willpresent a theoretical framework of systems-thinking, describe the prior state of engineeringoutreach in our College, outline how our shared vision for community engineering outreachdeveloped, recount how our team formed, and outline several successful outcomes from ourefforts using this innovative approachFirst, we want to define outreach as we see it. We believe that outreach is a form of experientiallearning for both the K-12 students and the college students involved in the process. As weengage in outreach, we try to connect the dots between what a K-12 student might be interestedin and the potential future possibilities that pursuing a degree and career in engineering mightafford them. We are not there to convince students they must become
focuses on articulating frameworks for precollege engineering education.Dr. Darshita N. Shah, The Pennsylvania State University Darshita (Dipa) Shah is the Curriculum Director for Youth Engineering Solutions at The Pennsylvania State University. Dipa has spent her career grappling with the challenge of how to best design motivating and engaging curriculum materials for students across the K-16 spectrum that can be practically imple- mented across the rich variety of our nation’s educational contexts. Most recently, Dipa was the senior associate director with MIT’s Teaching and Learning Lab where she facilitated workshops for campus educators on how to design curricular materials, implement evidence-informed pedagogies, and
itprovides a basis for building communities. I will return to the idea of creating an SELaware classroom in part 5 of the framework.Part 1: Intentional Grouping Almost every career-oriented role requires collaboration skills; setting studentsup for success using intentionally created student-selected groups is an essential startto any culturally aware STEM classroom. Intentional grouping involves several differenttools that help teachers ensure student success. Brown, et al, write: “When teachers aremindful of the important aspects of group dynamics, such as size, ability, gender, andrace, and plan teams accordingly, every student—particularly those from marginalizedbackgrounds—is set up for success [5].” Teachers need to consider the
Paper ID #37961Board 169: Making Families Aware of Engineering through the PublicLibrary (Work in Progress)Dr. Kelli Paul, Indiana University-Bloomington Dr. Kelli Paul is an Assistant Research Scientist at the Center for Research on Learning and Technology at Indiana University where her research focuses on the development of STEM interests, identity, and career aspirations in children and adolescents.Dr. Jungsun Kim, Indiana University-Bloomington Jungsun Kim, Ph.D. is a research scientist at Indiana University at Bloomington. Her research focuses on how students can consistently develop their talent throughout their
interest (e.g.,[26], [27]). This decline is particularly pronounced in middle-school girls (e.g., [24]). Given thatengineering is perceived as a career for people who are good at math and science (e.g., [28]) and thedocumented drop in math and science interest, middle school girls are at a critical tipping point wherefuture outreach may be ineffectual. Once the troops were selected, the research team attended individualtroop meetings to ask parents to grant permission for their child to participate in the study. The minorparticipants provided verbal assent to the study prior to the initial interview. It is important to note thattroop members were not required to participate in the study to take part in earning the engineering badge;however, most
STEMeducation with industry for innovation. The objective is to prepare learners for STEM careers and to connectindustry through academia. In higher education, the critical learning skills are necessary to STEM educationand degree completion. There are retention efforts provided for the curricular support program that scholarshave contribute to motivation and outcomes of STEM interdisciplinary degree completion. Our efforts tosupport pre-college STEM education includes an understanding of college readiness and the learningenvironment using project-based learning (PBL). Hands-on experiences are general found to be successfulwhen integrated using PBL methods with industry. According to recent study, both intrapersonal andinterpersonal skills in PBL has
mechanical systemscan be implemented by STEM educators on a broad scale. This method can inspire a lifelonginterest in STEM for students.IntroductionThe acronym STEM refers to four different technical subject areas: Science, Technology,Engineering and Mathematics [1]. Individuals working in STEM-related careers have beencredited with creating some of the most important contributions to societal advancement [2].Therefore, there will be a need for a substantial number of STEM professionals in the future.This demand has been reflected in future employment projections. The Bureau of LaborStatistics estimates that the total employment in STEM occupations will grow 10.8% between2022 and 2032. This figure far outpaces the overall employment growth rate of
