Students in geographically rural areas of the United States have less access to computer science education and are underrepresented in computer science majors and careers. At the same time, many rural occupations such as agriculture are becoming reliant on technology, and there is a need for skilled computer scientists with a rural background and skillset to develop effective tools and software that can be used in those occupations. In addition, the values of grit, determination, self-sufficiency, and perseverance often studied in rural populations are also attributed to successful computer scientists. Given the need for rural students to participate in computer science careers, and the overlap in rural values and the qualities of good computer scientists, why do rural students not see themselves as future computer scientists, and why are they not interested in computer science majors and careers? In this paper, we examine the geographical definition of "rural" as used by many researchers (based on the definition from the National Center for Education Statistics NCES) that is often applied homogenously across a school district or even entire county. We explore and validate a survey instrument used to measure "rural identity" of students at the individual level. In doing so, we discover a more broad and nuanced definition of "rural" that varies widely within individual schools. By analyzing this rich dataset, we build the case that defining individual students as "rural" based on geographical location is insufficient to account for variances in their interest in computer science careers and their own self-identity as someone who could be a computer scientist. We use this information to inform future research and propose new avenues for engaging "rural" students in computer science.
more »
« less
This content will become publicly available on February 12, 2026
Building the Cyber Pipeline: Providing CS Education For Rural K-12 Schools
In the push to broaden participation in computer science (CS) within the United States, there have been a number of highly successful efforts to engage urban high schools and communities. As urban areas often have high concentrations of poverty and underrepresented populations, these efforts meet a well-known need, and have a strong potential impact. However, urban audiences are not the only ones to lack adequate computer science education opportunities. In the United States, 1 in 5 people live in a rural area [19], and studies consistently show that rural areas offer fewer opportunities for students to engage with computer science than their urban and suburban peers. While some of the challenges rural schools face are shared by urban schools, the rural schools also have unique challenges that must be understood before engaging in successful intervention efforts. This paper describes one effort to support rural schools, their teachers, and their students. We seek to share the lessons we have learned in the hope that other programs may benefit.
more »
« less
- Award ID(s):
- 2216625
- PAR ID:
- 10652149
- Publisher / Repository:
- ACM
- Date Published:
- Page Range / eLocation ID:
- 102 to 108
- Subject(s) / Keyword(s):
- rural students computer science education K-12 K-12 teachers
- Format(s):
- Medium: X
- Sponsoring Org:
- National Science Foundation
More Like this
-
-
In the United States, 1 in 5 people, approximately 66.3 million individuals, live in a rural area. To address the growing need for computing professionals and the need for a computationally literate populace, we need to engage rural learners effectively. A first step in this direction is understanding the learning context for students engaging in computer science, and how that differs for a rural population. In this paper, we draw upon the National Survey of Science and Mathematics Education, the High School Longitudinal Study of 2009, and the 2021 American Community Survey, to underscore a lack of access to computer science learning contexts for students in these communities. We also explore how rural out-migration is compounding this challenge, and explore the roots of the rural out-migration trend. We then examine how multiple strains of research and scholarship identify rurality as either a place-based identification (i.e., where a student is from) or a distinct social identity. While convenient, geographic-based definitions lack important nuance in understanding rural populations and tend to emphasize heterogeneity in rural populations, especially regarding economic factors (i.e., what the communities produce). In contrast, identity-based definitions often emphasize commonalities across rural populations including a set of shared values, a sense of belonging to a rural community, emphasis on social bonds, and a distrust of solutions offered by government, academia, and technology which are often seen as misguided and antithetical to those shared values. In certain kinds of decision-making, this rural identity has even been shown to overshadow intersectional racial and ethnic identities. This is an important consideration as 22\% of the US rural population is composed of racial and ethnic minorities. Finally, we discuss strategies to engage with rural populations authentically and meaningfully. We offer as an illustrative example our Cyber Pipeline program, an outreach effort including a Creative Commons licensed, customizable, modular curriculum; extensive teacher preparation program; and ongoing support for K-12 teachers working to bring computer science into rural schools. We also describe reasons why these rural-dwelling teachers seek to provide computer science education for their students. We highlight the specific challenges of this program, as well as our identified promising practices, in the hopes of fostering similar programs across the United States.more » « less
-
Rural populations represent an important and often overlooked audience for broadening participation in computing efforts. More than 20% of all students in the United States live in a rural region, and surveys of access to computing education consistently show these students have less opportunity to and engagement in learning computer science than both suburban and urban peers. Recent scholarship has suggested that rural populations subscribe to a cohesive group identity that (at least in some cases) can subsume ethnic and racial identities, especially important when we consider 22% of the rural population is composed of individuals with these intersectional identities. In this paper we describe example lessons under development for use in our Cyber Pipeline project, an outreach program that provides Kansas schools with a modular computing curriculum and in-service teachers with professional development training to utilize it. These lessons are being developed using culturally relevant pedagogy and a community learning approach to ground the lessons in the everyday experiences, cultural identities, and concerns of these rural students. We are co-developing these lessons with both K-12 teachers in the Cyber Pipeline and disciplinary experts across our campus. We present our our approach in the hopes that it will be of benefit to other educators seeking to reach rural populations.more » « less
-
This article examines the ways secondary computer science and English Language Arts teachers in urban, suburban, and semi-rural schools adapted a project-based AI ethics curriculum to make it better fit their local contexts. AI ethics is an urgent topic with tangible consequences for youths’ current and future lives, but one that is rarely taught in schools. Few teachers have formal training in this area as it is an emerging field even at the university level. Exploring AI ethics involves examining biases related to race, gender, and social class, a challenging task for all teachers, and an unfamiliar one for most computer science teachers. It also requires teaching technical content which falls outside the comfort zone of most humanities teachers. Although none of our partner teachers had previously taught an AI ethics project, this study demonstrates that their expertise and experience in other domains played an essential role in providing high quality instruction. Teachers designed and redesigned tasks and incorporated texts and apps to ensure the AI ethics project would adhere to district and department level requirements; they led equity-focused inquiry in a way that both protected vulnerable students and accounted for local cultures and politics; and they adjusted technical content and developed hands-on computer science experiences to better challenge and engage their students. We use Mishra and Kohler’s TPACK framework to highlight the ways teachers leveraged their own expertise in some areas, while relying on materials and support from our research team in others, to create stronger learning experiences.more » « less
-
Rural schools, especially smaller ones, offer enormous opportunities for teachers to get to know their students and to cultivate their academic talents. However, students with potential in science, technology, engineering, and mathematics (STEM) face specific obstacles to having their talents fully realized in rural schools. Joni Lakin, Tamra Stambaugh, Lori Ihrig, Duhita Mahatmya, and Susan G. Assouline describe the STEM Excellence and Leadership project from the University of Iowa, which seeks to equip rural teachers in grades 5-8 with the skills and knowledge to recognize and grow STEM talent in rural areas. Examples of success and lessons learned are shared.more » « less
An official website of the United States government
