Paper ID #15032The Impact of One-Credit Introductory Engineering Courses on EngineeringSelf-Efficacy: Seminar v. Project-BasedDr. Nicholas Andres Brake, Lamar University Nicholas Brake is currently an Assistant Professor in the civil and environmental department at Lamar University. He received his B.S. (2005), M.S. (2008), and Ph.D. (2012) from Michigan State University. His area of expertise is in cementitious composites which includes: fracture and fatigue mechanics of quasi-brittle materials, recycled concrete, conductive concrete, reinforced concrete, pervious concrete, geopolymer, and structural dynamics. He currently
AC 2007-1681: MODELS OF NANOSCALE PHENOMENA AS TOOLS FORENGINEERING DESIGN AND SCIENCE INQUIRYShanna Daly, Purdue UniversityLynn Bryan, Purdue University Page 12.1077.1© American Society for Engineering Education, 2007 Models of Nanoscale Phenomena as Tools for Engineering Design and Science InquiryAbstractOne of the central goals of the National Center for Learning and Teaching Nanoscale Scienceand Engineering (NCLT) focuses on integrating concepts of nanoscale phenomena into middle-and high-school curricula. To this end, it becomes especially important to utilize models andmodeling for instructional purposes. Teachers’ conceptions on the use
k.Introduction Laboratory activities have been an integral part of the education process for a long time.It is the opinion of faculty that hands-on-activities enhance the learning process. Very fewpersons would like to have their blood drawn from a phlebotomist who had never practiced, buthad only read the book. Typically, engineering courses have the laboratory as either an integral part of the classor a separate free standing course that may or may not be taken with the lecture portion of theclass. In mechanical engineering at Texas A&M University, we have a four-credit juniormaterials and manufacturing course that includes laboratory as part of the course. This coursehas recently been developed and we have reported on the
Engineering Education, 2013 Using Summer Programs to Excite Secondary Students about Nanoscale Science and EngineeringAbstractNanoscale Science and Engineering (NSE) is a fast growing area of science and engineering thatcrosses all discipline boundaries. Several studies have stressed the importance of includingnanoscale concepts and topics into the K-12 curriculum. One approach that the NationalNanotechnology Infrastructure Network (NNIN) has developed to explore NSE topics withsecondary students is through summer programs. At the Georgia Institute of Technology site ofthe NNIN we offer one week camps to introduce a variety of nanoscale concepts. The GeorgiaTech camp provides numerous hands-on activities to explore themes
as the participants apply them: optimism in persisting,systems thinking in combining many materials that each have different effects on the sound,ethics as they share materials, communication as they pitch their solutions, collaboration as theywork on a team to develop a solution to the problem, and creativity as they use materials thatthey have likely never used for the purpose at hand before. The engineering practices are allused, as outlined in the links to standards above. Finally, the facilitators will outline theconnections to electrical engineering, materials engineering and mechanical engineering.Diversity. This year is the American Society for Engineering Education’s “Year of Action on
worked as a Clinical Laboratory Scientist for over 20 years before earning her Master's Degree in Computer Science. She is interested in developing successful methods of recruitment, retention, and placement of students majoring in computer science. Page 11.344.1© American Society for Engineering Education, 2006Computer Science Recruiting and Retention of Undergraduates to Meet the Needs of the Business CommunityINTRODUCTIONAvailable information from a variety of governmental and private sources indicate anincrease in the demand for computer science (CS) and information technology (IT)professionals in the
South Carolinaand is a 2-year participant in the NSF GK-12 Fellowship Program.JED LYONS is an Associate Professor of Mechanical Engineering at the University of South Carolina and theDirector of the South Carolina Center for Engineering and Computing Education. He teaches laboratory, design,and materials science to undergraduates, graduate students and K-12 teachers. He researches engineering education,plastics and composites. Jed is the GK-12 PI. All correspondence should be addressed to Jed S. Lyons, University ofSouth Carolina, Columbia, SC, 29208. lyons@sc.edu.CHRISTINE EBERT a Professor of Education and the Associate Dean of the Graduate School and Co-PI on theGK-12 grant Dr. Ebert is instrumental in teaching engineering students how to
of theepistemological background of thinking like an engineer. In this paper, we willbegin with a description of the sophomore engineering clinic, then focus on aparticular activity designed to bring a rhetorical awareness to issues that arise inengineering and science. In order to motivate student interest and participation,we decided to work with an issue that has received a significant amount of recentpress, the use of genetically modified organisms in products for humanconsumption. We found that students have strong opinions on this topic, but areoften unacquainted with the science behind genetically modified organisms.The pairing of a faculty member trained in classical rhetoric and analysis ofpersuasive writing and a faculty member
