-related higher education programs, and STEM-related career pathways.Research to determine the impact of the program on students' interest, understanding, and self-efficacy towards STEM careers, as well as teachers and undergraduate students’ understandingof promoting change, will also be conducted. The Partnerships in Education and Resilience(PEAR) Common Instrument for students and teachers, and interviews with stakeholders arebeing used to support data gathering and program feedback. These data sources will be used forprogram assessment and future research.Introduction An interdisciplinary team of faculty, staff, and students at Illinois State University (ISU)is collaborating with Chicago Public Schools (CPS) and non-profit Community
the key question here, aimed atattracting and motivating student agency[9]. This component measures the extent to whichpositive career messaging[10] and multiple work[11] and cultural values[12], as well as funds ofknowledge[13] are integrated into STEM education. It encourages educators to use aspirationaland relatable messages to inspire students, highlighting the creative and collaborative nature ofSTEM professionals. The rubric's stages range from a lack of positive messaging to fullyintegrated messaging that conveys the meaningful impact and opportunities within STEM fields.Hands (Active Participation): Finally, "Let me try it?" encapsulates the essence of this section.It promotes student-centered learning and active participation
Paper ID #39453Board 162: Engineering Education and Culturally Relevant Pedagogy inPre-College: A Review and Synthesis of the LiteratureMs. Maria Perez-Piza, University of Texas at El Paso Maria Perez-Piza, Doctoral student, is a Mexican student with a bachelor’s degree in chemistry engineer- ing and M.S. Systems Engineering by UTEP. She is interested in social critic theories and the introduction of Culturally Relevant Pedagogy in STEM careers. She is a instructor in the critical pedagogy program in the College Assistance Migrant Program (CAMP) at El Paso Community College (EPCC). Ms. Perez- Piza’s areas of research
chapters, proceedings, and technical reports. ©American Society for Engineering Education, 2023 Creating a Pipeline of Future Engineers in Texas (Evaluation) (DEI) ABSTRACTIn Texas, the engineering program of study is one of multiple Career and Technology Educationpathways a school district may offer. The curriculum for these pathways can be adopted fromcommercial providers or locally developed by school districts. Project Lead the Way (PLTW)Engineering is a curriculum that can be adopted by schools in Texas to fulfill the EngineeringSTEM pathway. This study followed cohorts of PLTW students to determine what impact, ifany
Paper ID #42431Professional Development for STEM Teachers in Rural Counties to BroadenParticipation in EngineeringDr. Taryn Melkus Bayles, University of Pittsburgh Taryn Melkus Bayles is a Professor, Teaching Track, in the Chemical & Petroleum Engineering Department at the University of Pittsburgh, and serves as the Undergraduate Program Director. 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 design and testing, and
,opportunities for economic mobility. However, there is a pressing need to attractunderrepresented minority and first-generation college students to STEM disciplines, as currentrepresentation from these groups remains low [1]. An obstacle to the production of STEMgraduates in the United States is the challenge to develop students' interest in math and science[2]. In many K–12 systems, there is a disconnect between math, science, and other disciplines, tothe real world and students often fail to recognize the links between their studies and potentialSTEM careers [2].One way to foster students' interest in math and science is to use informal learning to connectthese subjects to real-world contexts and careers [2]. By engaging students and teachers
adecline in interest in STEM starting at age 11 [2]. A look at gender differences found that middleschool girls are much less likely to report interest in a STEM career than boys [3]. To counteractthis decline in interest, researchers have found a link between consistent engagement in anafterschool STEM program with an improved interest in STEM [3] [4]. However, attendance inan out-of-school (OST) program is often sporadic [5], and the duration of programs varieswidely [6]. Further investigation is needed on the amount of exposure to OST STEM as apredictor of interest in STEM, with gender as a moderator. This study explores this relationshipby examining a middle school STEM afterschool program serving a traditionallyunderrepresented group, low
Education, and director of the center for excellence in STEM education in the School of Engineering at The College of New Jersey (TCNJ). ©American Society for Engineering Education, 2023 P-12 Engineering Performance Matrices Where did They Come from and How can They be Used? (Research to Practice)IntroductionTo help remove barriers to engineering career pathways, foster a sense of belonging in the field,develop important skills for student success in any career they may choose, and ultimately createa transformed engineering workforce that can better serve the whole of society, it can be criticalto act early in the educational experiences provided
