multifunctional polymer matrix nanocomposites and bio-based resins, and investigation of the glass transition phenomena in amorphous polymers and polymer blends using experimental and computational techniques. Page 15.830.1© American Society for Engineering Education, 2010 Laboratory Experiments in Thermal Analysis of Polymers for a Senior/Graduate Level Materials Science CourseAbstractIn the lab accompanying a senior/graduate level Physical and Mechanical Properties of Polymers course,five new lab experiments in thermal analysis of polymers were developed to supplement the classroomlectures and the existing
Page 23.756.3both to the graduate education of nanotechnology and continuing research interactions betweenthe two collaborating institutions. Bharati Vidyapeeth, the parent organization of Bharati Vidyapeeth Deemed Universitywas established in 1964 to impart quality education. Since then, it has grown many fold andincorporated graduate and post-graduate education in several fields that include Basic Sciences,Engineering, Medical Sciences, Management, Law, Arts and Commerce. Today BharatiVidyapeeth incorporates 165 institutions. Many of the Universities in India are governmentoperated with several institutions under its umbrella. For example, Pune University is a publicuniversity. The “Deemed to be University” are generally privately
Engineering Education, 2007Supplementary Learning Methods in Materials Science EducationAbstractThe mechanical engineering curriculum in our department contains two required materialscourses, supplemented with several technical elective courses dealing with the state of the art inadvanced materials. We are involved in the introductory materials science course and in thetechnical elective courses. A newly-developed technical elective course Thin and Thick Films isdesigned for students seeking to learn about one of the most important branches of materialsscience, namely the science and technology of materials in the form of films. This paper reportsour experiences and approaches in achieving the course objectives more effectively by means ofusing
graduates that have gone directly into the field upongraduation, with the remaining students choosing to continue their education within the field at agraduate level to enhance their research and development capabilities.Industry continues to have a need for undergraduate engineering education at a baccalaureatelevel in composite materials as advancements are made in both materials and processingmethods. The WSU-CME program is a direct response to those needs and continues to be at theforefront of composites education. The curriculum continues to remain current because ofindustries involvement with assessments and advisement from professional practitioners andexperts in the field. The niche remains for this level of composites engineering education
AC 2011-1144: ASYNCHRONOUS USE OF ENGINEERING (MATERI-ALS) EDUCATION VIDEOSCraig Johnson, Central Washington University Craig Johnson, Ph.D., P.E., is a professor at Central Washington University teaching materials courses and managing their foundry. He coordinates both the Mechanical Engineering Technology and Industrial Technology Cast Metals programs.Arthur D. Morken, Central Washington University Mr. Morken is a Graduate Teaching Assistant at Central Washington University. With more than ten years experience as an educator Mr. Morken has been immersed in educational technology relevant issues. Due to the escalating demands placed on instructors he is constantly looking for more efficient methods of student
a small red grain (left), and a zoomed-in view of the structure showing a triple point (right) Watching the evolution of this microstructure was a key experience for Liz. She started tomove from rote memorization and a topic-specific model to more general, principled knowledge.This excerpt took place when she was observing a triple point, a region where three grains meetand the flipping probability is the same for all (as there are two atoms of each grain around thecentral element).Liz: Right here there is an equal position for red, yellow and blue, but it just happens to be thatblue won, it keeps winning.Interviewer: How would you explain that?Liz: Because... it you look at one of those points, either of the three colors
Paper ID #26373Learn Materials: Making an Introductory Online Materials ResourceDr. Soma Chakrabati, Granta Design, Ltd. Hannah Melia leads the development of CES EduPack and Granta’s Education Hub at Granta Design. She has a degree in Materials Science and Metallurgy and a Post Graduate Certificate in Design, Manu- facturing and Management from the University of Cambridge. She has worked in the United States and Germany on medical device design and technology transfer. Over the last 10 years she has interacted with academics that use CES EduPack around the world.Dr. Kaitlin Tyler, Granta Education Division Kaitlin is
