students, providing hands-on, laboratory-based education to cultivate essential skillssuch as experimental design, data analysis and interpretation, and technical writing skills, for theircareers and potentially pursuing higher education. With the cold stage, educational module andsystematic lab experiments, we instructed undergraduate students on concepts such as phasechange, phase transition temperature, crystallization, and physical nucleation, in existinguniversity courses. The courses include Materials Science for Mechanical Engineering andEngineering Technology students, Fundamental of Environmental Sciences for EnvironmentalScience degree program, both courses offered at WTAMU, as well as undergraduate freshmanstudents at a local MSI-PUI
Session 2249 Design a Lab Manual of Plastic Materials Testing Course Using Multimedia Seung Kim and James Scudder Manufacturing and Mechanical Engineering Technology/Packaging Science Rochester Institute of TechnologyINTRODUCTIONEducation technology is on the brink of a new era based on the rapid advancement in computerand communication technologies. For the past several years, computer technology has been usedin education to prepare students for tomorrow’s technological changes. The paradigm of teachingengineering technology courses has been challenged by making undergraduate
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
of such devices. Personnel requirements not only include material scientists and engineers but a host of competent support people who together will implement the technology roadmap for this industry. The task at hand is to develop a workforce that must have a new skill set which has not previously been the focus of any existing organized technical curriculum. This paper will address one approach to presenting the important process steps in microdevice fabrication to a non-materials major audience. Particular attention will be spent on the problems and challenges associated with introducing what the technical demands and expectations of the industry will be, presenting the material
integration of aerospace materials with engineering design and visualprogramming, and summarize the results of the project.IntroductionTexas A&M University (TAMU) converted their two freshman engineering courses into aproject-based format centered on engineering design several years ago2,3. This project-basedformat provides incoming freshmen their first hands-on view of the engineering design process.However, most of the design projects have not utilized engineering designs that are more directlyrelated to aerospace engineering until recently1. The work published in the 2011 ASEEConference and Exposition detailed the incorporation of an aerospace-related project in the firstsemester1. We have extended this work into the second semester course of
Paper ID #37672Teaching Engineering Design with Materials Selection andSimulation through Case Studies: A Work in ProgressKaitlin Tyler (Academic Development Specialist) Kaitlin (she/her) is an Academic Development Specialist at Ansys. She holds a PhD from the University of Illinois at Urbana Champaign in Materials Science and Engineering. Her focus is on introductory materials teaching and engineering outreach.Nicola Stefani Nick (he/him) is an Academic Development Manager at Ansys. He holds a Phd from the University of Strathclyde at (Glasgow, UK) in FE and microstructure modelling of Metal Forging Processes. His
Nanotechnology Learning Modules Using Technology Assisted Science, Engineering and Mathematics Dean Aslam and Aixia Shao Micro and Nano Technology Laboratory, Electrical and Computer Engineering Michigan State University, E. Lansing, MI 48824 aslam@msu.eduAbstract Technology Assisted Science, Engineering and Mathematics (TASEM) focuses on innovative use oftechnology to explain new and complicated concepts rather than on education research. The explanationof nanotechnology is challenging because nano-dimensions require high-magnification electronmicroscopes to see them. Hand-on learning modules are difficult if
Nanotechnology Learning Modules Using Technology Assisted Science, Engineering and Mathematics Dean Aslam and Aixia Shao Micro and Nano Technology Laboratory, Electrical and Computer Engineering Michigan State University, E. Lansing, MI 48824 aslam@msu.eduAbstract Technology Assisted Science, Engineering and Mathematics (TASEM) focuses on innovative use oftechnology to explain new and complicated concepts rather than on education research. The explanationof nanotechnology is challenging because nano-dimensions require high-magnification electronmicroscopes to see them. Hand-on learning modules are difficult if
