meaning and relevance of Page 24.429.2the data the students acquire in the laboratory.A significant body of literature is available in engineering education journals and conferenceproceedings addressing the issues of modernizing teaching laboratories to take advantage of newand emerging educational technologies. Many of these papers can be categorized as either (1)projects incorporating multimedia elements to create on-line materials to facilitate the delivery oftheory instruction while retaining a significant “hands-on” component,1-13 or (2) projects inwhich virtual or remotely operated laboratories suitable for distance or totally on-line
uniqueopportunity to establish strong links with faculty, gain hands-on laboratory experience, anddevelop an appreciation for research careers in academia and industry. TREX participantsreceive a $2,600 research stipend ($1,300 per semester) and are required to spend an average of10-14 hours per week on his/her research project throughout the fall and spring semesters. Inaddition, TREX participants are required to submit: (1) a research plan; (2) monthly progressreports; (3) a daily research journal; and (4) a final written report. Finally, TREX participantsare expected to attend weekly seminars/group meetings and prepare a poster and oralpresentation.Since Fall 2001, 97 students have participated in TREX. The retention rate in engineering forTREX
. Develop the initial piston-crankshaft assembly 7 CAD Design Assembly design in Solidworks. Solidworks Simulation and Perform motion analysis and complete hand 8 Hand Calculations calculations for the assembly. Determine stress, strain, and factor of safety on the 11 Stress Analysis connecting rod; select material. Complete 3D Printed Engine Fabricate engine parts using 3D printing and 12 Assembly assemble the engine. Engine Testing with an Test the engine at increasing RPMs and bring 13
continue bioinformatics laboratory development as a part of the educational component. Page 15.1023.1© American Society for Engineering Education, 2010 Reflections and Measures of STEM Teaching and Learning on K-12 Creative And Performing Arts StudentsAbstract Despite the fact that many students with interests in the creative and performing arts havethe potential to be successful in science, technology, engineering and mathematics (STEM), theyoften rule out pursuing careers in STEM. We argue that one reason for this is the broader societaldichotomy between creative and technical fields: students
interested in the impact of multimedia, visual representations, and interactive educa- tional technologies on students’ comprehension processes and learning outcomes. She is an Assistant Professor at the University of Utah in the Department of Educational Psychology’s Learning Sciences and Instructional Design & Educational Technology programs. Page 25.1121.1 c American Society for Engineering Education, 2012 Representation guidance with abstract and contextualized representation: Effects on engineering learning performance in technological
Paper ID #43034A Predictive Study on the Adoption of Active Learning at HBCUs amongEngineering FacultyMr. Pelumi Olaitan Abiodun, Morgan State University Pelumi Abiodun is a current doctoral student and research assistant at the department of Civil Engineering, Morgan State University, Baltimore, Maryland. Pelumi got his BSc and MSc degree in Physics from Obafemi Awolowo University, where he also served as a research assistant at the Environmental Pollution Research unit, in Ile-Ife, Nigeria. As part of his contribution to science and engineering, Pelumi has taught as a teaching assistant both at Morgan State University
, acting as the generator for RE-Brake, was externally resourced from the Internet but wasreliable and proved well for our project. It consistently maintained high speeds and providedsufficient resistance within the gears. Fortunately, after many attempted designs, we finally founda wheel that fulfilled our project’s high goals and standards. The wheel was originally intendedfor use on a motorized robot but happened to be the right size, shape and maintained a considerableamount of durability. Consequently, we shifted our focus to plastic materials and went with theresources that our engineering program provided and 3D printed our rotating wheel. We mademeasurements and tried to fit all our pieces together. The wheel needed to be able to fit a
designers and engineers having diverse educational and experientialbackgrounds. The program emphasizes the use of modern solid modeling tools to build a virtualmodel of a system, together with finite element programs for the evaluation of stress anddeflection in the virtual model. The DEC core courses build on the fundamentals and encompassmany of the mechanical design concepts included in the distance-learning Bachelor of Science inEngineering (BSE) degree program offered to people working in industry.1 The capstone designproject is the culmination in both the certificate course sequence and the on-campus coursesequence. An important requirement by the client was that the distance-learning capstone designcourse must incorporate the same principles
