perceptions and levels of confidence in their abilities are changing. Ourhypothesis is that students (juniors, in materials engineering at Cal Poly) exposed to thedesign method through PBL activities would indicate a higher degree of confidence inpracticing the design attributes than the quasi control group (students from across thecollege of engineering at Cal Poly including civil, mechanical, electrical, manufacturingand aerospace engineering) who have not been exposed to our PBL based curriculum. Weshould note that students at Cal Poly are immersed in a “hands-on” learning environmentand so the control group has been exposed to some elements of the design method throughcourses outside of the department of materials engineering
Paper ID #28648Teaching Report Writing in Undergraduate LabsDr. Amber Genau, University of Alabama at Birmingham Dr. Amber Genau is an associate professor in the Materials Science and Engineering Department at the University of Alabama at Birmingham. She received her B.S. and M.S. from Iowa State University and Ph.D. from Northwestern University, all in materials engineering. Before coming to UAB, Dr. Genau spent two years as a guest scientist at the German Aerospace Center in Cologne, Germany, working on metal solidification and microstructural characterization. She is particularly interested in broadening
. Page 26.465.1 c American Society for Engineering Education, 2015 Design of a Hybrid Classroom Structure for Teaching Engineering Strength of Materials at a Community CollegeAbstractTeaching fundamentals of engineering Strength of Materials (also called Mechanics of Materials)is challenging as a semester long course because there are nine chapters of required content. Thisarticle discusses new hybrid classroom methods and survey results implemented in the spring of2015 at Salt Lake Community College. The hybrid classroom uses lecture videos, which studentsare to review outside of class, to present theoretical principles and simple examples; this allows formore class time to spend working on more complicated
parts of complex systems, a considerationrealized at the beginning of the design process [18]. In the ABET requirements and criteria, formechanical engineering technology, the programs prepare graduates with knowledge, problemsolving ability, and hands-on skills to enter careers in the design, installation, manufacturing,testing, technical sales, maintenance, and other endeavors typically associated with mechanicalcomponents and systems [18]. Therefore, the optimal methods of instruction are to bring somedesired outcomes in knowledge and skills in materials and manufacturing technology forundergraduate students in the engineering technology programs. Figure 1: Transforming student learning-outcomes by m-POGILFigure 1 presents a schematic
. Furthermore, the mathematical modeling of the deformation behavior of polymers posesdistinct challenges at the undergraduate level. For example, in mechanical engineeringcurriculum, students are first briefly introduced to the science and engineering of polymers in atwo hundred level course on materials. The subject of mathematical modeling that can be used tosimulate their deformation behavior can only be lightly broached due to the number of othertopics, such as metals, phase diagrams etc., that must also be included in this course. A morebinding constraint is imposed by the level of mathematical sophistication inherent in thesemodels, and the requisite programming skills necessary to conduct a meaningful investigation ofvarious test conditions and
Engineering Technology at the Rochester Institute of Technology. She is the Program Chair for Undeclared Engineering Technology. Dell received her B.S. in Mechanical Engineering from Kettering University and has an MS in Macromolecular Science & Engineering from the University of Michigan. She has worked in the automotive industry in the development of plastic products from fuel system components to interior trim. Page 15.231.1© American Society for Engineering Education, 2010 Biodegradability of Plastics Testing in an Undergraduate Materials LaboratoryAbstractAs a
brief description of our re-designed learning activities to improveoutcomes in future years.1. Introduction1.1 Diffusion as emergent process and “levels confusions”Atomic-scale diffusion is a critical physical behavior in the field of materials science as well asmany other areas of science and engineering. Diffusion is also well documented in educationliterature as difficult to understand, especially when the main mode of instruction is lecture-based as opposed to inquiry-based [1]–[3]. One difficulty stems from “levels confusion” [4] inwhich a person attributes properties of the macro-level to the micro-level or vice versa. Forexample, traffic jams emerge from collection of cars in transit, and, surprisingly, they move inthe opposite direction
