People’s quality of life or socioeconomic status can greatly differ based on where they live, whether they live in different cities, different counties, or in different countries. These inequalities and disparities can be and have been measured using indicators related to the different facets of life: wealth, education, health, and even happiness. Communicating where and how those inequalities affect different people and geographical areas to the public in an effective and engaging way is imperative to progress towards a more equitable society. Information visualization, and specifically maps, are a successful mechanism for conveying these differences in quality of life and engaging people in caring about larger issues and other people.
This project investigates how people perceive socioeconomic disparities using an interactive choropleth map visualization where users can change the map to display different socio-demographic indicators, including income inequality, life expectancy, educational attainment, rate of incarceration, and prevalence of HIV/AIDS and obesity. We implemented two versions of the interface: one displaying the United States only by county, and another arranging the United States map and a country-level choropleth map of the world by country, side-by-side. We conducted between-subjects A/B user testing where we surveyed and interviewed users before and after interacting with one version of the map.
We hypothesize that interacting with either map will lead to stronger feelings about the intensity of inequality in the U.S., and more confidence in their opinions on disparities. Additionally, we hypothesize that interacting with a contextualized map of the U.S. within the world will influence the user’s perceptions of the U.S. differently than when interacting with the U.S. map only.
Accessible Oceans: Exploring Ocean Data Through Sound is a pilots & feasibility study in the NSF’s Advancing Informal STEM Learning program (NSF AISL #2115751). The interdisciplinary project team is exploring how oceanography Data Nuggets from the Ocean Observatories Initiative can be sonified and made interactive in a museum exhibit tailored to visually impaired learners.
The project is a collaboration between the Woods Hole Oceanographic Institute (WHOI), Your Ocean Consulting, the University of Oregon, and Georgia Tech.
Art is an important factor in child development. Research has highlighted art education’s role in children’s acquisition of the economic, cultural, and civic capital required to sustain a communities’ cultural resources. For K-2 learners, art education also contributes to the development of fine motor skills, cognition, and interpersonal relationships. The incorporation of art museum visits into school curriculum is one of the ways students can have repeated, sustained engagement with art. Recognizing this, many art museums provide digital resources to support the integration of these resources into classrooms, but little research investigates classrooms’ use of these resources. Additionally, little research investigates technology designs that support interactions and needs of K-2 learners, teachers, art museum educators, and docents in fully remote art education settings.
This project uncovers key implications and design requirements for developing effective, remote art education environments for K-2 learners and educators. From these requirements we made novel, instrumented tangible tools that can create beneficial learning opportunities where K-2 learners can practice fine motor skills and age-appropriate art principles. This project also studies how the integration of these tools into virtual environments can support K-2 learners in remote settings.
Understanding K-2 Remote Art Education Needs
Repeated, meaningful art education experiences for young children are often coordinated across school settings, which support daily art encounter opportunities, and museums, which provide more isolated encounters with artworks. To understand the needs of classroom and museum educators in remote K-2 settings, we conducted a needs survey and interview. We developed 3 sets of design requirements covering their needs. We also developed a novel typology of existing art education platforms, identifying where educators’ needs are and are not met.This project is described in our 2022 Interaction Design and Children (IDC) Paper: Ready, Set, Art: Technology Needs and Tools for Remote K-2 Art Education
To satisfy the need for young learners to receive appropriate feedback as they practice fine motor skills in remote environments, we created the Chameleon Clippers. This low cost instrumentation of classic school scissors uses line sensors and a custom built Processing application to alert users when they deviate from the line they are attempting to cut.
This project is described in our 2022 Computer-Supported Collaborative Learning (CSCL) paper:
Mansi, G., Boone, A., Kim, S. & Roberts, J. (2022). Chameleon Clippers: A Tool for Developing Fine Motor Skills in Remote Education Settings. In Proceedings 2022 International Conference on Computer Supported Collaborative Learning (CSCL). Hiroshima, Japan and online. Best design paper nominee
Increasing shifts to online and remote education in recent years — greatly augmented by the Covid-19 pandemic — have created a new challenge for museum-based art educators: How can young children have impactful art engagement experiences on remote museum tours?
