Paper ID #12574Integration of Information Literacy Skills to Mechanical Engineering Cap-stone ProjectsDr. Farshid Zabihian, West Virginia University Institute of Technology Farshid Zabihian, Ph.D., P.Eng. Assistant Professor Department of Mechanical Engineering West Virginia University Institute of Technology Education: Ph.D., Mechanical Engineering,Ryerson University, 2011 M.S. Mechanical Engineering, Iran University of Science and Technology, 1998 B.S. Mechanical Engineering, Amir Kabir University of Technology, 1996 Authored or coauthored more than 70 papers in Journals and peer-reviewed conferences.Ms. Mary L
Paper ID #28844The Dynamics Concept Inventory (DCI) – The Past, Present, and FutureDr. Phillip Cornwell, Rose-Hulman Institute of Technology Phillip Cornwell currently teaches at the United States Air Force Academy and is an Emeritus Professor of Mechanical Engineering at Rose-Hulman Institute of Technology. He received his Ph.D. from Princeton University in 1989 and his present interests include structural dynamics, structural health monitoring, and undergraduate engineering education. Dr. Cornwell has received an SAE Ralph R. Teetor Educational Award in 1992, and the Dean’s Outstanding Teacher award at Rose-Hulman in
in the material by connecting it to real-worldscenarios that they see around them. First, we describe how our institutional contexts haveallowed us to pursue this work effectively and with limited risk. Then, we provide examples thatwe have developed for use in class. Our work builds directly upon Moseley’s 2017 paper [1],calling for incremental steps as small as “one paragraph and a few simple questions” with theobjective of contextualizing statics. We hope by providing these modularized examples atdifferent degrees of implementability, we can bridge the gap between institutions such as ours,where we can freely experiment with curricula, and others where curricula provides little roomfor experimentation but may allow for
necessary to see improvements in studentperformance because Physics Mechanics is a required prerequisite for Dynamics. Therefore,students will already have seen, and have experience using, the three kinetics principles used indynamics: Newton’s 2nd law, work-energy, and impulse-momentum. Almost all dynamicstextbooks seem to assume no knowledge of kinetics and, based on the authors’ experiences, mostdynamics instructors assume no previous knowledge of kinetics. We hypothesized thatpresenting the kinetics material first would improve students’ performance on single- and multi-concept problems because we would be able to (1) build on students’ previous learning inPhysics, (2) motivate learning of the kinematics material, because we need the velocity
and persist through and learn fromfailure” [2]. Within mechanical engineering, various efforts have been made to incorporate theentrepreneurial mindset into the curriculum. For example, Gerhart used EML (entrepreneurially-minded learning) in a fluid mechanics course by incorporating stakeholders, opportunityidentification, and value creation into problem-based learning [3]; Hennessey incorporated EMLinto a dynamics course [4]; Mehta et al. implemented EML in a manufacturing processes course[5]; Mollory et al. developed EML modules for a sophomore level Statics course [6]; Baqersad etal. implemented EM in a mechanics of materials course [7]; Farina et al. developed a projectmodule to help increase students’ curiosity, one of the three C’s from
themselves with scientific research during the Masters phase6.In the Netherlands, the introduction of the Bachelor-Master structure did not result inextensive curriculum change. The typical engineering curriculum consisted of 5-yearprogrammes, with intermediate exams after one year and at the end of the third year.Accommodating to the Bologna criteria basically came down to an upgrade of the status ofthe third year examination. At the Faculty of Mechanical, Marine and Materials Engineering(3ME) of Delft University of Technology it was decided the training of research skills shouldbe part of the bachelor program. Since over a decade, the last course before the third yearexamination takes the shape of a research project. In the present curriculum this
world problems. This gap motivates the research described inthe following sections to design an instrument that requires this engineering judgment.MethodsTo evaluate the ability of students to idealize a mechanical system and draw its FBD, the authorsidentified a core, required, sophomore-level engineering science course in the mechanicalengineering curriculum at Texas A&M University. While students complete several engineeringcourses in their sophomore-year, including statics and dynamics, materials, thermodynamics, andnumerical methods, the course selected is a statics and dynamics course that resembles manycourses in mechanical engineering curricula across the world because it is the most physicsintensive and includes direct instruction
