-disciplinary project experience in our curriculum?” or “How do weevaluate the ability for life-long learning?”In this paper, a method used in the Chemical Engineering Department at West VirginiaUniversity to teach and to assess these outcomes is presented. While it is the details of themethod used that will be presented, the lessons readers should learn are straightfoward. It is notnecessary to implement the exact process described in this paper to teach and assess teamworkand life-long learning. If you want to teach and assess the ability for life-long learning, givestudents an assignment in which they have to demonstrate that they can learn new things on theirown, and then assess their ability to do so. If you want students to have the ability to
Paper ID #42985Exploring the Relationship Between Infill Ratio, Infill Pattern, and Materialin 3D-Printed Part Performance ˜ California State Polytechnic University, PomonaMs. Ayla Acuna, Undergraduate at California State Polytechnic University, Pomona for Bachelor of Science in Manufacturing Engineering. Currently a Junior and expects to graduate December 2025.Dr. Moe Rabea, California State Polytechnic University, Pomona Extensive experience in applied research and development in material and manufacturing engineering for improving properties of diverse types of material surfaces. In-depth experience of
1500 1000 500 0 0.00 0.50 1.00 1.50 2.00 2.50 3.00 Distance from Weld Center (in.) Figure 9: Maximum Temperatures from FEA ModelDiscussionNo measurements of time-temperature history were made, either during welding or during thecooling phase. The graph of time/temperature from the simulation, Figure 8, shows thatalthough the heat does conduct into the cooler regions of the cap screw, it should not be expectedto result in enough heat treatment to develop
, multimeter).The multifunction data acquisition card provides signal digitization capability and static digital I/O. Tenof the stations use a 12-bit PCI 6025E data acquisition card and one station uses a higher resolution16-bit PCI 6035E card. The GPIB card gives the system control over the bench equipment. Eachstation is also equipped with National Instruments’ LabVIEW to allow the PC to communicate with thehardware and to post-process data. National Instrument’s LabVIEW graphical programming languageallows the students to easily develop automated tests. The obvious differences between the PC-basedplatforms and the ATE are cost, speed, resolution, and sensitivity.III. Testing ProcedureTo acquire data for correlation purposes, the class is broken
, and global and societal contexts of their work. The students dogain a sense of some of the ethical and societal impacts of their work, through the considerationof the design aspects of process safety, the environmental impact of products or chemicals thatwould be produced should their project be implemented by the industrial sponsor, and themitigation or treatment of resulting waste streams. These big picture ABET criteria remainperhaps the most difficult challenge for incorporation in undergraduate engineering courses, andcontinue to present opportunities for curriculum development and pedagogical change.Differentiating Capstone Design from Student Co-op ExperiencesWhile an increasing number of students typically participate in co-op or
,geographic separation, or social distancing requirements could make it otherwise infeasible. Thispaper reports on the perception and impact of all these tools on student satisfaction in the course.IntroductionBackgroundCapstone Design courses are commonly implemented in undergraduate engineering curriculumto satisfy ABET accreditation requirements [1] and are an effective method to provide studentswith experience developing solutions for real-world design problems. Past research [2, 3] showsthe merit of these Capstone Design courses and describes the function of these courses. Acrossvarious Schools and Colleges, Georgia Institute of Technology (Georgia Tech) has over 1000students from around 200 teams to work on their course projects each semester
Paper ID #37223Work in Progress: Developing an Engineering Community ina FablabJan Edwards Jan L. Edwards is an Associate Professor of Engineering at the College of Lake County in Illinois. She received her Bachelor’s and Master’s degree in Materials Science and Engineering at Michigan Technological University. Ms. Edwards teaches general engineering courses, manages outreach initiatives and the CLC Baxter Innovation Lab at the community college. She is also serving as the Principal Investigator on the college’s NSF S-STEM grant, Building an Academic Community of Engineering Scholars.ANA PIZANO Ana K. Pizano
the author’s experience developing and teaching an undergraduateintroductory nuclear engineering course at the University of Florida that is suitable for studentsnot majoring in nuclear engineering. Table 1 shows the variety of institutions offeringintroductory nuclear engineering courses using data gathered from their public websites. Thecourses range from 1 to 3 credit hours and while some have mathematics and/or physicsprerequisites, others do not. The lack of standardization suggests that the design of the courses(number of credits, prerequisites, etc.) is unique to each institution’s needs. Table 1: Introductory Nuclear Engineering Courses Offered by Various U.S. Universities. Institution Course Title
