Paper ID #41483Innovating Motivation Mechanisms and Interaction Channels of University-IndustryEducational Collaboration: A Pilot Chinese CaseDr. Lina Zheng, Beihang University Lina ZHENG is a postdoc researcher at Beihang University (BUAA), who holds the Ph.D. degree in Public Administration from Tsinghua University (THU). She was also a visiting scholar in the School of Engineering Education at Purdue University.Dr. Ying Lyu, Beihang University Ying Lyu is an associate professor at Beihang University in Beijing, China, where she is based at the Institute of Higher Education, part of the university’s School of Humanities
Paper ID #41327Implementation of a Standalone, Industry-centered Technical CommunicationsCourse in a Mechanical Engineering Undergraduate ProgramProf. Jenni Buckley, University of Delaware Dr. Buckley is a Professor of Mechanical Engineering at University of Delaware. She received her BS in Mechanical Engineering from University of Delaware and her MS and PhD in Mechanical Engineering from University of California, Berkeley. At University of Delaware, she teaches a range of courses across the curriculum. She is also the Co-Founder and Board President of The Perry Initiative.Dr. Amy Trauth, American Instiutes for Research (AIR
introduction to the material through the Intro to ME course (2019 and 2020academic years respectively). Figure 1: Civil and Mechanical Engineering (CME) Design ProcessIn addition to the faculty survey that is the subject of this paper, an analysis of when design isdeliberately taught and assessed in the “middle years” (i.e., sophomore and junior years) wasalso conducted in 2019. While the middle-years design content was a control for both cohorts inthe current analysis, it provided context to the authors for what the mechanical engineeringmajors in both cohorts experienced regardless of whether they completed the sophomore-levelcourse. The results of this analysis showed that, of the eleven required courses in the mechanicalengineering
Paper ID #29796Faculty Perspectives on the Impact of Virtual Office Hours inEngineering CoursesMs. Brooke-Lynn Caprice AndradeDr. Krishna Pakala, Boise State University Krishna Pakala, Ph.D, is an Assistant Professor in the Department of Mechanical and Biomedical En- gineering at Boise State University (Boise, Idaho) where he has been since 2012. He is the Faculty in Residence for the Engineering and Innovation Living Learning Community and the Faculty Associate for Accessibility and Universal Design for Learning. He is also the Director for the Industrial Assessment Center at Boise State University. He served as the
for the International Conference on Wear of Materials and on the Mechanical executive committee of the Mechanical Engineering Division of ASEE. He also serves as an ABET program evaluator on behalf of ASME. Prof. Sundararajan has been recognized for his accomplishments with the Young Engineering Faculty Research Award and Early Achievement in Teaching Award at Iowa State University. He received his B.E. degree in Mechanical Engineering from The Birla Institute of Technology and Science, Pilani (India) followed by M.S. and PhD degrees in Mechanical Engineering from The Ohio State University, Columbus, Ohio.James Dautremont
Technical Award for Engineering, The Furkert Award for Sustainability. Kpa was promoted to Fellow of IPENZ in 2010 recognising his contribution to enhancing education outcomes for Mori and Pasifika students during his decade long commitment as Associate Dean Mori for the Faculty of Engineering at The University of Auckland. Kpa was the Fulbright Ng Pae O Te Mramatanga Senior Scholar for New Zealand in 2016.Dr. Juan C. Lucena, Colorado School of Mines Juan Lucena is Professor and Director of Humanitarian Engineering at the Colorado School of Mines (CSM). Juan obtained a Ph.D. in Science and Technology Studies (STS) from Virginia Tech and a MS in STS and BS in Mechanical and Aeronautical Engineering from Rensselaer
, design, and technical communication courses. Her research interests are outcomes-based assessment methods for a variety of learning experiences in engineering, students' learning mechanisms, using research and design examples to teach engineering concepts, K-12 engineering education, and cardiovascular fluid mechanics research.Maura Borrego, Virginia Tech Maura Borrego is an assistant professor of Engineering Education at Virginia Tech and 2005 Rigorous Research in Engineering Education evaluator. Dr. Borrego holds an M.S. and Ph.D. in Materials Science and Engineering from Stanford University. She teaches a graduate-level engineering education assessment course at Virginia Tech. Her current
