AC 2011-1821: LAB-IN-A-BOX: ASSESSMENT OF MATERIALS DEVEL-OPED TO SUPPORT INDEPENDENT EXPERIMENTATION ON CON-CEPTS FROM CIRCUITSKathleen Meehan, Virginia Tech Kathleen Meehan is an Associate Professor in the Bradley Department of Electrical and Computer En- gineering at Virginia Tech. Prior to joining Virginia Tech, she worked at the University of Denver and West Virginia University as well as having worked twelve years in industry. Her research interests include optoelectronic materials and devices and high heat load packaging in addition to Electrical Engineering pedagogy.Dr. Robert W. Hendricks, Virginia TechCortney V. Martin, Virginia TechPeter Doolittle, Virginia Tech Director of the Center for Instructional
Session 2793 Developing a Standardised Evaluation Methodology for Computer Based Learning Materials Aruna Palipana, Phil Barker, Steve Rothberg, Fiona Lamb Faculty of Engineering, Loughborough University, UK / Institute of Computer Based Learning, Heriot-Watt University, UK / Faculty of Engineering, Loughborough University, UK / Faculty of Engineering, Loughborough University, UKAbstractThe UK-based EASEIT-Eng project (http://www.easeit-eng.ac.uk/) aims to encourage orenhance the usage of existing engineering computer-based learning materials by
, mathematics, engineering andtechnology (SMET) education content and services to learners, educators, and academic policy-makers in K–12 and highereducation. SMETE.ORG was formed through funding by the National Science Foundation and partnerships with professionaleducational organizations, academic institutions and commercial e-learning companies. The partnership’s Web site,www.smete.org, serves as the integrative organization and distribution mechanism for pedagogical material through its federationof SMET digital libraries. Providing direct access and delivery of instructional resources, SMETE.ORG promotes educational
of three years worth of reports to check for improvement, thus providing strongerinter-rater reliability than evaluations done solely on an annual basis).But design reports alone are also limited in the information they provide, particularly if thereports match common workplace practices. Capstone projects in materials science andengineering that, for example, rely heavily on scientific research, may yield results mostappropriate for a journal article rather than for the type of technical design report common indisciplines such as mechanical or chemical engineering. The “design” may test the feasibility ofusing an existing material in a novel application or evaluate the impact of changes in specifiedmaterial characteristics on a given
Session 064 The Chunking of Course Material Delivery and Evaluation: A Case for Information Processing Management and Evaluation Mario G. Beruvides, Ph.D., P.E., Pilar Pazos, M.S.I.E. Jeffrey L. Hanson, M.S.I.E. Industrial Engineering Department Texas Tech University AbstractTeaching and learning styles are much studied, discussed and debated. There is a plethora offormats and opinions on this subject matter. Some styles have been more
metal foil is deformed by the laser dynamic forming.” “My major area of interest in failure prediction over a range of length scales. Finite element models are a core aspect of the analysis methods used to pursue this goal. By gaining an understanding of the mechanics and implementation of the finite element method I am better able to critique and refine results.” “Want to do diffusion related modeling rather than stress-strain composite materials modeling.”Evidence of Learning (assessment) - In this section we focused on how students perceived OOF Page 15.584.5as useful for their learning and their
Engineering andTechnology, a MSCE and a Ph.D. in Civil/Structural Engineering from New Jersey Institute of Technology,Newark, New Jersey. His research interests include fracture mechanics of engineering materials, compositematerials and advanced construction materials, computer applications in structural analysis and design, artificialneural network applications, knowledge based expert system developments, application based softwaredevelopments, and buildings/ infrastructure/ bridges/tunnels inspection and database management systems.AMRO A. TAIBAH Page 8.181.8Dr. Amro A. Taibah is an assistant professor in the Department of Landscape
AC 2011-1557: ONLINE INSTRUCTIONAL MATERIALS IN A HYBRIDINTRODUCTORY ENGINEERING GRAPHICS COURSE: AN INVENTORYOF SOLID MODELING CONCEPTSTheodore J. Branoff, North Carolina State University Dr. Branoff is an Associate Professor in the Department of Mathematics, Science and Technology Edu- cation at North Carolina State University. A member of ASEE since 1987, he has served as Chair of the Engineering Design Graphics Division of ASEE and as Associate Editor in charge of paper reviews for the Engineering Design Graphics Journal. He is currently President of the International Society for Geometry and Graphics. Dr. Branoff’s research interests include spatial visualization in undergraduate students and the effects of