the QR code Curricular Units Overview: One of the main goals of SCALE K-12above or the following link: is to integrate engineering design and microelectronics-relatedhttps://www.scalek12.org (ME) content, contexts, and career awareness into the pre-college classroom. Curriculum units were codeveloped with participating teachers and were tested in their classrooms. There are 11 units for secondary students that have been created to meet a call for integration of ME across the curriculum. The core content areas for the created units include science, mathematics, English
experienced when participating in CS and Cybersecurity learning experiences. Data Collection and Analysis. We conducted interviews with 17 cadets and coded the transcripts using a priori codes. Findings. Sixteen of the cadets reported an increase in their knowledge and skills through self-reported grades and self-perceived knowledge gained through the CS and cybersecurity experiences. While all of the cadets indicated that the courses and extracurricular activities were beneficial and interesting, only two of the cadets indicated they wanted to have a career in the computer science or cybersecurity field. However, the findings indicated a lack of school personnel support, specifically at the guidance counselor
that intuitively allows ideas to become three dimensional models according toDesign/Engineering [8]) Another outcome from this session was that multiple students in theclass expressed interest in engineering as a possible career to pursue. This positive anecdotalrecord prompted a more deliberate educational use of the Esque Box kits with older students. The other setting where the Esque Box has been used and tested was in a SummerAcademy sponsored by the Oklahoma State Regents for Higher Education. (An organization that“prescribe[s] academic standards of higher education, determine functions and courses of studyat state colleges and universities, grant degrees, and approve each public college's anduniversity's allocations, as well as
Paper ID #40096Board 164: Engineering Interventions in My Science Classroom: What’s MyRole?Dr. Cheryl Carrico, E4S, LLC Cheryl Carrico is owner of E4S, LLC. E4S, LLC conducts external evaluations, engineering education research, and industry consulting. Her current research focus relates to STEM career pathways and con- ceptual understanding of core engineering principles.Dr. Holly M. Matusovich, Virginia Polytechnic Institute and State University Dr. Holly Matusovich is the Associate Dean for Graduate and Professional Studies in the College of Engineering at Virginia Tech and a Professor in the Department of Engineering
Business Concepts Purpose: Positively impact students' STEM Solution for the Classroom: attitudes toward STEM 13 independent lessons and activities on bridge design and concepts, classes, and construction using photos and interviews from a current career choices construction of the new I-70 bridge over the Missouri River Each lesson includes: PowerPoint Slide decksAnimated slides with notes that gives Embedded videos to explain Interviews with real engineers and photostheory, background, and examples concepts from an active construction siteRecorded Videos of presentations Hands
reach outto high school students seeking STEM career paths. Due to the camp's targeted demographic, itwas important that enrollment costs were kept low. In response, a total enrollment cost of$500.00 per camp participant included room and board, three meals a day, all transportationcosts while attending the camp, and admission to any event. Financial help was also available tothose who found it necessary. Through the generous offerings of industry partners and securedgrants, the INnovation Through Engineering summer camp offered half of the camp participantsscholarships to attend. With the combined efforts of these items, accessibility was improved, anda diverse population of attendees were enrolled in the camp’s first iteration.The target
development opportunitiesthat allow adopting schools to develop an ecosystem. This ecosystem is characterized by high-impact learning experiences that allow learners to overcome known barriers to pursuing (and 2persisting in) STEM careers. DOI Theory can be used to help understand and predict how PLTWis initially adopted and spread. DataThis research utilized two different datasets to examine PLTW schools in Texas. The first dataset housed school roster data collected by the former PLTW State Affiliate. The data cover atwelve-year period from the 2007-08 school year to 2018-2019 school year. This dataset
