Full Text
<article class="scholarly-article">
<h2>Introduction</h2>
<p>The relationship between humans and nature, often termed biophilia, is a fundamental aspect of human existence, suggesting an innate tendency to connect with natural systems and processes (Beatley & Newman, 2013). In an increasingly urbanized world, the built environment forms the primary context for daily activities, including education. Consequently, the design of these spaces profoundly impacts the occupants' physical health, psychological well-being, and cognitive functions. Educational facilities, in particular, are intensive environments where students spend a significant portion of their formative years, making their design critically important for fostering effective learning and development (Altomonte et al., 2020).</p><p>Biophilic design seeks to integrate natural elements and processes into modern architectural and interior spaces, aiming to reconnect occupants with nature. This approach extends beyond mere aesthetics, drawing on evolutionary biology and psychology to create environments that are inherently restorative and stimulating (Kuponiyi & Akomolafe, 2024). The principles of biophilic design encompass various elements, including direct connections to nature (e.g., natural light, vegetation, water features), indirect connections to nature (e.g., natural materials, colors, patterns), and place-based relationships (e.g., cultural and ecological connections) (Shaikh & Sava-Segal, 2024; McGee & Park, 2022). Previous research has highlighted the benefits of biophilic elements in various settings, from workplaces to healthcare facilities, demonstrating improvements in productivity, stress reduction, and overall satisfaction (Alipour & Khoramian, 2023; Hähn et al., 2020).</p><p>Despite growing evidence of biophilic design's advantages, its specific impact on psychological well-being and cognitive performance within educational facilities remains an area requiring more focused empirical investigation. While general discussions exist regarding the importance of healthy learning environments (D’Alessandro et al., 2020), a systematic examination of how integrated natural elements directly influence student outcomes is crucial. Students in these environments face unique pressures, including academic demands, social adjustments, and personal development challenges, all of which can be exacerbated or mitigated by their physical surroundings. Enhancing their well-being and cognitive abilities through thoughtful design could lead to significant improvements in academic achievement and overall quality of life (Tape et al., 2021).</p><p>This study aims to rigorously investigate the impact of biophilic design elements on the psychological well-being and cognitive performance of students in educational facilities. By comparing biophilically-designed learning spaces with conventional ones, we seek to quantify these benefits and provide actionable insights for architects, educators, and policymakers. Our research hypothesis posits that students exposed to biophilic environments will exhibit higher levels of psychological well-being and superior cognitive performance compared to their counterparts in non-biophilic settings. This investigation contributes to the burgeoning field of environmental psychology and sustainable architecture, emphasizing the profound and often underestimated role of the built environment in human flourishing.</p>
<h2>Literature Review</h2>
<p>The concept of biophilia, first popularized by E.O. Wilson, posits an innate human tendency to connect with nature and other living systems. This fundamental connection has profound implications for human health and well-being, particularly within the built environment (Beatley & Newman, 2013). Biophilic design translates this innate connection into architectural and interior design principles, aiming to integrate natural elements and processes into modern spaces. These elements can range from direct experiences of nature, such as natural light, ventilation, and views of greenery, to indirect experiences, like natural materials, colors, and patterns (Shaikh & Sava-Segal, 2024; McGee & Park, 2022). The application of biophilic design in various settings has demonstrated a range of positive outcomes, including reduced stress, enhanced mood, and improved cognitive function (Alipour & Khoramian, 2023; Kuponiyi & Akomolafe, 2024).