, mechanicsand material science. This sequence involves teaching an introductory engineering course,CE300, to both engineering majors and non-majors, followed by CE364, a mechanics + materialscience course that is taken by those students majoring in Civil or Mechanical Engineering. Thesequence integrates statics, mechanics of materials and a lesson block on material science;information that is traditionally separated across two or more courses, making it difficult forstudents to form the key connections between statics, mechanics and materials that are the bread-and-butter of the working engineer. Through tight coordination of these two courses, significantadvances have been made in student attitudes, capabilities and, perhaps most importantly
materials technology for improving fuel efficiency,crashworthiness and performance of future vehicles is the lack of engineers with knowledge anddesign experience in the application of advanced materials. Many universities offer graduatelevel courses on materials science. These courses provide fundamental knowledge on thestructure, mechanics and physics behind advanced materials. The emphasis on these courses is“science”, not “engineering”. Students graduating with a materials science degree acquire theknowledge on the fundamentals of materials science and very little on materials engineering. Ingeneral, they do not acquire the proper background to design with these materials or to selectmaterials based on their design and processing
procedures for related material tests are often referencedand re-stated for the convenience of the student, little guidance is suggested as to theconduct of the laboratory exercises relative to the information presented beyond theknowledge and comprehension levels of learning. Consequently, an integrated approachhas been developed in which the basics of mechanics are introduced within the context ofthe different construction materials covered in this course and within a learning cycle thataddresses all the styles learning within an experiential learning cycle. The learning cyclesare designed to achieve the cognitive levels analysis, synthesis, and evaluation in order for thestudent to fully appreciate the relationship between engineering materials
Paper ID #26049A Simple Physical Model to Assist in Fluid Mechanics CalculationsDr. Anne Dudek Ronan P.E., New York University Anne Dudek Ronan, Ph.D., P.E., is an Industry Professor in the Department of Civil and Urban Engi- neering NYU. Although her main area of interest is Water Resources Engineering, she teaches across the curriculum – from the freshman Introduction to Civil Engineering course to graduate classes in Ground- water Hydrology and Surface Water Pollution. She also advises PhD and Masters degree students and is faculty adviser for two student clubs. Previously, Anne was an Adjunct Professor at The Cooper
researchprograms in the US that effectively bridge the gap between biology and materials science andengineering, there is a critical need to transfer this knowledge base to a potential work force. This isparticularly challenging for undergraduate programs in biomedical engineering. Students are unlikely todevelop significant expertise in both cellular and molecular biology or materials/mechanical engineeringindependently. Undergraduate course materials that provide opportunities for integration of these twoareas are necessary. NC State Biomedical Engineering faculty with expertise in biomaterials,biomechanics, and tissue engineering are collaborating on design and development of course andlaboratory materials that provide tissue engineering learning
Jose State University Shane Sharp is a junior at San Jose State University, CA, majoring in mechanical engineering. His re- search interests include automotive material design, and he hopes to pursue a career in automotive safety systems. ˜Jesus Alexis Caballero, Canada College Jesus A. Caballero is a third year student at Canada College in Redwood City, CA. He is currently studying Mechanical Engineering. Jesus is interested in further researching 3 Dimensional printing and mechatron- ics, and hopes to work in an Electronics Industry. c American Society for Engineering Education, 2017 3D Printing of Short-Fiber Composites as an Effective Tool for
with the lecturetopics, the author referenced what had already been implemented in the U.S. Coast GuardAcademy course Mechanics of Materials: a concept map2,3.Concept maps were introduced into science and engineering by Novak and his research group atCornell in the 1970s9. Fang5 succinctly defined concept mapping as a “graphicalrepresentation” showing “how individual concepts are related to and connected with one anotherto form large wholes”. Concept mapping has been used as a way to “organize and representknowledge”10. 1 © American Society for Engineering Education, 2015 2015 ASEE Northeast