AC 2008-1444: ATTRACTIVE SCIENCES - RECRUITING AND RETENTIONACTIVITIES FOR WOMEN IN ACADEMIC CSET EDUCATIONNina Dahlmann, Technische Universitaet Berlin Nina Dahlmann has been working on several eLearning projects at the Berlin University of Technology since 2001. She began as a student member of the Mumie team where she was involved in the design, the development process as well as the implementation of the eLearning platform Mumie, a platform using new pedagogical concepts to support teaching of mathematics for mathematicians, engineers and natural scientists. Further on, she assisted the project management of the Mumie project in its future orientation and development. In the past year
performance standards inconjunction with increasing practice using a compass-guided solution process can lead tosignificantly higher student performance on exams.7. References[1] Ronald C. Averill, Geoffrey Recktenwald and Sara Roccabianca, “Effect of AssessmentMethods on Performance in Mechanics of Materials,” 2018 ASEE Annual Conference &Exposition, Salt Lake City, Utah, June 24-27, 2018.[2] Peter C. Brown, Henry L. Roediger III and Mark A. McDaniel, Make It Stick: The Scienceof Successful Learning, Cambridge, MA: The Belknap Press of Harvard University Press, 2014.[3] James M. Lang, Small Teaching: Everyday Lessons from the Science of Teaching, SanFrancisco, CA: Jossey-Bass, 2016.[4] T. Pachur and H. Olsson, “Type of Learning Task Impacts
Paper ID #36525The Future of Building Science Education with the U.S.Department of Energy Solar DecathlonRachel L L Romero (Engineer and Project Leader) Rachel Romero is an energy engineer and project leader at the National Renewable Energy Laboratory. Rachel obtained her Bachelor of Science in Mechanical Engineering from Hope College and then received her master’s degree in Building Systems Engineering at the University of Colorado Boulder. She received her PE in 2014. Rachel is an active member of ASHRAE, chairing the 2020-2021 Young Engineers in ASHRAE Committee. She is active on TC 9.10 Laboratories. At
the material. She opened by suggesting that she maximizes her student’slearning “by giving opportunities for them to practice a lot.” We felt as though she had madeprogress during the course of the study.TheodoreThe area of greatest change that Theodore displayed was related to his ideas for the question“how do your students learn best?” In his pre-interview, Theodore’s statements indicate that hebelieves students learn best by learning a topic and applying it through a hands-on activity. He“tr[ies] to incorporate that [hands-on activities] whenever I can in science, but it can be hardsometimes depending on what you’re teaching”. Here he indicated that he thinks that studentslearn best when they are given an appropriate activity by their
(EiE), an NSF funded engineeringcurriculum project focused on integrating engineering, reading literacy and elementary sciencetopics2,3. Another engineering education initiative is Project Lead The Way (PLTW), whichpromotes technology education in the classroom for middle and high school students4. As well,the American Society for Engineering Education (ASEE) has provided guidelines for hands-on,standards-based, interdisciplinary engineering activities5, and the National Academy ofEngineering with their publication Technically Speaking encourages technological literacy6.These curriculum initiatives and publications promote engineering as a career choice. But thereare opportunities in elementary science education where engineering design and
knowledge in specific science topics andengineering. This paper will focus on the data collected from teachers regarding thesecond goal of this project, which is improving the teachers’ notions of scientific inquiry.Future papers will focus on findings that will address the other goals.Each year of the PISA program focuses on a different science discipline withcorresponding technology and engineering lessons. The first year was devoted to life andenvironmental sciences, earth and space sciences this year, and physical sciences nextyear.During the two-week summer institute held in 2008, teachers learned earth and spacescience content through lectures, hands-on activities, field trips, webquests, collaborativework, reflections, model-based inquiry
logic and reason that predates the current instructor. Recently, this glaringinequity (especially so in the eyes of the students) was corrected and the result was a two-credithour lecture and an accompanying one-credit hour laboratory session (again, resulting in a totalof three hours a week). Part of the reason for this change was the addition of the AXFABfacility, and the formal acknowledgement of increased emphasis on substantial undergraduatelaboratory content throughout the curriculum.The Engineering Materials Science course has always emphasized the laboratory component ascritical towards achieving the documented ABET Outcomes, especially within the structuralmechanics sequence of courses. However, proper facilities were lacking, both in
