Session 3220 Production of Digital Internet Video Material for Streaming Applications Z. Chambers, M. B. Taylor, J. Iannelli and A. J. Baker University of Tennessee Knoxville, TN 37996-2030AbstractThe rapid growth of Internet-based teaching curricula has prompted a new direction for distanceeducation - the streaming of live video lectures to remote student sites for on-demand education.This live material is exceptional while the post-processed static files are better than nearly allcurrently produced streaming video formats. The
).Supply and demand shifters:- as changing performance and price will change sales, the studentsare given the basics for “estimating” the effects of changing sales price and performance. Theyare asked to justify there assumptions.By interspersing statics, and business with programming the students are given programmingassignments which are immediately relevant and time to debug their programs.Strength of Materials (Design for Mechanical Engineers)Although material selection was simplified for freshman, it is possible for sophomores to selectmaterials for a given application and do some design. This course was taught with thephilosophy that the innovative learning techniques used in statics had to be applied or all was fornaught.The emphasis on
Environmental Engineering at Washington State University, where she teaches Statics, Mechanics of Materials and Engineering Administration. She was selected by the students of her department as the Outstanding Teacher for 2009. She is also the mother of two sons and two daughters. All four are college students, one pursuing a PhD in mathematics, one a PhD in Biomedical Engineering, one an MS in Civil Engineering, and one an undergraduate in Civil Engineering.Dr. Denny C. Davis P.E., Washington State University Dr. Davis is Professor of Bioengineering and Director of the Engineering Education Research Center at Washington State University
Southeastern Interactive Entertainment and Games Expo. He also participates on the Entertainment Engi- neering Subcommittee of the American Society of Mechanical Engineers. Preston’s industry experience includes system development for a mobile platform and media company. He has participated in games- for-learning and community building grants to enhance STEM education and was recently awarded an NSF grant entitled ”Using a Virtual Gaming Environment in Strength of Materials: Increasing Access and Improving Learning Effectiveness” that develops 3D simulations/games to improve learning among engineering students. Additionally, he has spoken at two recent NSF-sponsored workshops on gaming in engineering and computer science
Jersey Prentice Hall 5th ed. 1996 2. Jacobs, J. and Kilduff, T. Engineering Materials Technology Upper Saddle River, New Jersey Prentice Hall 3rd ed. 1997BIOGRAPHYEd Gohmann is an Associate Professor of Mechanical Engineering Technology at PurdueUniversity Programs at New Albany, Indiana. He is self taught in Engineering Materials and hasbeen teaching Introductory Materials I for 19 years. He has a Master of Engineering inMechanical Engineering and a Bachelors in Aeronautical Engineering. Page 2.286.6
experiments also help the student to develop powers of observation and reportingas well as teach them something about the corrosion process.References1. Brown, Theodore L., et. al., Chemistry: the central science, 5th edition, Prentice-Hall, 1991, pg. 733.2. Budinski, Kenneth G., Engineering materials: properties and selection, 5th edition, Prentice-Hall, 1996, pg.423.3. Brown, Theodore L., op. cit. pg. 121.4. Budinski, Kenneth g., op. cit. pg. 4215. Dalton, William K., The technology of metallurgy, Macmillan Publishing Company, 1994, pg. 307.6. Budinski, Kenneth G., op. cit., pg. 423.7. Fellers, William O., Materials science, testing and properties for technicians, Prentice-Hall, 1990, pg. 152-153.John Williams is Assistant Professor of Mechanical
identifying how to incorporate advances from the learning sciences into authoring curriculum, assessment, and learning materials to appropriately support learning processes.Prof. Michael L Falk, Johns Hopkins University Michael Falk is an Associate Professor of Materials Science and Engineering at Johns Hopkins University with joint appointments in the department of Mechanical Engineering and the department of Physics and Astronomy. He earned his Ph.D. in theoretical physics from UC Santa Barbara in 1998. His primary research area is computational materials science as applied to understanding non-equilibrium properties such as failure modes and plasticity in amorphous metals, phase transformations in energy storage ma
University (Mechanical En- gineering), and The University of Utah (in both Materials Science and Engineering, and Metallurgical Engineering). Nonacademic pursuits include tending his orchards (he’s a fruit philanthropist) and playing the piano.Dr. David G. Rethwisch, The University of Iowa Dr. Rethwisch is a professor of chemical and biochemical engineering at the University of Iowa. His current research interest is assessing the impact of secondary curricula (particularly problem/project based learning curricula) on student interest and pe ©American Society for Engineering Education, 2023 A New Paradigm for Learning the Fundamentals of Materials