for all and expand opportunities for those traditionally underserved andmarginalized in engineering to pursue careers as engineers and expand the STEM workforcepipeline. IntroductionThe societal role of engineers has steadily evolved from a technical problem solver to that of a“technical mediator,” in which engineers engage with stakeholders to define the problem, ideate,and develop solutions [1,2]. Yet, engineering curricula still tends to focus on guiding studentsthrough problems that can be answered in a single, technical solution [3], ignoring thecomplexities needed to prepare students to solve real world problems [3, 4]. As stated bySchwartz et al. [2], “of particular interest to educators are
significant real-world problems and strengthen theintegration of knowledge, understanding, and practices of engineering within STEM (1). Another affordance ofSTEM partnership is bringing in STEM professionals to support content teachers are transferring to students (2).Many students have yet to learn first-hand how their math and science courses relate to careers they may beinterested in pursuing (1). The engineering education partnership in this paper aims for the primary STEM educationgoals of ensuring students spark interest and excitement in STEM, understand STEM content and knowledge,engage in STEM reasoning and computational thinking, reflect on STEM, use the tools and languages of STEM, andidentify with STEM Enterprise (1). As
integrated with the 12th grade science course. The high school program isdivided into two tracks: a.) High School Diploma Track and b) Career Readiness Certificate Track. Thestudents in the Diploma Track are working towards earning a High School Diploma. The CareerReadiness Track consists of students aged 14-21 who are working toward earning a High SchoolCertificate of Program Completion. There are three students enrolled in 12th-grade science. Consideringtheir primary disabilities, two of the students have autism while one student has multiple disabilities.Additional information about the students is presented in Table 1.Table 1. Learners’ Profile Student Age High School Track Profile Ava 18 Diploma Track
two workshops conducted in 2022 with 56 participants as examples. Thefirst workshop was for a group associated with 9 North Carolina State University CollegeAdvising Corps (CAC) members, recent college graduates who may or may not have a STEMdegree. These CAC advisors with high school students in rural parts of the state to advise themalong career pathways. The second workshop was for 49 teachers in a K-8 STEM schoolneeding to understand integrated STEM instruction and get ideas for nearly immediateimplementation in their classrooms. Both groups needed orientation with regards to authenticengineering for K-12 students, as well as an understanding of engineering careers. Bothworkshops included hands-on engineering activities, discussion of
pursue science, technology, engineering, and mathematics(STEM) careers as early as middle school, suggesting that nurturing STEM interest inelementary and middle (primary) school is a key factor in attracting youth to engineering. Goalsof racial equity and attracting youth into engineering have birthed the proliferation of manyinformal STEM education (ISE) programs (e.g., out-of-school programs, summer camps, etc.).Though research suggests that ISE increases participants’ STEM interest, it is unclear whetherISE is successful in sparking STEM interest in previously uninterested youth. This gap existspartly because little is known about the initial STEM interest of ISE participants.Using a survey research design, we addressed this gap by studying
of the US economy and its job sectors. To equip thenext generation of STEM professionals with the skills needed for innovation andto tackle the challenges of globalization, K-12 education plays a key role in layingthe groundwork for STEM education. In addition to the significant efforts madeby the US government, collaborative community initiatives such as internationalrobotics competitions have emerged as valuable platforms for K-12 students toapply STEM and soft skills within the context of robot competitions. Thesecompetitions foster an environment of gracious professionalism, inspiring morestudents to pursue careers in STEM fields while also ensuring a positivelychallenging and enjoyable experience. With kids’ continuous endeavor to
, a third year of Ph.D. student in Engineering Education from the University of Cincinnati. I have 10 years of experience as a vice principal and STEM teacher in STEM-based elementary schools and host of several workshops for kids and parents about engineering and hands-on activities in STEM. My research area is in PreK-12 and diversity. Have an engineering background in my Master’s and Undergraduate.Blaire MH Bartish M.Ed., University of Cincinnati Blaire MH Bartish M.Ed. is a STEM Educator from the Cincinnati area. She specializes in community engagement, informal learning, early career exploration, DEI initiatives, and early childhood development. She holds a BA in Early Childhood Education from Ohio Wesleyan
