interactive poster presentation (second project). Gradingreports and presentations included “peer evaluation” as an integral part of the learning process. A challenge in formulating the design projects is that first-year students lack technical sophistication. With this in mind, thefirst set of seven design projects was developed in conjunction with Engineers without Borders, involving relatively low-techengineering solutions that would benefit disadvantaged communities in developing countries. The remote setting also emphasizedthe importance of understanding the “soft” side of design. Students were required to understand the client needs, opportunities,and benefits and make realistic conclusions about the cost, feasibility, and impact on the
Paper ID #16567Practical Design of PID-type Controllers with ConstraintsDr. Vassilios Tzouanas, University of Houston, Downtown Vassilios Tzouanas is an Associate Professor of Computer Science and Engineering Technology at the University of Houston – Downtown, in Houston, Texas. He also serves as assistant department chairman. He received all his degrees in chemical engineering and obtained his Ph.D. from Lehigh University. His area of specialization is process modeling, simulation and control. He has worked in the industry for 19 years where he held technical and management positions with major operating companies as well
Paper ID #30574Bioreactor Design, Automation and Optimization - A MultidisciplinaryApproachDr. Vassilios Tzouanas, University of Houston, Downtown Vassilios Tzouanas is an Associate Professor and Chairman of the Computer Science and Engineering Technology department at the University of Houston – Downtown, in Houston, Texas. He received all his degrees in chemical engineering and obtained his Ph.D. from Lehigh University. He has worked in the industry for 19 years where he held technical and management positions with major operating companies as well as process control technology development companies. Since 2010, he has
AC 2008-172: VISUAL BASIC SOFTWARE FOR DESIGN AND PERFORMANCEPROBLEMSNoah Brak, West Virginia University Noah Brak is an undergraduate student studying chemical engineering at West Virginia University.Joseph Shaeiwitz, West Virginia University Joseph A. Shaeiwitz received his B.S. degree from the University of Delaware and his M.S. and Ph.D. degrees from Carnegie Mellon University. His professional interests are in design, design education, and outcomes assessment. Joe is an associate editor of the Journal of Engineering Education, and he is a co-author of the text Analysis, Synthesis, and Design of Chemical Processes (2nd ed.), published by Prentice Hall in 2003.Richard Turton, West
Paper ID #43146Board 283: Findings from the Spring 2022 to Spring 2023 Semesters of thePEERSIST Project - A Formation of Engineers Framework for UnderstandingSelf-Efficacy and Persistence among Transfer StudentsCody D Jenkins, Arizona State UniversityMs. Thien Ngoc Y Ta, Arizona State University, Polytechnic Campus Thien Ta is a doctoral student of Engineering Education Systems and Design at Arizona State University. She obtained her B.S., and M.S. in Mechanical Engineering. She has taught for Cao Thang technical college for seven years in Vietnam. She is currentlySarah Johnston, Arizona State UniversityDr. Ryan James Milcarek
Session _____ Learning Design in Lab Camilla M. Saviz and Kurt C. Schulz School of Engineering and Computer Science University of the Pacific, Stockton, CAAbstractLaboratory curricula in two core undergraduate-level engineering courses, FluidMechanics and Materials Science, have been enhanced through implementation oflaboratory design experiences. In addition to performing established experiments,students work in teams to develop a laboratory experiment investigating a course-related topic which they are required to research and formally report
students learn the basic principles,techniques, and practices for developing drawings in a computer-aided drafting environment.Students in this class are also working on a semester-long course project in teams of four tocomplete a conceptual design of a product. The goal of the project is to learn and applyprinciples and methods of the design process to improve teamwork skills and to appreciate theinherent multidisciplinary nature of engineering design. Introduction to Engineering Designcourse objectives and ABET SLO’s addressed by each objective are as follows: 1. Comprehend the structure of the engineering design process, and develop and evaluate a conceptual product using this process (ABET SLO F, SLO H). 2. Understand drafting
Paper ID #16080Engineering First: How Engineering Design Thinking Affects Science Learn-ingDr. Mandy Biggers, Penn State University Dr. Mandy Biggers is an assistant professor of science education at Penn State University. Her research and teaching interests involve engineering education with elementary students and also preservice teach- ers. Her particular interests are engineering practices and engineering design thinking. Before earning her Ph.D. from the University of Iowa and her Masters degree from Texas A&M University, she was a middle and high school science teacher in Texas.Dr. Leigh Ann Haefner, Penn State