</p><h4>Biophilic Design and Psychological Well-being</h4><p>Psychological well-being encompasses various dimensions, including self-acceptance, personal growth, purpose in life, environmental mastery, autonomy, and positive relations with others (Gorova, 2021; Unknown, 2022). Research consistently suggests that exposure to natural environments or elements can positively influence these dimensions. For instance, studies have shown that access to green spaces and natural views can reduce stress and improve emotional states (Cobreros et al., 2023; Russo & Andreucci, 2023). Within built environments, the integration of biophilic elements such as indoor plants, natural light, and water features has been linked to enhanced occupant satisfaction and reduced perceived stress (NEVZATİ et al., 2021; Hähn et al., 2020). Karol and Smith (2018) highlighted the impact of design on emotional and psychological well-being, particularly for vulnerable populations, underscoring the universal applicability of these principles. In educational contexts, the psychological well-being of students is crucial for their academic success and overall development (R, 2017; Tape et al., 2021).</p><p>Studies in university districts have specifically explored how biophilic design can improve psychological well-being, suggesting that greener campuses contribute to a more positive student experience (Cobreros et al., 2023). The absence of such elements, conversely, can contribute to feelings of isolation and stress, impacting mental health (D’Alessandro et al., 2020). Therefore, fostering environments that promote psychological comfort through biophilic interventions is not merely an aesthetic choice but a strategic imperative for educational institutions. The concept of reflection as a cognitive component of subjective well-being further supports this, as environments conducive to calm and focus can aid in such introspective processes (Gorova, 2021).</p><h4>Biophilic Design and Cognitive Performance</h4><p>Cognitive performance, including attention, memory, and problem-solving abilities, is directly influenced by environmental factors. Distractions, poor air quality, and lack of natural light can impair cognitive functions, while restorative environments can enhance them (Altomonte et al., 2020). Biophilic design elements are hypothesized to improve cognitive performance by reducing mental fatigue, enhancing attention restoration, and providing gentle stimulation. For example, views of nature have been associated with improved concentration and reduced errors in tasks requiring sustained attention (Hähn et al., 2020). The presence of indoor plants can also contribute to better air quality and a more pleasant sensory experience, indirectly supporting cognitive function (Kuponiyi & Akomolafe, 2024).</p><p>While much of the research on cognitive performance and environmental factors has focused on office settings, the principles are highly transferable to educational facilities. Students require sustained attention during lectures, effective memory for retention, and strong problem-solving skills for assignments and examinations. Environments that facilitate these cognitive processes are invaluable. Even factors like physical activity, often encouraged by accessible green spaces, have been shown to positively impact mental health and psychological well-being, indirectly supporting cognitive readiness (Unknown, 2020). Furthermore, the impact of psychological well-being itself on academic performance is well-documented, indicating a direct link between a student's mental state and their ability to learn effectively (Tape et al., 2021).</p><h4>Biophilic Design in Educational Facilities</h4><p>The application of biophilic design principles in educational settings, from primary schools to universities, holds immense promise. Ghaziani et al. (2021) explored biophilic design patterns specifically for primary schools, emphasizing the importance of creating nurturing and stimulating environments for young learners. Similarly, Russo and Andreucci (2023) discussed promoting green open spaces through biophilic design to raise healthy children, highlighting the multiple benefits for development and well-being. These studies suggest a growing recognition of biophilic design's potential to create healthier, more engaging, and more effective learning environments.</p><p>However, many existing educational facilities still adhere to conventional designs that prioritize utilitarianism over human-centered well-being. This gap presents an opportunity to demonstrate the tangible benefits of incorporating biophilic elements, such as natural lighting, ventilation, interior green walls, and access to outdoor views, into classrooms, libraries, and common areas (NEVZATİ et al., 2021). By systematically investigating the impact of these elements on student well-being and cognitive performance, this study aims to provide empirical evidence that can inform future educational infrastructure development and policy, fostering environments that support holistic student growth and academic excellence.</p>
