part of the intern program offered atPacker Engineering. In a program stretching back more than 30 years, students have performeda vast array of tasks here. During building expansions, they plumbed toilets and painted beams.When the neighboring highway construction drained our pond, they mapped out a remediationplan. As new equipment was brought in, students read the manuals, ran experiments, and thendeveloped standard operating procedures. At the same time, they aided consulting engineers ineverything from laboratory testing to grueling field work to statistical analysis. Page 13.1302.3During summer 2007, a confluence of R&D projects produced
ISU College of Engineering Scholar’s Day inthe spring semester (also a recruiting visit for high school seniors who have been offeredscholarships from the College of Engineering). During Family Weekend in September, MaterialAdvantage members provide tours of the MSE facilities to alumni, families, and prospectivestudents, with a focus on undergraduate laboratories and classrooms.Service opportunities for the community have included assisting the Society of WomenEngineers organize and host a Halloween Haunted House for children from the ages of five to Page 13.867.4ten, participating in the ISU Dance Marathon fundraiser for Children’s Miracle
minute class with an extended laboratory period on Friday, allowingup to two hours for these activities. Each student was assessed by her/his performance onquizzes, exams, homework assignments, and written work associated with the lab activities.The lab activities completed in this manufacturing processes (Spring 2007) course included:a) “Attention to Detail” – writing and following directions for an everyday task,b) Machine Shop Observation – turning and milling of three different materials using the samemachining parameters with a worksheet,c) Video Field Trips – viewing of technical videos independently with brief written report,d) Industrial Field Trips – touring a manufacturing facility with a written trip report,e) “Quick-n-Dirty” CNC
., Prince, M., and Harding, T., Special Session: Innovate Pedagogies forTeaching Introductory Materials Courses, ASEE Annual Conference, 2010. In Electronic Proceedings10 Stair, K., and Crist, B., Using Hands-On Laboratory Experiences to Underscore Concepts and to CreateExcitement about Materials, ASEE Annual Conference, 2006.11 Gregg, Colin, Schroer, Hunter, Weed, Joshua, and Jordan, William, Banana Plants: Using Waste to Clean Water,presented at the Annual Meeting of the American Scientific Affiliation, Hamilton, Ontario, Canada, July 2014.12 Jordan, William, Ortega, Eric, Metcalf-Doetsch, Carlton, Hoglund, Robert, and Holden, Joseph, Using NaturalFiber Reinforcement for Adobe Brick Making, presented at the Annual Meeting of the American
Medical Device Implants in the United States. Hyattsville, MD:National Center of Health Statistics, 1988.5. Black J, Shalaby SW, LaBerge M. Biomaterials Education: An Academic Viewpoint.Journal of Applied Biomaterials. 1992;3:231-6.6. Vanderbilt N, Texas, and Harvard-MIT Engineering Research Center.http://www.vanth.org/curriculum/curr_bio_domains.asp.7. Saterbak A, editor Laboratory Courses Focused on Tissue Engineering ApplicationsProceedings of the 2002 American Society for Engineering Education Annual Conference & Page 26.670.6Exposition; 2002.8. Pittsburg Tissue
assumed that they were a different set of lecture slidesrather than a method to summarize and synthesize concepts to reinforce learning. This may havecontributed to their negative reception. d. Tempered glass lecture demonstrationThe tempered glass demonstration was highly regarded by the students who felt that theyunderstood the concepts much better after having seen the demonstration in class. They foundthis and other demonstrations to be very engaging and entertaining and better for conceptretention. Furthermore, students felt demos were more valuable than laboratory sessionsincluded in the course curriculum. Students did not consider labs helpful, since they watched theteaching assistant demonstrate an experiment rather than getting the
laboratory. This paper will discuss a novel design of a folded, paper microfluidicbattery based on the work of N. Thom et al. that can power a surface-mounted light-emittingdiode. This origami design, named for the Japanese art of folding paper called origami, allowsone to print and assemble postage-stamp sized paper batteries for an initial equipment investmentof under $1000 (a wax printer and micropipettes). Although the start-up cost of supplies is a fewhundred dollars, the approximate cost per postage-stamp sized battery is on the order of $0.10.The design presented here has a folded footprint of 1 cm2 and outputs an open circuit voltage of2.5 V for over 15 minutes. Once printed, the dosing of electrolytes and the salt bridge, assemblyand