courses to other sustainability-related educational efforts on campus.IntroductionSustainability has become an increasingly important consideration for society in general as wellas for the engineering profession. Materials engineering is particularly important for addressingsustainability, since materials engineers are involved both in the production and processing ofmaterials with low energy use and low environmental impact (supply side) as well as in theselection of materials (demand side). Thus, sustainability concepts are especially relevant inmaterials engineering courses and curricula.Sustainability content can be integrated into existing materials engineering courses or presentedin separate courses, both of which have value. Integration
and PhD im Materials Science and Engineering from Texas A&M in 2009. Working on metallurgy, severe plasric deformation, mechanical behaviors of metallic materials and corrrosion engineering.Mr. Josiah Cherian Chekotu, Dublin City University M.Sc. graduate in Applied Materials, Mechanics and Design from Sultan Qaboos University in Oman. Currently, PhD researcher in Advanced Metallic Systems Centre for Doctoral Training (I-Form research centre) at Dublin City University in Ireland. c American Society for Engineering Education, 2020 ASEE 2020 Annual Conference & Exposition, 21-24 June 2020, Montreal, Canada A Significant Learning Approach for Materials
AC 2008-260: EXPERIMENTS IN MICRO-/NANO-CHRACTERIZATION OFMATERIALS SURFACESSurendra Gupta, Rochester Institute of Technology “Vinnie” Gupta is a Professor of Mechanical Engineering and Materials Science & Engineering, and the recipient of the 2000 Eisenhart Award for Excellence in Teaching. At RIT, he teaches undergraduate and graduate courses in Applied Mechanics, Computational Techniques, and Materials Science. Page 13.596.1© American Society for Engineering Education, 2008 Experiments in Micro-/Nano- Characterization of Material SurfacesAbstractThis paper describes major revisions made in Spring
was to prepare an educational resource to supplementformal instruction that offered deeper, stand-alone coverage of selected processing topics thanelementary textbooks that incorporate broader but shallower surveys arranged in an evolutionarypattern to establish the foundation of a class. The paper describes the author’s own experiencesin writing the book and addresses broader lessons learned.IntroductionThe World Wide Web and public libraries are replete with wonderful resources on how to write abook. The abundance of accumulated wisdom of well-published authors enshrined in suchresources undeniably is a valuable guide for beginners planning to tread an uncharted territory.This paper has a more modest goal: it describes the author’s own
structures, and actinide oxide solid-solutions. She is an Office of© American Society for Engineering Education, 2009 incorporation into mineral structures, and actinide oxide solid-solutions. She is an Office of Civilian and Radioactive Waste Management Fellow, which supports her graduate research. In her four plus years as a graduate student, Shuller has been a graduate student instructor for two Materials Science and Engineering courses and assisted in two semesters of Mineralogy in Geological Sciences. In addition, for the past two years she has organized and lead a two-week high school course through the Michigan Math and Science Scholars program. This year Shuller began
CourseAbstractSustainability issues were introduced into an undergraduate corrosion course by means of specialassignments and case studies. There are actually two courses; an undergraduate course calledCorrosion Engineering, ME 349 and a graduate course called Corrosion, ME 387Q and they aretaught together. In addition to the traditional types of assignments that focus on forms ofcorrosion and methods of testing for and mitigating corrosion, the course was redesigned to bringsustainability issues to the forefront; specifically with respect to undergraduate education.Much attention was paid to topics in the news and in recent journal articles and a special sectionwas added on corrosion issues associated with clean energy technologies. . Two case studieswere also
at New School for the Arts and Academics, an alternative arts high school.Andrea Marta Eller, Arizona State University Andrea Eller is an undergraduate at Arizona State University in the School of Materials at Arizona State University. After graduation she will be attending graduate school in Materials Science and Engineering. She has been working as an undergraduate teaching assistant in the Introductory Materials course for two years.Stephen J Krause, Arizona State University Stephen J. Krause is Professor in the School of Materials in the Fulton School of Engineering at Arizona State University. He teaches in the areas of bridging engineering and education, capstone design, and introductory materials
AC 2009-1388: REDESIGNING MATERIAL SCIENCE FOR MILLENNIALSTUDENT LEARNINGCindy Waters, North Carolina A&T State University Page 14.1018.1© American Society for Engineering Education, 2009 RE-DESIGNING MATERIAL SCIENCE FOR MILLENNIAL STUDENT LEARNINGAbstractFaculty are responsible for teaching courses that are current and use pedagogy up to date with thestudents of today. The current generation of university students consisting of those born after1980 and graduating high school following the year 2000 are pegged the Millenials1. Thisgeneration, has demonstrated many unique characteristics that can make them successful in theacademic and