Report, 1987.[9] UNESCO, “What is Education for Sustainable Development?,” United Nations Educational, Scientific and Cultural Organization, Sep. 06, 2016. https://en.unesco.org/themes/education-sustainable-development/what-is-esd[10] E. P. Byrne and G. Mullally, “Seeing Beyond Silos: Transdisciplinary Approaches to Education as a Means of Addressing Sustainability Issues,” in New Developments in Engineering Education for Sustainable Development, W. Leal Filho and S. Nesbit, Eds. Cham: Springer International Publishing, 2016, pp. 23–34. doi: 10.1007/978-3-319-32933- 8_3.[11] S. C. Rea, K. Shiekh, Q. Zhu, and D. Nieusma, “The Hidden Curriculum and the Professional Formation of Responsible Engineers: A Review of
students do not have therequired certificate to fly a drone, and not all institutions have nearby authorized UAV flyingzones, which make it difficult to carry out related educational activities.Considering the above facts, we are motivated to develop a platform with a list of laboratoryactivities that are consistent with the UAV cybersecurity curriculum materials, which aims atovercoming these non-technical challenges and enabling hands-on exercises. Besides, thisplatform is going to have the capacity of extension and serve as the base for instructors andresearchers to customize or develop additional modules. To be specific, software simulation (e.g.,SITL, software in the loop, known as SITL) will be mainly used in our developments, buthardware-in
capstone project; then they learnand practice project management and product development in their capstone project. Webelieve that this needs to be changed. Some of the basic ideas and tools commonly used inproduct development should be taught and practiced just like Ohm’s Law. Like any otherknowledge, the tools and skills needed for product development should be learned andpracticed in as many course projects as possible until it becomes a way of life in conductingan engineering project.The product development process and its importance are addressed in detail in references9,10.Dutson discussed the teaching of product development processes in capstone projects inreference6. Pauley et al11 used product development process for curriculum
. Any software developer for industries dealing with real-time systems has to be familiar withtechniques and tools that would allow him to stay competitive. Thus, the job of the educators isto enhance the curriculum by including in it those techniques and tools of real-time softwaredevelopment that are currently used in industry. Based on their experiences with real-time dataacquisition and control projects in avionics and high-energy physics, the authors developed andpreviously published a suite of experiments for teaching implementation and testing ofdistributed software, including topics such as semaphores, message queues, scheduling, priorityinversion, device drivers and real-time kernels2,3). The implementation platform involves
Session 2648 The Development of a Course in Programmable Digital Devices Rosida Coowar University of Central FloridaAbstractIn industry the requirement of short-time-to-market is playing an increasingly important role in product design.In the case of electronic equipment and devices this can be achieved by the use of programmable devices. It istherefore important for students, upon entry into the industry, to be conversant with the various architectures,development tools, trade offs and limitations of these devices. To this end a
Session 2526 Development of an Undergraduate Materials Laboratory in a Mechanical Engineering Department Scott R. Short Northern Illinois UniversityAbstract In the Department of Mechanical Engineering at Northern Illinois University (NIU), in DeKalb, IL,undergraduate mechanical engineering students are required to take two courses focusing specifically onmaterials: MEE 330- Materials Science and MEE 331 - Manufacturing Processes. Previously, these coursesconsisted only of lectures. However, with the
AC 2009-135: RECENT DEVELOPMENTS IN THE HAROLD FRANKENGINEERING ENTREPRENEURSHIP INSTITUTERobert Olsen, Washington State University Page 14.1010.1© American Society for Engineering Education, 2009 Recent Developments in the Harold Frank Engineering Entrepreneurship InstituteAbstractThe Harold Frank Endowment supports three programs. The first is the Frank Fellows programthat provides undergraduate engineering and business students with the tools and experiencesneeded to pursue entrepreneurial ideas. The one-year program consists of a summer program(on-campus introduction to entrepreneurship, one-week in the Silicon Valley and an internship)plus a