2006-1080: DEVELOPMENT OF EDUCATIONAL MATERIALS FOR ABIOENGINEERING FUNDAMENTALS COURSEAnn Saterbak, Rice University Ann Saterbak is Director of Laboratory Instruction and Lecturer in the Bioengineering Department at Rice University. She received her B.A. in Chemical Engineering and Biochemistry from Rice University in 1990 and her Ph.D. in Chemical Engineering from the University of Illinois in Urbana-Champaign in 1995. She conducted research and provided technical support within Shell Development Company from 1995 to 1999.Ka-yiu San, Rice University Dr. San is a professor in the Departments of Bioengineering and Chemical Engineering at Rice University. Dr. San received his B.S
Paper ID #30603Opportunities in Manufacturing of Advanced Materials for Second CareerSeeking StudentsDr. Oleksandr Kravchenko, Old Dominion University Dr. Kravchenko is working in the area of structural analysis with focus on composite materials for various engineering applications. He received his M.S. and Ph.D. from Purdue University and completed two years of postdoc from Case-Western Reserve University. Dr. Kravchenko is actively collaborating with his colleagues at ODU on understanding the key elements of academic success for non-traditional, second- career, engineering students.Dr. Konstantin Cigularov, Old
Based Learning in the Mechanics of Materials Laboratory,” Eng. Educ.,[2] Nasr, K. J., & Ramadan, B. H., (2005). “Implementation of problem-based learning into engineering thermodynamics,” ASEE Annu. Conf. Expo. Conf. Proc.[3] Jonassen, D. H., and Khanna, S. K. , (2011). “Implementing Problem Based Learning in Ma- Terials Science,” Am. Soc. Eng. Educ.,[4] G. Mason, T. Shuman, yen han, and K. Cook, (2015). “Facilitating Problem-Based Learning with an Inverted Classroom,” p. 26.752.1-26.752.10[5] Perez-Mejia, A.A., (2019). Blending project-based learning and the flipped classroom model in a Civil Engineering course, ASEE Annu. Conf. Expo. Conf. Proc.,[6] Nasr, K. J., & Ramadan, B. H., (2008). Impact
that enable civil engineering studentsto identify, formulate, and solve engineering problems. The Department of Civil andEnvironmental Engineering at Villanova University is investigating how to better presentmaterial in the core mechanics courses to better meet the educational needs of the students andimprove learning. The core sequence in mechanics at Villanova University consists of fivecourses: Statics/Dynamics, Mechanics of Solids, Civil Engineering Materials, Fluid Mechanicsand Fluid Mechanics Laboratory. To determine the current state of practice in mechanicseducation, the authors conducted a survey of civil engineering mechanics curricula at fiftyuniversities. Civil engineering curricula present mechanics in a variety of courses and
experiments related to testing of materials is very much appreciated by students. 3. The laboratory component of the course complements the theory portion of the main Advanced Civil Engineering Materials course. 4. Students have better handle on the materials for the evaluation of physical, mechanical and chemical properties. 5. Especially, it is very helpful if the students get jobs in state Department of Transportation to deal with roadway construction materials.ReferencesABET, 2020, The Accreditation Board for Engineering and Technology website accessed on March 6th,2020.Rajarajan Subramanian, 2019 Fall syllabus of Civil Engineering Materials and the 2020 Spring syllabusof Advanced Civil Engineering Materials Courses
presented in the lectureclasses. Some students preferred advanced machining (Use of CNC machines) but thought theshop experience was worthwhile. The student evaluations were generally positive and thestudents enjoyed the lab sessions where they learned a variety of manufacturing and assemblyprocesses, and developed an appreciation for the working of machine tools and other equipment.The supplemental activities following each manufacturing process helped to tie in the lecture andlaboratory classes.BIBLIOGRAPHY[1] Manufacturing Engineering and Technology,, Kalpakjian, S., and Schmidt, S., 6th Edition, Prentice Hall, 2010..[2] Materials Selection in Mechanical Design, Ashby, M. F., Fourth Edition, Butterworth-Heinneman, 2006
Technological University. She earned her Ph.D. degree in Mechanical Engineering from Uni- versity of Illinois at Urbana-Champaign in 2011. Her resear ©American Society for Engineering Education, 2023 Development of entrepreneurial mindset-driven training materials for undergraduate researchers Maysam Nezafati, Irene Reizman, Michelle Marincel Payne, Liping LiuAbstract:The importance of undergraduate research can be emphasized from two perspectives: first, itenhances students' engagement in learning, and second, it increases the productivity of researchlabs by employing undergraduate students as professional scholars. Many labs have difficultyimplementing undergraduate research (UGR