in engineering education and professional development for 9-12 grade science faculty designated to teach engineering. His research revolves around developing and validating curricular methods to improve en- gineering education in informal, traditional, distance, and professional environments. Dr. Goodridge currently teaches courses in ”Teaching, Learning, and Assessment in Engineering Education” and ”Engi- neering Mechanics: Statics.” Dr. Goodridge is an engineering councilor for the Council on Undergraduate Research (CUR) and serves on ASEE’s project board. Dr. Goodridge actively consults for projects includ- ing the development of an online curriculum style guide for Siemens software instruction, development of
Bachelor of Engineering (Civil), Bachelor of Engineering (Civil)/Bachelor of Business, Bachelor of Engineering (Electronics & Computer Systems), Bachelor of Engineering (Mechanical), Bachelor of Engineering (Mechanical)/Bachelor of Business, Bachelor of Engineering (Product Design), Bachelor of Engineering (Robotics and Mechatronics) ,and Bachelor of Engineering (Robotics & Mechatronics)/Bachelor of Science (Computer Science & Software Engineering). Table 1. Range of Engineering disciplines engaging engineering materials 10Engineering Materials Delivery ImplementationAt Swinburne University of Technology relevancy of
elements is toprovide resistance to major crack propagation, the purpose of 2-D elements is to stopdynamic movement of structure after achieving some allowable displacements, and thepurpose of a hierarchical core is to dissipate main blast energy and to redistribute dampedloads on neighboring structural elements. Experimental and Technical Approach Processing and fabrication involve validation of each process technology such as materials and components cutting technology [laser, water jet, diamond knife etc], fabrication technology [compression molding, VARTM, VAHLUP] parameters (processing window). Characterization efforts involve morphology determination [AFM, TEM, DSC, etc], static and dynamic mechanical measurements of stress-strain properties
Integrating Material Science and Processing into the Undergraduate Engineering & Science Curriculum Using the Web James M. Fragomeni and Anwar Hossain The University of Detroit Mercy, Departments of Mechanical Engineering and Computer Science, College of Engineering and Science, Detroit, Michigan 48237, USA.AbstractThe proper understanding of engineering materials is very foundational and important withrespect to all the various branches of engineering, science, and technology for a completeundergraduate engineering program. The purpose of this communication is to help satisfy thisrequirement for a more thorough undergraduate engineering
Bachelor of Science degree in Civil Engineering,Electrical & Computer Engineering, and Mechanical Engineering. The three programs earnedABET accreditation in 1998. In 2000, a Masters of Science graduate program was added toallow students to earn an M.S. degree in the three engineering disciplines. Boise StateUniversity is the largest university in Idaho with approximately 17,000 students currentlyenrolled. Over 600 students are enrolled in the undergraduate engineering program and over 35in the graduate program.With the creation of the graduate program and in response to recommendations from localindustry, the College of Engineering recognized the need for a emphasis in Materials Science &Engineering (MS&E). The intent of the program
Session 2793 Integrating Material Science and Processing into the Undergraduate Engineering & Science Curriculum Using the Web James M. Fragomeni and Anwar Hossain The University of Detroit Mercy, Departments of Mechanical Engineering and Computer Science, College of Engineering and Science, Detroit, Michigan 48237, USAAbstractThe proper understanding of engineering materials is very foundational and important withrespect to all the various branches of engineering and technology for a complete undergraduateengineering program. The purpose of
ofEngineering at GVSU was offered to sophomore students in electrical engineering major. Thecourse covered crystal structure, mechanical behavior of metals, phase diagrams, ceramicproperties, polymer properties, electrical/thermal/magnetic/optical properties. There was notmuch time spent on solid state materials and devices. However, with the fast progress of modernelectronics, it is essential that electrical engineering students be exposed to solid state materialsand devices. In the preface of their text book1, Murarka and Peckerar wrote “Electrical Engineersusually have little specialized knowledge of chemical reactions or solid state mechanics. Andyet, our ability to fabricate semiconductor devices depends critically on our understanding ofthese
Paper ID #44773Revolutionizing Engineering Education: Bridging Theory with Practicethrough Microfluidics and Material CharacterizationSaman Aria, West Texas A&M UniversityDr. Swastika S. Bithi, West Texas A&M University Assistant Professor of Engineering College of Engineering West Texas A&M UniversitySanjoy Bhattacharia, West Texas A&M University Assistant Professor of Mechanical Engineering, College of Engineering, West Texas A&M University, Canyon, TX-79016Pronob Das, West Texas A&M University ©American Society for Engineering Education, 2024
