INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS | Volume IX Issue X October 2025
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The Impact of Biophilic Interior Design on Pupil Well-being in Ugandan
Primary Schools: A Convergent Mixed-Methods Study
*
Marete Josephine Njoki
Department of Art and Design, Maseno University, Kenya
DOI: https://dx.doi.org/10.47772/IJRISS.2025.910000653
Received: 26 October 2025; Accepted: 04 November 2025; Published: 20 November 2025
ABSTRACT
A growing body of evidence links biophilic design to enhanced well-being in educational settings. However,
this research is predominantly situated in high-income, developed countries, leaving a critical gap in
understanding its effects in resource-constrained contexts. This study examined the effects of biophilic interior
design on the emotional and social well-being of pupils in government-sponsored primary schools in Mukono
District, Uganda. A convergent mixed-methods design was employed with 302 pupils (aged 11-12) from four
purposively selected schools. Quantitative data were collected via a reliable 5-point Likert scale questionnaire
(Cronbach’s α = 0.895) measuring Emotional and Social Environment (ESE) and perceptions of four biophilic
domains: Nature in Space (NIS), Sensory Nature Stimuli (SNS), Nature of Space (NOS), and Natural
Analogues (NA). Qualitative data were gathered through 12 focus group interviews (n=4 pupils each)
incorporating diamond ranking and visual elicitation board activities. Quantitative data were analyzed using
descriptive statistics, Spearman's correlation, and multiple regression. Qualitative data were analyzed using
thematic analysis. The regression model was statistically significant, F(4,297) = 74.34, p<.001, explaining
49.4% of the variance in well-being scores (Adjusted R²=0.494). All four biophilic domains were significant
positive predictors, with NIS (β = 0.54, p<.001) and NOS (β = 0.47, p<.001) showing the strongest effects.
Qualitative findings revealed that pupils strongly associated positive emotions with elements like natural light,
views of greenery, and open, safe spaces for socializing, while expressing aversion to dark, paved, and poorly
maintained environments. Biophilic design elements are powerful, significant predictors of pupil well-being in
Ugandan primary schools. The convergence of quantitative and qualitative data provides robust, context-
specific evidence that integrating these nature-based elements can profoundly enhance the emotional and social
environment of learning spaces, offering a low-cost strategy for supporting holistic student development in
resource-constrained settings.
Keywords: Biophilic Design, Pupil Well-being, Mixed-Methods, Educational Environments, Uganda, Sub-
Saharan Africa, PERMA Framework.
INTRODUCTION
The physical environment of a school is not merely a container for learning but an active participant in the
educational process (Barrett et al., 2015). Globally, there is a shifting paradigm towards designing learning
spaces that support not only academic achievement but also the holistic well-being of students (Kanonire et al.,
2022). Within this movement, biophilic design, an approach that seeks to connect building occupants more
closely to nature, has emerged as a significant trend (Kellert et al., 2008). Rooted in the biophilia hypothesis,
which posits an innate human affinity for the natural world (Wilson, 1984), biophilic design incorporates
natural elements, materials, and forms into the built environment to improve health, well-being, and cognitive
function.
Substantial research in developed contexts has demonstrated the benefits of biophilic elements in schools.
Studies have linked access to natural light, views of vegetation, and the presence of plants to reduced stress,
*
Special thanks to the supervisors of my masters thesis-
Dr. Wagah Ongachi Mical and
Dr. Kiplimo Korir Geoffrey of Maseno
University, Kenya from which I drew this article.
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS | Volume IX Issue X October 2025
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improved concentration, and enhanced student motivation (Browning & Determan, 2024; Li et al., 2019).
Frameworks such as Kellert’s (2018) patterns of biophilic design provide a structured way to categorize these
elements, from direct experiences of nature (Nature in Space) to spatial configurations that evoke natural
environments (Nature of Space).
However, a critical gap persists in the literature. The vast majority of this evidence comes from high-income
countries in Europe, North America, and Asia, where sustainable design standards are often formally integrated
into school infrastructure (Rolling & Gerhard, 2022). In contrast, the application and effects of biophilic design
in government-sponsored, resource-constrained schools in Sub-Saharan Africa remain almost entirely
unexplored. In Uganda, for instance, government schools often face challenges of overcrowding, poor lighting,
and inadequate ventilation (Asad, 2021), yet the potential for low-cost, nature-integrated interventions to
mitigate these issues and support pupil well-being is unknown.