propose several types of writing assignments such as journals,brainstorming, freewriting, and categorizing, that meet the needs of different learning styles toenhance learning. Felder and Brentv designed a variety of writing assignments that enhancestudents’ interest in course material and facilitate learning. Burrows et al.vi showed thatreflective journal enhances conceptual understanding and additionally improves learning ofcontent. Korgelvii found that journal writing exercises can improve deep learning and creativity.In the Chemical Engineering curriculum, Miller uses journal writing to foster the development ofhigher order thinking skills in a fluid mechanics course.viiiIn sum, writing assignments can be used as a tool to instill in students
2006-2069: INTRODUCING MATERIALS ENGINEERING CONCEPTS IN A HIGHSCHOOL AUTOMOTIVE TECHNOLOGY CLASSDevdas Pai, North Carolina A&T State University DEVDAS M. PAI is a Professor of Mechanical Engineering at NC A&T State University and Associate Director of the Center for Advanced Materials and Smart Structures. He teaches manufacturing processes and tribology related courses. A registered Professional Engineer in North Carolina, he serves on the Mechanical PE Exam Committee of the National Council of Examiners for Engineers and Surveyors and is active in several divisions of ASEE and in ASME.Gukan Rajaram, North Carolina A&T State University GUKAN RAJARAM is a PhD student in the Department
difficult to assess. As the workby Hestenes and Halloun on the Force Concept Inventory has shown, students may pass scienceand engineering courses but still retain alternate conceptions about the topics presented in thecourses. Therefore, substantial interest in concept inventory assessment instruments for manyengineering subjects, e.g., materials, signals and systems, fluid mechanics, has been generatedand numerous projects are underway. Since smart materials are being introduced intoundergraduate engineering curricula, assessing students’ understanding of these smart materialswould be reasonable. Therefore, two new concept inventories, one on shape memory alloys andone on piezoelectric materials, are being developed as part of a Combined Research
adjacencies”, asshown in Figure 3. Students may show atoms touching for some but not all of these positions.The guidelines stipulate that a correct answer should have atoms touching for at least 5 externaladjacencies and 1 internal adjacency. Figure 3. Illustration of the internal and external adjacencies on the FCC (111) plane.2. Study 1: Introductory Materials Science Coursea. Description of ImplementationCourse Description:Study 1 investigated student learning throughout an introductory materials science andengineering course at a large research institution. This course is primarily taken by sophomoreand junior students across the engineering school, and covers common introductory topics suchas crystal structures, mechanical properties, and
-2--10367. 12[14] T. A. Philpot, D. B. Oglesby, R. E. Flori, V. Yellamraju, N. Hubing, and R. H. Hall, "Interactive learning Tools: Animating mechanics of materials," in ASEE Annual Conference, 2002, doi: https://doi.org/10.18260/1-2--10366.[15] S. J. Stone, B. Crockett, K. S. Xu, and M. W. Liberatore, "Animation Analytics in an Interactive Textbook for Material and Energy Balances," in ASEE Annual Conference, Minneapolis, MN, 2022, doi: https://peer.asee.org/41361.[16] L. G. Bullard and R. M. Felder, "A Student-Centered Approach To Teaching A Student- Centered Material and Energy Balances. 2. Course delivery and assessment," Chemical Engineering Education, vol. 41, no. 3
universities with enrollment from about 10,000 to 15,000 students.At FGCU, this course was designed for undergraduate students in the Civil Engineeringdepartment. The objectives were: ‚ To identify and describe the physical, mechanical, and other important properties of the major civil engineering materials used including aggregates, asphalt binder, hot-mix asphalt, cement, concrete, wood, metals, plastic, and composite materials, ‚ To identify the relevant specifications and standards for these materials and to conduct relevant laboratory tests on almost all these materials, ‚ To design asphalt concrete and Portland concrete cement mixtures, grade asphalt binder, and evaluate the behavior of these materials and their
of activities with students from local high schools. He regularly teaches courses for the Mechanical Engineering, Engineering Education, and Materials Science and Engineering Departments at Virginia Tech. Dr. Clark has instituted a laboratory course at VWCC based upon the Lab-in-a-Box concept and is involved in the development of the learning materials that will support the circuits and electronics courses within the Engineering and Engineering Technology degree programs offered by the Virginia Community College System.Carl Shek, Virginia Tech Page 14.828.1© American Society for Engineering