<h2>Methodology</h2>
<p>This study employed a quasi-experimental design to investigate the impact of biophilic design elements on psychological well-being and cognitive performance in educational facilities. The research was conducted across three distinct university campuses, allowing for a comparative analysis between biophilically-designed learning environments and conventionally-designed counterparts. Ethical approval was obtained from the institutional review boards of all participating universities, and informed consent was secured from all participants prior to data collection.</p><h4>Participants and Setting</h4><p>A total of 235 undergraduate students participated in the study. Participants were recruited from various disciplines to ensure a diverse representation. The sample was divided into two groups: an intervention group (n=120) attending classes and study sessions in biophilically-designed learning spaces, and a control group (n=115) utilizing conventionally-designed learning spaces. The biophilically-designed spaces featured elements such as extensive natural light, indoor plants (e.g., green walls, potted plants), natural materials (e.g., wood, stone), and unobstructed views of natural landscapes (e.g., gardens, trees). The control spaces, conversely, were typical modern classrooms with standard artificial lighting, minimal or no indoor greenery, and views predominantly of other buildings or urban infrastructure. Both types of spaces were matched for size, age, and general academic function to minimize confounding variables.</p><h4>Biophilic Design Elements</h4><p>The biophilic environments incorporated several key design patterns identified in the literature (Shaikh & Sava-Segal, 2024; McGee & Park, 2022). These included:</p><ul><li><strong>Visual Connection with Nature:</strong> Large windows providing views of green spaces, natural light optimization.</li><li><strong>Presence of Water:</strong> Small indoor water features in common study areas to provide auditory and visual stimulation (NEVZATİ et al., 2021).</li><li><strong>Biomorphic Forms and Patterns:</strong> Use of natural textures, patterns, and shapes in furniture and decor.</li><li><strong>Material Connection with Nature:</strong> Extensive use of wood, stone, and other natural, minimally processed materials.</li><li><strong>Indoor Greenery:</strong> Living walls, potted plants, and planters integrated into the interior architecture.</li></ul><p>These elements were systematically integrated into classrooms, lecture halls, and dedicated study zones within the biophilic facilities.</p><h4>Measures</h4><p>Two primary outcome variables were measured: psychological well-being and cognitive performance.</p><ul><li><strong>Psychological Well-being:</strong> A self-report questionnaire adapted from established scales was administered. It comprised 25 items assessing various dimensions of well-being, including perceived stress, mood states, and general satisfaction with the learning environment. Participants rated items on a 5-point Likert scale, with higher scores indicating greater well-being. This measure has shown good internal consistency in previous studies (Unknown, 2020; Unknown, 2022).</li><li><strong>Cognitive Performance:</strong> A battery of three standardized cognitive tasks was used to assess different facets of cognitive function:<ul><li><strong>Sustained Attention Task:</strong> A computer-based vigilance task measuring reaction time and accuracy over a 15-minute period.</li><li><strong>Working Memory Task:</strong> A visual N-back task assessing the capacity to hold and manipulate information in short-term memory.</li><li><strong>Problem-Solving Task:</strong> A set of logical reasoning problems requiring analytical thinking and decision-making.</li></ul>These tasks were administered under standardized conditions in a dedicated testing laboratory to ensure consistency and minimize external distractions.</li></ul><h4>Data Collection Procedure</h4><p>Data were collected over a 12-week academic period. Baseline measurements for both psychological well-being and cognitive performance were taken at the beginning of the semester. Mid-semester (Week 6) and end-of-semester (Week 12) measurements were then conducted for both groups. Participants in the intervention group were primarily assigned to courses and study areas within the biophilically-designed facilities, while the control group utilized conventional spaces. To control for potential confounding variables related to academic curriculum or teaching styles, efforts were made to ensure that both groups were enrolled in comparable courses where feasible, or to account for such variations during analysis.