with their peers and interact rigorously withtheir mentors as well as the architect. Through the initiation of this green engineeringbuilding design contest we have been successfully increased 1) the understanding ofenvironmental issues and the global impact of engineering solutions; 2) the understandingof the legal framework that guides engineering solutions that protects the environmentand resources; and 3) the understanding of the need for efficient and effective resourceconservation and energy utilization. In addition, we feel that we have broadened thestudents’ education necessary to understand the impact of engineering solutions in aglobal and societal context and to assist the students to recognize the need for, and anability to engage
. Page 12.323.1© American Society for Engineering Education, 2007 Bridging Bear Hollow: A Service-Learning Capstone DesignAbstract:Service learning is loosely defined as a structured activity that extends learning beyond theboundaries of the classroom and promotes that learning through active participation in serviceexperiences. Service learning is uniquely distinct from pure volunteer or community service inthat learners are afforded the opportunity to apply previously acquired knowledge and skills tothe solution of real life problems for the betterment of both the community and themselves. Intheory, the model of service learning is an ideal vehicle for simultaneously satisfying theculminating design experience required by ABET
AC 2007-1926: TEACHING DESIGN AND MANUFACTURE OF MECHANICALSYSTEMSWilliam Waldron, Grand Valley State UniversityPramod Chaphalkar, Grand Valley State UniversityShabbir Choudhuri, Grand Valley State UniversityJohn Farris, Grand Valley State University Page 12.1352.1© American Society for Engineering Education, 2007 Teaching Design and Manufacture of Mechanical Systems Using Multidisciplinary TeamsAbstractThe goal of this work is to increase the emphasis on the design and manufacture of mechanicalsystems. To aid in this effort, Mechanical Engineering (ME), Product Design and Manufacturing(PDM) faculty in the School of Engineering at
AC 2007-1942: SENIOR DESIGN AND THE U.S. SPACE PROGRAMPaul Corder, Lamar University Professor PAUL CORDER received his B.S., M.S., and Ph.D. in Mechanical Engineering from Texas A&M University. Before joining academia, he spent nineteen years in the defense and the offshore drilling and production platform industries. During the last nineteen and a half years he has taught mechanical design in the Mechanical Engineerng Department at Lamar University in Beaumont, Texas. He holds a professional engineer license in the state of Texas. He also does engineering consulting, including occasionally being an expert witness.Jiang Zhou, Lamar University JIANG ZHOU is currently an assistant
the last visit. The numbers have indicated a few areas of concern,which are being shared with Department Faculty in order to improve instruction in these areas.We plan to continue this study in future years to gain a better understanding of the contributionof each course in the design sequence to the overall attainment of our program learning outcomesrelated to design.Overall, the series of design projects that our students experience as they progress through theprogram is seen as a significant improvement from our old program structure. The result is astudent who has much better preparation in design skills as he/she enters senior design, andsubsequently, the engineering field.Since our design stem course structure has proven to work well
. © American Society for Engineering Education, 2022 Powered by www.slayte.com Expanding chemical engineering laboratory course design to cultivate next-generation engineersAbstractUndergraduate laboratory course design has traditionally focused on an experiment and reportpairing that can seem resistant to meaningful evolution. The expansion of tasks and assessmentsbeyond this paradigm allows students to focus on process, not just product. This process includesbetter preparation to safely perform the experiment, requires more advanced understanding of theexperimental concepts and results, and introduces students to professional tasks and skills (suchas communication skills and teamwork
Students (Mean ± St. Dev.)2008 I gained a greater understanding of concepts in this field. 17 4.6 ± 0.5 This course has stimulated my interest in the field of fabrication2008 17 4.5 ± 0.5 and design. My exposure to SolidWorks has given me a better understanding of2009 12 4.7 ± 0.5 the use of CAD to develop and communicate design ideas. I have developed a better comprehension of engineering drawings2009 12 4.5 ± 0.5 through the
