or piece of hardware - few devices orsystems are designed from the outset as stand-alone items. The process of integrating one’sdesign with the work of others is sometimes a difficult task and one which many young engineersfind difficult and so we felt that it was important that the product engineering design project placethis additional requirement on the students.In addition the Elements of Mechanical Design course included a significant amount of laboratorymaterial on metrology including the use of precision measurement hand tools as well ascoordinate measuring machine (CMM). This material is felt to be important to give the studentsan appreciation of tolerancing and impart an understanding of how parts with complex geometriesfit together
Experiences in Designing a Design for Manufacturing (DFM) Course Dr. Richard Jerz, Dr. Gary Fischer St. Ambrose University / The University of IowaAbstractMechanical Engineering and Industrial Engineering faculty at The University of Iowa agreed toimplement a required undergraduate course for each curriculum that will give students anunderstanding of basic design principles and manufacturing processes. The new course is called,Design for Manufacturing (DFM). The course goals include giving students the opportunity todevelop an understanding of the fundamentals of design, engineering graphics, andmanufacturing processes. Topics covered
Paper ID #22986An Engineering Design-Oriented First Year Biomedical Engineering Cur-riculumDr. Kay C. Dee, Rose-Hulman Institute of Technology Kay C. Dee received a B.S. degree in chemical engineering from Carnegie Mellon University, and M.Eng. and Ph.D. degrees in biomedical engineering from Rensselaer Polytechnic Institute. After completing her graduate work, Kay C joined the Department of Biomedical Engineering at Tulane University in New Orleans, Louisiana. She later joined the faculty at Rose-Hulman Institute of Technology. She served as the founding Director of the Rose-Hulman Center for the Practice and Scholarship
Paper ID #37060Engineering and Engineering Technology Capstone Design Teams Lead toSuccessful ProjectsDr. Kiana Karami, Pennsylvania State University, Harrisburg Kiana Karami is an assistant professor of Electrical Engineering, in the School of Science, Engineering, and Technology, at Penn State Harrisburg University. She received her Ph.D. from the University of Calgary in Electrical Engineering in 2020 and her BS and MS in Electrical Engineering from Shiraz University and University of Colorado Colorado Springs in 2011 and 2013 respectively. Her main area of interest is control systems, system identification and
techniques.Advantages of the new courseWhile EDC is still in a formative stage—and is not without its challenges—we believe it offerssignificant advantages to freshmen, to faculty from both disciplines, and to the undergraduateengineering curriculum:• Improvement in engineering and communication education Most importantly, the user-centered approach to design and the integrated nature of the course improve the quality of students’ engineering work, their understanding of how design and communication are related, and their communication skills. In both lectures and workshops, faculty stress the importance of concepts that design and communication have in common—that both are processes; that in both processes, writers and designers keep
our previouscurriculum because even though students took computer programming, CAD, and geomatics, theskills and tools they learned in these courses were not used much if at all until their last semesterin senior design. Students had to get themselves back up to speed with these skills and toolswhile working on their senior design project. This led the senior design projects to be scaledback to allow time to build back up the skills and tools needed to complete senior design.Another concern with the previous curriculum is that there was a general feeling from the facultythat Nebraska graduates were good, competent engineers but needed more development ofcritical thinking skills. The faculty wanted them to better understand how civil
. Hartnett, Ph.D., P.E., U.S. Coast Guard Academy Richard J. Hartnett is a Professor of Electrical Engineering at the U.S. Coast Guard Academy in New London, CT. He received his BSEE degree from the U.S. Coast Guard Academy, the MSEE degree from Purdue University, and his Ph.D. in EE from the University of Rhode Island. His research interests include efficient digital filtering methods, improved receiver signal processing techniques for electronic navigation systems, and autonomous vehicle design. Page 22.1280.1 c American Society for Engineering Education, 2011 SE CAPSTONE
Session 1268 Session 1268 Design Using Spread Sheets By Dr. Martin Pike Purdue University AbstractDesign is an important factor in Mechanical Engineering and Technology programs. The morerealistic the design project, the better the learning experience is for the students. Often, designrequires many iterative calculations and “what if” parametric studies. For these types ofprocesses, spread sheets have been useful in