In this project, I explore the K-2 art educators’ pedagogical needs in facilitating the remote art tour through co-design, and offer a technological solution, Play and Learn in Virtual Museum (PLVM). PLVM (pronounced as Plum) is a web-based digital platform for K-2 art educators and students to aid the followings:
Simple technology set up for students (3 point setup)
Ability to deeply looking at the art utilizing different interaction models such as discussion, drag-and-drop, point, multiple choice and storytelling
Integration with existing educational tools and different media such as 360 view, youtube, google slides, and images from the museum collection database
Sharable hands-on activities
Texture sound for the 3D elements
This platform offers both moderated and unmoderated versions to make it more accessible for limited resourced art educators.
Transgender and nonbinary (trans/nonbinary) college students face unique challenges as members of Greek Life organizations, as their identities contradict the heteronormative culture of most Greek communities. Despite these differences, trans/nonbinary students still exist within Greek communities, and many Greek organizations have been making efforts to be inclusive of these members. Institutional-level changes, however, do little to prepare individual Greek students to be inclusive of their trans/nonbinary peers, and because GT Greek Life does not mandate LGBTQ+ education, cisgender students struggle to bridge this gap in knowledge, while transgender students are expected to act as educators. Crossroads is an educational mobile application designed for cisgender Greek students. It teaches users about LGBTQ+ concepts, specifically focusing on trans/nonbinary issues within Greek communities.
The Crossroads application has four features: learning modules, community messaging, a glossary, and external resources. In our proof of concept prototype, we designed and tested two modules, one of which focused on basic LGBTQ+ terminology and concepts, and a second that honed in on trans/nonbinary issues. These modules are followed up with ‘daily challenges’ that utilize a spaced repetition model to support long-term learning. We hypothesize that this learning environment will provide cisgender Greek students with an easy-to-access LGBTQ+ learning environment that can be easily integrated into a college student’s schedule and will act as an alternative to relying on trans/nonbinary students for education.
Stephanie Baione, Yiming Lyu, Audrey Reinert & Jessica Roberts (2022) Crossroads: a transgender education platform for Greek life students, Journal of LGBT Youth, DOI: 10.1080/19361653.2022.2070813 Please contact me if you would like to read the article but do not have access and I will be happy to send you an access link.
When Sulfur Oxides (SOx) are emitted from power plant facilities, they do not fall directly to the ground. They are carried by air currents, sometimes great distances. Modeling of atmospheric transport and dispersion of these particles can estimate fine particulate matter (PM2.5) source impacts attributable to SOx emissions from each of the more than 1,200 coal-fired electricity generating units in operation in the United States between 1999-2018.
The Coal Pollution Impacts Explorer (C-PIE) is a web-based interface designed to visualize and scaffold atmospheric data and modeling for a public audience. Users can investigate the sources of pollution in their home county’s air, examine where pollution from a nearby facility disperses, and explore trends over time as facilities install pollution-mitigating scrubbers in response to legislative actions.
Research on the C-PIE platform investigates how data interactions can be scaffolded to support inquiry and engagement for public audiences.
Students are expected to learn how to make inferences in the third grade, but few high-quality resources are available to help students master this skill. Frequently it is practiced by giving students pictures and asking them to infer something about the picture (for example, from a photo of children standing in front of bicycles at a beach, a student could infer that it’s summertime, that they are siblings, that they rode their bikes to the beach, etc.). Teachers evaluate the inferences based on whether or not they are plausible, but often students are left to make up a set of disconnected inferences. FossilVR is a novel virtual environment that grounds the skill of making inferences in an authentic context: a paleontological fossil dig.
Students travel through the virtual environment with Dr. Hannah, the lead paleontologist at the site, and dig up fossils, about which they are then asked to make observations and inferences in their field notebook. The notebook contains scaffolds to guide noticing to help students create an argument about the characteristics of the specimen. We hypothesize that this system will increase the quality of inferences made, support argumentation skills, and create a more enjoyable learning experience compared with traditional methods.
Roberts, J., & Leinart, K. (2022) How Big was a Triceratops, Really? Using Augmented Reality to Support Collaborative Reasoning about Scale. In Tissenbaum et al. Learning at the intersection of physical spaces and technology. Symposium to be conducted at the 2022 International Conference on Computer Supported Collaborative Learning (CSCL). Hiroshima, Japan and online.