Associate Professor in Mechanical Engineering and Engineering Education, and an affiliate faculty of Industrial & Systems Engineering at Virginia Tech. She is Director of the Center for e-Design, a multi-university NSF I/UCRC center. Her research focuses on methods and representation schemes for early design process and on engineering design education. She was previously faculty at the University of Massachusetts and worked at General Electric (GE), including the completion of a two-year management program. She is a member of ASEE, ASME, IIE, and Alpha Pi Mu and is the Design Economics area editor for The Engineering Economist and the Associate Editor for the ASME Journal of Mechanical
AC 2012-3628: MEASURING FIRST-YEAR ENGINEERING STUDENTS’KNOWLEDGE AND INTEREST IN MATERIALS SCIENCE AND ENGI-NEERINGQu Jin, Purdue University, West Lafayette Qu Jin is a graduate student in the School of Engineering Education at Purdue University. She received a M.S. degree in biomedical engineering from Purdue University and a B.S. degree in material science and engineering from Tsinghua University in China. Her research focuses on modeling student success outcomes, which include placement, retention, academic performance, and graduation.Dr. Senay Purzer, Purdue University, West Lafayette Senay Purzer is an Assistant Professor in the School of Engineering Education and is the Director of Assessment Research for the
enhance their lives as they search forrelevance in the activities they choose and the classes that they take. A challenge to educators isto increase the relevance of engineering core courses without spending an enormous amount oftime planning changes to enhance student engagement. As educators, we are aware of topics inthe core courses that are difficult for our students to learn, yet necessary for their development asengineers. Teaching styles that work with millennial students involve an instructor acting asfacilitator of learning. Providing directed active engagement within the educational environmentfrom the start of their experience will greatly assist the learning process of these students.The modules described in this paper were created to
institutions for training and educating next generation of engineeringworkforce with a more integrated approach for materials development.Consequently, our primary goal was to develop a course to support the generation of futuretaskforce of engineers who would be motivated to work in dynamic, shared, and collaborativelearning environments and would use the materials knowledge and the computational toolsleveraged through the shared CI for new materials discovery and development. The result is thecourse named “ICME for Metals” that was designed as an effort to address the above mentionedissues by integrating ICME directly into the traditional educational curricula and was deployedas a part of fall 2012 and 2013 graduate coursework in mechanical
at Arizona State University. He teaches in the areas of bridging engineering and education, design and selection of materials, general materials engineering, polymer science, and characterization of materials. His research interests are in innovative education in engineering and K-12 engineering outreach. He has been working on Project Pathways, an NSF supported Math Science Partnership, in developing modules for Physics and Chemistry and also a course on Engineering Capstone Design. He has also co-developed a Materials Concept Inventory for assessing fundamental knowledge of students in introductory materials engineering classes.Jacquelyn Kelly, Arizona State University
to their earlier examination performance.Introduction The conventional pedagogy of teaching in lecture format is slowly veining awaysince the higher education institutions are profoundly focusing on the student centered-learning technique to improve student retention and graduation rates. Historically manyclassroom instructors at higher education institutions thought that the delivery throughlecture format might help disseminating a huge body of knowledge to large number ofstudents at a given time. However, the most frequently cited article authored by Barr andTagg1 presented the paradigm shift, From Teaching to Learning to create a student-centered learning environment for promoting discovery and problem solving skills of thestudents
on the Next Generation Science Standards (NGSS). Among all theperformance expectations from these science standards, incorporating high school engineeringdesign requires more effective collaboration between K-12 teachers, higher educators, scientists,and engineers. Without such collaborative effort, K-12 teachers could face tremendouschallenges for the design and implementation of meaningful engineering education lessons thatcould meet the standards. Summarized in this paper are the design and implementation ofmaterials science and engineering educational research offered to high school rising seniors insummer 2019. The summer training program provides students an opportunity to learn the designcriteria for fabricating bone scaffolds and to