degree in Mechanical Engineering from Southern University (SUBR), and his Bachelors in Science degree in Electrical Engineering in 2002 from LSU. He is currently an Assistant Professor of Mechanical Engineering at SUBR where he teaches Freshman Engineering and Mechanical Engineering courses, namely Materials Science and Engineering, Statics and Dynamics, and Materials Characterization. Dr. Dawan’s expertise is in micro and nanofabrication of materials and his research involves advanced manufacturing of multi-functional composites for application in energy, aerospace, and personal healthcare. Patent-pending proprietary technology derived from his research includes a nanotube enhanced 3D solar cell, and a 3D-printable
2017 ASEE Mid Atlantic SectionSpring Conference: Morgan State University, Baltimore, Maryland Apr 7 Paper ID #20864Design-Build, Project-Based Learning in an Engineering Materials Labora-toryDr. Mohsen Mosleh, Howard University Dr. M. Mosleh is a Professor of mechanical engineering, a Fellow of the American Society of Mechanical Engineers (ASME), an author and inventor, and the Campus representative for the American Society of Engineering Education at Howard University. His research area is surface and interface science and engineering with a focus on energy and manufacturing applications. Dr. Mosleh received his Ph.D
AC 2001-244: The Development of a Combined Materials/Manufacturing ProcessesCourse at Texas A&M UniversityRichard Griffin, Texas A&M University at QatarTerry Creasy, Texas A&M University Page 6.990.1© American Society for Engineering Education, 2001 Session 2464 The Development of a Combined Materials/Manufacturing Processes Course at Texas A&M University Richard B. Griffin, Terry S. Creasy Mechanical Engineering Texas A&
Session: 1526 A CIVIL ENGINEERING MATERIALS COURSEWARE WITH A VIRTUAL LABORATORY Muniram Budhu Department of Civil Engineering and Engineering Mechanics, University of Arizona, Tucson, AZ 85721 Tel: (520) 621 245, e-mail: budhu@u.arizona.eduAbstractConcrete, steel and wood are common building materials. In Civil Engineering, a strength ofmaterials course is usually mandatory at the sophomore or junior level. Students are taught thebasic characteristics of these materials and then conduct laboratory tests to measure
of graduate level courses related to composites listed herein: • Introduction to Composite Materials – 3 semester credits. Fundamental categories and properties of the constituents (fiber and matrices), processing methods, and material degradation. • Composite Mechanics – 3 semester credits. Fundamentals of composite micromechanics and classical laminate plate theory. Ply-level failure criteria. • Advanced Composite Mechanics – 3 semester credits. Interlaminar stresses. Buckling and vibration of laminated plates and shells. • Composite Test Methods – 3 semester credits. Methods to characterize the anisotropic fiber, matrix, composite ply, and composite laminate mechanical and physical
Session 2364 Incorporating Materials Science Projects in a Capstone Design Course F. Xavier Spiegel and Paul J. Coyne, Jr. Loyola College Department of Electrical Engineering & Engineering ScienceAbstract: The format, goals, and philosophy of the Loyola College Engineering Science Program’s capstonedesign course will be discussed in addition to particular projects based on course work in Materials Sciencethat were attempted in recent years. Design projects in
of amulti-modal device was in the mid-1970s with a system called Optacon. This system uses asmall camera to read information and convert it into tactile stimulation of a user’s finger througha vibrotactile matrix [16].The sections that follow detail and compare the newer assistive technologies that have emergedas they relate to the field of engineering and the diverse content the discipline covers. Thisengineering content can comprise diagrams and schematics (in electrical, mechanical, andarchitectural engineering), graphs and charts (in materials science and computer science), ormolecules and chemical structures (in physics and chemical engineering). These assistivetechnologies rely on auditory, tactile, and multi-modal approaches to
AC 2007-1852: PRIME MODULES: TEACHING INTRODUCTION TOMATERIALS ENGINEERING IN THE CONTEXT OF MODERN TECHNOLOGIESStacy Gleixner, San Jose State University STACY GLEIXNER is an Associate Professor in the Department of Chemical and Materials Engineering at San Jose State University. She teaches courses on introductory materials engineering, electronic materials, solid state kinetics and thin film deposition. Prof. Gleixner has an active research program in microelectronics and micro electro mechanical systems (MEMS). She can be reached at gleixner@email.sjsu.edu.Elliot Douglas, University of Florida ELLIOT DOUGLAS is an Associate Professor in the Department of Materials Science and
