im-prove students’ motivation towards engineering, knowledge about manufacturing and productdesign and hands-on experience in the classroom. The selection of several CNC platforms is de-scribed with regard to cost and educational use criteria. The phase I integration of desktop CNCsinto three courses in the Mechanical Engineering curriculum is presented. Preliminary examplesof the results of these activities in conjunction with the project efficacy evaluation will be pre-sented in the ASEE poster. Page 24.658.13AcknowledgementsThis material is based upon work supported by the National Science Foundation under Grant No1245657. Any opinions
was recently named a “Multicultural Scholar” by the NACAC for her work on the retention of racial/ethnic minority students in higher education. In this work she will be interviewing focus groups to study gender, self-efficacy, and other affective issues in learning in materials science. Page 15.439.1© American Society for Engineering Education, 2010 Effect of Pedagogy on Conceptual Change in Repairing Misconceptions of Differing Origins in an Introductory Materials CourseAbstractDifferent pedagogies will affect how conceptual change and repair of misconceptions occurs.Taber has developed a
class were offered. With the school being online, there was a need to look atinnovative ways to find hands-on labs for students which would be related to civil engineering.In this effort, a new model of Origami in materials engineering was developed. Origami is atraditional Japanese art or technique of folding paper into a variety of decorative orrepresentational forms. Typically, origami is thought of as the art of folding paper into animalsor flowers. In recent years, origami has been useful in large- and small-scale engineeringapplications, from large solar arrays in space to tiny medical devices. Origami has also foundapplications in structural engineering. For our module, the students were expected to fold regularprinter paper using the
Paper ID #14943Effect of Contextualization of Content and Concepts on Students’ CourseRelevance and Value in Introductory Materials ClassesProf. Stephen J. Krause, Arizona State University Stephen Krause is professor in the Materials Science Program in the Fulton School of Engineering at Arizona State University. He teaches in the areas of introductory materials engineering, polymers and composites, and capstone design. His research interests include evaluating conceptual knowledge, mis- conceptions and technologies to promote conceptual change. He has co-developed a Materials Concept Inventory and a Chemistry Concept
Session 2364 Low Cost Demonstrations to Teach Structure of Materials Mark A. Palmer Kettering UniversityAbstractDemonstrations and hands-on exercises have been used to enhance student learning in amaterials science course for general engineering students. Using styrofoam balls, toothpicks, andsimple organic chemistry models, students build crystal structures, polymer chains, andamorphous silica structures. These models are then used to illustrate slip in metal crystals, theorigin of surface energy, and the interaction of polymer chains. This paper will
Inventory for assessing conceptual knowledge and change for intro- ductory materials science and chemistry classes. He is currently conducting research on NSF projects in two areas. One is studying how strategies of engagement and feedback with support from internet tools and resources affect conceptual change and associated impact on students’ attitude, achievement, and per- sistence. The 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. Dale R Baker, Arizona State University Dale Baker is a science educator researching issues of equity and teaching and learning in
air pollution control within Prof. Andino’s group.Dr. Lizandra C. Godwin, University of New Mexico Lizandra C. Godwin is a faculty member in the Electrical and Computer Engineering Department at the University of New Mexico. Dr. Godwin earned her B.S. in Mechanical Engineering from Florida A&M University and her Ph.D. in Materials Science and Engineering from the University of Florida. After completing her degree, Lizandra worked at Intel Corporation on microchip development and processes for 10 years. Prior to the Univ. of New Mexico, Lizandra was a research assistant professor at Boise State University, where her research group focused on developing 2D and 3D materials for electronic devices and broadening
AC 2011-2432: LIVING IN A MATERIALS WORLD: MATERIALS SCI-ENCE ENGINEERING PROFESSIONAL DEVELOPMENT FOR K-12 ED-UCATORSLouis S. Nadelson, Boise State University Louis S. Nadelson is an Assistant Professor in the College of Education at Boise State University. His research agenda is conducted within the context of STEM education and includes aspects of conceptual change, inquiry, and pre-service and in-service teacher education. He has published research ranging from teacher professional development to the impact of inquiry on STEM learning. Dr. Nadelson earned a B.S. degree in Biological and Physics Science from Colorado State University, a B.A. with concentrations in computing, mathematics and physics from The