Session 2632 VLSI Design Curriculum Richard B. Brown, Dennis Sylvester, David Blaauw, Michael Flynn, Gordon Carichner and Catharine June Department of Electrical Engineering and Computer Science University of Michigan Ann Arbor, Michigan 48109-2122Abstract—The Intel Foundation has funded a project at the University of Michigan to develop,document, and disseminate a world-class VLSI curriculum. This paper, which is the first presen-tation of the project, describes the overall curriculum at a high level
establish engineering specifications, develop several concept designs, identifythe optimum concept for implementation, create CAD models, perform engineering analysis,simulate mechanisms, create part drawings, build mechanisms and complete integration with thesystem. All activities were to be completed under strict deadlines. The topical outline for thiscourse is given below: Week Topics (Lecture – L; Activity – A) 1 Introduction & History (L) Understand the working structure of the Rose Float Program – Rose Float Committee, Club, Alumni Association, Cal Poly SLO and the class. Understanding of all major systems in the float (Rose Float Lab) 2 Identification of all mechanisms
the judges. Weeks 4 and 5consisted of independent activity of each team towards developing and testing the final prototypeand presenting the final design to the judges. Following the presentations, students submitted theirengineering notebooks alongside answering the post-activity surveys. From the activity, it isexpected that students learn many important aspects of engineering design and apply engineeringdesign strategies to develop tissue engineering bioreactor prototypes. The activity may also givestudents the opportunity to improve their understanding of Hooke’s law and its applications totendon bioreactor design.Introduction Tissue Engineering (TE) is an emerging subfield of Biomedical Engineering[1]. TE utilizesstem/primary cells
AC 2011-62: INTEGRATION OF NUMERICAL AND EXPERIMENTALSTUDIES IN A HEAT TRANSFER COURSE TO ENHANCE STUDENTS’CONCEPTN.M. A HOSSAIN, Eastern Washington University Dr. Hossain is an assistant professor in the Department of Engineering and Design at Eastern Wash- ington University, Cheney. His research interests involve the computational and experimental analysis of lightweight space structures and composite materials. Dr. Hossain received M.S. and Ph.D. degrees in Materials Engineering and Science from South Dakota School of Mines and Technology, Rapid City, South Dakota. Martin Weiser is an Assistant Professor in the Engineering and Design Department at Eastern Washington University. He earned his BS in Ceramic
be done at the library. Engineering computations regardingthe designed components are usually performed at workstations clustered at yet another location.In our experience, because of the fragmented way we teach design, students do not receiveadequate faculty supervision as they practice the design process. We believe that without a closeand focused partnership with the faculty, students receive an incoherent design education thatlimits their understanding of the design process as a multi-level interdisciplinary activity.Challenge II) Time Constraints - Many schools offer capstone design courses with great depthand multidisciplinary components2-5. But a closer look at their curricula1 reveals that theyaccomplish their depth by taking
. Anecdotally, the facultyof the program have, for several years, expressed concerns with the students modelingskills.Lessons Learned and Recommendations ≠ It is important to include adequate biology background in using the biomedical projects, so that students can understand the processes they are modeling and the devices they are designing. This can be done by augmenting the course lectures and with handouts. ≠ Mechanical engineering students react in a positive fashion to the incorporation of biomedical engineering into a traditional course. ≠ The biomedical projects provide a good vehicle to teach the basic fundamentals of thermal design. ≠ A second set of projects with a biomedical orientation could be developed
/mechanical systems design project was selected tointegrate material from all of the core mechanical engineering courses and to ensure that ourgraduates have a basic understanding of engineering science and how it relates to the art ofengineering design.The purpose of this paper is to describe the key features of the new course and to evaluate itssuccess in meeting its educational objectives. The “soft skills” component of the courseemphasizes development of skills for lifelong learning, including research skills, teamworkskills, and communication skills. The year-long sequence of courses is being team-taught, withextensive use of a Blackboard course web site for organizing group activities, and is beingmonitored by referees from the industrial
