paper systematically steps through the implementation process and how the challenges mentioned above were addressed in practice. As life, school and internships return to normal in 2021 and beyond, the Virtual internship intervention can still play a valuable role in the experiential learning landscape. However, higher education institutions may need to intentionally de-couple the educational innovations rapidly developed during the COVID-19 pandemic from being ‘pandemic solutions’ to valuable alternatives that provide equitable and scalable access to educational opportunities and proactively invest in their continued sustainability and
argue thatengineering education specifically supports a wide range of STEM learning objectives. Othersargue that integrating the STEM disciplines through engineering has the potential to improvestudents’ knowledge and perceptions of engineering as a profession as well as encourage morestudents to pursue STEM related careers2,11. Thus, it seems that within the K-12 setting,engineering might be best addressed within integrated STEM classrooms.Realizing the promises listed above of integrated efforts in the classroom, however, will requireat a minimum adequate professional development, institutional structures that supportintegration, and quality integrated curricula around which teachers can develop their instruction.Each of these in turn will
Paper ID #49651Learning Languages through Interactive GamingMr. Colby Edward Kurtz, Houston Christian University ©American Society for Engineering Education, 2025 1 Learning Languages through Interactive Gaming 1Colby E. Kurtz, 2Matthew Z. Blanchard, 3Marian K. Zaki 1,2 Undergraduate Cyber Engineering Students, 3Assistant Professor of Computer Science College of Science and Engineering Houston Christian University kurtzce, blanchardmz, mzaki @hc.edu
more than 60 STEM education related projects funded by NSF (e.g., projects funded through the ADVANCE, AISL, DRK-12, ITEST, IUSE, Noyce, STC, and STEM+C programs), state, and local agencies. She has experiences working as a member of the evaluation team on several projects focusing on engineering education at K-12 or post-secondary levels. She is currently serving as the PI of an NSF funded ITEST Synthesis project (Award #1949437), co-PI of an NSF-funded DRK-12 project (Award #2010351), Senior Personnel (mentor) of an NSF-funded RIEF project (Award #2306176), and the lead evaluator for numerous evaluation projects.Ms. Maressa L. Dixon, Miami University Ms. Maressa L. Dixon (M.A.), is a Senior Research Associate with
) and it leads to both the existence of the electromagnetic field and to conservation of electric charge. In the 19500 s C.N. Yang and R. Mills came up with a general procedure The equations relating the components of YMG’s effec- for working out the field and its interactions associated tive metric are very complicated and non-linear so a nice with a given symmetry [6]. The details of this method are closed form like the Schwarzchild metric cannot be writ- beyond the scope of this paper but the interested reader is ten down. However, we can use successive approximations referred to [1] for a reasonable introduction. In YMG we to solve
State University (K-State). Dr. Dissanayake has taught numerous transportation engineering-related courses at both graduate and undergraduate levels, preparing the future generation of Civil Engineers ready for the real world. She has also been the PI and Co-PI of many research projects in traffic engineering and highway safety, and published extensively. ©American Society for Engineering Education, 2024 A Framework for Closing Workforce Knowledge Gap Through Engineering EducationABSTRACTAlmost all engineers are well accustomed to advanced mathematical and scientific concepts.However, the non-engineering workforce may be vastly different from the typical
globe, (b) engage inengineering research practices as they conduct their own agrivoltaics research, (c) andco-develop curriculum and resources support their students to conduct agrivoltaicscitizen science. They disseminate curriculum and PV citizen science pedagogicalmodels to teachers and administrators in partner districts and beyond throughworkshops, websites, conferences, and publications. Finally, they create meaningfulbonds and long-term relationships between regional K-12 partner schools, industrypartners, and host universities through follow up activities and an online citizen sciencenetwork. Teachers communicate with each other and with mentors, and facilitatorsthrough an SPV Lab online platform to share classroom successes and best
% the proportion of female registrants. Figure 1. Newly licensed engineers who are women1However, gender diversity is only one dimension, and for many post-secondary institutions in BritishColumbia (BC), is one that is typically acquired through the admissions office [1]. Although this datahas evolved to better capture the gender diversity of students more holistically, under-representedgroups also extend beyond the visible (e.g. racialized minorities) to the invisible (e.g. socio-economicstatus, sexual orientation) [2], [3]. For example, in 2021 almost 7.4% of Canadians lived in poverty2while close to 18% of Canadians aged 15 and older met the diagnostic criteria for a mood, anxiety, orsubstance use disorder over the