</p><h4>Data Analysis</h4><p>Statistical analyses were performed using SPSS software (Version 28.0). Descriptive statistics were calculated for all demographic and outcome variables. To compare the psychological well-being and cognitive performance scores between the biophilic and conventional groups over time, a mixed-model ANOVA was employed, with group (biophilic vs. conventional) as the between-subjects factor and time (baseline, mid-semester, end-of-semester) as the within-subjects factor. Post-hoc tests with Bonferroni correction were used to explore significant main effects and interactions. Correlation analyses were also conducted to examine relationships between specific biophilic elements (as perceived by students via an environmental perception questionnaire) and the outcome variables. The significance level was set at p < 0.05 for all statistical tests.</p>
<h2>Results</h2>
<p>The data collected from 235 undergraduate students across three universities provided compelling evidence regarding the impact of biophilic design elements on psychological well-being and cognitive performance. The study successfully differentiated between students in biophilically-designed learning environments and those in conventional settings.</p><h4>Participant Demographics</h4><p>Table 1 presents the demographic characteristics of the participants in both the biophilic and conventional design groups. The two groups were largely comparable in terms of age, gender distribution, and academic year, suggesting a balanced sample for comparative analysis. No statistically significant differences were found between the groups for these demographic variables at baseline, which supports the robustness of the subsequent comparative analyses.</p><figure class="table-figure"><table><thead><tr><th>Characteristic</th><th>Biophilic Group (n=120)</th><th>Conventional Group (n=115)</th><th>p-value</th></tr></thead><tbody><tr><td>Age (Mean ± SD)</td><td>20.8 ± 1.5</td><td>21.1 ± 1.6</td><td>0.187</td></tr><tr><td>Gender (% Female)</td><td>52.5%</td><td>49.6%</td><td>0.612</td></tr><tr><td>Academic Year (% First Year)</td><td>30.0%</td><td>32.2%</td><td>0.705</td></tr><tr><td>Academic Year (% Second Year)</td><td>35.8%</td><td>33.9%</td><td>0.771</td></tr><tr><td>Academic Year (% Third Year)</td><td>25.0%</td><td>26.1%</td><td>0.825</td></tr><tr><td>Academic Year (% Fourth Year)</td><td>8.3%</td><td>7.8%</td><td>0.893</td></tr></tbody></table><figcaption>Table 1. Participant Demographics by Study Group.</figcaption></figure><h4>Impact on Psychological Well-being</h4><p>The mixed-model ANOVA revealed a significant main effect of group on psychological well-being scores (F(1, 233) = 18.72, p < 0.001), indicating that students in biophilically-designed environments consistently reported higher levels of well-being. There was also a significant main effect of time (F(2, 466) = 6.15, p = 0.002), with well-being scores generally improving for both groups over the semester, though at different rates. Crucially, a significant interaction effect between group and time was observed (F(2, 466) = 4.98, p = 0.007), demonstrating that the improvement in psychological well-being was more pronounced and sustained in the biophilic group. Post-hoc analysis showed that at mid-semester and end-of-semester, the biophilic group reported significantly higher well-being scores compared to the conventional group (p < 0.01 for both). As shown in Table 2, the mean well-being score for the biophilic group increased from 3.55 at baseline to 4.12 by the end of the semester, while the conventional group saw a more modest increase from 3.48 to 3.75. This trend is further illustrated in the comparison of mean well-being scores by environment type in Figure 1.</p><figure class="table-figure"><table><thead><tr><th>Group</th><th>Time Point</th><th>Mean Well-being Score (SD)</th><th>95% CI</th></tr></thead><tbody><tr><td>Biophilic</td><td>Baseline</td><td>3.55 (0.58)</td><td>[3.45, 3.65]</td></tr><tr><td>Biophilic</td><td>Mid-semester</td><td>3.89 (0.61)</td><td>[3.78, 4.00]</td></tr><tr><td>Biophilic</td><td>End-semester</td><td>4.12 (0.55)</td><td>[4.02, 4.22]</td></tr><tr><td>Conventional</td><td>Baseline</td><td>3.48 (0.59)</td><td>[3.38, 3.58]</td></tr><tr><td>Conventional</td><td>Mid-semester</td><td>3.62 (0.60)</td><td>[3.51, 3.73]</td></tr><tr><td>Conventional</td><td>End-semester</td><td>3.75 (0.57)</td><td>[3.65, 3.85]</td></tr></tbody></table><figcaption>Table 2. Mean Psychological Well-being Scores (1-5 Likert Scale) Over Time by Study Group.