whatthe curriculum stands for. Anyone can understand the profile - after a short explanation.A curriculum can be treated as an engineered object. The steps which describe an engineeredobjects life-cycle as well as principles of engineering design can be fruitfully applied whendesigning an engineering curriculum as well as any other engineered object. The reader mayreflect upon why so few engineering faculty seem capable of doing this - at least so explicitly.Courses are only a necessary evil within a curriculum. They serve to facilitate scheduling,student progress monitoring and faculty administration. Try, therefore, to prevent existingcourses and rigid administrative rules from getting in the way of educational innovation.Continual and open
professor in the Department of Chemical and Biomolecular Engi- neering at the University of South Alabama, where she also serves as Director of the Office of Undergrad- uate Research. She holds a Ph.D. from Georgia Institute of Technology and a B.S. from the University of Alabama. She teaches material and energy balances and chemical reactor design, and endeavors to incorporate student professional development in her courses.Dr. Stephen W. Thiel, University of Cincinnati Stephen Thiel is a Professor-Educator in the Chemical Engineering program at the University of Cincin- nati (UC). He received his BS in Chemical Engineering from Virginia Tech, and his MS and PhD in Chemical Engineering from the University of Texas at
Session 2642 ENGINEERING MANAGEMENT CONTENT FOR A SENIOR DESIGN COURSE IN MECHANICAL ENGINEERING P. B. Ravikumar Professor, Mechanical & Industrial Engineering Department University of Wisconsin, Platteville, WIABSTRACTMechanical Engineering students at UW-Platteville take the Senior Design Project Course in thefinal semester of their undergraduate program. Most of the team projects for the course, often allprojects, are provided by industry. The course is designed with the primary objective of providingstudents an experience that serves as a transition
reduced time to markethave all created a need for a greater understanding of systems engineering concepts, which mustnow be introduced at early stages of engineering curriculum. These practices would enhancepreparedness and marketability of engineering graduates into the twenty-first century work force.Systems engineering is a relatively new approach to the design of large and complex engineeringsystems. The engineering community and the aerospace industry initiated this new approach tothe design of large systems in 1960s. As the systems became large and complex the conventionalengineering design approach for such systems was not adequate. There were questions about thecost, schedule, and performance issues for the entire life cycle of such large
Session 2525 Evaluating Multidisciplinary Design Teams Lynne Slivovsky, William Oakes, Leah Jamieson Purdue UniversityAbstract Many program look for ways to simulate “real” design experiences. At PurdueUniversity, the EPICS - Engineering Projects in Community Service – program does thisthrough long-term team projects that solve technology-based problems for local communityservice organizations. The program currently has 24 project teams with approximately 450students participating during the 2002 academic year. Each EPICS project team consists of tento 20 students, a local
descriptionCriterion c Ability to design a system, component Groups must design a solution or process to meet desired needs to a given problemCriterion d Ability to function on Groups include students from multidisciplinary teams several majorsCriterion e Ability to identify, formulate and solve Understanding the design engineering problems process and problem solving is one of the course objectivesCriterion g Ability to communicate effectively Since international communication is required
Paper ID #24429Fundamentals of Engineering Design for Chemical Engineering 1st Year Un-dergraduatesDr. Irina Molodetsky, New Jersey Institute of Technology Irina Molodetsky, PhD, joined Otto H.York Department of Chemical and Materials Engineering in the summer of 2017 as a Senior University Lecturer, New Jersey Institute of Technology. Before NJIT, she was Principal Materials Scientist at Princeton Technology Center, Schlumberger. She received her BS, MS in Physics from Odessa State University, Ukraine and PhD from Princeton University. She was a Postdoctoral Research Associate at University of Pennsylvania (Materials Science
Session 1547 Designing the Report Process Nancy L. Denton, P.E. Purdue UniversityABSTRACTWritten communication constitutes a key component in the education and future success ofan engineering technologist. Developing skill in technical report writing requires practicecoupled with timely, thorough feedback. At Purdue University’s West Lafayette campus, thesophomore level course in strength of materials provides the core venue for this practice andfeedback for mechanical engineering technology (MET) students. Such report writingdemands a significant time investment