human eye. ) 5, 7, 15 Two obstacles to applying VR tonanoscience at the K-12 level are: (1) Younger students have difficulty making the leap to ascale so small that it cannot be seen, and (2) There needs to be a link relating the familiarphysical world to the new and unfamiliar world of VR. This paper presents an approach to leadstudents from the macroscopic physical world into the nanoscopic virtual world through a seriesof bridges that provide important educational learning progression. Page 12.56.3PROJECT DESCRIPTIONNanoscience education at the K-12 level faces the hurdle that some students have difficultygrasping concepts that they cannot
educational artificial intelligence tools. International Journal of Human–Computer Interaction, 39(4), 910-922.Dai, Y., Liu, A., Qin, J., Guo, Y., Jong, M. S. Y., Chai, C. S., & Lin, Z. (2023). Collaborative construction of artificial intelligence curriculum in primary schools. Journal of Engineering Education, 112(1), 23-42. https://doi.org/10.1002/jee.20503Dey, P., & Jana, D. K. (2023). Evaluation of the convincing ability through presentation skills of pre-service management wizards using AI via T2 linguistic fuzzy logic. Journal of Computational and Cognitive Engineering, 2(2), 133-142.Eugenijus, L. (2023). Integrating blended learning and STEM education: Innovative approaches to promote
self-exploration ofproblems by: Providing an environment that facilitates the integration of engineering analysis and engineering design by allowing users to explore different design options in early stages even before the detailed designs are made Stimulating an environment for design-analysis exploration, in which questions like „what-if‟, „why‟, „what‟ and „how‟ will be more effectively answered through on-the-fly simulation and visualization. Allowing better understanding of practical situations through solving problems, where conventional equations do not apply, and also beyond “toy” textbook problems. Enabling the transition from a model of education that is teacher-centered and passive to
Paper ID #44516Growing Graduate Mentors Through a Summer Intensive Research InstituteProf. Tryphenia B. Peele-Eady Ph.D., University of New Mexico Dr. Tryphenia B. Peele-Eady (Ph.D., Claremont Graduate University) is a Professor in the Department of Language, Literacy, and Sociocultural Studies (LLSS) in the College of Education and Human Sciences at the University of New Mexico, where she specializes in African American education and qualitative research methods. She holds a secondary appointment in the Department of Anthropology and is an affiliated faculty member in Educational Linguistics and the Department of Africana
. F. and Smith, K. A. 2008. Looking beyond content: Skill development for engineers. Journal of Engineering Education, 97:3, 295-307.[6] August, Stephanie E. and Hammers, Michele L. 2009. IEECI: Encouraging Diversity in Engineering through a Virtual Engineering Sciences Learning Lab. NSF Grant no.0935100.[7] Second Life Research: Second Life Residents Statistics. 08 March 2007. http://secondliferesearch.blogspot.com/2007/03/second-life-residents-statistics.html (last accessed 1 June 2009).[8] Moreno, R. and Mayer, R. 2007. Interactive multimodal learning environments, special issue on interactive learning environments: Contemporary issues and trends. EducationPsychology Review, 19, 309-326. DOI= 10.1007/s10648-007-9047-2[9
GIFTS: MAJOR exposure through engineering innovationsAs a first-year engineering instructor on the first day of class, someone invariably asks whatdiscipline of engineering they should go into. Not knowing the particular background of theseindividuals, it is difficult to give them meaningful advice on the spot. First-year students (andtheir parents) have an expectation that the first-year course will “help” them decide whatdiscipline the student should major in. However, introducing students to various fields ofengineering may not be the main foci of the course, as many first-year programs have evolvedtowards the inclusion of curricular content such as design, entrepreneurship, writing, and/orprogramming. This leaves little
Paper ID #18722Research in Optics for K-14 Teachers (ROKET): A Research Experience forTeachers in Native American SchoolsDr. Allison Jane Huff-Lohmeier, University of Arizona Dr. Huff-Lohmeier is the Education Director for a National Science Foundation Engineering Research Center, Center for Integrated Access Networks, at the University of Arizona where she also teaches Tech- nical Communication in the College of Optical Sciences. Prior to this, Dr. Huff-Lohmeier worked with the United States Embassy Association in Lima Peru, Central Michigan University, University of Mary- land, College Park, and University of Oklahoma
