AC 2007-2697: EFFECTIVELY IMPLEMENTING THE INTERDISCIPLINARYSENIOR DESIGN EXPERIENCE: A CASE STUDY AND CONCLUSIONSMatthew Green, LeTourneau University Dr. Matthew G. Green is an assistant professor of Mechanical Engineering at LeTourneau University, Longview. His objective is to practice and promote engineering as a serving profession, with special recognition of opportunities to improve the quality of life in developing countries. Topics include the design of affordable transportation, training engineers to design for marginalized populations, needs assessment in frontier design environments, assistive devices for persons with disabilities, and remote power generation. Contact: MatthewGreen
experience wherestudents from each of the participating institutions worked collaboratively in support of theoverall research project. To enhance the students’ education, they spent several weeks in afocused experience at two of the universities with visits to the others. The intent was to broadentheir perspectives on the operations at different schools and promote interest in graduate schoolwhile learning about product platform planning. We describe the structure of the program alongwith the activities undertaken by the students. We also include an assessment of the program bythe students and plans for improving our future offering of this program.NomenclatureBOM Bill of MaterialsDSM Design Structure MatrixEBOM Enhanced Bill of
. Page 24.843.1 c American Society for Engineering Education, 2014 Large-Scale Geographically-Distributed Research Center Education, Outreach, and Training: Lessons from 5 years of Collaborative Design, Development and ImplementationAbstractThe George E. Brown, Jr. Network for Earthquake Engineering Summation (NEES) completesits tenth year of operation in September 2014. The NEES Center consists of a network of 14large-scale experimental laboratories that collaborate and share resources in support of researchto inform civil engineering practice and reduce losses from future earthquakes. Since thedevelopment of the center in 2003, the education, outreach and training (EOT) program hasgrown
AC 2011-706: THE COLUMBIA CITY TRAILHEAD: A COLLABORA-TIVE CONSTRUCTION ENGINEERING TECHNOLOGY CAPSTONE EX-PERIENCEBarry Dupen, Indiana University Purdue University, Fort Wayne Dr. Dupen is an Associate Professor of Mechanical Engineering Technology at Indiana University Purdue University Fort Wayne (IPFW). He has 9 years’ experience as a metallurgist, materials engineer, and ma- terials laboratory manager in the automotive industry. His primary interests lie in materials engineering, mechanics, and engineering technology education. He is an experienced contra dance caller.M. Regina Leffers, Indiana University Purdue University, Fort Wayne Regina Leffers, Ph.D. is the Director of the Center for the Built Environment and
addition, many include a Conceive-Design-Implement-Operate (CDIO)1 or similar type of project experience. It is difficult to fit all this content into aone-semester course. Often student teams do a good job with the analysis and fabrication of thephysical prototypes of their projects; however, their final project reports are usually of lowerquality. This seems to be especially true of their working drawings. The students have coveredthis material and have submitted related drawings assignments successfully earlier in thesemester, so the challenge is to find ways to get them to review this material on their own beforeturning in their reports without taking up additional class time. Could an online review andassessment tool be effective in
nine lab report writing outcomes in Table 3 before evaluatingstudent lab report samples. The rubric with three levels (need improvement, satisfactory,exemplary) is in the Appendix. One lab report sample was evaluated by two raters. When theaverage ratings of the two raters disagreed by more than 1 point, a negotiation session wasconducted between the two raters.3. Research Instruments3.1 Lab’s learning objectivesLearning objectives are the cornerstone when designing an efficient learning system in class.Feisel and Rosa introduced thirteen learning objectives within an educational laboratory in theengineering field [1], as shown in Table 2.Table 2. Philosophical Basis of Learning Objectives Within an Educational Laboratory [1] Philosophical
laboratories, and decision-making framework development for design and manufacturing environments.Dr. Yue Hung, Farmingdale State College Dr. Yue (Jeff) Hung obtained his Ph.D. in Materials Science and Engineering and M.S. degree in Me- chanical Engineering from Stony Brook University and his B.S. degree in Manufacturing Engineering Technology from Farmingdale State College. Currently, he is an associate professor and a Co-Chair of the Mechanical Engineering Technology Department at Farmingdale State College. Dr. Hung has over 20 years of experience in Computer-Aided Design (CAD) applications. His areas of expertise also in- clude Computer-Aided Manufacturing (CAM), Computer Number Control (CNC) machining, new prod- uct