documented how talking about science and engineeringconcepts with family and friends, particularly parents and siblings, is one of the mostinfluential informal learning experiences on individual’s identity development andpursuit of a career in STEM [1-2]. This research points to the home environment andfamily connections as another, and perhaps an alternative, context to support thedevelopment and growth of youth’s identity in STEM than more formal (e.g.,classrooms) and non-formal (e.g., museums, libraries) contexts. As such, utilizing thehome environment has the potential to diminish barriers and access to STEMlearning opportunities due to cost and cultural and structural inequalities, as well aspromote families’ everyday experiences and
Engineering: Perspectives of Engineering Faculty (Work in Progress)IntroductionDespite a growing emphasis on engineering in grades K-12, persistently high dropout ratesplague undergraduate engineering programs [1],[2]. Prior studies indicate that engineeringactivities have the potential to increase interest in engineering pathways [3] or develop anengineering identity [4]. Less clear is whether pre-college engineering instruction alsocontributes to students' success in engineering career pathways by adequately preparing studentsfor undergraduate engineering. One concern is that K-12 engineering lessons "may mislead orunder prepare [students] by providing activities that they enjoy but which have little relation toengineering
[7]in expecting rewarding AI careers. Therefore, we propose healthcare-motivated research projectsin our course design to foster challenging yet rewarding experiences in learning and applying AImethods.1.1 Related workAI education at the high school level has diverse goals — building foundational knowledge, stim-ulating student interest in technology, broadening participation in CS, and as an alternative wayto develop problem solving and critical thinking skills. Successful precedents from other areasexist for these educational aims at the high-school level. Many robotics and system design com-petitions, such as the FIRST Robotics Competition, the Solar Car Challenge, and the InternationalGenetically Engineered Machine (iGEM), have spurred
engineering careers through campus engagement events. In addition, she has multiple years of experience in secondary science curriculum development; science classroom instruction in middle school, high school, and college; and STEM presentations/workshops for educators in national, state, and local settings. She is pursuing a Doctor of Philosophy in Curriculum and Instruction with the Texas A&M University School of Education and Human Development in Science Education, STEM/Engineering. Research interests include: professional development on engineering practices/design for in-service K-12 science educators, project-based and inquiry-oriented teaching strategies at pre-college levels for preservice STEM
Agricultural & Techni- cal State University where he earned degrees in both Chemistry and Chemical Engineering as a part of the Atlanta University Center’s Dual Degree in Engineering Program. While in college he was a Ronald E. McNair Scholar which afforded him the opportunity to intern at NASA Langley. He also earned distinc- tion as a Phi Beta Kappa member and an American Chemical Society Scholar. Dr. Henderson completed his Ph.D. in Chemical & Biomolecular Engineering at the University of Illinois at Urbana-Champaign. During his time as a graduate student, he was a NASA Harriet G. Jenkins Graduate Fellow. Dr. Henderson has dedicated his career to increasing the number of students who are on pathways to pursue
Paper ID #37671Work in Progress: Broadening Participation in Engineering with the STEMExcellence in Engineering Equity (SEEE) ProjectTaryn Melkus Bayles, University of Pittsburgh Taryn Melkus Bayles is a Professor, Teaching Track, in the Chemical & Petroleum Engineering Depart- ment at the University of Pittsburgh, and serves as the Vice Chair of Undergraduate Education. She has spent part of her career working in industry with Exxon, Westinghouse, Phillips Petroleum and Pittsburgh Energy Technology Center (now NETL). Her industrial experience has included process engineering, computer modeling and control, process
Materials Science and EngineeringAbstractExperiences and opportunities in computer science allow students to build positive associationswith STEM and STEM careers. There is a need to provide students with opportunities incomputational and design thinking at a young age to increase interest and engagement in thecomputer science field. The Goldberg Gator Engineering Explorers (GGEE) is a donor-fundedsummer program designed to provide no-cost computer science-based experiences tounderrepresented middle school students to support the K-12 pipeline. The 2022 GGEE programwas held in six school districts across Florida and hosted over 110 students in 8 programsessions. The programs were four full-day or eight half-day sessions, depending on the
Merit Camp and Environmental Communication Week: Targeted Approaches to Environmental Engineering Education Quintana-Cifuentes et al. Sustainability Competencies in STEM Education at Secondary Schools: A (2019) Systemized Literature Review Martinez Ortiz et al. (2015) Engaging Students in Sustainability Education and Awareness of Green Engineering Design and Careers through a Pre-Engineering Program Monaco et al. (2016) Design of an Interactive Multidisciplinary Residential Summer Program for Recruitment of High School Females to Engineering. A Each discrete inquiry provides a