a sound command of analytical methods (e.g., matrix operationsand analytical mechanics) and an appreciation of the design flexibility offered by compositematerials (tailor-ability). These concepts are not usually part of civil engineering curricula andyet form the bases for design and applications of structural composites in civil infrastructure.Objective: The motivation for this study combines two pressing concerns in engineeringeducation: a general need for creating efficient learning environments and a specific need to educatecivil engineering students in advanced composite materials. Although substantial research in ACMhas been accomplished in the U.S. and abroad, the advances in this important area have not yetbeen fully integrated
anticipated that upperclassmajors in electrical engineering, mechanical engineering and in chemistry and physics will find the coursecontent complementary to their required core curricula.Anticipated BenefitsIt is anticipated that the two-quarter course sequence described here will enhance significantly the exposure ofundergraduate students to important areas within the field of materials processing. The concurrent exposureto research results and industrial practice in the five areas cited is expected to spawn increased student interestin this important area of materials technology. Thus, potential for career paths in materials processing shouldincrease - consistent with the manpower needs identified in the NRC report (1).Exporting the CoursesA
Paper ID #36994Using Shaking Table Experiments for MaterialCharacterization and Vibration Analysis (WIP)Ahmad Fayed (Dr.) Assistant Professor of Engineering Technology, Southeastern Louisiana University. Ph.D. in Mechanical EngineeringGenesis Alegria Aguilar © American Society for Engineering Education, 2022 Powered by www.slayte.com Using Shaking Table Experiments for Material Characterization and Vibration Analysis (WIP)AbstractIn a multidisciplinary Engineering Technology (ET) program with 5 different concentrations, itis not
from Virginia Tech, and a Ph.D. in mechanical engineering from Brigham Young University. He has taught in the area of solid mechanics, materials science, design, and manufacturing at Texas A&M University, Kingsville for the past 11 years. His research is in the area of traditional and flexible composites, morphing structures, auxetic systems, and additive manufacturing. ©American Society for Engineering Education, 2023 Work-In-Progress: Curricular Integration of Design and Material Standards in EngineeringIntroduction and MotivationThis paper discusses how the Departments of Mechanical and Industrial Engineering (MEIE) andCivil and Architectural Engineering (CEAE
submits that in most classes, some degree of direct instruction is necessary to “actively”engage the student’s minds, particularly in introducing new material, but also insists that student-based class activities are essential to reinforce and “connect” this knowledge. Materials sciencenaturally lends itself to a variety of interesting and exciting activities that allow the student tointeractively learn about the world of engineering materials. Some of these activities arediscussed in their application to atomic structure, diffusion, strengthening mechanisms, failuremechanisms, and ferrous and nonferrous materials.I. IntroductionIn a typical college-level engineering materials science class, which is part of an accreditedmechanical engineering
their second or third year of study in mechanical, industrial, or mechatronicsengineering curricula. In other engineering disciplines students may only receive a rudimentaryexposure to manufacturing methods. Now, by using 3D printers, students don’t have to wait totheir junior year to create something. They don’t have to be proficient as machinists whetherusing manual or CNC machines. Even when students are capable machinists, the availability oflathes, milling machines, welding stations, CNC machining stations, or other manufacturingequipment is often limited. Machining of many complicated parts requires a number of steps(setups, jigs, fixtures, etc.) that are rather time consuming. Unless a part must be made of metaland requires high
Session 12-16 Experimental Investigation of an Active Sub-micron Acoustic Sensor Using Bandgap Materials Ryan Schnalzer, Mahmoud Reda Taha Civil Engineering Department University of New Mexico Mehmet Faith Su, Ihab El-Kady Electrical and Computer Engineering Department University of New Mexico Zayd C. Leseman Mechanical Engineering Department
AC 2011-1759: A LOW COST PROJECT COURSE TO ENHANCE LEARN-ING IN A STATICS AND STRENGTH OF MATERIALS COURSECharles G. Drake, Ferris State University Professor, Mechanical Engineering Technology Ferris State University Big Rapids, Michigan MS Mechanical Engineering Michigan Technological University BS mathematics Lake Superior State University 12 years in Product Development, R & D, Reynolds Metals Company (now ALCOA) Richmond, Virginia Page 22.60.1 c American Society for Engineering Education, 2011 A Low Cost Lab Project Course to Enhance Learning in a Statics