the SUCCEED“best practices and lessons learned”, and involved local faculty in role playing exercisesin order to create new versions suitable for local piloting and installation. The positivereceipt of such workshops encourages the present summative article on this approach tocreation and piloting of multidisciplinary design courses and projects. A second dimension of course creation is also considered, namely, creationconsistent with the existing or modified administrative requirements of institution andengineering school. In particular, it was found desirable that each college provide anatmosphere conducive to supporting such design experiences via arranging for thefollowing circumstances: (1) The scheduling of courses must
American Society for Engineering Education Annual Conference & Exposition. Copyright © 2002, American Society for Engineering Educationdesign for web delivery. This limitation is the difficulty in providing laboratory hands-onexperience to support the theoretical part of the course in areas like electronics andmicroprocessors and control systems. While several software simulation programs are nowavailable, many educators still feel, as we do, the need for hands-on practical experience as anintegral part of a graduate course in engineering and technology.In this paper, we report on the design and delivery of a web-based course in Information Systems& Automation in Industry (TECH64012) that incorporates the following
AC 2007-1705: A SINGLE PLATFORM TO TEACH CIRCUIT DESIGN,BIOINSTRUMENTATION, CONTROL & SIGNAL PROCESSING INBIOMEDICAL ENGINEERINGShekhar Sharad, National Instruments Page 12.112.1© American Society for Engineering Education, 2007 A Single Platform to Teach Circuit Design, Bioinstrumentation, Control & Signal Processing in Biomedical EngineeringTraditional Biomedical Engineering programs use multiple software platforms to teachbiomedical engineering concepts in circuit design, bioinstrumentation, control and signalprocessing. As a result, the students spend a lot of time learning the different tools instead oflearning the concepts. With the
of solving problems, starting with theirown preferred learning styles and in their own home disciplines as far as possible. Ideas beingimplemented include a design-centered portal to aerospace engineering, vertical streams oftechnical content, learning assignments using case studies, a library of solved problemsaccessible from course content, and integrative concept modules. Experience from six areas issummarized. Case studies are used in class assignments for detailed analysis. Advancedconcept development projects are used, involving students at all levels in classes and research,to provide guidance on how to proceed with innovation in the face of large uncertainty andskepticism. These include concepts for a hydrogen fueled supersonic
elective experimentation courses before graduation. The course reported in thispaper is redesigned as an exemplar of the elective experimentation course which can supportaccreditation in multiple programs.Prior to the redesign, the course had highlighted engineering operational skills, includinghands-on making, experiment, and test and technical communication skills, especiallytechnical writing skills, and it had been highly praised by students, who felt they achieved alot in this course, and the course portfolios—including the articles written by students and theartifacts completed in the class—were very helpful in job search or applying for theenrollment of a graduate school.The newly designed course was implemented for the first time in the
2006-434: ANIMATION AS THE FINAL STEP IN THE DYNAMICS EXPERIENCEThomas Nordenholz, California Maritime Academy Thomas Nordenholz is an Associate Professor of Mechanical Engineering at the California Maritime Academy. He received his Ph.D. from the University of California at Berkeley in 1998. His present interests include the improvement of undergraduate engineering science instruction, and the development of laboratory experiments and software for undergraduate courses. Page 11.215.1© American Society for Engineering Education, 2006 Animation as the Final Step in the Dynamics ExperienceAbstractA
class out of sequence with their mechanical engineeringcurriculum.The author has found the “backward” design process described by Wiggins and McTighe (2) tobe helpful in curriculum review and revision. Backward design consists of a staged approach tocurriculum design, consisting of 1) identify desired results, 2) determine acceptable evidence,and 3) plan learning experiences and instruction. To identify desired results, curriculum Page 7.1012.1 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education”designers
AC 2010-1210: USING TECHNOLOGY-BASED EXPERIENCES TO CONNECTENGINEERING DESIGN, SCIENCE, AND MATHEMATICS FOR SECONDARYSCHOOL TEACHERSKenneth English, State University of New York, BuffaloDeborah Moore-Russo, State University of New York, BuffaloThomas Schroeder, University at Buffalo-SUNYGilberto Mosqueda, University at Buffalo-SUNYSofia Tangalos, University at Buffalo-SUNY Page 15.1339.1© American Society for Engineering Education, 2010 Using Technology-based Experiences to Connect Engineering Design, Science, and Mathematics for Secondary School TeachersAbstractEducators are faced with an ongoing challenge of creating engaging, student-centered learningsituations