Paper ID #28025Strengthening Math Skills of Incoming Engineering Freshmen through a BridgeProgramJacquelyn Huff, Pennsylvania State University, University Park Jackie Huff received her MS (2005) and BS (2003) from the University of Illinois in the area of Electrical Engineering. After a stint of working in industry, she earned a teaching certificate and spent 6 years in public schools teaching students the joys of mathematics. In 2016, she transitioned to teaching intro engineering courses in a university setting. Currently Jackie is an Assistant Teaching Professor at the Penn State University with the School of
theprocedural stage. Teachers who achieve independence in teaching engineering and technologycontent have the continued use and support of STOMP resources, such as an activity database, toallow for continual improvement after STOMP fellows have been removed from the classroom.Why Use a Three-Phase Model?The STOMP three-phase model recognizes that learning a cognitive skill is a gradual processthat requires a learner to go through a dynamic process of learning. It is assumed that most K-12teachers have little knowledge of engineering and technology when embarking in STOMP. Self-efficacy literature shows that a classroom teacher has a better chance of succeeding at teaching atopic if they believe they are capable of teaching this topic.14 Self-efficacy
” fields had a weak interface with the K-12 system in the UnitedStates. The new “Technology Education” paradigm endeavors to remedy this and developa technologically literate citizenry that understands and values economic ramifications ofa comprehensive STEM education in the K-12 system and beyond. Engineering/Technology professionals and educators will have an active role to play to accelerate thespeed of adoption of this new framework in K-12 system which has always struggled tolegitimize technology education for all [12, 24].Platforms such as the PSTP and its emphasis on STEM teacher preparation in theminority community are in a unique position to address the social implications of this
). A systematic literature review to identifyempirical evidence on the use of computer games in business education and training. InEuropean Conference on Games Based Learning (p. 232). Academic Conferences InternationalLimited.[7] Ashinoff, B. K. (2014). The potential of video games as a pedagogical tool. Frontiers inPsychology, 5, 1109. https://doi.org/10.3389/fpsyg.2014.01109[8] Rosas, R., Nussbaum, M., Cumsille, P., Marianov, V., Correa, M., Flores, P., ... & Salinas,M. (2003). Beyond Nintendo: design and assessment of educational video games for first andsecond grade students. Computers & Education, 40(1), 71-94. https://doi.org/10.1016/S0360-1315(02)00099-4[9] Solorzano Alcivar, N. I., Pincay Lino, A. J., Toapanta Cedeno, G. N
Page 22.668.1 c American Society for Engineering Education, 2011 Exchange - Structural Engineering and Geophysics Education for High School Students through Experiential and Problem-Based Learning1. IntroductionThe California State Summer School for Mathematics and Science (COSMOS) is a four-week,educational summer program for gifted and talented high school students. Science andengineering topics are presented via a variety of “clusters” located at four of the University ofCalifornia campuses. The “Earthquakes in Action” cluster at the University of California, SanDiego (UCSD) has successfully employed experiential education methods in order to presentstructural
Paper ID #38763Impacting engineering students’ academic trajectories through a learningoutcomes enhancement cycleMrs. Javiera Espinoza, Pontificia Universidad Catolica de Valparaiso Javiera Espinoza von Bischhoffshausen is a lecturer and curriculum design specialist in the Department of Industrial Engineering at the Pontifical Catholic University of Valparaiso (PUCV). She has an M.A. in Higher Education from the University of Michigan (2020). In addition, she has a B.S. in Industrial Engineering from PUCV, Chile (2012). Her research interests include engineering education, particularly curricular design, quality
Paper ID #44756Teaching concepts in STEM to two generations through senior capstoneprojectsDr. Ravi S Thyagarajan, Texas A&M University Dr. Ravi Thyagarajan is a Professor of Practice in the Department of Mechanical Engineering at Texas A&M University in College Station, TX. He teaches senior design courses, is the Faculty Advisor for the TAMU Formula SAE Electric vehicle program, as well as for several other innovative senior capstone projects. Dr. Ravi Thyagarajan has provided technical leadership for almost 30 years in the areas of design, development, and analysis of ground vehicles and occupants, pertaining to