position at the Universidad Nacional de La Plata, Ar- gentina, and has served as visiting and resident professor at universities in Brazil, and many other countries in Ibero-America. He is the Executive Vice President and Founder in 1990 of the Ibero-American Science and Technology Education Consortium (ISTEC), a successful non-profit organization with the mission to accelerate STEM education, R&D and entrepreneurship in Latin America and the Iberian Peninsula. He serves on the Board of Directors of several industrial and professional organizations. He served as Vice President for the Americas Region and Executive Committee in the International Federation of Engineer- ing Education Societies. He is on the Board of
Engineering Technology Department Northwestern State University (NSU), Natchitoches, Louisiana Rafiqul Islam Engineering Technology Department Northwestern State University (NSU), Natchitoches, Louisiana AbstractIn the early spring 2020, when COVID-19 pandemic started spreading all over the world, like anyother educational institutions, the engineering technology department at our university completelymoved to a virtual environment regardless of lecture or hands-on nature of the course. Online meetingplatforms, recorded video instructions, and simulation software became the only source
. Page 23.940.1 c American Society for Engineering Education, 2013 On Adopting an Inquiry Stance: A Case Study of Three Teachers as They Integrated InterLACE Technology to Encourage Student Sharing and ReasoningAbstractTo produce a more technically and scientifically literate population, we need to place studentideas at the forefront of science and engineering classroom activity so that those ideas can beexposed and refined and the students feel they have a stake in building that knowledge base.Accordingly the Interactive Learning and Collaboration Environment (InterLACE) Project hascreated a technological tool that allows students to post their thoughts via a Web-based platformto a
2006-2066: SHORT AND LONG-TERM INFLUENCE OF EXCELLENTINSTRUCTORS ON GRADUATES IN ENGINEERING TECHNOLOGY: A CASESTUDYMaher Murad, University of Pittsburgh-Johnstown Maher Murad is an Assistant Professor of Civil Engineering Technology at the University of Pittsburgh at Johnstown. Dr. Murad was a visiting assistant professor at Bucknell University and had overseas teaching experience. He also worked as a highway project manager for Acer Freeman Fox International (Hyder Consulting). Dr. Murad received M.S. degree in Civil Engineering from the University of Toledo in 1987 and a Ph.D. in Engineering Science from the University of Toledo in 1994. His teaching interests include transportation, highway design
Paper ID #37495Board 262: Effects of an Intervention on Student Self-Efficacy andIntegration in Chemical Engineering SophomoresBrad Cicciarelli, Louisiana Tech University Brad Cicciarelli is a Distinguished Lecturer in the chemical engineering and mechanical engineering departments at Louisiana Tech University. He earned a B.S. from the University of Florida and a Ph.D. from M.I.T., both in chemical engineering. He teaches a variety of courses, including material and energy balances, thermodynamics, heat transfer, and numerical methods.Dr. Timothy Reeves, Louisiana Tech UniversityMrs. Catherine Hendricks Belk, Clemson
a couple of critical comments as well. To quote one of the students: “This was the firstreasonable course I ever took” - it seems something must be wrong with the undergraduatecourses in electrical engineering. It is often well appreciated that our course combines thesolution of a practical problem, and thus a hands-on approach to the problem, while it alsoprovides the theoretical background material. Thus, students seem to like learning how thingslike JPEG work by actually creating a working implementation of their own.From the critical voices we collected, the two issues coming up most are that the high amount ofmathematics in the course is disliked, and that the software design meetings have been found tobe annoying. The first point is
males and females along withsuccessful study and learning techniques that equip future engineering students with both thecognitive and psychological awareness needed to complete their engineering education.AcknowledgementsThis material is based on work supported by the National Science Foundation under Grant No.ESI-0227558, which funds the Center for the Advancement of Engineering Education (CAEE).CAEE is a collaboration of five partner universities: Colorado School of Mines, HowardUniversity, Stanford University, University of Minnesota, and University of Washington. Wewould like to acknowledge the contributions of colleagues from the survey team of the AcademicPathways Study who designed the survey from which some of the results in this study
