- Lynch School of Education, Boston College, Chestnut Hill, MA, United States
The term “Universal Design for Learning (UDL)” is derived from “Universal Design,” which is commonly used in the field of architecture, and focuses on proactive designing of the infrastructure that is accessible to all the users, regardless of their age, sex, abilities, etc. When the universal design approach is implemented in education, it focuses on making the curriculum, instruction, materials, and assessments accessible for all the learners, but does not mention anything about the classroom and school infrastructure. This raises a question: is the UDL framework forgetting the origin of universal design by not recognizing the importance of physical spaces or school infrastructure, where all the learning takes place? A way to approach this question is to think of school infrastructure as a learning resource that provides enriching learning experiences to the learners, and not merely a brick-and-mortar structure that houses instruction. The school building comprises various physical spaces such as classrooms, corridors, playgrounds, staircases, etc. that can be transformed into learning spaces to promote subconscious learning in learners and ensure a school-wide implementation of UDL. Transforming the school environment would ensure learners an equitable, inclusive, and accessible environments that address learner variability, and reduce barriers to their learning. This involves a focus on various components, namely, transforming physical spaces (universal design) into learning spaces (universal design for learning), identifying different elements in each learning space to maximize their learning value, and general accessibility of the school infrastructure. The chapter aims to provide a framework to design inclusive learning spaces by deriving insights from the work of various groups of architects in India, Ireland, and the United States that have explored the relationship between physical spaces and UDL.
Introduction
For a very long period, educational pedagogists like Piaget, Vygotsky, Plato, Montessori, etc. have stressed the importance of constructivism, child-centered learning, and learning that is holistic. This means that children learn the best when they construct their knowledge from their experiences rather than being fed with information, and when learner variability is considered. For years, Universal Design for Learning has been implemented in numerous countries, yet it does not pay attention to the interface between school architecture and teaching pedagogy and instruction delivery, i.e., how the use of school building design and its elements, including classroom furniture, walls, pillars, doors, etc., can support varied activities and provide enriching learning experiences to all the children apart from the commonly practiced pedagogical teaching that comprises of the group and individual learning opportunities.
Not many people have focused on the pertinence of utilizing the physical space as a learning resource in improving teaching-learning experiences. Despite school buildings being the most expensive asset of a school, this resource has received scant attention. A handful of architects, who have explored the school’s entire physical environment as a learning resource focused on the structured spaces (interior and exterior of school infrastructure) and loose spaces (open spaces like playgrounds, and courts). The spaces offer myriad opportunities that complement instructional delivery and aid the information given in the textbooks. The three-dimensional space, if utilized well, can offer a multi-sensory experience and distinct space for a child to experience learning and supplement the uni-dimensional learning material and blackboard teaching. Further, it can help children experience abstract concepts in concrete form. There are several components in each element of the school design that can be used to create multi-sensory experiences for the learners, for example, various textures can be added to different elements, and angles and shapes can be taught using innumerable material resources that are present in the school, dimensions and movements can be used to teach concepts of language arts, mathematics, and science.
One such project that is carried out widely in India is Building as a Learning Aid (BaLA), which was supported by UNICEF, India. The concept of BaLA was developed by Vinyas, Centre for Architectural Research and Design, who also trained educators and school leaders to plan, implement, and effectively use it in the schools. BaLA is considered to holistically plan and utilize the school space and design to incorporate activity-based learning, enriching, child-friendly and inclusive education for children, including children with disabilities (Kaushika, 2008; Vajpeyi, 2010). There are two levels of intervention, (1) develop spaces, such as classrooms, corridors, steps, and outdoor spaces, to provide a variety of learning experiences, and (2) develop the elements (floor, walls, window, ceiling, door, etc.) in these spaces as teaching-learning aids (Vinyas, 2012).
Building as a learning aid aims to use the elements, like floors, windows, fans, trees, flowers, and pillars in various physical spaces like classrooms, corridors, playgrounds, etc. as a learning resource. For instance, a range of angles can be marked on the door shutter on the floor to depict the concept of angles, a flagpole can act as a sundial and concept of measuring time can be taught to students there, and planting seasonal trees and plants can clarify the change in season, different flowers, plant types, growing season, etc., rainwater harvesting pipe can be used as a periscope and concept of mirrors and its uses can be taught using it, etc.
In addition to BaLA, there is another architectural marvel in the heart of the Thar Desert in India-Rajkumari Ratnavati Girls School that not only has a sustainable infrastructure but also envisions empowering women (Manoj, 2021). The school aims to provide a better future to young girls and their mothers in the state of Rajasthan, where literacy rate is just 32 per cent. It is designed by New York-based architect Diana Kellogg and built by CITTA1. The school is located in Jaisalmer, and is made of sandstone (locally abundant resource), which keeps the building cool from within, when the outside temperature soars to over 50 degree Celsius. The classrooms have plenty of air and light circulation, and the canopy of solar panels on the building generates and supplies electricity and keeps the structure under shade. Besides this, a part of the school houses a textile museum that typically displays the textiles of the region, another part is a performance/exhibition hall, and there is also an area to train women in traditional arts like weaving. This architectural wonder demonstrates the use of locally abundant resources like sandstone, sunlight, and skills of local artisans and women to create a space that is sustainable and empowering in nature.