advocates forthe interdisciplinary infusion of engineering within the context of collaboratively engaginglearners in real-world problems (NGSS Lead States, 2013; ISTE, 2017; ITEEA, 2020). As such,K-12 STEM teachers need adaptable conceptual and epistemic understandings of engineering asdiscrete disciplinary knowledge, skills, and career paths (Bryan & Guzey, 2020). Understandingengineering in this way means being able to recognize and articulate it as more than merely a sub-construct of science (Van den Bogaard et al., 2021), but rather a related yet distinct disciplinewith its own highly contextual and culturally bound practices, processes, and outcomes (Lewis,2006; Pleasants, 2020). Nevertheless, research has repeatedly revealed gaps
Paper ID #38711An Overview of State Developed P-12 Standards for Technological andEngineering Literacy (Other)Dr. Tyler S. Love, University of Maryland Eastern Shore Dr. Love is a Professor of Technology and Engineering Education, and Director of Graduate Studies in Career and Technology Education for the University of Maryland Eastern Shore at the Baltimore Mu- seum of Industry. He earned his master’s and Ph.D. in Integrative STEM Education from Virginia Tech. His bachelors degree is in Technology Education from the University of Maryland Eastern Shore. He previously taught technology and engineering (T&E) courses in
Paper ID #38707Safety Factors and Accidents in P-12 Pre-Engineering and EngineeringDesign Courses: Results from a National Study (Fundamental)Dr. Tyler S. Love, University of Maryland Eastern Shore Dr. Love is a Professor of Technology and Engineering Education, and Director of Graduate Studies in Career and Technology Education for the University of Maryland Eastern Shore at the Baltimore Mu- seum of Industry. He earned his master’s and Ph.D. in Integrative STEM Education from Virginia Tech. His bachelors degree is in Technology Education from the University of Maryland Eastern Shore. He previously taught technology and
: Teaching Technology and Human-Centered Design in a Project-Based Curriculum (Other, Diversity)AbstractSummer STEM camps are one of the methods used to introduce middle and highschool students to topics and careers in STEM. Frequently, these camps areproduced and run by a single academic institution. This paper presents a novelpartnership between four different organizations that included a nonprofitcommunity organization, technical university, professional sports team, and majortechnology company that came together to develop and run a STEM camp forminority middle and high school students. The STEM camp content was splitbetween design and technical topics and was designed to meet the individualgoals of each member of the partnership
they liked or disliked them. They were asked to provide theiroverall comments and thoughts on improving the experience. The educator who attended thefield trip also completed a post-trip survey and provided further feedback during a follow-upmeeting two months later.Project Context: An On-Site Laboratory Experience for High School EducatorsOur outreach effort was made to Riverside High School (RHS), a Durham, NC Public School(DPS)-supported Career and Technical Education (CTE) pathway institution. RHS offersPLTW’s Pathway to Engineering (PTE) and Computer Science (CS) curricula, emphasizingScience, Engineering, Technology, and Math (STEM) in all aspects of its engineering education.In an effort to focus on what the school educator most needed
Northern University), Marcia Pool (University of Illinois, Urbana-Champaign), Kimberlyn Gray (West Virginia University Institute of Technology), John T. Hird (West Virginia University Institute of Technology) Machine Learning & Cancer Research Hands-on activities in the context of a societal problem strengthens interest & persistence in STEM careers Machine learning (ML) is highly popularized as a tool to solve many problems in finance, computer security, and image processing. The use of ML in cancer research has potential to reduce diagnostic time, improve detection, & potentially inform
mathematics) education has beenperforming well below numerous fellow OECD nations [1]. The committee identified severaldeleterious results if this trend continued, including the reduction of the United States’ competitiveeconomic edge. Stated benefits of improved science and technological literacy included theprovision of essential preparation for all careers in the modern workforce. Moreover, without aflourishing scientific and engineering community, young people may not be motivated to dreamof “what can be,” and might have inadequate motivation to become the next generation of scientistsand engineers that can address persistent national problems including national and homelandsecurity, health care, the provision of energy, the preservation of the
practices, STEAM, and S-L and further refined throughcomparison to student feedback on various activities.This framework has implications for both researchers studying S-L and STEAM education andalso practitioners seeking to set up their programs for success. While elementary teachers areoverworked and over-asked, developing S-L relationships with local university programs can beone solution to addressing STEAM workforce development at both K-12 and university levels.IntroductionIn a most recent effort to strengthen Science, Technology, Engineering and Mathematics(STEM) education nationwide, the goal of the Raise the Bar: STEM Excellence for All Studentsinitiative is to ensure their 21st-century career readiness and global competitiveness for all