AC 2009-1725: ENHANCING FUNDAMENTAL MATERIALS ENGINEERINGEDUCATION USING BIOMEDICAL DEVICES AND CASE STUDIESKathleen Kitto, Western Washington University Page 14.567.1© American Society for Engineering Education, 2009 Enhancing Fundamental Materials Engineering Education Using Biomedical Devices and Case StudiesAbstractDuring the past six years several best practices in teaching and learning have been implementedin our Introduction to Materials Engineering course to transform the course from a traditionallecture only course to a course that is centered on conceptual and active learning. In addition,this academic year the content of the course was also
discuss the attributes of our curriculum design and provide some dataon its effectiveness to date.OVERVIEW OF CURRICULUMLike many engineering curricula, ours begins with a primary focus on general education (math,science, liberal arts). As shown in Figure 1, roughly 25% of the units in the curriculum are in the area of liberal arts, 35% in year→ engineering support courses (math, science, engineering science) and the 1 2 3 4 remainder in materials engineering ~35% engineering ~40% major (MATE
Outstanding TRB Paper. Page 25.1503.1 c American Society for Engineering Education, 2012 “Green Projects to Pavements” A Project-Based Learning Approach to Introducing Sustainability to Civil Engineering StudentsAbstractToday’s education system generally adheres to a deductive style where instructors present thefundamentals that lead to application. In addition, the majority of engineering students arevisual, sensing, and active learners, whereas traditional delivery of course material inengineering academia is auditory, passive, and sequential. The objective of
Materials at the undergraduate level for four yearsand a related course covering similar topics at the graduate level for ten years. Both coursescover the structure of materials (metals, ceramics, and polymers) over a range of length scalesfrom atomic to microscopic, as well as experimental techniques used to investigate thesestructures, especially diffraction and microscopy.The instructor became increasingly interested in pedagogical techniques that have the potential tobe more effective than the traditional lecture-based format. In particular, he has been influencedby Eric Mazur’s peer instruction method (which is based on in-class concept tests) and morebroadly by approaches that favor having students engaged in group activities rather than
the main differences in the ABET criteria that are not explicitlyincluded in the Mexican ones are: the Program Educational Objectives, Student Outcomes andContinuous improvement. In our case, satisfactions of these criteria required a set of actions andstrategies. One of the general strategies was to integrate the Program Committee which includesfive people, i.e., the Program Coordinator and four members of the Faculty. To enrich the processand following a practice that have proved to work well in our graduate programs, we alsointegrated an External Advisory Council specific to the program. In the following, we describewith certain detail the Program Educational Objectives, Student Outcomes and the ContinuousImprovement process along with
engineering. During his thirty years plus at Houston Community College, he has formed collaborations across the country that have provided the opportunity for HCC students to participate in innovative research and materials programs. A significant number of these students have completed their undergraduate education, entered and finished their graduate education, and transitioned to careers. Mr. Sheinberg has Bachelor’s Degrees from the University of Texas (Austin) and University of Houston and a Master’s Degree from the University of Texas Graduate School of Biomedical Sciences (Houston). He serves on numerous regional, state and national committees. He is married to Beth Finefield, and they reside in Kingwood, TX.Dr
graduate students are and continue tobe actively engaged in creating and optimizing SLED activities for use in partner schools. Thispaper addresses and discusses implications of prior work on introduction of MSE disciplinarycontent for K-12 education, including nanotechnology, in the context of existing and evolvingstandards for math and science education at the elementary level and discusses strategies fordeveloping MSE-related content for these grade levels.Background on the Status of K-12 Engineering EducationWhen most engineering educators discuss K-12 education they are likely consideringdevelopment of content for students at the secondary level. Even if activities include a range thatreaches the elementary school level, teachers may be
AC 2009-1670: INTRODUCTION TO REENGINEERED MATERIALSAjit Kelkar, North Carolina A&T State UniversityRonnie Bolick, North Carolina A&T State University Dr. Ronnie Bolick is a research scientist in the department of Computational Science and Engineering. His areas of expertise include composite manufacturing, experimental stress analysis, ceramic matrix composites, impact testing, fatigue and fracture mechanics. Page 14.815.1© American Society for Engineering Education, 2009 INTRODUCTION TO REENGINEERED MATERIALSAbstractIn the recent years US aerospace, trucking, heavy equipment industry and civil