model of cognitivearchitecture that includes a discrete, limited-capacity working memory component 12-14. Apart of this model surmises unique working memory processing mechanisms for auditoryand visual information 13. Two largely independent working memory processingmechanisms means information load that might overwhelm one of these processingsystems can be effectively managed when divided across two of these systems. Thismodel assumes that text delivered on a printed page would load on the same workingmemory system as a printed illustration while the same text delivered as narration wouldload on the phonological system. Multimedia researchers applied this theory to confirmadvantages (in some cases) to designing instructional materials that had
theseconsiderations, the aspect of materials selection is seldom addressed.GENERAL CURRICULUM ISSUESIt is the opinion of the author that there is a definite need to include the basic elements ofmaterials selection before one embarks on the aspect of strength design of machineelements. This outlook needs to be introduced early on in the design curriculum. A fewbooks address this aspect, notably by Ashby [5] and Farag [6]. At the American Universityin Cairo, the materials selection course is introduced at the senior level but is not tied tothe course on the design of machine elements. However, very few curricula in the UnitedStates have the course on materials selection and if they do, there is no adequate tie-inwith the mechanical design course. For example
Paper ID #37519Improving the Quality of Data Graphics in Materials EducationDr. Barry Dupen, Purdue University Fort Wayne Dr. Dupen is a Metallurgist and Professor of Mechanical Engineering Technology at Purdue University Fort Wayne (PFW). He has nine years of experience as a metallurgist, materials engineer, and materials laboratory manager in the automotive industry. ©American Society for Engineering Education, 2023 Improving the Quality of Data Graphics in Materials EducationAbstractMaterials education is an inherently image-intensive and data-rich endeavor. Educators draw onprimary and secondary
of theaccreditation criteria on student learning outcomes3. The first learning outcome of the ABET,Criterion 3 (a), states that, "Engineering programs must demonstrate that their graduates have anability to apply knowledge of mathematics, science and engineering appropriate to thediscipline"3. Simply stated, this requires that students need to be able to transfer previouslyacquired knowledge and skills to new engineering learning situations and applications.One important subject area taught in a fundamental way in chemistry and in an applied way inengineering is the domain of materials. It is an area of fundamental conceptual knowledge that isapplied to a broad set of disciplines in chemical, mechanical, aerospace, physics and
sophomores, juniors, seniors and graduate students. Working invertically integrated teams, students were asked to design components using a commercialcomputer-aided design software package, perform analytical and finite element stress analyses,manufacture components using rapid manufacturing methods, and test components to verify theirmechanical performance. In the first project, a planar structural component was machined usingan abrasive waterjet (AWJ) cutting system. AWJ’s ability to machine a wide variety of materialsallowed students to select from materials with widely varying mechanical properties. In additionto satisfying loading requirements, each team was required to consider material costs, machiningcosts and recycling costs. In the second
can also create calcium silicate boards that easilyreplaces the currently used gypsum boards for walls and ceilings. It is above par in thermaland acoustic insulation, fire and water resistance, and mechanical strength than the gypsumboards used today. Strength, water resistance, and other factors are dependent on the ratio ofthe components and the production process.Methodology This project investigated the cost of building a house made with as many recycled andrenewable materials as possible. A 3D model of the house was constructed using Revit andCreo Parametric. A building material cost report has been created as an estimate to compareto the pricing of building a residential home through standard commercial methods. Thishelped
Session 2522 Engineering Materials - A Necessary Component of a Course on Manufacturing Processes Prince N. Anyalebechi Padnos School of Engineering Grand Valley State University Grand Rapids, MI AbstractCourses on manufacturing processes vary significantly in content from one engineeringprogram to another. This is usually predicated on the mission of the particular engineeringdepartment. This, in turn, is conditioned by
use in the United States1. Providing students withknowledge of solar water heaters is necessary of several disciplines. This project is connectedwith a mechanical and electrical course for Construction Engineering Management students.Purchasing test equipment is cost prohibitive for most programs. As an example; to deliver asufficient amount of solar hot water using commercially constructed systems for four to fiveresidents the cost varies from $8,000, to $10,0002. Utilizing several disciplines in the design andbuild process allows the students to work together and to have a greater understanding ofcomplexities of solar hot water construction and installation. The added advantage of usingrecyclable materials presents the use of alternative