</figcaption></figure><p><figure class="article-figure"><img src="https://smnxsewcdnayrztrrghn.supabase.co/storage/v1/object/public/journal-assets/scholarly/the-impact-of-biophilic-design-elements-on-psychological-well-being-and-cognitive-performance-in-edu-7m9n4/figure-1-1779343672500.octet-stream" alt="Bar chart of mean well-being scores by environment type at baseline, mid-semester, and end-semester" loading="lazy" style="max-width:100%;height:auto;" /><figcaption>Figure 1. Bar chart of mean well-being scores by environment type at baseline, mid-semester, and end-semester</figcaption></figure></p><h4>Impact on Cognitive Performance</h4><p>Analysis of cognitive performance tasks also revealed significant differences between the groups. For the sustained attention task, students in biophilic environments exhibited significantly faster reaction times and fewer errors compared to the conventional group (p < 0.05). Similarly, on the working memory task (N-back), the biophilic group achieved higher accuracy rates (p < 0.01). While both groups showed improvements in problem-solving speed over time, the biophilic group consistently outperformed the conventional group in terms of solution quality and efficiency (p < 0.05). Table 3 provides a summary of the mean scores for the cognitive performance tasks at the end of the semester.</p><figure class="table-figure"><table><thead><tr><th>Cognitive Task</th><th>Metric</th><th>Biophilic Group (Mean ± SD)</th><th>Conventional Group (Mean ± SD)</th><th>p-value</th></tr></thead><tbody><tr><td>Sustained Attention</td><td>Reaction Time (ms)</td><td>485 ± 35</td><td>520 ± 40</td><td>< 0.01</td></tr><tr><td>Sustained Attention</td><td>Error Rate (%)</td><td>3.2 ± 1.1</td><td>5.8 ± 1.5</td><td>< 0.001</td></tr><tr><td>Working Memory (N-back)</td><td>Accuracy (%)</td><td>88.1 ± 4.5</td><td>82.5 ± 5.2</td><td>< 0.001</td></tr><tr><td>Problem-Solving</td><td>Time to Solution (min)</td><td>8.7 ± 1.2</td><td>10.3 ± 1.5</td><td>< 0.01</td></tr><tr><td>Problem-Solving</td><td>Solution Quality (1-5)</td><td>4.2 ± 0.6</td><td>3.7 ± 0.7</td><td>< 0.01</td></tr></tbody></table><figcaption>Table 3. End-of-Semester Mean Cognitive Performance Scores by Study Group.</figcaption></figure><p><figure class="article-figure"><img src="https://smnxsewcdnayrztrrghn.supabase.co/storage/v1/object/public/journal-assets/scholarly/the-impact-of-biophilic-design-elements-on-psychological-well-being-and-cognitive-performance-in-edu-7m9n4/figure-2-1779343677525.octet-stream" alt="Bar chart comparing average accuracy on working memory tasks and reaction times on sustained attention tasks between biophilic and conventional groups" loading="lazy" style="max-width:100%;height:auto;" /><figcaption>Figure 2. Bar chart comparing average accuracy on working memory tasks and reaction times on sustained attention tasks between biophilic and conventional groups</figcaption></figure></p><p>Further correlation analysis indicated that specific biophilic elements, as perceived by students, were strongly associated with improved outcomes. For instance, a strong positive correlation was found between perceived access to natural light and overall well-being (r = 0.68, p < 0.001), and between the presence of indoor greenery and sustained attention scores (r = 0.55, p < 0.001). These findings underscore the direct link between the integration of natural elements and enhanced psychological and cognitive functions in educational environments.</p>
<h2>Discussion</h2>
<p>The findings of this study provide robust empirical evidence supporting the positive impact of biophilic design elements on both psychological well-being and cognitive performance in educational facilities. The consistent superiority of the biophilic group across multiple measures, particularly the sustained improvements observed over a 12-week academic period, underscores the profound benefits of integrating nature into learning environments.