be done in the future?Overall, students were pleased with the integration of a controls project into the bioengineeringlaboratory. They appreciated being able to apply lessons learned in class to an experimentalsetup outside of their expertise. Many statements were made during a post interview about howmuch they learned during this segment of the curriculum. Ultimately, the students realized theconnection between the mathematical concepts taught in class and how they physically relate to acontrol system.For example, a typical response to the question “What is
Universitydeveloped a new strategy for improving student retention and overall student quality based on anew first-year engineering experience. The older curriculum had become outdated, was notteaching our students what we thought they needed, and was not preparing the students for therest of the mechanical engineering program and beyond.As our graduating students completed exit surveys, common criticisms of the program included aperceived lack of software availability and a deep knowledge of how to use the software, lack ofpreparation for constructing prototypes (mechanical and/or electrical), and lack of product designinstruction and practice. In an effort to address these problems, two new courses were developedfor 1st year students [1] and a 2nd year
AC 2007-219: A CASE STUDY OF COURSE CLUSTERING STRATEGY TOENHANCE RELATIONAL LEARNINGMing Huang, University of San Diego Ming Z. Huang is an Associate Professor of Mechanical Engineering at University of San Diego. Dr. Huang is a registered Professional Engineer and is actively involved in research focusing on integrating industry practices with engineering educations. Dr. Huang received his B.S. from the National Taiwan University in Taipei, Taiwan in 1980, M.S. from the University of Rhode Island in Kingston, Rhode Island in 1984, and Ph.D. from the Ohio State University in Columbus, Ohio in 1988, all in Mechanical Engineering.James Kohl, University of San Diego James G. Kohl is an
additional applications of FEA. Finite element analysis can be also implemented instatic, transient, or highly dynamic ways. In short, FEA is becoming limited more so by whatapplication one can construct versus the stability and robustness of the tool itself.Teaching finite element analysis encompasses two main efforts within the classroom: 1) themathematical foundation of the finite element method itself, and 2) the proper application of thismethod to engineering problems. Each effort may independently be worthy of a semester-longcourse, yet this is an unreasonable expectation in an undergraduate curriculum. It can either beintroduced with coding such as MATLAB (Mueller, 2003), commercial tools (Kurowski, 2014),or both. However, for undergraduate
. Therefore our results probably represent an upper bound on student knowledge. Consider- Figure 2: Task and prompt used in introductory physics to probe student ideas about work only.ing each part individually offers insights into specific difficulties students have with each concept.Considering the task as a whole represents a more global integration of many concepts, which isan important step in progressing through any course of study. We present the analysis of eachquestion in turn and finish with the complete task.3.1 Student ideas about thermodynamic workThe students were asked to compare the works done in two different processes connecting thesame initial and final states. They were also asked to provide an explanation. We believe
learning attracted a broad range of students and a conscious decision was madeto structure the organization such that a multidisciplinary approach was nurtured andencouraged. The faculty quickly recognized the value in this unique approach to engineeringeducation and integrated this pedagogical evolution into the curriculum as an alternative Page 11.818.2component of the senior design project. Proceedings of the 2006 American Society for Engineering Education Annual Conference & Exposition Copyright © 2006, American Society for Engineering Education Students from several departments in the School of
laboratory equipment has been found to be robust and durablegiven being subjected to undergraduate students performing hands-on experiments of complextheories often for the first time. An overview of some of the experiments which have been used Page 26.833.5in the curriculum in various course offerings is provided in Table 1. Table 1: ECP Systems Experiments [1-3] 205 210 220 System Identification X X X Rigid Body PD and PID Control X X X Disturbance Rejection
Paper ID #24781Board 99: Learning through Discovery: Empowering Lower Division Under-graduates to Engage in Cross-Disciplinary ResearchDr. Nina Robson, California State University, Fullerton Dr. Nina Robson is an associate professor in the Mechanical Engineering Department at California State University at Fullerton.Dr. Cynthia Gautreau, California State University Fullerton Dr. Gautreau is a veteran educator with 25 years of teaching experience. She currently serves as the Director of the MS in Instructional Design and Technology Program at CSU Fullerton.Dr. Madeline E. Rasche, California State University, Fullerton
Institute of Aeronautics and Astronautics Student Chapter at LTU, chair of the First Year Engineering Experience committee, chair for the LTU KEEN Course Modification Team, chair for the LTU Leadership Curriculum Committee, supervisor of the LTU Thermo-Fluids Laboratory, coordinator of the Certificate/Minor in Aeronautical Engineering, and faculty advisor of the LTU SAE Aero Design Team. Dr. Gerhart conducts workshops on active, collaborative, and problem-based learning, entrepreneurial mindset education, creative problem solving, and innovation. He is an author of a fluid mechanics textbook. c American Society for Engineering Education, 2018 Assessment of Fluid Power Modules
was an introduction to the Matlab/Simulink environment and to LabVIEW. WhileLabVIEW was not used at all in any of the subsequent labs, at the start of the term there was stilla possibility that the equipment might be able to be integrated into the later part of the term’slabs, and so students were introduced to it in the initial lab. In the Matlab/Simulink portion ofthis lab, students modeled a simple first-order system in Simulink, then created an initializationscript file in Matlab so that they could easily change system parameters, then ran that system forseveral sets of values.Lab 2In lab 2, students derived equations for the dynamic system shown in Figure 1, using the bondgraph approach, constructed a Simulink model of the system, and
Lafayette Amy S. Van Epps is an associate professor of Library Science and Engineering Librarian at Purdue Uni- versity. She has extensive experience providing instruction for engineering and technology students, including Purdue’s first-year engineering program. Her research interests include finding effective meth- ods for integrating information literacy knowledge into the undergraduate engineering curriculum. Prof. Van Epps has a BA in engineering science from Lafayette College, her MSLS from Catholic University of America, a M.Eng. in Industrial Engineering from Rensselaer Polytechnic Institute, and is currently working on her PhD in Engineering Education at Purdue.Dr. Michael Thomas SmithDr. Sorin Adam Matei