engineering from Stanford University and her B.S. degree in metallurgical engineering from the Michigan Technological University.Mr. Rishi Kripalani c American Society for Engineering Education, 2017 An Origami Microfluidic Battery: A low-cost, hands-on activity on the materials science of batteriesAbstractPaper microfluidic technologies are emerging as a promising disruptive technology for low-costsensing and detection. Researchers have developed a number of sensing and actuating devicesthat allow the design and creation of microfluidic devices using standard office software andequipment. These devices can be easily designed and produced in a first- or second-yearengineering
in Operations Research, the Business Process Management Journal, the Case Research Journal and Water Resources Research. She is a member of the Institute of Industrial Engineers (IIE), the Institute for Operations Research Management Science (INFORMS), the Production and Operations Management Society (POMS), and the American Society for Engineering Education (ASEE).Venkat Allada, Missouri University of Science and TechnologySusan Pariseau, Merrimack College Page 15.766.1© American Society for Engineering Education, 2010 Integrating Hands-On Discovery of Lean Principles into
Time Wise setting was used at Site 2 to provide a scenario for other topics covered inthe course, including time study, Right Hand/Left Hand charts, muda, and process flow charts.Some were hands-on activities (e.g., examining certain operations in the clock building processas examples for LH/RH chart construction and understanding), while for others, Time Wiseexample were used to support lecture.At Site 3, the simulation materials were used in the first of a two-part Introduction to Engi-neering course. Students major in engineering, and may concentrate in a specific engineeringdiscipline. The simulation was used during two of the regular 3-hour class sessions, the first ofwhich was facilitated with on-site support from a Time Wise lean
engineering majors. As a result,one of the ever-present challenges in teaching a required introductory MSE course to a broadengineering audience is creating student buy-in. We posit that this barrier can be overcome bysituating materials selection within the context of a college campus. In this study, we implementa final project in an undergraduate Intro to Materials Science course which requires students toweave together technical knowledge from the course with their own life experience to solve aproblem on campus. Through a student survey, we seek to understand the sources of knowledgestudents leverage in order to identify and address an on-campus materials-related challenge. Wefurther explore the impact of this project and the MSE course as a
testing, the expansion of theproject during the newly awarded Phase II project, and directions for the sustainability of theproject following the NSF funding period.IntroductionMore and more chemical engineering (ChE) graduates are entering careers that involveapplications in the life sciences[1]. Traditionally, ChE education focused on petrochemical orinorganic chemical processes. Many ChE departments have attempted to address the need tobetter prepare graduates by requiring biology courses or offering elective courses that apply theChE principles to biological applications.To facilitate the incorporation of biological applications in the ChE undergrad curriculum, awebsite has been constructed with solved problems to accompany popular ChE
Paper ID #7815Implementing a Flipped Classroom in ThermodynamicsDr. Evan C. Lemley, University of Central Oklahoma Professor Lemley teaches thermo-fluid engineering and works with undergraduates to perform fluid dy- namics research mostly focused on small scale flow problems. He currently is an Assistant Dean of Math- ematics and Science and a Professor of Engineering and Physics at the University of Central Oklahoma; his home institution of almost fifteen years. Previously, Professor Lemley worked as a mechanical engi- neer in the power industry. His Bachelor’s degree is in physics from Hendrix College and his M.S.M.E
laboratory styleexperiments at home using these kits will provide a valuable hands-on learning experience.Introduction:Originally, the main thrust for this work lied in the fundamental assumption that hands onexperiences universally lead to greater student outcomes in introductory mechanical engineeringcourses [1]. We operated under parameters set forth by Benson [2], Dollár [3, 4], and others thateven under the best of circumstances, online curriculum are usually a substitute or at least a mildpanacea for in-person, kinesthetic activities [5]. Of major importance to many of these works isthe persistence of the dreaded if students simply engaged in more “real engineering” thoughtmonster that arises as a panacea any time the community embarks upon a
Paper ID #36552Middle School Teachers Lesson Modules on AI topics from Summer Work-shopSuren Jayasuriya, Arizona State University Suren Jayasuriya is an assistant professor jointly between the School of Arts, Media and Engineering (AME) and the School of Electrical, Computer, and Energy Engineering (ECEE) at Arizona State Uni- versity. Prior to this, he was a postdoctoral fellow at the Robotics Institute at Carnegie Mellon University from 2016 - 2017. He received his Ph.D. in Electrical and Computer Engineering from Cornell University in 2017, and a B.S. in Mathematics and a B.A. in Philosophy from the University of