the University of Texas’ engineering program, the different engineeringfields and careers, a thorough overview of the application process, and financial aid. This projectwas evaluated with an anonymous survey administered to the high school students after thecompletion of the program to gauge engagement, whether they felt the program was beneficial,and interest levels in engineering, all of which helped determine the program's effectiveness.Motivation for Study:In the Austin regional area, there are significant disparities in pursuing higher education betweenhigh schools. A Texas report containing the number of high school graduates and those whowent to an in-state public four-year university demonstrates these differences. For example,around
(Evaluation, Diversity)AbstractThis paper describes a summer enrichment program focused on improving student preparednessfor college, while promoting STEM education through active learning experiences and activities.The program is a partnership with industry and designed to introduce participants to variousengineering disciplines through two field trips and hands-on activities that include sessions inchemistry, biology, physics, mathematics, computer science, electrical engineering, civilengineering, and mechanical engineering. These activities provide participants with importantknowledge and skills to gain a better understanding of science and engineering careers. A majorbenefit of the program is ensuring a strong pipeline of STEM talent while
Paper ID #38713A Physical Computing Professional Development Study: ExaminingDifferences in Male and Female Teachers’ Attitudes Toward Computing(Evaluation, Diversity)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
students by using anenvironmental bioengineering technology in the classroom to increase student knowledge andengagement with sustainability, engineering and related core science concepts. This study aimedto enhance students’ knowledge of engineering technologies related to sustainability, and interestin engineering overall, through curricula that integrated bioengineering principles. The researchteam sought to answer the following questions: ● To what extent does engagement in biodigester-related science lessons influence students’ knowledge of bioengineering and sustainability issues related to food waste? ● How do students report their experiences with the lessons and their interest in engineering and STEM-related careers
understanding and interest in engineering in order to pursue it as a career option. However, literature has shown that children hold misconceptions about the engineering profession, which can deter potential future engineers from the field. This underscores the importance of introducing engineering concepts at a young age. Over the past ten years, the Next Generation Science Standards (NGSS) have been integrated into state school curricula, increasing the emphasis on engineering in K-12. Although the NGSS helps introduce engineering at a young age, it can be difficult for teachers to incorporate engineering into their lessons without the required background knowledge. To help mitigate this challenge, a
needed to identify and solve problemswhile constructing an understanding of how STEM impacts the world [3], [5], [6]. Informalprograms provide opportunities for targeted enrichment, especially in the areas of computerscience (CS), artificial intelligence (AI), and engineering design. Continuous learning is ensuredby allowing students to engage with new technology resources supportive of coding andengineering [7], [8].Summer programs complement traditional K-12 education by exposing students to STEMconcepts through engagement in various activities and applications that provide the time, means,and resources for authentic STEM learning [6]. These opportunities have shown impacts onstudents’ interest in STEM content, future careers, and grades
, Arizona. ©American Society for Engineering Education, 2024 Dual-Credit Engineering Program in Native American Serving School District: Best Practices and Findings (RTP, Diversity)ABSTRACTEarly exposure to engineering is a valuable strategy to ignite interest, curiosity, and enthusiasm amongstudents from a young age. Early exposure to engineering programs - such as after-school activities,career exploration events, guest speakers, and industry visits - can provide engineering concepts andhands-on experiences to help students develop a strong foundation and inspire the next generation ofminority engineers, fostering a diverse and innovative workforce.However, implementing most early exposure to engineering
findings of an exploratory study on the use of e-textiles and potentiallyextended reality (XR) technologies for intergenerational engineering learning.Rationale The role of families in STEM learning. Although families are often an overlooked factor in thepositive engagement of students in STEM topics, family relationships and dynamics have a large bearingon student achievement, interests, enthusiasm, and beliefs surrounding ability [1]. When considering howto engage students with engineering topics, family members, especially those in a parental or senior rolecan act as a catalyst for engagement. Individuals acting in a parental role are the main contributors to astudent’s career aspirations, and support behaviors related to science from