Paper ID #14712A Design-Based Research Approach to Refining Pedagogy in EngineeringEconomics Online LearningMs. Kellie Grasman, Missouri University of Science & Technology Kellie Grasman serves as an instructor in Engineering Management and Systems Engineering at Missouri University of Science and Technology. She holds graduate degrees in engineering and business admin- istration from the University of Michigan, and began teaching in 2001 after spending several years in industry positions. She was named the 2011-2012 Robert B. Koplar Professor of Engineering Manage- ment for her achievements in online learning. She
AC 2010-2224: AN ASSESSMENT OF LONG-TERM IMPACTS OF THREEON-CAMPUS K-12 ENRICHMENT PROGRAMSFleur Gooden, Virginia Tech Fleur Gooden earned a B.S. degree in Computer Science and Engineering from the Massachusetts Institute of Technology and a M.S. degree in Management Information Systems from the University of the West Indies, Mona. She is currently completing her Ph.D. In Planning, Governance and Globalization at Virginia Tech while working for the Center for the Enhancement of Engineering Diversity (CEED) in the College of Engineering. Her research efforts are focused on reducing crime through the implementation of activities targeting at-risk youth.Maura Borrego, Virginia Tech
Creation of an Introduction to Engineering Course based on the “Civil City” Concept Philip J. Parker 1 and Max L. Anderson2 Session #27931 IntroductionThe freshman year for an engineering student is critical to the retention of that student. Thetypical first-year engineering curriculum in the US contains a rigorous workload of science andmathematics courses, along with two or three courses in the humanities. Often, the onlyexposure to engineering that students obtain in this first year is in an introductory engineeringcourse. We have developed an introductory engineering course that effectively engages the
truly cross-disciplinary and global in scope. It must be tailored to suit both the engineering student, and thestudent who is afraid of engineering and science, but has other valuable talents to contribute. Page 14.7.3A grant from the Office of International Education funded acquisition of critical laboratory itemsto build demonstrations, hire student assistants, and travel to set up a joint project with a studentteam in another nation with very different realities. A one-year project was brought to successfulcompletion in coordination with ongoing work at our lab, as that student team graduated. At ourhome institution, students in our Spring
?,’ ‘Does your decision-making process differ fromwhen you first started?,’ ‘Do you have engineering intuition?,’ and ‘How did COVID-19 affectthe development of your expertise/decision-making/intuition?’ Responses to these questionswere qualitatively coded to capture common themes. Results from coding reveal that the loss ofexperience due to COVID-19 parallels a lack of ownership of expertise by three participants andclaims of having a faulty, or underdeveloped, intuition. Further analysis of responses indicatesthat hands-on and collaborative experiences are most helpful for developing expertise andintuition, highlighting their usefulness when integrated into engineering education curriculum.IntroductionCOVID-19 sparked both short- and long-term
Award for Excellence in Service-Learning. Dr. Vernaza does research in engineering education (active learning techniques) and high-strain deformation of materials. Recently, she has focused on systemic strategies for the retention and advancement of STEM faculty and students, and academic in- terventions to improve student success. She is currently the Principal Investigator of a $1 million dollar National Science Foundation S-STEM award (2017-21), and she has secured over $2.5 million in grants during her tenure at Gannon University. She is currently the PI of an NSF S-STEM and ADVANCE-PAID grants.Dr. Saeed Tiari, Gannon University Dr. Saeed Tiari is an Associate Professor in the Biomedical, Industrial and Systems
posits that energy isubiquitous across all Science, Technology, Engineering, and Mathematics (STEM) curricula, andthus pragmatic energy engineering lab experiences can be spirally inserted into any college or highschool STEM course. A growing catalog of EELM examples permeate the literature thatdemonstrate and share the following characteristics: they are 1) economical, 2) hands-on, and 3)“turnkey”. EELM pedagogy has been used to incorporate additive manufacturing into middleschool classes [vi]; teach high school biology, chemistry, and physics labs [vii,viii,ix]; demonstratethermodynamics applications to high schoolers [ x , xi ]; teach hands-on fluid mechanics classes[ xii ,xiii , xiv , xv ,xvi , xvii ]; add gas turbine experiments to
employers suggests a greater emphasis onattributes including flexibility, conscientiousness, integrity, problem solving, communication,and organizational skills [1]. ABET reflects these demands, outlining the desired skill-set ofengineering graduates to include: ● an ability to apply knowledge of mathematics, science, and engineering ● an ability to communicate effectively with a range of audiences ● an ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors ● an ability to function on multidisciplinary teams and ● an ability to identify, formulate, and solve