make good-quality animations but notpractice questions.Future work includes investigating instructor-created materials using a crowdsourcedevaluation technique as done above.AcknowledgementThis material is based upon work supported by the National Science Foundation underSBIR Grant Nos. 1315094 and 1430537.References[1] Anderson, M. Crowdsourcing Higher Education: A Design Proposal for Distributed Learning. MERLOT Journal of Online Learning and Teaching, pgs. 576-590, 2011.[2] Amazon Mechanical Turk. https://www.mturk.com/. February 2015.[3] Balefire Labs. http://www.balefirelabs.com/. February 2015.[4] Bian, J. Learning to Recognize Reliable Users and Content in Social Media with Coupled Mutual Reinforcement. Proceedings of the 18th
Approach to Sustainable Material Selection Balancing Trade-Offs with Ashby ChartsAbstractThis paper explores the integration of Ashby charts into a Mechanics of Materials laboratorysession to enhance systems thinking and promote sustainable material selection amongundergraduate engineering students. The activity was designed around the EntrepreneurialMindset principles of Curiosity, Connection, and Creating Value while leveraging resourcesfrom the Engineering for One Planet framework. Students engaged in a two-week project toevaluate construction materials for a structural element, balancing trade-offs between propertiessuch as strength, density, stiffness, cost, and environmental impact. By creating Ashby charts,analyzing
AC 2012-3072: EDUCATIONAL MATERIALS DEVELOPMENT AND AS-SESSMENT FOR ENGINEERING HISTORY AND HERITAGEDr. Norb Delatte, Cleveland State University Norbert J. Delatte, Jr., P.E., F.ACI, F.ASCE, is professor and Chair of the Department of Civil and Envi- ronmental Engineering at Cleveland State University. He received his B.S. in civil engineering from the Citadel in 1984, a master’s degree in civil engineering from the Massachusetts Institute of Technology in 1986, and a Ph.D. in civil engineering from The University of Texas, Austin in 1996. Page 25.496.1 c American Society for
group of interconnected systems. Components of each system are described, andexamined, evolution of material selection is discussed. Common problems, their symptoms and solutions are treated.The emphasis here is to expose students to the concept of the laboratory through a “vehicle” all are familiar with on avisceral level.Mod 2: Mechanical Dissection - A Small Gasoline EngineThe purpose of this experience is to understand the form and function, and manufacturing concerns associated withthe production and use of a small four-stroke engine. Students are taken through the dissection in with step-by stepinstructions and asked to answer questions in their notebooks.Mod 3: Rapid Prototyping Casts a Long Shadow
Session 1526 ASSESSING STUDENT LEARNING FOR A MATERIALS, MANUFACTURING & DESIGN LAB Edmund Tsang Mechanical Engineering Department, University of South Alabama Mobile, AL 36688ABSTRACT A method to assess student learning in engineering design for a Materials,Manufacturing & Design laboratory course at the University of South Alabama isdescribed in this paper. This method uses faculty assessment and student self-assessment,as well as the correlation between the results of the two assessments. Assessment byfaculty is based on written design report, lab reports
AC 2011-1445: ENGAGED IN THERMODYNAMICS ADDRESSING THESTUDENT TO LEARNING MATERIAL INTERFACEPatrick A. Tebbe, Minnesota State University, Mankato Patrick A. Tebbe is an Associate Professor and Graduate Coordinator for mechanical engineering at Min- nesota State University, Mankato. He has degrees in both mechanical and nuclear engineering from the University of Missouri - Columbia. He is a member of ASME, ASEE, and currently serves as a Student Branch Advisor for ASHRAE.Nicholas Saucedo, Minnesota State University MankatoJeffrey Richard Pribyl, Minnesota State University, MankatoStewart L Ross, Minnesota State University, Mankato Stewart Ross, Ph.D. is the founding Director of the Center for Excellence in Teaching and
portable equipment can be utilized on-site,remotely via online meeting, or transport to a distance learning location conveniently. Apilot study of implementing the system in an online machine design course shows promisingresults.1. IntroductionTensile test is a required course for engineering material courses in most mechanical engineeringtechnology programs. A portable size tensile tester has been designed and developed for teachingpurposes. In reference [1], a low-cost tensile testing machine was designed with in-house madestructure and raspberry pie controller. The machine was designed by a three-student group. Thetester will be used in course teaching in the future, although no sample testing has beenconducted on the machine in the paper.In