displaced communitiesDr. Dhinesh Balaji Radhakrishnan, Purdue University, West Lafayette Dhinesh Radhakrishnan is a research scientist in the School of Engineering Education at Purdue Univer- sity.Prof. Jennifer Deboer, Purdue University, West Lafayette Jennifer DeBoer is currently Assistant Professor of Engineering Education at Purdue University. Her research focuses on international education systems, individual and social development, technology use and STEM learning, and educational environments for ©American Society for Engineering Education, 2023 The Curriculum Puzzle: Developing and Integrating Materials to Localize a CurriculumIntroductionEngineering and
Paper ID #35806Creating Course Material through the Automation of Lecture CaptionConversionDr. Salvatore Enrico Paolo Indiogine, Texas A&M University Bachelor of Science in Engineering from New Mexico State University and Ph.D. in Curriculum & In- struction from Texas A&M University. I work as an instructional designer at the College of Engineering of Texas A&M University.Mr. Brandon Chi-Thien Le, Texas A&M University Brandon Le is a Business Honors and Management Information Systems graduate student at Texas A&M University. He has worked with the Texas A&M College of Engineering Studio for Advanced
engineering and thecourse promotes a greater level of interest in electrical engineering before the students areofficially admitted to the School of Engineering. The main challenge in offering this course tosophomore students is to achieve a balance between mathematical theory and experientiallearning. Real-life examples and laboratory activities were designed to provide the students withhands-on experiences and to enforce the understanding of theoretical materials. The paperdescribes in detail how the course concepts were organized and instructed, examples of the labactivities developed, and evaluation data on two pilot offerings of the course.IntroductionUp to winter 2004, the course EGR 255 Materials for the Electrical Sciences in School
. © American Society for Engineering Education, 2022 Powered by www.slayte.comAchieving student outcomes with service-learning in Mechanics of MaterialsAbstractThe implementation of experiential learning opportunities in undergraduate courses providesstudents an alternative hands-on learning methodology that can supplement the traditionallecture-style approach. A service-learning model was used in an undergraduate Mechanics ofMaterials course in the form of a semester-long project. The first implementation (Cohort 1)involved partnering with UT Arlington’s College of Engineering and participating in the bi-annual Engineering Saturday event. This event is a K-12 outreach program, which inviteschildren from local K
Presenting Science and Engineering Careers in a Unique and Appealing Way Nihad E. Daidzic and Vojin R. Nikolic Minnesota State University (MSU), Mankato, MN 56001 An original summer camp activity in the areas of aerospace/aeronautical engineering and aviation has been developed. A pilot version of the program was completed successfully in June 2007 at Minnesota State University, Mankato. The main objective of the program was to increase the awareness and interest among high school students for science and engineering careers. Through a series of short lectures and extensive hands-on demonstrations the attending
course titled “How Engineering Impacts Diversity, Equity, and Inclusion” that13 emphasizes the importance of non-technical engineering skills, with a focus on DEI. This course14 considers writings from a variety of authors, representing distinctive perspectives on matters of15 diversity, equity, and inclusion. Through active engagement with this material, this course16 confronts history to identify and understand instances of racism, sexism, discrimination, and17 bias, specifically in science and engineering. This study builds on previous scholarship presented18 to ASEE along with other related fields to demonstrate how discussion-based courses challenge19 graduate students to think more critically about the engineering design
Paper ID #8093Exploration of a Student Project in a Materials Processing CourseProf. Somnath Chattopadhyay, Georgia Southern University Page 23.577.1 c American Society for Engineering Education, 2013 EXPLORATION OF A STUDENT PROJECT IN A MATERIALS PROCESSING COURSEABSTRACTAs a part of the laboratory module for the junior level course in Materials Processing, a projecthas been introduced where the students work two hours every week for one semester. They areeach expected to fabricate a hacksaw from the
possible to cover the detailed theory and applications of all high-level classes. For thisreason, many educational projects are aimed to give students the opportunity to acquire this high-level knowledge through a hands-on practice. At the end of these projects, students concludetheir experience and prepare a student manual that, later on, guides other groups in getting thesame knowledge through hands-on experience. This initiative is applied through some seniordesign projects within the Engineering Technology program. In this paper, a shaking table isused to learn the concepts of (1) vibration analysis, (2) vibration absorber design (that is usuallycovered in Mechanical Vibration class which is not currently offered at our ET program), and (3