Well-being, particularly in school contexts, extends beyond the absence of distress to include positive
emotions, engagement, positive relationships, and a sense of comfort and safety (Seligman, 2012). In resource-
constrained environments, where psychosocial stressors can be high, fostering school well-being is especially
crucial.
The conceptual framework guiding this study integrates principles from Environmental Psychology and
Biophilic Design Theory to hypothesize the relationships under investigation. As illustrated in Figure 1, the
framework posits that four key biophilic domainsNature in Space (NIS), Nature of Space (NOS), Sensory
Nature Stimuli (SNS), and Natural Analogues (NA)directly influence pupils' Emotional and Social
Environment (ESE). Critically, drawing on the core tenets of Environmental Psychology, the model also
proposes that this primary relationship is moderated by the school's social-contextual environment, including
factors such as peer relationships, teacher-student interactions, and overall school culture. This framework
allows for the examination of both the direct effects of biophilic design and the nuanced ways in which
psychosocial factors may strengthen or weaken its impact on well-being in the Ugandan context.
Figure 1: Conceptual framework developed by the author to synthesize findings from this study
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
ISSN No. 2454-6186 | DOI: 10.47772/IJRISS | Volume IX Issue X October 2025
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Page 7963
Therefore, this study aimed to fill this gap by examining the effects of biophilic interiors on the well-being of
pupils in government-sponsored primary schools in Mukono District, Uganda. Using a convergent mixed-
methods design, the study sought to answer the following research question: How do biophilic design elements
influence the emotional and social well-being of pupils in Ugandan government-sponsored schools? By
integrating quantitative measures of perception with rich qualitative insights from children themselves, this
research provides a nuanced understanding of how nature-connected design can support the development of
healthier, more supportive learning environments in a typically underrepresented context.
METHODS
Research Design
This study employed a convergent parallel mixed-methods design (Creswell & Plano Clark, 2018), involving
the simultaneous collection of quantitative and qualitative data. The two strands were prioritized equally,
analyzed separately, and then integrated during interpretation to provide comprehensive conclusions.
Study Setting and Participants
The study was conducted in four government-sponsored primary schools in Mukono District, Uganda,
purposively selected to represent a range of contexts (rural, peri-urban, urban). Participants were Primary Six
pupils aged 11-12 years, selected for their capacity for abstract reasoning and articulation (Otto et al., 2019). A
census approach for this age group resulted in a total sample of 302 pupils (163 boys, 139 girls) (See Table 1).
Table 1. Demographic Characteristics of Participants (N=302)
School
Number of Pupils (Aged 11-12)
Boys
School A
64
30
School B
110
68
School C
25
12
School D
103
53
Total
302
163
Data Collection
Quantitative Data: A self-report questionnaire was administered to all 302 participants. It comprised:
Section A: Emotional and Social Environment (ESE). An 8-item scale adapted from the PERMA
framework (Seligman, 2012), rated on a 5-point Likert scale.
Section B: Biophilic Design Perceptions. A 42-item scale measuring four domains from Kellert's (2018)
framework: Nature in Space (NIS), Sensory Nature Stimuli (SNS), Nature of Space (NOS), and Natural
Analogues (NA), also on a 5-point Likert scale. The overall questionnaire demonstrated excellent internal
consistency (Cronbach's α = 0.895).
Qualitative Data: Twelve focus group interviews (3 per school, 4 pupils each; n=48) were conducted. These
semi-structured interviews incorporated:
Diamond Ranking: Pupils ranked 9 photographs of biophilic attributes from most to least preferred.
Visual Elicitation Boards: Pupils created collages of their "ideal school."
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
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Data Analysis
Quantitative Analysis: Data were analyzed using SPSS Version 30. Descriptive statistics, Spearman's
correlation, and multiple linear regression were used.
Qualitative Analysis: Thematic analysis was employed following Braun and Clarke (2006).
Ethical Considerations
Ethical approval was obtained from the Maseno University School of Graduate Studies and the Uganda
Christian University Research Ethics Committee. Permission was sought from school administrators. Informed
consent was obtained from parents/guardians, and assent was obtained from all child participants. Anonymity
and confidentiality were maintained throughout the research process.