structural materials, new processingmethods have explored 3D printing of foods [10]. Coined “digital gastronomy” [10], 3D printingallows for customization of food shape, color, texture, and even nutrition. Consumer demand hasdriven the development of cooking and baking robots to automate labor-intensive protocols [11]. Molecular gastronomy and food engineering have enhanced the social, cultural, andexperiential nature of dining outside the home [12]. While food engineering emerged inacademia as early as the 1950s [13], the field focused mainly on production and packaging offood. Materials science characterization tools have allowed for the deeper understanding ofphase transformations giving rise to food preparation techniques [14]. Food
Development & CareerExploration), which provided students with tools to “build their brand” and exposed them to thewide range of career paths one can pursue with a science or engineering degree; (2) ScientificResearch Skills, which comprised academic seminars, a scientific journal club, and hands-oneducational workshops; and (3) Community Impact and Involvement, where students developeda scientific outreach product. Here we describe the structure and content of the program, thedeliverables created, and lessons learned from this unique summer experience.IntroductionThe advent of the Covid-19 pandemic in the spring of 2020 had an immediate impact on summer2020 undergraduate experiential learning. Research experiences, internships, and other forms
Session 1664 Incorporating Active Learning in an Engineering Materials Science Course Lieutenant Colonel John W. Bridge United States Military Academy, West Point, New YorkAbstractThis paper shares the experiences the author has had over the last several years incorporatingactive learning in the classroom and laboratory. Examined are ways to engage and motivate thestudents to take an active role in their learning which includes direct instruction, cooperativelearning, hands-on “exploratory” classroom and laboratory experiences, reading logs, etc. Theauthor
Paper ID #22922Work in Progress: Prosthetic Design Cases as an Educational Tool In andOut of the ClassroomMr. Samuel Elliot Krause, Helping Hand Project Senior studying BME in the UNC & NCSU Joint Department of Biomedical Engineering. Project man- ager for the Helping Hand Project, a non-profit that builds custom prosthetic devices for children with amputations.Mr. Jeff Powell, The Helping Hand Project Jeff Powell is a graduate student at UNC-Charlotte studying Biological Sciences. He is a graduate of UNC-Chapel Hill’s Biomedical Engineering program. As a student at UNC-CH, Jeff started The Helping Hand Project, a
what engineering is in the realm of 9-12th gradescience curriculum. The research results are incorporated into the development of a hands-onlearning tool, a “portable materials science lab kit” that considers the input from thesecommunity educators and uses various types of materials, i.e. composites, nanomaterials,magnetic alloys, to demonstrate what engineering is and how engineering and innovation arerelevantly applied to the important sectors of the province (the energy, oil and gas, oceans, andwildlife sectors). The “portable lab kits” are designed for high school classrooms, in whichsmall groups of students work through hands-on laboratory modules focused on a specificmaterial in a specific application. The process of innovation is thus
Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering EducationCourse offerings in 1999 and 2000 resulted in feedback from the sponsor suggesting that morematerials and manufacturing information would benefit the course content, as a betterunderstanding of structure-property-process interactions is necessary in the age of designer andsmart materials. In courses with limited materials science content, it is impossible to cover all thedetail and background information really needed.Since structure-property-process correlation is a centerpiece in materials science courses, theauthors tried to bridge the gap between courses that have borderline materials content (such asthis one
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
materials science courses.Dr. Elvin Beach, The Ohio State University ©American Society for Engineering Education, 2024Integrating Computational and Physical Lab Modules in MaterialsScience and EngineeringAbstractComputational tools play an ever-expanding role in the careers of practicing engineers. As such,in addition to physical labs, our program requires all undergraduate students to take a two-semester sequence in computational materials science called “modeling and simulation” (orModSim) focusing on practical programming skills and use of commercial CALPHAD and FEAsoftware. These courses are taught in the spring semesters of the sophomore and junior years andformatted as hands-on computational laboratory courses