Further, a group of architects from Ireland that developed a guide named “UDL Learning Spaces Idea Kit” that provides a crosswalk among the kit and the UDL guidelines to give suggestions on designing learning environments considering learner variability within the learning environment. The UDL Learning Spaces Kit (Evans, 2022) was a combined product of the effort of Gould Evans and UDL-IRN. It enables educators to rethink learning spaces and create a diverse palette of experiences using the school building. The guide suggests students “make space,” give students a choice of where, with whom, and how they wish to work, create innovation labs in schools for educators and school leadership to experiment with novel approaches, and design spaces that provide multi-sensory experiences to learners and allow them to move around and fidget (if needed) while working, redesigning floor and “negative space” to serve as a learning aid, offer a variety of work settings, huddle, team and “get away” spaces, and engaging with walls, other surfaces, outdoor spaces. Additionally, Evans designed teacher experience cards that support collaboration among educators doing project-based learning, providing shared workspaces, creating a culture of learning among faculty, and ensuring child-friendly classrooms wherein the focus shifts from “teacher’s space” to “teacher and students’ space.” Further, it provides “paradigms” that talk about innovation more than technology, adopting low-tech aids, and creating anti-classrooms that offer new learning approaches, creativity, and autonomy to learners. It also emphasizes experiential learning and project-based learning that facilitate lifelong learning. Lastly, CAST and UDL-IRN created indicators for UDL School Implementation and Certification Criteria (UDL-SICC) that focus on School Culture and Environment, Teaching and Learning, Leadership and Management, and Professional Learning (CAST, and UDL-IRN, 2022).
The abovementioned projects offer a unique perspective on rethinking physical spaces, which are oftentimes ignored in the teaching-learning process. They propose child-centered, integrated, holistic (Miller, 1999; Hargreaves and Shirley, 2012), and fun-oriented approaches to teaching that create a culture of harmony between educator and their learners. Interestingly, both the projects focus on using localized resources that are relatable to the learners, use low technological aids, and promotes subconscious learning by using the school building as a resource (Khurana, 2019). For schools to develop expert learners, it is critical for the school leaders and educators to focus on, cultural equity, educational equity, and infrastructural equity.
Cultural equity
The article “Cracks in the Foundation” (Rose et al., 2021) highlighted how despite having accessible infrastructure, our implicit biases and opinions create barriers to inclusion and equitable learning. Therefore, it is pertinent that the entire school community is responsible for designing a culture that supports inclusion and equity of all learners and ensures it provides equitable and inclusive learning experiences and environments that consider learner variability from the lens of culture, language, society, emotions, and cognitive variability. This means that the learning experiences in the school should be designed from a person-centered perspective rather than a teacher- or society-centered perspective. A school environment that commits to UDL focuses on creating expert learners, who are knowledgeable, resourceful, purposeful, motivated, goal-directed, and strategic. Lastly, the school community should also revamp school spaces to support variability and reduce barriers to inclusion and learning. For this, the schools should focus on the following key areas (see Table 1) (and their relationship with the UDL guidelines) that ensure effective implementation of UDL at the school level.
Table 1 Key areas to ensure cultural equity in an educational setting and their alignment with Universal Design for Learning (UDL).
Educational equity
To enrich learners’ experiences, school design should also be thought of as a learning resource, and educators should proactively design evidence-based learning experiences: teaching goals, methods, materials, assessments, and classroom environment should be conducive to learners’ needs and variability, and reduce learning barriers, for them to become expert learners (Meo, 2008). For this, the school’s physical space can be used in numerous ways (see Table 2).
Infrastructural equity
Often, the first step to inclusion is the physical access and reduction of physical barriers that can affect the participation of the learners in a school. Therefore, school spaces need to be intentionally designed or adapted to be accessible and flexible. This requires the schools to identify spaces that would need restructuring to reduce existing infrastructural barriers or proactive planning of new indoor, outdoor and digital spaces incorporating UDL guidelines and checkpoints (see Table 3).
Table 3 Key areas to ensure infrastructural equity in an educational setting and their alignment with UDL.
Discussion
To focus on access, expert learning, equitable learning, and inclusion, the school community needs to proactively and intentionally design physical spaces in school that incorporate curriculum and foster healthy relations amongst the educators, learners, and the learning environment. These spaces are the language and behaviors of the school and depict their stance on culture, beliefs, and inclusion. The spaces should be aligned to the curriculum, and support teaching methodology, and learner experiences. The spaces and elements in them should be innovatively designed to make the school architecture more resourceful that improves the educational value in a child-centered manner. As this perspective is adapted from the extant literature on school design and use, it presents a holistic view of rethinking the entire school community and system by revamping the school design and infrastructure, promoting collaboration amongst educators, developing expert learners, varying demands and resources provided to learners to optimize challenge, and minimizing threats and distractions.
Data availability statement
The original contributions presented in the study are included in the article/supplementary material, further inquiries can be directed to the corresponding author.
Author contributions
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Conflict of interest
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Footnotes
References
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Hargreaves, A., and Shirley, D. (2012). The Global Fourth Way: The Quest for Educational Excellence. London: SAGE Publications. Integrated Education for Disabled Children Scheme 1974 (IEDC) (In.). doi: 10.4135/9781473915244.n21
Khurana, A. (2019). “UDL practices in India: paving a path from equality to equity in learning,” in Universal Access Through Inclusive Instructional Design: International Perspectives on UDL, eds S. L. Gronseth and E. M. Dalton (New York, NY: Routledge), 103–110. doi: 10.4324/9780429435515-13
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Keywords: universal design (UD), school design, inclusive spaces, learner variability, infrastructure planning
Citation: Khurana A (2022) Converting physical spaces into learning spaces: Integrating universal design and universal design for learning. Front. Educ. 7:965818. doi: 10.3389/feduc.2022.965818
Received: 10 June 2022; Accepted: 04 August 2022;
Published: 29 September 2022.
Edited by:
Joanne Banks, Trinity College Dublin, IrelandReviewed by:
Sujata Bhan, SNDT Women’s University, IndiaMarla Lohmann, Colorado Christian University, United States
Copyright © 2022 Khurana. This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
*Correspondence: Aashna Khurana, a2h1cmFuYWFAYmMuZWR1