. standard Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Educationcodified requirements, validation and approval of design models, the importance of readability ofdesign diagrams, understanding of common kinds of architecture (as a ranch home vs. a capeCode), use of common patterns within architectures, use of standard building components,frameworks for building (as in modular construction), inspection and acceptance of implementedwork, and others.LEA RNING UNIT HRS TOPIC Hours joint with: Ass ignments1. CONCEPTS 11.5 general conc epts 1.51a
Products Fail?Realization Process Building Blocks of New Product Design Comprehensive Strategic Plan Impact of Design on Environment Concurrent Engineering in Design Impact of Modern Manufacturing Tools and Techniques Design Concept Development MethodologyPRODUCT DESIGN – Conceptual Concept Selection Using Function DiagramPhase Function Analysis for Product Design Understanding the Customer Customer driven Product Development Axiomatic Design Method
quantify to whatdegree we meet the standards. The CE2016 guidelines divide BSCO curricula into 12Knowledge Areas (KA) (Circuits and Electronics, Computing Algorithms, ComputerArchitecture and Organization, Digital Design, Embedded Systems, Computer Networks,Preparation for Professional Practice, Information Security, Signal Processing, Systems andProject Engineering, Systems Resource Management, and Software Design) composed of a totalof 135 Knowledge Units (KU), further detailed by a total of 908 Learning Outcomes (LO). Theprogram faculty cross-examined the BSCO curriculum and identified if and where the LOs werecovered. The self-audit gave us a better understanding of our current curriculum, revealeddeficiencies and excess, and informed our near
Paper ID #19073Successful S3 Design ProjectsDr. Blair J. McDonald P.E., Western Illinois University Dr. Blair J. McDonald, Associate Professor in the School of Engineering at Western Illinois University- Quad Cities, Moline, Illinois; PhD in Civil Engineering from the University of Utah; Professional Engi- neer and Licensed Land Surveyor in Utah.Dr. William F. Pratt, Western Illinois University Dr. Pratt was selected as the first Director of the new School of Engineering and tasked to start a new general engineering program at Western Illinois University in August of 2009. The first graduates received their diplomas
sustainable design through holistic situated learning: A case study in transdisciplinarityAbstractIn 2017, a visioning committee of the National Academies of Engineering (U.S.) advocatedtransdisciplinary design for its potential to address complex societal needs. Lang et al. suggestdesign principles for this modality while calling for additional contributions to enrich ourpractice. This paper offers insights from a 10-week case study at a permaculture research site forwhich the lay partners report deep satisfaction and the four student participants, all femaleengineering undergraduates, reported transformational outcomes that support sustainable design.Some of the emergent outcomes include: Understanding engineering to be a
-sign development. Engineering Design Graphics I (EDG I), the first course in the se-quence, has the following goals: • To develop the necessary visualization and freehand drawing/sketching skills which will enable students of design (engineering, industrial, architectural, etc.) to express graphically a rapid succession of ideas in seeking the solution to a spe- cific design problem. • To develop initial CADD (Computer-Aided Design and Drafting) skills and the understanding of the concepts associated with 3-D solid modeling as part of the design process.As stated in the first objective for EDG I, a focus is on the development of visualizationskills. Visualization can be defined in multiple ways. The way
section of EDC, Herbst runs a sketching tutorial for students. This year, we planto encourage other section instructors to implement this same requirement.Both IDEO and HBL have helped us promote students’ use of models, mockups and prototypesas conceptual design tools at various stages of the design process. Engineering design textstypically focus on proof-of-concept models and looks-like and works-like prototypes that areproduced toward the end of the process. In teaching conceptual design to freshman, however, weare interested that they have a framework for understanding a range of modeling and prototypingactivities—and that they be able to use appropriate representations to achieve specific goals inthe design process.In class, we help
design courses. Thecourses associated with the competition have skill-building exercises that are needed to beeffective participants. The final competition participation does not carry any course credit, andthe cash prizes are the motivators for the high-achieving teams. This paper describes an analysisof student performance data that tracks the correlation between course performance tocompetition success.Introduction and BackgroundA literature review related to competition-based learning (CBL) shows that it is a derivative ofproject-based learning and has numerous benefits in engineering education [1-4]. Competitionsprimarily motivate students to learn independently and supplement the traditional classroom [1].Working in a team towards a common