AC 2007-1179: DEVELOPING A MULTIDISCIPLINARY ONLINECYBERINFRASTRUCTURE COURSE THROUGH PROJECT-CENTRICBIOINFORMATICSLionel Craddock, Bluefield State CollegeDaphne Rainey, Virginia Bioinformatics InstituteSusan Faulkner, Virginia Bioinformatics InstituteFrank Hart, Bluefield State CollegeMartha Eborall, Bluefield State CollegeLewis Foster, Bluefield State CollegeStephen Cammer, Virginia Bioinformatics InstituteBetsy Tretola, Virginia TechBruno Sobral, Virginia Bioinformatics InstituteOswald Crasta, Virginia Bioinformatics InstituteBruce Mutter, Bluefield State College Page 12.479.1© American Society for Engineering Education, 2007 Developing a Multi-disciplinary Online
RETAINING ENGINEERING STUDENTS THROUGH A J-TERM GERMAN IMMERSION STUDY TOUR Faculty Paper Recruitment, Retention, and Outreach Programs Sigrid Berka International Engineering Program University of Rhode Island sberka@uri.eduIntroduction:The International Engineering Program (IEP) organizes a 10-14 day German Study Tour duringJanuary break. It offers International Engineering and International Business students a full-immersion program to further expand and extend their study of German language and
Paper ID #37014Work In Progress: Professional Development Through High-Impact Experi-encesDr. Charles Patrick Jr., Texas A&M University Dr. Charles Patrick Jr. currently serves as a Professor of Practice in the Department of Biomedical Engi- neering at Texas A&M University. He serves as Director of the Undergraduate Program and administers the Ideas to Innovation Engineering Education Excellence Laboratory. He is involved in Texas A&M’s Center for Teaching Excellence, the Institute for Engineering Education and Innovation, and the College of Engineering’s Faculty Engineering Education Group. His research focuses
, and outreach activities. Dr. Melander is actively engaged in several cross-disciplinary regional and national efforts related to STEM education and outreach. Most recently, she was part of a team that received NSF funding to engage youth in STEM through wearable technologies. She is also involved in organizing and promoting FIRST Lego League and FIRST Tech Challenge robotics competitions.Dr. Krista Lynn Adams, University of Nebraska - Lincoln Dr. Krista L. Adams is an Assistant Professor of Science Education at the University of Nebraska - Lin- coln. She completed her PhD at Arizona State University and was a member of the first cohort of Sandra K. Abell Institute participants in 2009. Krista taught middle school
Session 2793 Building Community through Clustered Courses Ann Kenimer, Jim Morgan Associate Professor, Biological and Agricultural Engineering Department, Texas A&M University, College Station/Associate Professor, Civil Engineering Department, Texas A&M University, College StationAbstractThe Dwight Look College of Engineering typically enrolls 1400 to 1700 starting freshmen eachyear. The majority of these freshmen take their first-year math, science and engineering coursesas a cluster. A cluster is a collection of approximately 100 students who have the
. Liu, D. Byrne, and L. Devendorf, “Design for collaborative survival: An inquiry into human-fungi relationships,” Conf. Hum. Factors Comput. Syst. - Proc., vol. 2018-April, pp. 1–13, 2018.[16] W. Odom, R. Wakkary, Y. K. Lim, A. Desjardins, B. Hengeveld, and R. Banks, “From research prototype to research product,” Conf. Hum. Factors Comput. Syst. - Proc., pp. 2549–2561, 2016.[17] S. Hauser, D. Oogjes, R. Wakkary, and P. P. Verbeek, “An annotated portfolio on doing postphenomenology through research products,” DIS 2018 - Proc. 2018 Des. Interact. Syst. Conf., pp. 459–472, 2018.[18] S. Hyysalo, C. Kohtala, P. Helminen, S. Mäkinen, V. Miettinen, and L. Muurinen, “Collaborative futuring with and by
Paper ID #10783Building A Healthy Online Student Community Through Education Environ-ment DesignMrs. Karen L. Bollenbach, The University of Virginia Mrs. Bollenbach is a student at the University of Virginia and anticipates receiving her B.S. in engineering science in May 2014. She graduated from Virginia Tech with a B.S. in health education in 1993 before beginning a career in the insurance industry. In 2009, she began studying drafting and engineering at Tide- water Community College. As a 2013 Virginia Microelectronics Consortium (VMEC) summer scholar, she conducted thermoelectric thin film research at the Applied
descriptions, these theories and factsand observations become fundamental tools for the engineer as we work to create a betterworld.How do we inspire the next generation of engineers? Studies from the Journal of ScienceEducation and Technology have shown that the best ways to spark curiosity in the STEMfield is through hands-on activities. This K-12 STEM breakout session is gearedtowards generating interest in the field of civil engineering through the design of trusses.This rigid framework of straight, slender members joined at their end points and loadedonly at the joints is typically made of steel or wood members that are connected usingbolts, rivets, or welds. In this breakout session, students will apply simple math andscience to determine how