Session 1547 PLC Systems - University Course Material or Industrial Training Material ? Don Zeller Assistant Professor, Engineering Technology Department, Fenn College of Engineering, Cleveland State UniversityIntroductionIn the late 1960’s, a new electronic device made its debut, at the request of the automotiveindustry. It was called a programmable logic controller (PLC) and its function was to replace anexisting system of machine control logic. The existing system was based on an electro-mechanical device called a relay and the machine
partnered with public libraries to conductengineering activities with children in grades 2-5. This partnership enhances the capacity of thelibrarians to conduct hands-on engineering, provides role models to children, and builds the ability ofthe engineers to inspire children. Project BUILD libraries offer a variety of programs that maximizelearning in the library setting: they are social events that directly engage caregivers; center on creativity;and encourage children to try again through the Engineering Design Process.Additional InformationProject BUILD is a National Science Foundation-funded project. In Project BUILD, librarians conduct 1 – 2hour programs for children in grades 2-5 once a month for 4 months, with engineers from the
: Launching a “Hands-On” Engineering TechnologyApproach To Conducting Hands-On Statics and Dynamics Laboratory Courses, ASEE AnnualConference and Exposition, 2004, Salt Lake City, Utah. DOI: 10.18260/1-2--12865[15] J. A. Kypuros, H. Vazquez, C. Tarawneh, and R. R. Wrinkle, Guided discovery modules forstatics and dynamics, ASEE Annual Conference and Exposition, 2011, Vancouver, BC. DOI:10.18260/1-2—18043[16]B. R. Campbell, L. E. Monterrubio, Laboratory Development for Dynamic Systems Throughthe Use of Low-Cost Materials and Toys, ASEE Annual Conference & Exposition, 2014,Indianapolis, Indiana. DOI: 10.18260/1-2--20730.[17] B. S. Sridhara, Course-related undergraduate projects for dynamics, In ASEE AnnualConference and Exposition, 2013, Atlanta
Engineering Technology(ENGT) program. According to the program description, engineering technology educationemphasizes primarily on the applied aspects of science and product improvement, industrialpractices, and engineering operational functions. A capstone two-semester senior project course isa part of the engineering technology curriculum. This course provides the students with anopportunity to address and experience the critical problems faced in the day-to-day life of anengineer in an advanced manufacturing industry. One such problem is to measure friction and wearrate between materials to improve the performance of mechanical machinery used in industrialapplications.The aim of this senior design project is to design and fabricate a working
included a reference to a preliminary report whichsuggested a bifurcation of engineering curricula into two types of programs: a generalprofessional category and a scientific professional category. The former would focus on morepractical applications to meet the needs of industry and the latter would be centered on math andscience geared towards careers in design, research, and development. This proposal was rejectedby the engineering faculty who reviewed the preliminary report, and the consensus was that allengineering curricula should incorporate strengthened basic science content. Despite therejection of this proposed bifurcation by the engineering community, many universities beganexpanding their existing two-year technology programs into four
Session 1464 Incorporating Concepts of Nanotechnology into the Materials Science and Engineering Classroom and Laboratory Wendy C. Crone, Arthur B. Ellis, Amy C. Payne, Kenneth W. Lux, Anne K. Bentley, Robert W. Carpick, Donald Stone, George C. Lisensky, S. Michael Condren University of Wisconsin-Madison, Madison, WI / Beloit College, Beloit, WI / Christian Brothers University, Memphis, TNAbstractThe National Science Foundation-supported Materials Research Science and Engineering Center(MRSEC) on
chemistry into the new course (including somechemistry labs) presented an opportunity to create materials science labs.The labs are essential for those who are hands-on learners. We believe this has improvedretention of a certain set of students who were previously drifting away from engineering, longbefore the engineering lab experiences of the junior and senior years. The labs illustrate andexpand on concepts covered in lecture. In fact, student evaluations specifically mentioned thatcertain concepts only made sense after the lab.The labs provide an opportunity to include non-traditional materials in the course. For example,although the course does not have room to cover concrete during lectures, this would obviouslyengage the prospective civil
one of the core areas in several engineering disciplines, includingmechanical engineering. At the TJ Smull College of Engineering at Ohio Northern University,Materials Science is a required course for mechanical and civil engineering majors and anelective for other engineering majors. This course is offered in both fall and spring semesters fora total of 160 students annually. Typically, mechanical engineering students enroll in MaterialScience during their first year, whereas students from other majors enroll during sophomoreyear. Maintaining student motivation and engagement is challenging since these students havelittle engineering background. Moreover, Materials Science is a highly interdisciplinary course.The course content spans many