engineering, when struggling with difficult learning concepts or preparing forexams, the following resources were most important: 1) homework problems, 2) classnotes, and 3) group studying; whereas, materials sciences students preferred to use thefollowing: 1) Muddiest Point feedback and 2) group studying. Also, there are similaritiesand differences within biomedical engineering depending on topical area. The favoredresources for math-based programming and CAD software assignments were as follows:1) undergraduate teaching assistant, 2) engineering tutoring center and 3) group studying.This shift may be due to the lack of available conventional resources for programmingand software-based assignments. Future studies will investigate
developadvanced manufacturing research and a rapid prototyping-based teaching laboratory, materialextrusion and material jetting-based AM machines were acquired. The overall goal of thisinitiative is to support design and manufacturing-based educational activities and createopportunities to engage undergraduate students in research. However, there were no such formalcourse offerings on the AM that would allow students to learn and engage in the full spectrum ofthe AM process such as 3D design with optimization in mind to hands-on experience inmanufacturing and testing of these designs. In Spring 2023, a senior elective on AM was offeredfor the first time in the Mechanical Engineering Program. In order to fulfill the growing demandfor a skilled workforce
program, utilize a laboratory component to the materials course in anattempt to give some hands-on experience4. The traditional undergraduate mechanical engineering curriculum contains a “strength ofmaterials’ course as part of a mechanics sequence. This course will typically follow a “statics”course and precede a “mechanical design” course. In this way, an integration of mechanicsconcepts is attained. Few curricula implement a “strength of materials” laboratory component,and mechanics concepts are learned without connection to the actual parts or materials beingdealt with. By having a lab experience it is possible to reinforce the concepts learned in lecture.Moreover, by including some metallurgical concepts in the “strengths” lab, one can
AC 2010-1441: RAPID MANUFACTURING OF A HANDS-ON LEARNING DEVICEKimberly Warners, Western Michigan UniversityBritney Richmond, Western Michigan UniversityAdam Eaton, Western Michigan UniversityAndrew Kline, Western Michigan University Associate ProfessorBetsy Aller, Western Michigan University Associate ProfessorEdmund Tsang, Western Michigan University Associate Dean Page 15.1012.1© American Society for Engineering Education, 2010 Rapid Manufacturing of a Hands-on Learning DeviceAbstractRecent efforts to interest K-12 students in science, technology, engineering, and mathematics(STEM) have increasingly focused on experiential education
preaching to students that constraints are what design pushes against to take shape [2].Going online is just another constraint on course design, so we asked ourselves what advantagescould be found. First off, what is being constrained? When analyzing this course, we realizedthat students do two things hands-on in the lab: data collection and prototype fabrication. Howcould we turn the online forfeiture of these activities into course improvements?Elementary truss design is an interplay between geometry and material. As such, it can beaccomplished with the application of fairly basic engineering theory using standard theoreticalequations and published material specs. At the same time, specimens can be tested to failureusing inexpensive equipment to
AC 2011-1910: THE EFFECT OF ON-LINE VIDEOS ON LEARNER OUT-COMES IN A MECHANICS OF MATERIALS COURSEJeffery S. Thomas, Missouri University of Science and Technology Jeffery Thomas is an assistant teaching professor in the department of Civil, Architectural and Environ- mental Engineering at Missouri University of Science and Technology in Rolla, MO. He received a B.S. and M.S. in mechanical engineering and a Ph.D. in engineering mechanics from Missouri S&T. He is a licensed professional engineer. His technical interests are in mechanical characterization, construction, and the influence of force on biological systems. His artistic interests are in music.Richard H Hall, Missouri University of Science &
material. In particular, tutorial-based inquiry was associated withboth a general engineering problem based learning approach and a team approach to problemsolving. The hands-on laboratory work was intimately integrated within the data deliverysystem for both pre laboratory learning, and post laboratory team review in applicationsutilised by non-materials engineers (notwithstanding other engineering disciplines) andassessment. Feedback from the student and staff about the course content, laboratorystructure and data delivery system relevant to many facets of engineering was encouragingand seen to contribute to the overall learning strategy of knowledge of materials within thegeneral engineering environment.IntroductionAll engineers must have a