seventh, eighth, and ninth grade revealed a trend that even withinSTEM, girls are less inclined to pursue engineering careers compared to traditional science-related paths [15]. The interdisciplinary approach of industrial engineering integrates conceptsfrom psychology, biology, and mathematics with engineering principles, which could bridge theinterest gap among female students. As Industrial Engineering and Ergonomics are lesser-knownareas within engineering, we aim to inspire students to explore the often overlooked discipline byhighlighting the breadth and potential of Industrial Engineering in optimizing various systemswith human-centered approaches, with the goal of contributing to a more well-rounded STEMexposure. The Extraordinary
educator, lecturer, and Hip Hop activist, boasting an illustrious career spanning over 30 years. His tireless dedication revolves around empowering Black youth and championing African-centered perspectives. Founder of The Uhuru Academy, Baba Amin has pioneered a transformative educational experience deeply rooted in African culture and history. Beyond traditional academic realms, his influence extends to the community through podcasting and activism, drawing inspiration from influential Black leaders such as Malcolm X, Marcus Garvey, and W.E.B. DuBois. Baba Amin’s impact reaches into the realm of Hip Hop activism, utilizing the medium of conscious rap to advocate for social change. His commitment to cultivating
-confidence, high school preparation, interest and career goals, and race andgender,” which they believed were interrelated [3]. Of these studies, twenty-eight indicated thathigh school preparation was a factor. The studies revealed a host of high school pedagogicalreason for attrition, including inadequate mathematics (calculus) preparation, low performance inscience classes, including physics, social sciences, and chemistry, overall high school GPA, andhigh school class rank. Some studies indicate that women and racial minorities may have lessaccess to high quality educational resources and opportunities during their high school years,which could impact their level of preparation for engineering programs in postsecondaryeducation. A significant
their careers. Currently, the United States lacksadequate infrastructure or capacity to support the teaching of AI in the K-12 curriculum. Toaddress these challenges, we introduce the use of visual media as a key bridge technology toengage students in grades 6-8 with AI topics, through a recent NSF funded ITEST program,labeled ImageSTEAM. Specifically, we focus on the idea of a computational camera, whichrethinks the sensing interface between the physical world and intelligent machines and enablesstudents to ponder how sensors and perception fundamentally will augment science andtechnology in the future. Two workshops have been conducted, the first in summer 2021, and thesecond in summer 2022. The first workshop was delivered virtually due to
accurately.The program also enhanced Fellows’ ability to show the power of science by identifying thedimensions of public good on issues. By connecting their research across scientific disciplinesand communicating scientific research to lay audiences and by developing and teaching inquiry-based lessons Fellows gained valuable skills for future career. They presented their learningsfrom the mentoring activities at the annual Innovative Research Symposium for undergraduatestudents at the university. Figure 6 shows an image of their presentation. One of the Fellowsnoted, “This experience helped me discover creative ways to describe sustainability, alternativeenergy and electricity. It helped me evaluate topics in new ways and change how I talk about
iteration of our HCD-based camp. Givenour preliminary results [3], we iterated the camp’s design and performed a second round of datacollection to better understand the impact of our activities on students’ learning outcomes. Duringthe first iteration, we noticed a positive impact on students’ interest in pursuing an engineeringcareer, their awareness of what engineers do in an engineering career, and their awareness of therole of HCD in engineering.Our previous work [3] primarily addressed the implications of the introduction of HCD onengineering design pedagogies. In this paper, we examine the reciprocal influence of traditionalengineering contexts on HCD. This paper seeks to answer the following research questions: RQ 1: What is the impact
connection between the art ofprogramming with concepts of AI? (3) How can we use cloud-based interactive tools to expandstudent access and equity and serve underrepresented youth to develop confidence to pursue datascience careers through relevant industry knowledge? (4) What parts of the developedcurriculum were found adequate by students, and which areas need to be improved?Feedback was obtained from student qualitative post-survey data via Qualtrics andcommunication with in-person instructors of the AI curriculum to determine the effectiveness ofthe hybrid-remote structure to refine the course for future implementation.PurposeThe purpose of this paper is to evaluate the impact and effectiveness of a hybrid-remote summercamp curriculum and assess