recent graduates and current students in theMechanical Engineering (ME), Mechanical Engineering Technology (MET), Manufacturing SystemsEngineering (MSE), and Master of Science in Systems Engineering (MSSE) programs. Beginning in May2023, the teams commenced work on the project. A laboratory / project space was established in theNoorda Building on the WSU main campus where the CHRD development team began development ofthe enhanced instrumentation and control suite as well as various design and functional upgrades to therocket motor hardware. The materials development team worked in conjunction with the engineeringand technical staff at MARS, located approximately 10 miles from the WSU main campus, to produce therequired test articles. Multiple
related materials and qualitycontrol standards into the Industrial Engineering M.S. program. Hands-on activities based coursemodules were developed and implemented into three graduate level courses, including modifyingtwo existing courses and developing one new course. Since the three courses are not requiredcourses in the Industrial Engineering M.S. program, a new graduate level certificate program wasalso developed [4] consisting the three courses to attract more graduate students to take the threecourses. We conducted student surveys to collect their feedback on the effectiveness of thecourse modules, and their changes on the knowledge related to engineering standards andstandardization in manufacturing related materials and quality control
/pubs/2005/nsf05592/nsf05592.htm.(2) The questionnaire for the survey was a modified version of survey instruments originally developedby The Cooper Union and Drexel University as part of the National Science Foundation sponsoredGateway Engineering Education Coalition (http://www.gatewaycoalition.org). Fig. 1. A scanned Summer 2006 Flyer 7 REU Program on Engineered Nano-Composite Particulate Materials: Weekly Research Progress Report Complete one copy of this form each week to evaluate your research progress. Return form to Summer 2006 REU at NJCEP Mrs. Barbara Valenti
AC 2011-1511: SUPPLEMENTAL LEARNING TOOLS FOR STATICS ANDSTRENGTH OF MATERIALSCliff J. Lissenden, Pennsylvania State University, University Park Cliff J. Lissenden, Ph.D. (University of Virginia, 1993) is a professor of Engineering Science and Me- chanics at Penn State. In addition to teaching engineering mechanics courses ranging from sophomore level statics to graduate level mechanical behavior of materials, he researches structural health monitoring for aerospace, mechanical, and civil infrastructure applications. He is a member of ASEE, ASNT, ASME, ASCE, ASM, SES, and Sigma Xi.Christine B. Masters, Pennsylvania State University, University Park Christine Masters is an Associate Professor in the Engineering
to students. We will increase the number of screencasttutorial exercises in the upcoming semesters and evaluate the effect of those activities on thesame learning outcomes. We will design additional activities to promote the collaboration andcommunication among students so as to create a mutual learning environment. Finally, thequestions of life-long learning scale, engineering altitude survey and exit project survey will bere-examined and might be modified to comprehensively evaluate the effect of the student-centered instructional method.Acknowledgement This material is supported by the National Science Foundation under HRD GrantNumber1435073. Any opinions, findings, conclusions, or recommendations presented are thoseof the authors and
computerscience: The Computer Architecture Course Database contains 880 items, and the ObjectTechnology Database contains about 450. Together the databases have about 170 users.There will always be substantially more course material on the Web for any field than weare able to incorporate into our database. To provide access to a wider variety ofmaterial, we have extended our database with a search engine that can search the Web foritems containing the same terms at the same time as it is retrieving problems from ourdatabase. Users of the database will not, of course, have an automatic right to reuse andadapt material that is not in the database; however, they will be able to ask the copyrightholders for permission individually. The search engine that we
. Recipient of research grants including The Salvatori Research Grant ( U of Pennsylvania), the Social Sciences and Humanities Research Council Grant (1995-1999, Canadian Government), the Fonds aux Chercheurs et Aide a la Recherche( 1993-1995, Quebec Government), co-recipient of a Canada Council Grant and co-ricipient of a Graham Foundation Grant. Her doctoral disseration was centered on the work of 18th century Italian architect, Giovanni Battista Piranesi. Page 11.1303.1© American Society for Engineering Education, 2006 The Importance of Material Investigations in the Context of the