. Alexandru, "Seven Principles of InstructionalContent Design for a Remote Laboratory: A Case Study on ERRL," in IEEE Transactions on Education,vol. 54, no. 2, pp. 320-327, May 2011, doi: 10.1109/TE.2010.2058115.[2] McLauchlan, L., & Hicks, D., & Mehrubeoglu, M., & Bhimavarapu, H. K. R. (2023, June), EnablingRemote Student Learning of IoT Technologies Paper presented at 2023 ASEE Annual Conference &Exposition, Baltimore , Maryland. https://peer.asee.org/43273[3] Hicks, D. McLauchlan, L., Mehrubeoglu M., and Bhimavarpu, H. K. R, "Expanding Remote StudentLearning-Internet of Things Applications and Exercises," 2023 IEEE Frontiers in Education Conference(FIE), College Station, TX, USA, 2023, pp. 1-8, doi: 10.1109/FIE58773.2023.10343065
of software design through the implementation and debugging of student-written programs; (4) introduction to engineering majors, career exploration, engineering practice within realistic constraints such as economic, environmental, ethical, health and safety, and sustainability. Physics: This is the second course in the first-year engineering experience and has Intro as a pre-requisite. Many of the experiments involve rely on Python code to interact with sensors and actuators. Therefore, a solid foundation in the skills from Intro is necessary.From the population of position-of-stress participants, a stratified sampling technique was usedto choose interview candidates in three categories of decreasing
outputsthrough a connected webcam. Packages of code are usually distributed by the manufacturersin the microcontroller’s library. The authorized student could generate a binary file using hispreferred development environment and upload it to the microcontroller through a website.The website could be hosted in the microcontroller’s internal flash memory. A custom printedcircuit board should be developed for every experiment. However, in [1], “Soft-wiring”system was designed with the purpose of giving the remote laboratory end-users thepossibility to remotely change the interconnections between the microcontroller and itsperipherals.Among the notable microcontroller-based remote laboratories applications we could cite thefollowing. In [2], a remote test
Paper ID #27844Incorporating Six Pre-Defined Experiments Using Motion Analysis into En-gineering Dynamics CoursesSonya Christine Dick, Cal Poly Human Motion Biomechanics Laboratory Sonya Dick is a Senior Mechanical Engineering Student at California Polytechnic State University - SLO. This is her second year working at the Human Motion Biomechanics Lab. As a research assistant, she helps create and teach interdisciplinary laboratories for undergraduate kinesiology and engineering students. Her work also involves creating simulations of a wide range of devices for the use of educational modules.Mr. Jay Tyler Davis II
include: ü Conceptual (students should be able to understand the engineering and physical principles in operation) ü Logistic (the projects should be completed within a limited time in the lab) ü Technical (the lab equipment and software should allow students to verify and alter their functionalities), and ü Financial (the lab equipment and other required resources should be of low cost).This report provides a general overview of a new set of EE lab projects for non-EE majors, witha special focus on the design and implementation of two new laboratory projects, which addressthe challenges and constraints listed above. Each of these two projects (Experiment 5-3 in theSpectra Lab and Experiment 6-4 in the Filters Lab) employs
Paper ID #19962Internet of Things: Remote Integrated Laboratory Activities in Green En-ergy Manufacturing and Energy Management Learning Modules: Heat Ex-changers Efficiency, the Design PerspectiveDr. Irina Nicoleta Ciobanescu Husanu, Drexel University (Tech.) Irina Ciobanescu Husanu, Ph. D. is Assistant Clinical Professor with Drexel University, Engineer- ing Technology program. Her area of expertise is in thermo-fluid sciences with applications in micro- combustion, fuel cells, green fuels and plasma assisted combustion. She has prior industrial experience in aerospace engineering that encompasses both theoretical analysis
Session 3449 Development of a Multimedia Laboratory Supplement for an Introduction to Materials Course: A Computer Graphics Technology Senior Design Project Jamie Workman, Adam Siurek, and Gregory Smith Indiana University-Purdue University, IndianapolisAbstractThe Introduction to Materials course at Indiana University-Purdue University, Indianapolis(IUPUI), is notorious for its laboratory experiments and report procedures. The course is in theMechanical Engineering Technology department of the Purdue School of Engineering andTechnology and identified as MET 141