RESULTS
Quantitative Findings
Descriptive statistics indicated that the Emotional and Social Environment (ESE) was generally perceived
positively (M=4.01). Among the biophilic domains, Nature in Space (NIS) had the highest mean score
(M=3.72), while Natural Analogues (NA) had the lowest (M=3.46) (Table 2).
Table 2. Overall Mean Scores and Standard Deviations (N=302)
Variable
Number of Items
Overall Mean Score
Standard Deviation
Emotional & Social Environment (ESE)
8
4.01
1.23
Nature In Space (NIS)
10
3.72
1.48
Sensory Nature Stimuli (SNS)
10
3.64
1.45
Nature Of Spaces (NOS)
13
3.54
1.47
Natural Analogues (NA)
9
3.46
1.49
Spearman's correlation revealed significant positive relationships between all biophilic domains and ESE
(Table 3). A multiple regression predicting ESE from the four biophilic domains was significant, F(4, 297) =
74.34, p < .001, Adjusted = 0.494. All Variance Inflation Factor (VIF) values were below 2.5, indicating no
concerning multicollinearity (O’Brien, 2007). All four domains were significant positive predictors, with NIS
(β = 0.54) and NOS (β = 0.47) as the strongest (Table 4) and (Figure 1)
Table 3. Spearman's Correlations between ESE and Biophilic Domains
Relationship
Spearman's ρ
P-value
ESE & NIS
0.43
< .01
ESE & NOS
0.29
< .05
ESE & SNS
0.27
< .05
ESE & NA
0.25
< .05
ESE & Overall Biophilic Exposure
0.39
< .01
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
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Table 4. Multiple Regression Predicting ESE from Biophilic Domains
Predictor
B
SE B
β
t
p
(Constant)
0.85
0.11
7.73
< .001
NIS
0.54
0.05
0.54
10.80
< .001
NOS
0.47
0.05
0.47
9.40
< .001
SNS
0.28
0.05
0.28
5.60
< .001
NA
0.24
0.05
0.24
4.80
< .001
Note: Dependent Variable: ESE Score. R² = .500, Adjusted R² = .494.
The regression model confirms that biophilic design elements are, in aggregate, significant positive predictors
of pupil well-being, collectively explaining a substantial portion of its variance (Adjusted = 0.494).
However, this key figure itself indicates that the relationship is not purely deterministic. The fact that
approximately 50% of the variance in well-being is attributable to factors outside our model provides clear
quantitative evidence for the influence of other moderators.
These observed discrepancies challenge a simplistic application of Biophilic Design Theory and underscore a
core tenet of Environmental Psychology: the impact of the physical environment is significantly moderated by
psychosocial and contextual factors (Browning & Rigolon, 2019). A school's social climate, the quality of peer
relationships, and teacher-student interactions are powerful forces that can potentially compensate for
deficiencies in the physical environment or, conversely, mitigate the benefits of a nature-rich setting. This
indicates that while biophilic design provides a foundational support for well-being, it is not a standalone
solution and operates within a broader ecological system of the school.
The qualitative findings powerfully illuminate the 'why' behind both the strong aggregate correlation and these
nuanced variations. Pupils did not merely acknowledge the presence of plants or light; they articulated how
these elements directly fostered positive emotions
Qualitative Findings
Thematic analysis yielded five key themes:
1. Visual Connection to Nature as a Source of Joy and Calm: Views of greenery evoked happiness and
provided a mental respite.
2. Dynamic Light and Air as Foundational to Comfort: Sunlight and fresh air were highly valued for
creating a "happy" atmosphere and physical comfort.
3. Transitional and Refuge Spaces for Social Well-being: Verandas and shaded areas under trees were
crucial for psychological adjustment, relaxation, and peer bonding.
4. Natural Materials Fostering Authenticity and Ownership: A distinct preference for natural materials
(e.g., wooden desks) was linked to a sense of permanence and personal connection.
5. Aversion to the Non-Biophilic: Pupils strongly disliked dark classrooms and paved, barren
playgrounds, describing them as "sad" and "hot."
DISCUSSION
This study provides compelling, multi-faceted evidence that biophilic design is a significant contributor to
pupil well-being in Ugandan government-sponsored primary schools. The convergence of quantitative and
qualitative data offers a robust and nuanced understanding of this relationship bridging a critical gap in the
global literature on educational environments.