;MUniversity (TAMU) developed a project involving smart materials and implemented it in afreshman-level engineering class to excite first-year students about material science applications.This smart materials project addresses curriculum challenges that hinder students' ability to relatemathematics and science concepts to the engineering design process. Shape memory alloys(SMAs), the specific type of smart material used in this project, provide the opportunity forexplaining important engineering principles, such as energy conversion and mechanismactuation, framed within the subject of mechanics of materials. By introducing projects usingSMAs, students learn about their applications and relevance in engineering designs, and thepotential for material
TOPIC • Introduction to ME Design course, Syllabus, Engr. Notebooks 1 • Report Format, Presentation Guidelines • Problem Introduction by sponsors 2 • Team Assignments • Problem Statement – Brainstorm (Instructor/Students) 3 • Background, Literature Review, Personnel, References; Allocate mfg. positions Training • Description of Design, Simulation, Design Methodology, Schedule begins • Feasibility Study, Optimization Method, Deliverables, Safety, Impact on 4 Society, Ethics • Group FSR presentation; individual FSR reports due • Assembly Details, Material Selections, Mechanisms, Design for Manufacturing 5
-minute lecturethen explored effects of a glass transition on mechanical introduction to the structure and properties of polymer ma-properties of the polymer they synthesized. terials prior to participation in the experience. This lecture As part of a sophomore lab course, students extended be- defined polymers as C-based chains of repeated monomersyond the guided “demo” experience by exploring the effects and discussed the role of entanglement and crosslinking withof varying the initial mixture composition and processing time regard to the observable macroscopic stiffness of polymeron final-state mechanical properties. Responsive write-ups materials. The lecture concluded with a guided
Paper ID #22543Open Educational Resources in the Undergraduate Engineering Curriculum:A Materials Science Case StudyMr. Amir Behbahanian, Utah State University I‘m a Ph.D. Studen at the Mechanical and Aerospace engineering department of Utah State University, my main area of research is Nano Thermal Analysis. I also had the chance to be the TA of material science for two semesters.Erin L. Davis, Utah State UniversityProf. Nick A. Roberts, Utah State University Prof. Roberts is an Assistant Professor at Utah State University where his research is focused on the fundamental study of material behavior, specifically
Session 2164 Interlacing Engineering Graphics in an Introductory Engineering Materials Course as Visualization Aid Oscar Marcelo Suárez, Scott Kiefer, Hermes E. Calderón, Amílcar QuispitupaDept. of General Engineering, Univ. of Puerto Rico-Mayagüez / Dept. of Mechanical andAerospace Engineering, Tri-State University / Dept. of Mechanical Engineering, Univ. ofPuerto Rico-MayagüezAbstractIn an introductory engineering materials course, the basics of engineering graphics were utilizedto generate three-dimensional models of crystals and molecules. AutoCAD software allowedthe students to construct crystallographic models
highlight pharmaceutical/biologicalapplications of polymeric materials.Finally, after highlighting the various applications of polymers we discussed how plasticscontribute to waste. We introduced students to different strategies to alleviate this problem. Onesuch strategy was the replacement of synthetic materials with bio-sourced materials and, studentsmade two different bioplastics using milk and corn starch as main ingredients and, compared thefinal products against the “traditional plastics”. First, flowsheets were sketched, followed by“manufacturing” of the products and finally, testing the mechanical properties of the traditionalplastics and their bioplastic counterparts. Finally, students were asked to reflect on the potentialdegradation
. The goal is to have cases that highlight Coast Guard issues from the fields ofmarine safety, naval engineering, and aviation which are the most common career paths forgraduates in the Mechanical and Naval Architecture and Marine Engineering majors. In addition,material science case studies from outside the Coast Guard will be examined to ensure thatgraduates have an appreciation for national and global material science challenges. Byexamining failures as well as successes, students will have an opportunity to consider theconsequences of poor decision-making and will be able to explore ethical considerations. Ascase studies are incorporated, tools are being developed to assess the impact of this educationalapproach on student learning and