interviewed. Two did not accept the interview due to lack of time (75% participation). • Workshop assistant: Engineering students who organized poster sessions on outstanding women in science and engineering throughout history. They also supported the instructors in developing the educational materials for the workshops. Eight of the ten students were interviewed (80% participation). • Workshop instructor. Faculty from the School of Engineering organized and facilitated educational workshops in different areas of science and engineering. These eight academicians participated voluntarily. All participating instructors responded to the interview. 8 Speakers
properties. The VQM materials provided students an opportunity to explore lightspectra through hands-on activities. In addition, students were exposed to various computersimulation tools such as the “Spectroscopy Lab Suite 25.”Traditionally, topics in Modern Physics are highly mathematical in nature. However, the VQMmaterials are very unique in that they were designed specifically with the non-science student inmind, and hence, require only a minimum background in mathematics. Students taking onesemester of college algebra, which is typical of the students enrolled in the PNM course, arewell-prepared to handle the mathematics involved with the VQM materials. The underlyingmessage to the students is that both the foundation course, PMW, and the
over the next generation. In 2003, the National Science Board reported3that the most significant threats to our science and technology workforce include: ≠ Flat or reduced domestic student interest in critical areas, such as engineering and the physical, and mathematical sciences ≠ Large increases in retirements from the S&E workforce projected over the next two decades ≠ Projected rapid growth in S&E occupations over the next decade, at three times the rate of all occupations ≠ Anticipated growth in the need for American citizens with S&E skills in jobs related to national security, following September 11, 2001 ≠ Severe pressure on State and local budgets for education
reliable option at typical academic conferences, which often have problems supporting reliableemail access, much less the bandwidth required for a quality virtual presence. Some program chairsare relying on the next best thing; prerecorded videos of speakers talking in front of slides, andplaying them over a projector to the conference audience. In this paper, we present our experiencesusing our image processing toolkit ChalkBoard1,2 to help perform a lightweight post-production of arecorded conference talk, the technical challenges we faced, and report on how the final talk wasreceived by our audience.If an interested party looks hard enough, the internet, and especially youtube.com, contains manylecturers presenting quality technical material to
own. The language barrier made this a challenge until the students learnedsome Portuguese. The complete three week calendar is available on the WWW athttp://tardis.union.edu/~williamg/Brasil/calendar_2000.html .F. Evaluation of Student WorkThe student's work is evaluated by examination of his/her journal, notes from UnionCollege speakers, notes from resident experts in Brasil, an annotated bibliography tosummarize the library research, a term paper (and its first draft), seminar presentations,and the organization of all the material into a PowerPoint oral presentation. Page 7.864.3 Proceedings of the 2002 American Society for Engineering
Using Robotics Competitions to Teach Teamwork Principles And Fundamental Engineering/Computer Science Concepts James Giles, Anthony Richardson, Donald Roberts, David Mitchell University of EvansvilleAbstractAll freshmen in the electrical engineering, computer engineering, and computer scienceprograms at the University of Evansville take a common “Introduction to Engineering” courseduring their first semester. The course is focused on exposing students to team-based,multidiscipline, and project-oriented learning. Two robotics contests are used to teachfundamental principles in electrical engineering, computer engineering and computer science.The contests have also been very
program in 2007-2008 and was the only community collegerepresentative on the National Academy of Sciences Committee on Workforce Trends in the U.S. Energy and MiningIndustries which released their report in March 2013. © American Society for Engineering Education, 2022 Powered by www.slayte.com Supervisory Controls and Data Acquisition Instructional Materials and Resources for Energy Education ProgramsAbstractThe CREATE Supervisory Controls and Data Acquisition (SCADA) project is an industry driveninitiative brought about by three colleges, working with an industry utility partner. The projectbegan in July 2019 with the goal of integrating 21st century SCADA
with active learning pedagogies on student learning, and effective strategies for increasing gender diversity in STEM disciplines.Prof. Margaret B. Bailey P.E., Rochester Institute of Technology (COE) Professor Margaret Bailey, Ph.D., P.E. is a Professor of Mechanical Engineering within the Kate Gleason College of Engineering, Rochester Institute of Technology. Dr. Bailey teaches courses and conducts re- search related to Thermodynamics, engineering and public policy, engineering education, and gender in engineering and science. She is the co-author on an engineering textbook, Fundamentals of Engineering Thermodynamics, which is used worldwide in over 250 institutions. Dr. Bailey is the Principal Investi- gator (PI