2006-144: STUDENT GENERATED REAL-TIME NOTE DEVELOPMENT ANDWEB PAGE ARCHIVALBruce Berdanier, Ohio Northern University Bruce W. Berdanier is currently an Associate Professor of Civil Engineering in the TJ Smull College of Engineering at Ohio Northern University. In this position, Dr. Berdanier is responsible for teaching all of the courses in Environmental Science, Water and Wastewater Treatment, Solid and Hazardous Waste, Surface Water Quality and Project Management that are included in the Civil Engineering curriculum. Additionally, Dr. Berdanier directs all teaching and research activities in the Environmental Engineering laboratory. Dr. Berdanier also conducts research in surface
educational goalshave been assessed over two year in several bioengineering departments across the countrywhere the manuscript is currently being used. Based on a course impact surveys and pre- andpost-tests focused on the conservation equations, statistically significant gains in acquiredknowledge and problem-solving skills development were seen. The NSF Division ofUndergraduate Education Course, Curriculum, and Laboratory Instruction (CCLI) program(DUE-0231313) funded this work. Page 11.474.2MotivationThe U.S. Bureau of Labor predicts an increase of 26% by 2010 in the employment of biomedicalengineers.1 The influence of market trends as well as the
serve as an effective problem-solving tool in many other situations. For example, Pauleyet. al.1 proposed using the design process to aid in curriculum improvement at Penn StateUniversity. This paper presents an approach for applying the design process to the design (orredesign) of a senior capstone design course.The author joined the mechanical engineering department faculty at Brigham Young University -Idaho in January of 2003. At that time BYU-Idaho had been a four-year university for less thanthree years (prior to that time the school had been a two-year institution known as RicksCollege). As a consequence of the transition from a two-year college to a four-year university,many new junior and senior level courses were being developed
University does in their heat transfer and fluidmechanics courses. Options include explicitly including some professional development content(and the career version of the ePortfolio) within technical courses, adding a sophomore-levelprofessional development course to the curriculum, or having students build course-specificePortfolios that focus on the students' mastery of that course's technical content (as opposed to amore general, career-spanning ePortfolio).Website software platforms: Several factors should be considered in choosing ePortfoliowebsite software including cost, security, flexibility, and long-term availability. Somecommercial sites are free. Other software may be available if one's institution purchases studentseat licenses
Paper ID #27256Pipeline Development of Skilled Students in Advanced Control SystemsDr. Ahmed Cherif Megri, North Carolina A&T State University Dr. Ahmed C. Megri is an Associate Professor of engineering. He received his HDR (Dr. Habilitation) in Engineering Sciences, from Marie and Pierre Curie University, Paris VI (Sorbonne Universities), in 2011, and his Ph.D. in Thermal Engineering, from Lyon Institute of Technology in 1995. He wrote more than 100 papers in the journal and international conferences. His research interests include thermal and mechanical modeling and simulation of materials. He participates in multiple
related to culture, curriculum, and community to achieve adaptability, innovation, and shared vision. Alongside her research, Dr. Ogle has been active in the development of engaged learning and has led two interdisciplinary undergraduate translational research and education courses - Clemson Engineers for Developing Countries (CEDC) and Clemson Engage. Both courses include trips to developing countries, international internships and sig- nificant fund-raising to support projects with community partners. As a result of her efforts, the CEDC program grew from 25 students to over 100 from 30 different departments and was recognized by the Institute for International Education (IIE) with the Andrew Heiskell Award. As a
technology-enabled frequent feedback. She currently works as the Project Manager for the NSF faculty development program based on evidence-based teaching practices.Prof. James A. Middleton, Arizona State University James A. Middleton is Professor of Mechanical and Aerospace Engineering and Director of the Center for Research on Education in Science, Mathematics, Engineering, and Technology at Arizona State Univer- sity. For the last three years he also held the Elmhurst Energy Chair in STEM education at the University of Birmingham in the UK. Previously, Dr. Middleton was Associate Dean for Research in the Mary Lou Fulton College of Education at Arizona State University, and Director of the Division of Curriculum and
-release polymers to undergraduate chemical engineering students. This lab isintegrated into an upper level technical elective that is focused on mass transport in biologicalsystems and the design and application of diverse drug delivery systems. The lab serves as theprimary experimental experience in the course and is designed to build on principles learned inother core curriculum courses, as well as introduce new experimental techniques and analyticalequipment. The specific student learning objectives of the lab are provided below.After completing this laboratory, students should demonstrate the ability to: Explain the purpose of controlled-release drug delivery systems and the advantages/limitations relative to conventional oral