Paper ID #43766Engaging Undergraduate Students in Experimental Learning in MaterialsScience through a Hybrid Project-Based LearningOsama Desouky, Texas A&M University at Qatar Osama Desouky is a Technical Laboratory coordinator at Texas A&M University in Qatar. Osama is currently pursuing his Ph.D. in interdisciplinary engineering from Texas A&M University at College Station. He is responsible for assisting with experimental method courses, 3D printing, mechanics of materials, material science, senior design projects, and advanced materials classes. Osama’s professional interests include manufacturing
AC 2011-450: UNDERSTANDING YOUR STUDENTS’ NONVERBAL COM-MUNICATION: A PRIMER FOR THE NEW ENGINEERING EDUCATORBrock E. Barry, U.S. Military Academy Dr. Barry is an assistant professor and course director in the Department of Civil & Mechanical Engi- neering at the U.S. Military Academy at West Point. He predominately teaches in the area of engineer- ing mechanics. His current areas of research include professional ethics, economic factors influencing engineering education, identity development, and non-verbal communication. Dr. Barry is a licensed professional engineer with multiple years of consulting experience.MAJ Jonathan Bodenhamer, United States Military Academy, Department of Civil and Mechanical Engineer-ing
asingular material, but it is important that students explore all types of materials andmanufacturing processes they could end up working with. Polylactic acid (PLA), acrylonitrilebutadiene styrene (ABS), and carbon fiber (CF) are used for 3D printing. Mechanical propertieslike compressive strength, hardness, and surface roughness were measured to investigate theresulting products from additive manufacturing. To test each material, different infill ratios (30%,50%, 70%) and patterns (linear, triangular, honeycomb) will be printed resulting in 27 differentspecimens for comparison. Hardness is a measure of the resistance a material has to deformationin the form or indentation, a shore durometer was used to test the hardness of each
Session 2478 A Material Processing Cell Utilizing Black-water Hydrostatic Pressure: A Student Project James S. Burns Department of Mechanical Engineering San Diego State UniversityAbstract:Autoclaves and hydroclaves are devices that contain and control moderate to largehydrostatic gas or fluid pressure. These devices are used with hot fluids (gas for autoclaves,water for hydroclaves) to heat and squeeze polymers, metals and/or ceramics during diffusionor pressure gradient controlled solid and liquid-phase materials processing. Autoclave andhydroclave
Session 2366 Data acquisition in the dorm room: Teaching experimentation techniques using LEGO Materials Chris Rogers, Merredith Portsmore Tufts UniversityAbstractData acquisition and analysis concepts taught in introductory courses in experimentation aremost effectively learned by engaging students in hands-on activities. Traditional laboratories areusually available on a limited basis to students due to supervision and hardware restrictions. Weselected a set of LEGO materials to enable students in our experimental methods course toperform hands
teaching about material properties, lessons focus specifically on what thematerial is made out of when addressing how this material might fail under forces.However, the geometry of the item is just as important in understanding failure! In thislesson, students will bend and break various types of pasta noodles (spaghetti, lasagna,manicotti) to determine how the varying geometry of a fixed material type impacts whenand how the noodle breaks. Once students understand the role of geometry in structuralproperties, they will then investigate the role of material properties (e.g., ductile, brittle,modulus of elasticity) by keeping a fixed geometry and changing material type. This low-resource inquiry experience, when coupled with effective questioning
Session 2356 AN UPPER DIVISION GENERAL EDUCATION COURSE ON MATERIALS FOR NON-ENGINEERING STUDENTS M. Grant Norton, David F. Bahr School of Mechanical and Materials Engineering Washington State University Pullman WA 99164-2920IntroductionTo increase the awareness of materials among the general student population at WashingtonState University (WSU) we developed a new course, MSE 440 Materials: The Foundations ofSociety and Technology. This course is taught as a Tier III course in the General EducationProgram and was offered for the first time in Fall 2000, and
for the first time during theWinter 2002 term (January – March). A second offering occurred during the Spring 2002 term(April – June). The course includes three hours of weekly discussion periods and two hours oflaboratory time. The following provides an overview of the course design, teachingmethodology, laboratories and projects, as well as, course and project evaluation plans.Project Description and ObjectivesThe goal of the project is to develop, implement and evaluate a team-based course focused onmaterial and process selection methods, but which also focuses on other topics relevant topracticing manufacturing and mechanical engineers. These additional topics inc lude life cycleengineering as it applies to materials, the role of