laboratory course.This course has been taught as a traditional introduction to Materials Engineering. Over theyears the author has used a number of editions of William Callister’s Materials Science andEngineering [1], now in its Ninth Edition.The course topics are rather typical for an introductory materials course. The topics covered areshown in Table 1 below. Table 1 ME 3322 Materials Engineering Baylor University Course topics for years 2014, 2017, 2018 2014 shows what has traditionally been covered 2017 and 2018 show after new topics were added into the course Chapter
aspects of fiber-reinforced composite materials, design and simulation based upon CLT and FEA of typical composite structures are emphasized. Topics include: constituents and interfacial bonding, microstructure and micromechanics, theory of anisotropy, classical laminate theory, material characterization, failure and damage, manufacturing techniques, composite structure design, and introduction of nanocomposite.The Mechanical Engineering Department of Kettering University has an enrollment of 1300students, one of the largest in the country. For the past 75 years, Kettering University has strivedto provide its students with top quality classroom instruction, state-of-the-art laboratory facilitiesand career
College in Lynnwood Washington. Theintent of this center is to locate, peer review, and post materials science curricula as well assupport faculty members who wish to develop their own materials. In addition, MatEd’s staffwill provide workshops to help faculty development curriculum. The initial work for theMatED’s team involved the identification, categorization, and prioritization of materials sciencecore competencies needed by technologists. These core competencies will guide faculty in thedevelopment of classroom and laboratory exercises as well as assist in the development ofcurriculum that addresses ISO 14000. This standard is an attempt to influence how raw materialsare handled during extraction, refining, processing, recycling and reuse
2002 American Society for Engineering Education Zone 1 Conference &Exposition[3] Sobinski-Smith, Mary Jane, D’Amour Library, www.wnec.edu webpage[4] Katherine Chen, etal., Travelogue from the Materials World: A first week laboratory activity,Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Page 22.873.11
., Sonak, B., & Suen, H.K. (1999). Concept map assessment of classroom learning: Reliability, validity, and logical practicality. Journal of Research in Science Teaching, 36, 475-492. 3. Markow, P.G. & Lonning, R.A. (1998). Usefulness of concept maps in college chemistry laboratories: Students’ perceptions and effects on achievement. Journal of Research in Science Teaching, 35, 1015-1029. 4. Hoz, R., Bowman, D., & Chacham, T. (1997). Psychometric and edumentric validity of dimensions of geomorphological knowledge which are tapped by concept mapping. Journal of Research in Science Teaching, 34(9), 925-947. 5. Lowes, Leslie, & Nolan, Tom. Why Water? Retrieved on January 6, 2011 from http
other is on the factors that promote persistence and success in retention of undergraduate students in engineering. He was a coauthor for best paper award in the Journal of Engineering Education in 2013.Dr. Nancy Ruzycki, University of Florida Director of Undergraduate Laboratories, Faculty Lecturer, Department of Materials Science and Engi- neeringDr. Amber L. Genau, University of Alabama at Birmingham Dr. Amber Genau is an assistant professor in the Materials Science and Engineering Department at the University of Alabama at Birmingham. She received her BS and MS from Iowa State University and PhD from Northwestern University, all in materials engineering. Before coming to UAB, Dr. Genau spent two years as a
. at Friedrich- Schiller-University in Jena, Germany for his theoretical work on transparent conducting oxides. Before he started at UIUC he worked as a Postdoctoral Researcher at Lawrence Livermore National Laboratory on a project that aimed at a description of non-adiabatic electron ion dynamics. His research revolves around excited electronic states and their dynamics in various materials using accurate computational methods and making use of modern super computers in order to understand, for instance, how light is absorbed in photo-voltaic materials. c American Society for Engineering Education, 2018 Measuring Student Learning of Crystal Structures
, “Integrating Computational Modeling Modules into Undergraduate Materials Science and Engineering Education,” 2016, [Online]. Available: https://scholarworks.boisestate.edu/mse_facpubs/276.[20] A. J. Magana and R. E. Garcia, “FiPy and OOF: Computational simulations for modeling and simulation of computational materials,” in Proceedings of the 117th Annual Conference of the American Society of Engineering Education (ASEE), Louisville, Kentucky, June, 2010, pp. 20–23.[21] S. P. Brophy, A. J. Magana, and A. Strachan, “Lectures and Simulation Laboratories to Improve Learners’ Conceptual Understanding,” Advances in Engineering Education, vol. 3, no. 3, 2013, Accessed: Nov. 04, 2018. [Online]. Available