product design, development and manufacturing engineering. He was a lead university recruiter for the Ford College Graduate and Summer Internship programs. Prior to Ford, he worked in the Aerospace Industry on commercial and military aircraft in the areas of aerodynamics, automated flight controls and gas turbine engine design and development. He has a Bachelor of Science Degree in Aerospace Engineering from the University of Michigan, Ann Arbor, and is a Certified Six Sigma Black Belt in Customer Driven Quality Processes. c American Society for Engineering Education, 2018 Preparing Tomorrow’s Workforce in Lightweight Materials: Properties, Optimization and Manufacturing
Incorporating Engineering Research Experiences into High School Physical Science CurriculaAbstractAs high school teachers, it is rare that we have the opportunity to see the engineeringapplications for the mathematics and science concepts we teach. In Summer 2009, however, weparticipated in a Research Experience for Teachers (RET) project at Tennessee Tech University.Our research experiences varied: the second author conducted research that explored packcementation processes and the variables affecting the aluminide coatings on nickel-based alloysin terms of composition and microstructure. Pack runs were conducted on the samples usingdifferent methods. Scanning electron microscopy (SEM) was used to look at
session included an introduction of the topic, a talk by acommunity representative connecting the topic to the cultural background of the students,common applications of the topic in day-to day life, background material on mathematics,science, and engineering, hands-on activities, and presentation of results by the students. Becauseof the vast distances and multiple sites involved, part of the academic activities were conductedin a distance-education mode. The success of the weekend academies was evident by the fact thatmost students who attended the first academy remained in the program for all of the academiesthrough the year and continued for the summer camp
researchand capstone projects aimed at improving efficiency and reducing operational costs at a local food Proceedings of the 2023 ASEE Gulf-Southwest Annual Conference University of North Texas, Denton, TX Copyright © 2023, American Society for Engineering Education 2bank. Then they extended that to interdisciplinary collaborations centered on the use of sustainableurban agriculture as a means to increase access to fresh produce within the emergency foodnetwork. Frey & Atwood (2013) used a Strength of Materials course to engage students in a localmiddle school in hands-on activities related to concepts like buoyancy
those of the authors and do not necessarily reflect the views of the National ScienceFoundation.Biographical Information:STACY S. KLEIN - Dr. Klein teaches high school physics courses at University School of Nashville, TN, andundergraduate engineering courses at Vanderbilt University. An active developer of new high school andundergraduate curricula through the VaNTH ERC, she is co-PI of the NSF-sponsored projects, “Biomedical ImagingEducation: Safe, Inexpensive Hands-On Learning” and the Vanderbilt BME RET Site Program.ROBERT D SHERWOOD – Dr. Sherwood works in the area of science education within the Teaching and Learningat Vanderbilt and has been an investigator on the VaNTH ERC since its inception. He is currently on leave from
and computer science. The full semester course is entitled, "CEASFreshman Orientation", commonly referred to as "EAS (Engineering and Applied Science) 100".It acquaints freshmen, transfer, and prospective engineering and computer science students withprograms in the college. The course also covers rules and regulations governing academicprogress in the university and the college. Information is provided on the Co-operative workprogram, student organizations, recommended study habits and skills, and many other areas ofbenefit to students new to the campus and field. The mission of the course coordinators is tomotivate students to create their own assignments for action; to take control of their educationalfutures.The course, whether taken by a
background of Prolog, search, agents, knowledge / rulebased systems, planning and natural language processing43. The following topics are coveredfrom the machine learning and computational intelligence part of the course: an overview ofmachine learning, simple learning methods, neural learning and evolutionary computations.Students from the School of Engineering and Computer Science usually take this elective course.There are four assignments for the course, two for the symbolic intelligence and two for machinelearning and computational intelligence. Through these four assignments, students gain hands-on experience in applying these techniques to real-world applications. This course offersessential background and training for the students to start