, and simulation of real-life applications.Exposure to laboratory experiences fosters skills such as measurement and data analysis,attention to detail and teamwork, etc., all crucial in a professional engineering setting. A studyfrom the National Academy of Engineering further highlights the significance of “hands-onexperiential knowledge of how things work...” [12]. Consequently, applying theoreticalknowledge to practical scenarios, including through laboratory experiences, plays a pivotal rolein preparing students for the dynamic challenges they will face in their workplaces.The MET program currently houses two hands-on laboratories, with one specifically designedfor material science and strengths of materials, and the other dedicated to
Paper ID #38381Investigating the Impact of Arts on Student Learning byIntroducing Glass Science in the Materials EngineeringCurriculumKatrina Donovan (Lecturer)Jon J Kellar (Professor)Michael West (Assoc. Professor & Chair)Cassandra M Degen (Associate Professor) Dr. Cassandra (Degen) Birrenkott received her B.S. degree in Metallurgical Engineering from the South Dakota School of Mines and Technology in 2007. She received her Ph.D. in Materials Science and Engineering in 2012 from the University of Illinois at Urbana-Champaign, studying mechanochemical reactions of a spiropyran mechanophore in polymeric materials
Applying a Writing-to-Learn Strategy in a Traditional Material Science and Engineering Course Darin Ridgway, Valerie L. Young, and Kendree J. Sampson Ohio University Department of Chemical Engineering Athens, OH 45701AbstractA traditional Material Science and Engineering course at Ohio University has been modified touse a Writing-to-Learn approach, with the primary focus on demonstrating qualitativeunderstanding of the relationship between the microstructure and the properties of materials.The format for the qualitative portion of the course centers around daily reading and writingassignments
AC 2012-2977: SCIENCE FOR NON-SCIENCE MAJORSDr. Robert M. Brooks, Temple University Robert Brooks is an Associate Professor of civil engineering at Temple University. He is a fellow of ASCE. His research interests are engineering education, civil engineering materials, and transportation engineering.Jyothsna K. S., Jyothsna K. S., Department of English, St.Joseph’s College, Bangalore, eecured a gold medal for the high- est aggregate marks in the Post Graduate English Literature course at St.Joseph’s College (autonomous). K. S. has been working for the Department of English, St.Joseph’s College for almost two years now, teaching both undergraduate and postgraduate courses in English. K. S. has published papers in
incomprehending classroom material but also provide practical applications of theoreticalconcepts, thereby fostering students' interest in their college education. Interest is a keymotivator for student engagement [1] . However, some hands-on practices may discouragestudents, especially when gaps between fundamental theorems and new technologies on themarket have been widening. Some basic theorems are difficult to be verified by using complexhigh-tech devices or may be too complicated to employ effectively. Students may requiresignificant time to learn how to use these devices and may even waste time if immediateassistance is unavailable. Some students may give up if they face with excessive difficulties.Some old or out-date lab devices are easily used
Innovation Space, which allows student collaboration, exploration, andteamwork. Since not all of our Chemical Engineering students have the opportunity to be part of TheArt of Making course, over six years ago, our department incorporated a hands-on design projectto be part of our material and energy balance course, which our students take the fall semester oftheir sophomore year. In previous years (2016-2019), our students have completed a hemodialysisdesign project. In this design challenge, students design, construct, test, and evaluate a device thatmimics a hemodialysis system. Teams select from various membranes (of differing pore size anddiameter), pumps (or gravity driven flow), flow configuration, and are to minimize dialysate(water
quantities related to the First Law of Thermodynamics.The students purchased a low-cost TeCS kit consisting of individual components, which theyassembled. Beginning in the first week, the students utilized the TeCS to apply thermodynamicsconcepts and continued to use it throughout the course. The students measured temperatures, airflow rates, mass, electrical current, and voltage to analyze the energy inputs and outputs of thesystem. The course material was designed to increase their understanding and intuition offundamental principles through the hands-on projects related to their systems, culminating in athorough analysis of the entire system.This study assesses the impact of the TeCS on engineering self-efficacy using a validated pre- andpost