processing, mechanical processing, and applications ofmetallic materials. All students design experiments and use modern laboratory equipment toanswer a question of technical significance for a particular application. All students gain insightsinto the control, modification, and prediction of material properties and microstructure. Allstudents learn to identify the roles that processing may play in determining the usefulness of amaterial in a practical context. Each project team, however, identifies its own goals andquestions, creates its own learning strategies, and designs its own experimental plan. As with thefirst project, students complete written self-reflections at the conclusion of the second project.Table 1. Example analytical approaches
example of such a group. Classification of materials (metals) Chemical elements do not break down during normal laboratory reactions involving such treatments as heating, exposure to electric current, or reaction with acids. There are more than 100 known elements that combine in a multitude of ways to produce compounds, which account for the living and nonliving substances that we encounter.9-12 Structure of Matter is made of minute particles called atoms, and atoms
possibility to continue the work into the second senior (summer) semester (potentially 3more credits). It was clear in the planning process that students desired design and constructionas an important aspect of the proposed scope of work.4.1 Scope of Work and Research PlanThe original list of proposed research topics generated by the faculty considered what wasalready known about student interest, faculty interest, laboratory capabilities, and timeconstraints. That list was: 1. Mechanical testing of a variety of 3D printed materials, including common materials infused with strengthening agents. Candidate materials included: • High strength PETT t-glass • ABS carbon fiber 5% • Multi-walled carbon nanotubes
–757, 2011.[6] J. Martín-Gutiérrez, C. E. Mora, B. Añorbe-Díaz, and A. González-Marrero, “Virtual technologies trends in education,” Eurasia J. Math. Sci. Technol. Educ., vol. 13, no. 2, pp. 469–486, 2017.[7] S. Barab, M. Thomas, T. Dodge, R. Carteaux, and H. Tuzun, “Making learning fun: Quest Atlantis, a game without guns,” Educ. Technol. Res. Dev., vol. 53, no. 1, pp. 86– 107, 2005.[8] W. Winn, “Research into Practice: Current Trends in Educational Technology Research: The Study of Learning Environments,” Educational Psychology Review, vol. 14, no. 3. pp. 331–351, 2002.[9] R. Reilly, “Virtual laboratories: Enhancing deep learning in model-based knowledge domains,” IEEE Trans. Educ., vol. 51, no
SolidMechanics and Design of Mechanical Components. Therefore, positive feedback is often receivedfrom the students. More details will be discussed in the assessment of the students’ learningoutcome section in this paper. (a)(b)Figure 7. (a) The experimental setup of 3D printed dogbone coupon; (b) Mechanical testingresults of four types of 3D printed coupons.The design and characterization of 3D printed nanocomposite materials is a suitable researchproject for junior undergraduate students when they study critical mechanics courses. In the lasttwo years, the project has been carried out as independent undergraduate research projects for thesenior students working in the authors’ research laboratory. Under detailed guidance
. The inspiration to structure a course around the designing andbuilding of educational museum displays was inspired by similar innovative classactivities by Crone4 and Pruitt5. MATE X424 was offered in the Fall of 2006, and was a2-unit activity (i.e., cross between a lecture and laboratory type class). The class met for4 hours a week, and much of the class time was devoted to actually working on thedisplays. The small class size of 6 students allowed us to truly work together as a team.Due to the service learning component of the course, the students were now working fortheir client, Chick Fidel and the school children. The instructor functioned more as theproject manager, rather than the judge that determines their grades (although that task
Bridge Decks”, Intl. SAMPE Technical Conf., p. 2903 (2004).10. K. C. Chen, B. London, L. Vanasupa, T.T Orling, and L. Christensen, “Travelogue from the Materials World: A First Week Laboratory Activity”, ASEE Annual Conf. Proc., 3664 (2004).11. W. D. Callister, Fundamentals of Materials Science and Engineering: 6th Edition, John Wiley and Sons, (2001).12. PRIME website: http://www.engr.sjsu.edu/sgleixner/PRIME/13. M. Alley, M. Schreiber, and J. Muffo, “Pilot Testing of a New Design for Presentation Slides to Teach Science and Engineering,” 35th ASEE/IEEE Frontiers in Education Conf., T1A-1 (2005).14. S. Krause, J.L. Decker, J.L. Niska, T.L. Alford, and R. Griffin, “Identifying Student