Mathematics), tutor (Math Support Center, Learning Strategic Center, Engineering Learning Initiatives). He has also served as a peer-counselor/tutor at Delaware State University (while participating in Intensive Summer Science Program, ISSP) and College Counselor/Mentor for National Society of High School Scholars (NSHSS). His research interests cover a range of science and engineering disciplines ranging from mathematics education, mathematical modeling and methods in Physical, Biological, Engineering; Political Science (Concentrating on African Continent); Nanobiotechnology with emphasis on Micro-fluidic device, biosensors, thin-film, and nano/micro-actuators; to Dynamical and theoretical
groups using online resources and hands-onexperiences; (2) creation of mentorship relationships between undergraduate engineeringstudents and camp attendees; (3) competitions based on small projects to increase engagement.Pre- and post-camp survey on a 5-point Likert scale indicated that the girls showed increasedawareness of science/engineering careers and pathways, everyday application of coding, andspecific coding jobs that require coding. However, the camp did not change their attitude towardspursuing a career in science and engineering. Our results suggest that short coding camps mightpotentially increase awareness or coding jobs but may not generate long-term interest in pursuingscience and engineering careers. Thus, our recommendation is
AC 2007-2062: DISTINGUISHING THE ART FROM THE SCIENCE OFTEACHING WITHIN RESEARCH-BASED CURRICULUM AND ASSESSMENTWendy James, Oklahoma State University Wendy James is a PhD student in the College of Education at Oklahoma State University. Currently she has a fellowship promoting collaboration between the College of Education and OSU's Electrical and Computer Engineering department on an NSF funded curriculum reform project called Engineering Students for the 21st Century. She has her M.S. in Teaching, Learning, and Leadership from OSU, and her B.B.S. in Mathematics Education from Hardin-Simmons University in Abilene, Texas. She has taught math and math education classes at both the high
pedagogies of engagement at the freshmanand sophomore level4. When thinking about adopting and adapting a best practice, a crucialquestion that often arises is to what extent the practice can be up-scaled so that it benefits amajority of students in a sustainable manner. Motivated by our experience in an introductorychemistry course where implementing peer led team learning (PLTL) has shown to improveunderstanding, passing rates, and retention5, we opted to expand the effort by includingmathematics and science gateway courses that are part of five undergraduate engineering degreeplans. This effort guarantees that most engineering students experience PLTL in at least onemathematics and one science course. The selected courses for this purpose are
and compared the ITL paradigm and learning experience to the PBISparadigm and learning experience. The ITL approach is upfront and explicit with terms,concepts, vocabulary, and learning outcomes, both for science and engineering content. Forexample, students read about simple machine types, and they are told that simple machines canhelp engineers build complex machines that make work easier. Students then have an experiencewith a device that confirms these statements. In this way, ITL is hands-on and uses active and(some) constructive activities, but it does resemble more traditional methods of curriculumdesign and learner experience.PBIS also has students engage in hands-on materials, however the paradigm and sequence ofexperience are not
Dept. of Mathematics and Statistics, Auburn University, Auburn, AL 36849 5 Dept. of Computer Science and Software Engineering, Auburn University, Auburn, AL 36849 * Corresponding authorAbstractThe importance of data science and engineering (DSE) education cannot be overstated andundergraduate education offers a critical link in providing more DSE exposure to students andexpanding the supply of DSE talent. Currently significant progress has been made in classwork,while progress in hands-on research experience is still lacking. To help fill this gap, we proposeto create data-enabled engineering project (DEEP) modules in the form of interactive JupyterNotebooks based on real data and applications. We
worked with 40 students from Dagon University tostudy wastewater quality at Yangon, Myanmar. This project has enriched students’understanding on the importance of water, sanitation, and hygiene as keys to nationaldevelopment. They also experienced first-hand how engineering and science professionalscan work together in developing solutions with real-world impact in wastewater treatment.Students from both universities collaborated in teams to design, develop, and deploy anexperiment to examine the wastewater condition in Myanmar. Engineering students took thelead on the development of technologies (e.g. implementation of Arduino-based remote datasensing and cloud-based database) to measure and report the biochemical oxygen demand(BOD) in