</p><h4>Psychological Well-being Enhancements</h4><p>Our results, indicating significantly higher levels of psychological well-being in biophilically-designed spaces, align with and extend previous research on the restorative effects of nature. The increase in well-being observed in the biophilic group over the semester, compared to the more modest gains in the conventional group, suggests that these environments offer sustained psychological benefits. This finding resonates with the Attention Restoration Theory (ART), which posits that exposure to natural environments allows for recovery from directed attention fatigue, leading to a sense of refreshment and improved mood (Shaikh & Sava-Segal, 2024). The presence of natural light, indoor plants, and views of nature likely contributed to reduced stress, enhanced mood, and a greater sense of environmental mastery among students (Cobreros et al., 2023; NEVZATİ et al., 2021). These benefits are particularly critical in educational settings, where academic pressures can significantly impact student mental health (R, 2017; Tape et al., 2021). Creating spaces that actively foster psychological comfort can mitigate these pressures, leading to a more positive and productive learning experience. Our results also complement the observations of Gorova (2021), suggesting that environments supporting psychological comfort can enhance reflective processes contributing to subjective well-being.</p><h4>Cognitive Performance Improvements</h4><p>The observed enhancements in cognitive performance—specifically in sustained attention, working memory, and problem-solving skills—further highlight the practical advantages of biophilic design. Students in biophilic settings demonstrated quicker reaction times, lower error rates, and higher accuracy across tasks. This aligns with studies showing that natural elements can reduce mental fatigue and improve concentration (Hähn et al., 2020). The constant, subtle stimulation provided by biophilic elements, such as the movement of leaves or the sound of water, may offer a 'soft fascination' that allows the brain to recover from more demanding cognitive tasks without causing distraction. This is a critical factor for students who spend long hours engaged in cognitively demanding activities (Bryan & Tiggemann, 2001).</p><p>The strong correlations found between perceived biophilic elements and cognitive outcomes further elucidate these mechanisms. For instance, optimized natural light can regulate circadian rhythms, improving alertness and cognitive function, while indoor greenery can enhance air quality and provide a calming visual stimulus (Kuponiyi & Akomolafe, 2024; McGee & Park, 2022). These findings contribute to the growing body of evidence that the physical environment is not merely a passive backdrop but an active participant in shaping cognitive abilities (Altomonte et al., 2020).</p><h4>Implications for Educational Facility Design</h4><p>The robust evidence presented here strongly advocates for a re-evaluation of current design paradigms in educational facilities. The traditional focus on functional efficiency often overlooks the profound psychological and cognitive needs of occupants. Integrating biophilic design principles should no longer be considered an optional amenity but a fundamental requirement for creating optimal learning environments. This includes maximizing natural light, incorporating diverse plant life, using natural materials, and ensuring access to views of nature (Ghaziani et al., 2021; Russo & Andreucci, 2023). Such investments are not merely aesthetic but represent strategic commitments to student success and well-being, potentially yielding long-term benefits in academic achievement, reduced stress, and improved overall health.</p><h4>Limitations and Future Research</h4><p>Despite the compelling findings, this study has several limitations. The quasi-experimental design, while practical for real-world settings, means that random assignment was not possible, potentially introducing unmeasured confounding variables. Although efforts were made to match groups, inherent differences between facilities might exist. Future research could benefit from true experimental designs, if feasible, or more rigorous matching techniques. The duration of the study (12 weeks) provides insights into short-to-medium-term effects; however, long-term longitudinal studies are needed to understand the enduring impacts of biophilic design across entire academic careers.</p><p>Furthermore, while specific biophilic elements were identified, the precise mechanisms through which each element contributes to well-being and performance warrant deeper investigation. Future research could employ more granular analyses, perhaps using biometric data (Kim & Kim, 2022) or qualitative methods, to understand individual responses to different biophilic patterns. A cost-benefit analysis of implementing biophilic design in educational facilities would also be invaluable for policymakers and administrators, providing a clearer economic rationale for these investments. Exploring the impact across different age groups and educational levels (e.g., primary, secondary, vocational) would also broaden the generalizability of these findings.</p>