11.862.6exercises and subsequent written reports had been completed (but before they were graded).Prior to distributing the survey, the instructors did their best to stay opinion-neutral toward thestudents as to the effectiveness of the RC as a learning tool; the students were made aware thatthis was a testing phase of the RC. Much of the survey was quantified using a 5-point Likertscale, but written responses were also gathered. While many different experiments are possiblewith the RC (see LTU sample laboratory assignment in Appendix B), the survey is generalenough that it is likely applicable to any college using the unit. Questions asked on the surveyare shown in Appendix C. The results compiled in this paper are derived from 19 LTU studentsurveys and
(EE) [2- comparison allows educators to understand4]. Measuring quantities such as voltage, the advantages and compensate for possiblecurrent, and power is an inseparable part of disadvantages of DAD2 and similar devices.most EE labs. Measurements are typically Here an experiment is designed to comparenecessary in AC, DC, and transient form the use of DAD2 and bench-top instrumentsdepending on the circuit and the experimental in an Introductory Electrical Circuitssetup. In addition, all electrical circuits need a Laboratory, and multiple questionnaires arepower supply in order to function, which can
functioningproperly within the expected parameters of the experiment. This includes checking to ensure thewater flow rate is correct, the programmable power supply is properly connected to the cell, andthe vacuum pump is functioning properly for each run. Following stringent procedures prior torunning the experiments aids students in building the proper attention to detail required in a moreprofessional laboratory environment. The experience of seeing a piece of equipment fail andlearning to diagnose the situation is a valuable lesson, yet it is one rarely encountered in moretraditional coursework. A faulty piece of equipment would usually have been replaced orrepaired before a student actually went to use it in most laboratory courses. Since results
Paper ID #14211Building the Design Competence in Industrial Engineering Junior Studentsthrough realistic constraints of the Operations and Logistics LaboratoryIng. Lina Margarita Prada-Angarita, Fundacion Universidad del Norte Education: Master of Science in Industrial Engineering, August 2014 - Universidad del Norte, Barran- quilla, Colombia. Bachelor of Science in Industrial Engineering, September 2006 -Universidad del Norte, Barranquilla, Colombia. Research Areas: Theory of Constraints, Education in Engineering, Concur- rent Engineering, Service Quality. Work Experience: Full time faculty member, Universidad del Norte
facilities. Butin recent years there has been a decrease in resource allocation making it increasingly difficult tomodernize the laboratories to provide adequate levels of laboratory and course work.This calls for an alternative cost-effective method of modernizing laboratory resources and oneway to do this is through the introduction of the virtual instruments concept to existing laboratoryand courses. This paper describes an on going process: the integration of virtual instruments intovarious Electrical Engineering Technology (EET) lecture and laboratory courses so that ourgraduates can be well trained with the latest technology.I. IntroductionThe ET programs are designed with laboratory exercises and computer usage as an integral part.The
students required whole-class assistance.Importantly, pre- or co-requisites of the course include Physics 1, Chemistry 1, MultivariableCalculus, Linear Algebra and Differential Equations as well as the Freshman and SophomoreEngineering courses. Not required are Physics 2 (essentials of electricity, magnetism, optics) orany pre-requisite programming experience. This is an important feature in the department coursestructure, as the Engineering curriculum was designed to be as inclusive as possible.Subsequently, the pre-requisite structure versus what could be covered in the core curricula wascarefully considered. In the context of the authors’ course, this meant the course had toaccommodate students with no programming background or basic electrical
Paper ID #31537Work in Progress: Design and Implementation of CollaborativeProblem-Based Learning Laboratory Modules for Engineering andNon-Engineering StudentsProf. Youngmi Kim, University of Wisconsin, River Falls Dr. Youngmi Kim, an assistant professor in Ag Engineering Technology department at University of Wis- consin, River Falls, holds a B.E. and M.E. both in Biological Engineering from Inha University in South Korea. Her Ph.D. is in Agricultural and Biological Engineering from Purdue University. After earning her doctorate, Dr. Kim continued her affiliation with Purdue for 8 more years as a Bioprocess Research
sufficient to persuade the rest of thecollege that the curriculum should be adopted. A second assumption is that the informationresulting from the pilot is sufficient in deciding how the curriculum can be improved for allstudents. Another assumption is that experience with the pilot curriculum will provide anadequate base on which to design institutionalized versions of the pilot curriculum. And finally,there is an assumption that once the new curriculum is institutionalized, the job of effectingcurricular change is complete, i.e., that maintaining and sustaining the curriculum does not requireadditional attention or innovative institutional structures. What we saw in our study was that the