University of Northern Iowa, a founder director of manufacturing engineering program at St. Cloud State University, Project Manager at Rensselaer Polytechnic Institute, and Visiting Scholar at TU-Berlin, Germany. Dr. ElSawy teaching and research interests are in the areas of material processing, metallurgy and manufacturing systems. His current research interests are in the areas of renewable energy, bioenergy from waste in order to reduce the carbon footprint and preserve natural resources for future generations. Dr. ElSawy received ˜ $2M of state, federal, and industrial grants in support of his laboratory development and research activities. He advised several masters and doctoral students who are holding academic and
, Ph.D., is an Associate Professor of Structural Engineering in the Department of Civil Engineering, in the Dwight Look College of Engineering at Texas A&M University. Luciana has been with Texas A&M University since 1999, and in that time has taught 15 different courses ranging from the freshman to graduate levels. She has been active in academic program and curriculum development from the department level to the university level, where she served as co-chair of the Quality Enhancement Plan (QEP) committee that determined the academic course of actions to be taken over the next accred- itation cycle to addresses critical issues related to enhancing student learning. She has received funding for her
career-relatedcapabilities. For instance, the work by Felder, et al, describe instructional methods relevant todeveloping the critical skills required of modern engineering graduates.1–3 As well, Feisel andRosa’s work describe the functional role of laboratories in engineering education, including theability to meaningfully assess the objectives set forth by EC2000 in the laboratory setting.4 Dym,et al, describe the role of design in the engineering curriculum and explore project-based learningas a method for developing these engineering capabilities.5 And, Prince and Felder describeinductive teaching and learning methods that include both problem- and project-based learningapproaches.6This manuscript compliments that body of research by
Engineering Education, 2016 Integrating Creative Writing and Computational Thinking to Develop Interdisciplinary ConnectionsAbstractA typical college curriculum does not make it easy for students to establish connections betweenrequired general education courses and courses in their majors. Intentional linking of coursesfrom different disciplines using interdisciplinary pedagogical strategies allows students to makethose connections while developing the interdisciplinary skills which will benefit their collegeand post-college careers.In addition to communication, critical thinking and reasoning, and collaborative skills, it hasbeen recently argued that computational thinking (i.e., the application of computing concepts
were then placed into one of two main themes/classifications inorder to answer the research questions. The first classification represented articles whose aimwas to identify the essential competencies that should be developed through an engineeringeducation, and the second theme of articles tended to define approaches for implementing thesecompetencies into education based curriculum or programming.ResultsThe following paragraphs elaborate upon the literature and each article’s relative positioning inthe themes focused on responding to the research questions in this paper.Theme 1: What are engineering Competencies?Five of the 23 articles were appropriate for the first theme, looking to identify essentialengineering competencies. Among the five
AC 2007-1067: DEVELOPMENT OF EFFECTIVE ONLINE LEARNING SYSTEMSFOR TECHNOLOGY-ORIENTED COURSESLeslie Pagliari, East Carolina UniversityRichard Monroe, East Carolina UniversityDavid Batts, East Carolina University Page 12.532.1© American Society for Engineering Education, 2007 Development of Effective Online Learning Systems for Technology-Oriented CoursesIntroduction:According to Everett M. Rogers, innovation is “an idea perceived as new by the individual,” anddiffusion is “the process by which innovation spreads” (16; 10). According to the bookDiffusion of Innovations written by Rogers (16): “The essence of the diffusion process is
courses.There is continuous growth in DE courses being offered in the United States today2. Accordingto the National Center for Education Statistics (NCES) in the 2000 – 2001 academic calendaryear nearly 90 percent of all public 2 and 4-year institutions were offering DE courses3. In thedevelopment of a new Master of Science in Technology Management degree there are manydecisions that must be made about the program. There are several questions about the admissionrequirements, curriculum, competency testing, and research requirements. Over the last severalyears however a new issue has arrived for departments developing new programs. How was theprogram going to be delivered