business students are both attracted to and motivated byentrepreneurial learning opportunities very early in their college careers.IntroductionThere is ongoing discussion among engineering educators regarding whether or not engineeringstudents should be exposed to business subjects in order to better prepare them for engineeringcareers.1 And, if so, what would be the best way to integrate such material into the traditionalengineering curriculum? The issue of teaching entrepreneurship (how to start a company) toengineering students is even more complex, since few engineering faculty have had actualstartup experiences and only a small percentage of engineering graduates will go on to start theirown company sometime during their career.And yet
assignments directly related to thecontent of the lectures in the ENGR0081 seminar course. We now find that a once verypassive learning environment now actively engages the students.This active, multi-faceted learning environment would not be possible without ongoingcollaboration among faculty from various academic areas. From its inception, E/FEWPrequired administrative support from various university areas and hands-on intellectual andpragmatic partnership among faculty from the Freshman Engineering Program, the Englishdepartment, and the University of Pittsburgh Library System. The dean of Arts and Sciences,the dean of the Swanson School of Engineering, and the chair of the English department sawthe benefits of supporting a program that would
improvement.Conversely, the current study conducted pre-tests and post-tests to determine learning gains,thereby lowering the risk of poor internal validity that could affect students' results.Furthermore, Weiwei et al. measured student engagement using formative assessment, whilethe present study used an observation rubric to estimate engagement.MethodSetting and SampleQuota sampling (in lieu of random sampling) was performed in a CS0 (introductory computerscience) course. This course is designed by instructors to engage students in a variety oftopics while reinforcing why computing science is essential. The curriculum replaces routineexams with hands-on interactive activities to encourage discussion and analysis, althoughsome lecture material is used to
theme centered in student learning of engineering design thinking on the secondary level. Nathan was a former middle and high school technology educator in Montana prior to pursuing a doctoral degree. He was a National Center for Engineering and Technology Education (NCETE) Fellow at Utah State University while pursuing a Ph.D. in Curriculum and Instruc- tion. After graduation he completed a one year appointment with the Center as a postdoctoral researcher.Prof. Rebecca Kramer-Bottiglio, Yale University Rebecca Kramer-Bottiglio is an Assistant Professor of Mechanical Engineering and Materials Science at Yale University. She completed her B.S. at the Johns Hopkins University, M.S. at U.C. Berkeley, and Ph.D. at
24.951.7 achievement, self-esteem, and attitude toward learning. • Every person is entitled to counseling and instruction that is compatible with his/her style of learning. • Applicable curriculum and teaching methods should be learning-style based and personalized to address and respect diversity.Despite the many variations of substance, content and views of learning styles, thepractice of incorporating some or all of the elements listed above in an “engineering”course, in which one is already faced with the problem of too much material in too short atime, is daunting. So the idea of teaching to easily identifiable learning styles, whilesuperficially simple, is in reality highly complex. But the
Paper ID #10465Expansion of the ME/MET Capstone Course from One to Two QuartersProf. Martin William Weiser, Eastern Washington University Martin Weiser is an Assistant Professor in the Engineering and Design Department at Eastern Washington University. He earned his BS in Ceramic Engineering from the Ohio State University and his MS and PhD in Materials Science and Mineral Engineering from the University of California at Berkeley. He then joined the Mechanical Engineering department at the University of New Mexico where he taught Materials Science, Thermodynamics, Manufacturing Engineering, and Technical Communication. Mar
a three-year period.A listing of the impacted courses and a brief description of the activities conducted within themare described below. Instructional materials associated with these modules, includingworksheets and student handouts, can be found in an online library for EFFECTs located at:http://sdii.ce.sc.edu/effects/. The courses are listed in academic order, from first-year to senioryear courses.ECIV 101: Introduction to Civil and Environmental Engineering(first year, required course)In this course, students routinely participate in several hands-on modules to experience variousaspects of civil engineering, including environmental, geotechnical, and structural engineering(Pierce et al. 2012). The nanotechnology themed module was