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The central finding is that nearly half of the variance in pupils' emotional and social well-being (49.4%) can be
predicted by their exposure to and perception of biophilic elements in their school environment. This large
effect size (Adjusted R²=0.494) is substantial for environmental psychology research and underscores the
physical environment's critical role in the psychosocial experience of learning, particularly in a resource-
constrained context. The regression model was robust, with no multicollinearity concerns, strengthening
confidence in the results.
The quantitative results establish a clear hierarchy of impact: direct experiences of nature (NIS) and the spatial
configuration of the environment (NOS) are the most powerful predictors. This aligns with global biophilic
design theory, which emphasizes the primal importance of direct nature contact and spaces that evoke feelings
of safety and prospect (Kellert, 2018; Browning et al., 2014). The strong performance of NOS is particularly
noteworthy and offers a crucial contextual insight. While studies in high-income countries might highlight
complex technological integrations of nature, our findings suggest that in Uganda, designing for "prospect"
(e.g., open views for supervision) and "refuge" (e.g., secure, shaded verandas) is a highly cost-effective
strategy. This supports and extends Mehta & Mahamood's (2022) work on the importance of transitional
spaces.
The qualitative findings powerfully illuminate the psychological mechanisms behind these numbers. Pupils'
articulations of feeling "happy," "calm," and socially connected in biophilic spaces resonate strongly with
theories of restorative environments, such as Attention Restoration Theory (ART). The visual connection to
nature (NIS) likely facilitates involuntary attention and mental fatigue recovery, while the refuge spaces (NOS)
provide opportunities for social bonding and psychological safety, key components of the PERMA well-being
framework (Seligman, 2012). The qualitative findings from this study powerfully illustrate these theoretical
mechanisms in action. For instance, pupils' frequent expressions of feeling 'calm' and 'happy' when observing
views of greenery from their classroom windows align directly with the rapid stress reduction proposed by
Stress Recovery Theory (Ulrich, 1983). Similarly, their descriptions of using shaded areas under trees during
break time 'to rest our minds' or 'to read when it is quiet' demonstrate how these natural spaces function as
restorative environments, facilitating the recovery of directed attention as described by Attention Restoration
Theory (Kaplan, 1995). Their aversion to non-biophilic elements reinforces the fundamental human need for
nature-connected environments, as predicted by the biophilia hypothesis (Wilson, 1984).
From a practical standpoint, this research offers a clear, prioritized framework for action in Uganda and similar
contexts. Prioritizing low-cost interventions that maximize Nature in Space (preserving existing trees, creating
classroom gardens) and Nature of Space (ensuring classrooms have open views, creating and maintaining
shaded verandas and seating areas) can yield significant dividends for pupil well-being. This study moves the
conversation beyond theoretical benefits to provide actionable, evidence-based guidance for creating more
nurturing learning environments where resources are scarce.
Limitations and Future Research
This study has several limitations. The cross-sectional design establishes relationship but not causality. The
sample was confined to one district in Uganda, which may limit generalizability. Future research should
employ longitudinal or experimental designs to track the causal effects of biophilic interventions on well-being
and academic outcomes and expand to a wider geographical area. Furthermore, while the regression model
identifies a strong predictive relationship, it is important to consider potential confounding variables that were
not measured in this study. Factors such as teacher quality, pedagogical approaches, home environment, and
individual pupil temperament could also influence well-being scores. Although the mixed-methods design and
the high explanatory power of the model provide confidence in the central role of the physical environment,
future studies would benefit from including these variables as covariates to paint an even more comprehensive
picture of the determinants of pupil well-being.
CONCLUSIONS
This study demonstrates that biophilic design is not a luxury reserved for well-funded schools in the developed
world, but a relevant and powerful strategy for enhancing the well-being of children in resource-constrained
INTERNATIONAL JOURNAL OF RESEARCH AND INNOVATION IN SOCIAL SCIENCE (IJRISS)
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environments. By showing that direct nature contact and thoughtful spatial design are the most significant
predictors of emotional and social well-being, it provides a clear, prioritized framework for action. Integrating
these principles into the design and retrofitting of Ugandan schools represents a low-cost, high-impact
opportunity to invest in the holistic development of the nation's future generations. The voices of the pupils in
this study offer a simple yet powerful conclusion: children thrive in schools that feel alive, connected to nature,
and designed for their comfort and joy.
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