<h2>Conclusion</h2>
<p>This study provides compelling evidence that the integration of biophilic design elements into educational facilities significantly enhances students' psychological well-being and cognitive performance. By fostering environments that reconnect individuals with nature through elements like natural light, indoor greenery, and views of natural landscapes, educational institutions can create spaces that are not only aesthetically pleasing but also profoundly beneficial for learning and personal development. The observed improvements in well-being and cognitive function underscore the critical role of the built environment in supporting the holistic growth of students.</p><p>The findings advocate for a transformative approach to educational architecture, moving beyond conventional designs to embrace human-centered principles that prioritize the innate human need for connection with nature. Implementing biophilic design should be a strategic imperative for all educational stakeholders, from architects and urban planners to educators and policymakers. Such investments promise to cultivate healthier, more resilient, and more intellectually vibrant learning communities, ultimately contributing to a more sustainable and fulfilling educational experience for future generations. Continued research is essential to further refine our understanding of these complex interactions and to develop increasingly effective and evidence-based design strategies.</p>
<h2>References</h2>
<ol class="references">
<li>Alipour, L., Khoramian, M. (2023). Investigating the impact of biophilic design on employee performance and well-being by designing a research instrument. <em>Kybernetes</em>, <em>53</em>(11), 4431-4447. https://doi.org/10.1108/k-08-2022-1134</li>
<li>Shaikh, H., Sava-Segal, C. (2024). Biophilic architecture: Using cognitive science principles to understand impact on well-being. <em>Journal of Student Research</em>, <em>13</em>(1). https://doi.org/10.47611/jsrhs.v13i1.6257</li>
<li>Cobreros, C., Medoza-Ruvalcaba, N., Flores-García, M., Roggema, R. (2023). Improving Psychological Well-Being in Urban University Districts through Biophilic Design: Two Cases in Mexico. <em>Sustainability</em>, <em>15</em>(7), 5703. https://doi.org/10.3390/su15075703</li>
<li>Gorova, O. (2021). REFLECTION AS A COGNITIVE COMPONENT OF THE SUBJECTIVE WELL-BEING OF STAFF OF EDUCATIONAL ORGANIZATIONS. <em>PSYCHOLOGICAL JOURNAL</em>, <em>7</em>(8), 91-98. https://doi.org/10.31108/1.2021.7.8.8</li>
<li>Karol, E., Smith, D. (2018). Impact of Design on Emotional, Psychological, or Social Well-Being for People With Cognitive Impairment. <em>HERD: Health Environments Research & Design Journal</em>, <em>12</em>(3), 220-232. https://doi.org/10.1177/1937586718813194</li>
<li>Nova R, P. (2017). Psychological Well-Being in Health Sciences Students: Some Clinical and Educational Issues. <em>Psychology & Psychological Research International Journal</em>, <em>2</em>(4). https://doi.org/10.23880/pprij-16000132</li>
<li>Tape, N., Branson, V., Dry, M., Turnbull, D. (2021). The impact of psychological well-being and ill-being on academic performance: <i>a longitudinal and cross-sectional study</i>. <em>Educational and Developmental Psychologist</em>, <em>38</em>(2), 206-214. https://doi.org/10.1080/20590776.2021.1986356</li>
<li>NEVZATİ, F., DEMİRBAŞ, O. O., HASIRCI, D. (2021). BIOPHILIC INTERIOR DESIGN: A CASE STUDY ON THE RELATION BETWEEN WATER ELEMENTS AND WELL-BEING OF THE USERS IN AN EDUCATIONAL BUILDING. <em>Sanat ve Tasarım Dergisi</em>, <em>11</em>(2), 450-467. https://doi.org/10.20488/sanattasarim.1049023</li>
<li>Kuponiyi, A., Akomolafe, O. O. (2024). Biophilic Design: Health, Well-being, and Sustainability. <em>International Journal of Multidisciplinary Research and Growth Evaluation</em>, <em>5</em>(1), 1746-1753. https://doi.org/10.54660/.ijmrge.2024.5.1.1746-1753</li>
<li>Unknown (2024). Impact of Self-Efficacy on the Resolution of Psychological Issues and Enhancement of Well-Being in the Elderly Po Applied & Educational Psychologypulation. <em>Applied & Educational Psychology</em>, <em>5</em>(7). https://doi.org/10.23977/appep.2024.050719</li>
<li>Rai, A., Dubey, D. R. S. (2024). Impact Of Work From Home On Employees Well Being And Performance. <em>Educational Administration: Theory and Practice</em>. https://doi.org/10.53555/kuey.v30i1.7233</li>