project add in reinforcing material taught in theclassroom and often times help students gain a deeper knowledge of the material. In fact,product dissection style projects have been around since the mid- to late-1990s [1]. Hands-onprojects are often used in two applications: 1) to gain a deeper understanding of the course theorythrough application, 2) to motive learning of engineering topics. In this work the latter is thefocus for using a hands-on project in a first year engineering course. One goal of the hands-onproject development is to motivate the students make them excited to study mechanicalengineering. A second goal, is that the students leave the course with an introductory levelknowledge of the engineering design process. Specifically
unit for an interdisciplinary projectinvolving science, math, English, and history.Filtering IdeasIn this unit, students learn about the different contaminants present in our water, howthese contaminants can affect human and animal life, and how to test for and removesome of them. By the end of this unit, students understand how to identify contaminantsand build a filter to purify a water sample.The daily lessons for this ETK are summarized below:Day 1 – Water and EngineersObjective: To understand the water cycle, how water is cleaned, and to introduce the engineering design process.Key Concepts: • The importance of water purification and the engineer’s role. • The engineering design process.Activities: • Conceptual
. Page 12.312.2IntroductionBiomedical Engineering, by nature, attracts undergraduate students who are interested andexcited about serving medicine with their engineering knowledge. However, as educators, wecontinue to see that many students do not understand what biomedical engineering is and how itmay be different from biology or other engineering disciplines. At Saint Louis University, thecurriculum is designed for students to take a set of general engineering courses followed byupper level biomedically-related engineering courses. In an attempt to further establish andreinforce that connection between engineering and biomedicine, the two-course sequence intransport phenomena has utilized student-developed laboratories as integral parts of the
Washington State University, Pullman, Washington, USA.Mr. Clint S. Cole, Digilent, Inc.Mihaela Radu, Rose-Hulman Institute of TechnologyMr. Joe Harris, Digilent, Inc.Mr. Alex WongMrs. Monica Bot Page 25.671.1 c American Society for Engineering Education, 2012 Global Design Competition: Enabling Creative and Innovative Digital DesignAbstractCollege graduates should be prepared to work in culturally diverse workplaces, work acrossnational borders and understand global challenges. Engineering students seem to have feweropportunities during their studies, than those in
as necessarily ethical and the purpose of ethicscurricula is not the addition of ethics but an enhancement of the ethical imagination. 2) Whiletraditional ethics often focus on the individual, decisions in technology are made collectively –including, of course, people who are not engineers. So, our approach includes an emphasis onsocial ethics, i. e, the social arrangements for making decisions. 3) Technology representstransformations of society and of the environment. We encourage students to understand this andto look both upstream and downstream in the product or service life cycle from the design focalpoint. 4) Most technology involves transformations that are global in scope and this is embracedby the curriculum. 5) We stress design
problemsf) an understanding of professional and ethical responsibilityg) **an ability to communicate effectivelyh) **the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal contexti) a recognition of the need for, and an ability to engage in, life-long learningj) a knowledge of contemporary issuesk) **an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.Many of the ABET outcomes are met by several activities (a single activity does not fulfill therequirements). The Global Design Challenge is to improve the skills and knowledge of ourgraduates and is part of a comprehensive effort to improve our graduates. V
environment that draws mostly on math, science, andtechnology and offers major benefits to education at all levels, as it fosters essential 21st centuryskills such as problem-solving, communication, teamwork, independence, imagination andcreativity. Results indicate that, in addition to significant increases in their attitudes towardscience, mathematics and engineering, most students demonstrated increased knowledge aboutcareers in engineering and an understanding of the engineering design process by the end of theprogram.1. IntroductionThe demand for a highly qualified workforce in the information and knowledge age of thecurrent global economy continues to put pressure on institutions of higher education to producemore engineers1. But despite the