school teachers connecting math, science and engineering.Amaneh Tasooji, Arizona State University Amaneh Tasooji is an Associate Research Professor in the School of Materials at ASU and has been teaching and developing new content for materials science and engineering classes and laboratories. She has developed new content and contextual teaching methods from here experience as a researcher and a manager at Honeywell Inc. She is currently working to develop new assessments to to reveal and address student misconceptions in introductory materials engineering classes. Page 12.540.1© American Society
Paper ID #6148How to Write a Textbook in Ten Easy StepsDr. Barry Dupen, Indiana University Purdue University, Fort Wayne Dr. Dupen is an Associate Professor of Mechanical Engineering Technology at Indiana University Purdue University Fort Wayne (IPFW). He has nine years’ experience as a metallurgist, materials engineer, and materials laboratory manager in the automotive industry. His primary interests lie in materials engineer- ing, mechanics, and engineering technology education. He is also an experienced contra dance caller
. 2. Prince. M. (2004). “Does Active Learning Work? A Review of the Literature.” Journal of Engineering Education: 93(3) 223-31. 3. Berret, D. (2012). “How Flipping the Lecture Can Improve the Traditional Lecture.” The Chronicle of Higher Education. Retrieved from http://chronicle.com/article/How-Flipping-the-Classroom/130857/. 4. Mazur, E. (2009). "Confessions of a Converted Lecturer: Eric Mazur." Retrieved from http://www.youtube.com/watch?v=WwslBPj8GgI. 5. Berger, C., N. Kerner, et al. (1999). “Understanding Student Perceptions of Collaboration, Laboratory and Inquiry Use in Introductory Chemistry.” Association for Research in Science Teaching, Boston MA
undergraduate engineering course enrolled by junior level students in theMechanical Engineering Technology Department at the University of Pittsburgh Johnstown (UPJ). It is a3-credit course held each fall semester followed by a 1-credit laboratory during the following spring Page 23.56.2semester. When the author taught this course using a traditional lecture approach, it was noticed thatstudents were very focused on memorizing materials science information. The students were moreinterested in knowing how to solve a problem rather than understanding the problem and the concepts. Inaddition, there was a lack of excitement and student-centered
. The POGIL approach relies on inquirybased, student-centered classrooms and laboratories that enhance learning skills whileinsuring content mastery.8,9,10 With POGIL, students can acquire key processing skills as theylearn the discipline content. Our new instructional strategies are to improve or develop thematerials and manufacturing curriculum utilizing by “Process-Oriented Guided Inquiry-Learning” (POGIL). With POGIL, students can acquire key processing skills as they learnthe discipline content.Literature in the field of student learning indicates that the POGIL approach has beeneffectively used in disciplines such as mathematics, biology, and chemistry for post-secondary education.9 However, we have found no reports proving the efficacy
U-M. Her current research interests include the effect of instructional technology on student learning and performance, effective teaching strategies for new graduate student instructors, and the impact of GSI mentoring programs on the mentors and mentees.Joanna Mirecki Millunchick, University of Michigan Joanna Millunchick is Associate Professor of Materials Science and Engineering, and is affiliated with the Applied Physics Program and the Michigan Center for Theoretical Physics at the University of Michigan. Prior to joining UM in 1997, Millunchick was a Postdoctoral Fellow at Sandia National Laboratories. She received her B.S. in Physics from DePaul University in 1990, and her Ph.D. in
2013. In general, in these evaluations we received relatively minor observationsoriented to reinforce the admission and tutoring programs so that the graduation rates wereenhanced and the failures rates on Basic Science courses were reduced. In particular, we haveweaknesses in the field of Mathematics, this a common problem in Latin American engineeringprograms12 that in our opinion does not receives enough attention. In our case, since 2005 wehave put in place a collaboration with a French University (INSA-Lyon), oriented at reinforcingteaching and learning practices on Engineering Mathematics. Another important recommendationwas to establish a program to update and renew the laboratory equipment as well as put in place amaintenance program