were indexed to the in-class materials and the reviewedhomework, which were both retained as study data. The student’s homework and exams werealso retained as data.The studentThe student was born with minimal eyesight, never had the use of both eyes, and becamecompletely blind by early grade school. At the time of the course, she had progressed to junioryear status in the Mechanical Engineer program. It was not possible for her to take the standardengineering graphics class because the CAD modeler used a visual interface with high resolutionand situationally adaptive icons within the program.Assistive Technologies3D printed partsParts with a maximum dimension of 3 inches and a minimum feature size of ¼ inch were usedfor practice and homework
Session 1520 Too Much Material, Too Little Time: The computer education curriculum dilemma Rick Duley, S P Maj, A Boyanich Edith Cowan University, Perth, Western AustraliaAbstractAdding an engineering component into an already overcrowded computer science course tocreate a course suitable for the graduation of a potential professional Software Engineer (SE)reminds people of the problem of getting a quart into a pint pot — there is far too much materialand far too little time. Since Curriculum ’68 was published, designers of computer sciencecurricula have
Session 3464 Materials Science Course for Non-Majors: An Exercise in Experiential Learning Jamie Workman-Germann Indiana University Purdue University, IndianapolisTeaching Materials Science courses can be difficult. Teaching Materials Science coursesto non-majors can be even more difficult, but teaching Materials Science courses tofreshmen non-majors who have no chemistry or engineering background can beextremely challenging. The students in the Mechanical Engineering Technology (MET)program in the Purdue School of Engineering and Technology at IUPUI are required totake an
Page 25.261.3evaluate students, but they also serve to inform students of their progress and to point out areaswhere work is needed. Feedback should be timely to reduce exposure to content misperceptionsand reinforcement of correct understandings,2,3 but the time required to provide feedback tostudents is dependent on faculty time and the availability of grading support. The pressures onfaculty time are discussed at length at conferences and meetings, and institutional budgets dictatewhether grading support is available. In practice, this means that feedback is provided moreslowly than desired, but team testing provides immediate feedback by exposing students to theirpeers’ understanding of the material and testing their ability to contribute
Paper ID #16312Student Learning Materials for Ability Enhancement in an Engineering CourseDr. Kristine K. Craven, Tennessee Technological University Dr. Kris Craven is currently the Interim Director of the Basic Engineering (BE) Department and a tenured Assistant Professor of the same department at Tennessee Tech University (TTU). I have been employed by TTU since 2000 primarily teaching in the Basic Engineering Program. I have also been teaching junior level courses for the Mechanical Engineering department for several years. In addition to ASEE, I am a member of the Society of Women Engineers, American Society of
processing, mechanical/electrical testing, andmicrostructural characterization. Teams start by using software to generate Ashby plotscomparing various materials properties with the goal of selecting an alloy with the bestcombination of properties to win the competition. An example from a 2023 student team isshown in Figure 1 where the yield strength and elongation to fracture are compared. Studentteams are allowed to modify the chemistry of their alloys within the competition limits (up to tenweight percent alloy content) but must justify why changes were made. The teams then weighout all the components of the alloy, melt it in an induction furnace and pour two billets forprocessing. Figure 2 shows examples of the alloy components weighed out
required many materials testingorganizations to prepare a laboratory Quality Manual – documenting equipment,processes, etc. – for the first time.UNIVERSITY OF ARKANSAS MATERIALS LABORATORIESThe undergraduate civil engineering program at the University of Arkansas requiresstudents to complete three construction materials laboratories: Structural Materials(Portland cement concrete, aggregates, wood, steel), Soil Mechanics (soils), andTransportation Materials (aggregates, asphalt binder, asphalt mixtures). Each of theselaboratory experiences is conducted using a ‘professional laboratory’ approach. Thespecific goals of each laboratory are not identical; for example, the soil mechanicslaboratory is best described as a materials characterization effort
both cases, the course is intended tointroduce to the student the behaviors of materials under applied conditions and to equipthe graduate with ability to select and use materials intelligently. Each approach has itsbias and can be defended fully in terms of depth and breath of content and conversely canbe subjected to criticism. Engineering Industrial Technology Strength of Materials I & II Metallic Materials and Processes I Engineering Materials Science Metallic Materials and Processes II Mechanics of Materials Nonmetallic Materials and Processes Materials SelectionTable 1: Generic nature of course titles