forcollege and universities, as they are older than traditional students, married (44%), and havedependents (52%). 3,9 However, there is a significant lack of research providing more thorough,concrete understanding about student veterans’ transition to higher education, such as how aspecific program in higher education may facilitate their successful reintegration into civiliansociety. This qualitative study explores the process of reintegration experienced by studentveterans during their transition from military to higher education. In particular, we explored theexperience of 20 engineering student veterans transitioning from the military to the field ofengineering. We examined student veterans’ motivation to enroll in an engineering program
define the system logic, review the table design, understand Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Educationthe relations between tables, and determine indexes and primary keys. Having a written data en-try procedure before the system becomes operational is desirable, and this is a good time to do it.The order in which data is entered into tables should recognize the following:1. Increase data accuracy by requiring referential integrity wherever possible. Tables that con- tain lists of all permissible codes must be updated before using those codes. For example, en- tering an EmpID or SkillClass in a
a senior lecturer in the Department of Educational Psychology at the University of Texas-Austin. He teaches basic statistics courses to undergraduates and measurement courses to graduate students in the Master’s and Doctoral Programs.Dr. Sheri D. Sheppard, Stanford University Sheri D. Sheppard, Ph.D., P.E., is professor of Mechanical Engineering at Stanford University. Besides teaching both undergraduate and graduate design and education related classes at Stanford University, she conducts research on engineering education and work-practices, and applied finite element analysis. From 1999-2008 she served as a Senior Scholar at the Carnegie Foundation for the Advancement of Teaching, leading the Foundation’s
Paper ID #15656UAS Design in Active LearningDr. Michael C. Hatfield, University of Alaska, Fairbanks Michael C. Hatfield is an assistant professor in the Department of Electrical and Computer Engineering at the University of Alaska Fairbanks, and Associate Director for Science & Education, Alaska Center for Unmanned Aircraft Systems Integration. He earned a B.S. in electrical engineering from Ohio Northern University; an M.S. in electrical engineering from California State University Fresno, and a Ph.D. in Electrical/Aeronautical Engineering from the University of Alaska Fairbanks.Dr. John Monahan, University of Alaska
effect design projects to engage students in concepts of lift, drag, and how vehicle design parameters affect vehicle performance. c American Society for Engineering Education, 2017 Tunnel-Hull Design Project: Engaging Entry-Level Students in Vehicle Design with a Wing-in-Ground–Effect Vessel Design ProjectAbstractAn entry-level vehicle design course, VHCL 260 Vehicle Systems I, uses a conceptual tunnel-hull design project as a means to introduce students to forces and moments on vehicles and howthey affect vehicle design. A tunnel-hull boat is a high-speed marine vessel that utilizes wing-in-ground effect to support a portion of the vehicle’s weight. For
drivecomponents, and to obtain the final robot implementation by efficiently integrating the electricaland mechanical components of the robot. This robot design project required a good backgroundin mechanical and electrical engineering disciplines and all team members steadily providedprogress reports for their parts, maintained effective communication and exchanged ideas for alldesign aspects, performed different parts of the robot design and construction simultaneously intwo-student subteams, and decided as a team on major design issues. The project mechanicalaspects included understanding the application of dynamic mechanical parts, handling the robotdesign and mechanical prowess, utilizing CAD-design tools such as the Solidworks software,and
are available on the world wide web at:http://www.ce.cmu.edu/GreenDesign/education.html. The course materials are suitable for use inupper level undergraduate and graduate level engineering programs. A number of themodules/case studies are also suitable for use in business curricula or in technologyoriented courses in public policy and history. The materials were developed fromindustry-oriented research in green design and pollution prevention conducted atCarnegie Mellon University over the past 5 years. Topics highlighted in the educationalmaterials include: 1) green design, 2) life cycle assesment, 3) full cost accounting, 4)design for disassembly and recycling aids, 5) recycling and waste management, and 6)material flows and mass balance