. Page 23.416.1 c American Society for Engineering Education, 2013 Development of a materials science course to serve diverse constituenciesAbstractSeven years ago, the Carleton College physics department began offering an introductorymaterials science course for physics and chemistry students with interests in materials scienceand engineering (MSE). However, in order to appeal to a broader audience and provide morefocus for a course that offered extensive breadth but limited depth, the course has evolved overthe years to concentrate on materials science, energy, and the environment. The revised coursebegins with an overview of the relationship between material
of such majors include: Medicine, Dentistry, Education, Geology,Foreign Language, and others. Hands-on or experiential learning is also very common inthe Engineering Technology fields, but there is always room for improvement.BackgroundThe Purdue School of Engineering and Technology at Indiana University PurdueUniversity Indianapolis has two degree programs that are considerably manufacturingoriented; Mechanical Engineering Technology (MET) and Computer IntegratedManufacturing Technology (CIMT).2 Each of these programs requires first semesterfreshmen students to take an Introduction to Materials course. The course covers theareas of polymers, ceramics, metals, and composites. Within each of these areas severaltopics are covered including
Session 2793 Hands-On Science Activities Developed for Girl Scouts of Tanasi Council, Inc. Monica A. Schmidt1 and Angela M. Miller2 1 Biomedical Engineering Program, The University of Tennessee, Knoxville / 2 Girl Scouts of Tanasi Council, Inc., Knoxville, TennesseeIntroductionOutreach activities have been implemented to interest girls in careers in science and engineering,with emphasis on the physical and biological sciences. A patch program called “TheMicroscopic World” was designed for Girl Scouts in grades 1-12, sponsored by
Paper ID #37587Board 275: Enhance Data Science Education for Non-Computing Majorsthrough Accessible Hands-on ExperiencesDr. Xumin Liu, Rochester Institute of Technology Xumin Liu received the PhD degree in computer science from Virginia Tech. She is currently a Professor in the Department of Computer Science at the Rochester Institute of Technology. Her research interests include data science, machine learning, and service computing.Erik Golen ©American Society for Engineering Education, 2023 Hands-on Assignments for Practical Data Science Education to Non-Computing Majors
certificate in “Energy andSustainability Engineering” (EaSE, [3]) as well as a professional Master of Engineering in Energy Systemsdegree [1]. Highlight of the requirements for the Master of Engineering in Energy Systems degree at theUniversity of Illinois is a four credit hour practicum course (ENG 572/573). Requirement can be satisfiedby an internship away from campus, or a project on campus. The motivation behind this four-hourpracticum course required for Masters of Engineering in Energy Systems degree (ENG 572/573) at theUniversity of Illinois is to provide all students with project or practicum (internship) opportunity to gainpractical hands on experience as well as enhance the skills for project development, group work,leadership, and written
. Level 1 is intended for freshman engineering students. Many schools now have an“introduction to engineering’’ course for new engineering students. It is usually a project-oriented course to introduce the basic engineering concepts and practices. Level 2 corresponds to the basic digital systems topics in the curriculum16, which covercombinational circuits, sequential circuits, and FSM. After the basic materials, there is no single“standard” follow-up subject. The advanced topics can be spread over a wide variety of courses,such as advanced digital systems, computer organization, VHDL/Verilog, embedded systems,hardware-software co-design, and so on. For our development purposes, one key distinction iswhether a processor is incorporated into the
University ©American Society for Engineering Education, 2024 A scoping review of tools for teaching Particle Science Engineering & TechnologyIntroductionParticle science, engineering, and technology (PSET) is an essential part of engineering acrossvarious industrial sectors—as nearly all engineering fields rely on the effective and efficient useof granular and powder materials. Particles and powders are present in many fields, including butnot limited to materials and chemical engineering (e.g., in-line process sensors, additivemanufacturing), consumer products (e.g., food processing, paints), agriculture, pharmaceuticals,energy and pollution (e.g., air pollution and