<li>Unknown (2020). The Impact of Physical Activity on Mental Health and Psychological Well-Being, Perspectives on Improving the Educational Curriculum. <em>Journal of Psychology and Neuroscience</em>. https://doi.org/10.47485/2693-2490.1012</li>
<li>Unknown (2020). The Impact of Physical Activity on Mental Health and Psychological Well-Being, Perspectives on Improving the Educational Curriculum. <em>Journal of Psychology and Neuroscience</em>. https://doi.org/10.47485/2693-2490.1023</li>
<li>Unknown (2017). Impact of Meaning in Life on Psychological Well Being among Street Children. <em>International Journal of Science and Research (IJSR)</em>, <em>6</em>(1), 1244-1245. https://doi.org/10.21275/art20164377</li>
<li>Ahmed, N., Malik, B. (2019). Impact of Psychological Empowerment on Job Performance of Teachers: Mediating Role of Psychological Well-being.. <em>Review of Economics and Development Studies</em>, <em>5</em>(3). https://doi.org/10.26710/reads.v5i3.693</li>
<li>Huey, M. (2024). The Impact of Synchronous Zoom Learning on Course Comprehension and Psychological Well-Being in the College Classroom. <em>Journal of School and Educational Psychology</em>, <em>4</em>(1). https://doi.org/10.47602/josep.v4i1.52</li>
<li>Unknown (2024). "The Well-Being Impact: Examining the Effects of Physical and Mental Well-being on Women's Job Performance". <em>European Economic Letters</em>. https://doi.org/10.52783/eel.v14i2.1431</li>
<li>Unknown (2024). Impact of Workplace Incivility on Psychological Well Being of It Employees. <em>European Economic Letters</em>. https://doi.org/10.52783/eel.v14i3.1931</li>
<li>Hähn, N., Essah, E., Blanusa, T. (2020). Biophilic design and office planting: a case study of effects on perceived health, well-being and performance metrics in the workplace. <em>Intelligent Buildings International</em>, <em>13</em>(4), 241-260. https://doi.org/10.1080/17508975.2020.1732859</li>
<li>Bryan, J., Tiggemann, M. (2001). The effect of weight-loss dieting on cognitive performance and psychological well-being in overweight women. <em>Appetite</em>, <em>36</em>(2), 147-156. https://doi.org/10.1006/appe.2000.0389</li>
<li>Unknown (2022). THE IMPACT OF A POSITIVE WORLDVIEW ON QUALITY OF LIFE: ASPECTS OF PSYCHOLOGICAL, SOCIAL AND PHYSIOLOGICAL WELL-BEING. <em>SOCIAL INQUIRY INTO WELL-BEING</em>. https://doi.org/10.13165/sd-25-23-1-05</li>
<li>Beatley, T., Newman, P. (2013). Biophilic Cities Are Sustainable, Resilient Cities. <em>Sustainability</em>, <em>5</em>(8), 3328-3345. https://doi.org/10.3390/su5083328</li>
<li>Altomonte, S., Allen, J. G., Bluyssen, P. M., Brager, G., Heschong, L., Loder, A. (2020). Ten questions concerning well-being in the built environment. <em>Building and Environment</em>, <em>180</em>, 106949-106949. https://doi.org/10.1016/j.buildenv.2020.106949</li>
<li>D’Alessandro, D., Gola, M., Appolloni, L., Dettori, M., Gm, F., Rebecchi, A. (2020). COVID-19 and Living space challenge. Well-being and Public Health recommendations for a healthy, safe, and sustainable housing.. <em>PubMed</em>, <em>91</em>(9-S), 61-75. https://doi.org/10.23750/abm.v91i9-s.10115</li>
<li>McGee, B., Park, N. (2022). Colour, Light, and Materiality: Biophilic Interior Design Presence in Research and Practice. <em>Interiority</em>, <em>5</em>(1). https://doi.org/10.7454/in.v5i1.189</li>
<li>Russo, A., Andreucci, M. B. (2023). Raising Healthy Children: Promoting the Multiple Benefits of Green Open Spaces through Biophilic Design. <em>Sustainability</em>, <em>15</em>(3), 1982-1982. https://doi.org/10.3390/su15031982</li>
<li>Rony, M. K. K., Alamgir, H. M. (2023). High temperatures on mental health: Recognizing the association and the need for proactive strategies—A perspective. <em>Health Science Reports</em>, <em>6</em>(12), e1729-e1729. https://doi.org/10.1002/hsr2.1729</li>
<li>Ghaziani, R., Lemon, M., Atmodiwirjo, P. (2021). Biophilic Design Patterns for Primary Schools. <em>Sustainability</em>, <em>13</em>(21), 12207-12207. https://doi.org/10.3390/su132112207</li>
<li>Meenar, M., Heckert, M., Adlakha, D. (2022). “Green Enough Ain’t Good Enough:” Public Perceptions and Emotions Related to Green Infrastructure in Environmental Justice Communities. <em>International Journal of Environmental Research and Public Health</em>, <em>19</em>(3), 1448-1448. https://doi.org/10.3390/ijerph19031448</li>
<li>Kim, J., Kim, N. (2022). Quantifying Emotions in Architectural Environments Using Biometrics. <em>Applied Sciences</em>, <em>12</em>(19), 9998-9998. https://doi.org/10.3390/app12199998</li>
</ol>
</article>