exam versions B and/or C, in which case their overall exam score was found using “superscoring” of the three exam attempts: the best score on each section added together.For the final exam all students in both sections took just one version of the final exam. For thatexam, there was no regrade cycle. The exams were all graded according to the partial creditscheme and afterwards (and only for the purposes of this study, not for course grades) the rubricitems were mapped onto the 0%-80%-100% grading scheme.Key differences from MSUSeveral key differences between the implementation in this study and the implementation in [1, 2]are noted here: • This course is Statics and Mechanics of Materials, whereas the MSU course is Mechanics of
Paper ID #39352Impact of Computation in Undergraduate Curriculum : Alumni PerspectiveB. Rus¸en Argun, University of Illinois at Urbana - Champaign Rus¸en is a Ph.D. student in the department of Mechanical Science and Engineering, University of Illi- nois at Urbana-Champaign. He is the computational teaching assistant of the Materials Science and Engineering department for academic year 2022-2023, and participated in the teaching activities about computations in several undergraduate courses. His research is about coarse-grained simulations of soft materials. He enjoys sailing when the weather is nice.Prof. Andre Schleife
about the open-ended nature of the assignment. 5. One student complained about the fact that working groups had to gather materials for the validation of their analyses on their own and about having to design experiments on their own. 6. Five students were not pleased and grumbled openly about the fact that they were required to write a report in a lecture course on mechanics.Discussion and ConclusionsOne can legitimately wonder about the relevance of this type of assignment in a Mechanics class.In our experience, the relevance of the assignment is threefold. It is relevant 1) as an applicationof theory: many students are attracted to engineering because they are “doers”; they want tomake things, and so, they want to see how
students. In particular, a culminating projectabout the design of a steel signpost to support a billboard makes use of professional design standardspublished by ASCE, AISC, and AASHTO. This project, along with other design-oriented projects,is continued in the subsequent course of Introductory Mechanics of Materials; student performanceis tracked in this course and the further subsequent courses of Advanced Mechanics of Materials,and Structural Analysis3.Prior work by the authors5 showed favorable attitudes among students who learned Statics in thismanner. Of note here is that most students perceived the use of a simulation tool to be efficient. Afewer, but still significant number of students articulated that the use of simulation can aid in
Page 25.574.2institutions ranging from K-12 to undergraduate education 9-15. For example, Darmofal et al. 10 Figure 1. The structure and characteristics of concept maps 8developed concept maps to identify and organize key engineering concepts in the aerospaceengineering program at Massachusetts Institute of Technology. They reported that instructors attheir institution also developed concept maps and associated concept questions for a variety offoundational engineering courses such as thermodynamics, structures, and signals and systems.Egelhoff et al. 15 developed a concept map for a sophomore-level Mechanics of Materials course.The concept map was used as a tool to review the Mechanics of Materials course beforeadministering
studentinteraction and immediate instructor feedback.IntroductionInquiry-based learning is an educational approach that allows the student to take ownership overthe education process by self-identifying a problem and formulating their own solution 1,2 . Theapplication of this method of teaching was explored in an introductory mechanics course taken byboth engineering and engineering technology students.Students were tasked with applying the principles of fundamental engineering analysis to objectsfound in their normal surroundings over the course of the semester. By asking students tocomplete assignments where they had to apply engineering analysis to an everyday object, Iintended for the students to look beyond their textbook and relate the course material
Army tank maintenance training.Eddy Ramirez Eddy Ramirez is a graduate research assistant and graduate student in the School of Sustainable Engineer- ing at Arizona State University. Ramirez is fascinated in the geotechnical engineering discipline.Dr. Claudia E. Zapata, Arizona State University Dr. Zapata is a recognized expert in the characterization and modeling of fluid flow and volume change behavior of arid and semi-arid (unsaturated) soil mechanics. She is the author of more than 40 techni- cal publications and multiple research reports in the areas of unsaturated soil mechanics, environmental effects in pavement design, and unbound material characterization. While Dr. Zapata possesses an excel- lent