Vernacular Architecture and Indoor Environmental Satisfaction: A Systematic Review of Influencing Factors
Abstract
1. Introduction
2. Materials and Methods
2.1. Research Design and Contributions
- Mapping applications of five theoretical frameworks (SUT, BAT, EST, SCT, TPB).
- Classifying 105 studies across research focus, research type, and contribution type.
- Identifying 62 variables and clustering them into eight themes.
- Developing an integrative model linking theories, clusters, and research gaps.
2.2. SALSA Framework and PRISMA Guidelines
- Search: Comprehensive retrieval of literature across databases.
- Appraisal: Screening of studies for relevance and quality.
- Synthesis: Categorization of variables, theories, and contributions.
- Analysis: Identification of thematic clusters, gaps, and implications.
2.3. SLR Stages
2.3.1. Planning
2.3.2. Selection
Inclusion Criteria
- Time Frame: Studies that were published between 2004 and 2024, to include recent and pertinent studies, and at the same time, have a broad coverage on various aspects of VRA.
- Language: To ensure consistency in interpretation and understanding, the publication language is restricted to English only.
- Focus Area: Research dealing with the impact on the indoor environment through VRA. Studies that consider any of the five prominent theories: Social Cognitive Theory, Ecological Systems Theory, Bioclimatic Architecture Theory, Sustainability Theory, and Theory of Planned Behavior in the context of VRA.
- Research Type: Research approaches—qualitative, quantitative, and mixed methods. Theoretical papers, systematic reviews, and meta-analyses provide substantial insights into the relationship between VRA and SIEQ. Studies conducted in similar coastal climatic conditions as in India, characterized by warm and humid climates.
- Publication Type: Peer-reviewed journal articles, conference papers, and books that are recognized in the field of architecture, social sciences, and environmental studies.
Exclusion Criteria
- Time Frame: Studies were published before 2004.
- Language: Studies published in languages other than English.
- Focus Area: Research that does not address VRA or Indoor Environmental Quality, Studies that do not engage with the theories considered in this research, Papers focused on modern architectural practices without connection to VRA design principles.
- Research Type: Opinion pieces, non-peer-reviewed articles, and editorials, Studies that lack methodological rigor and cannot be classified as literature review, model development, model testing, model advancement, or model integration.
- Publication Type: Theses, dissertations, and unpublished work, unless they are very relevant to VRA and SIEQ and are peer-reviewed or published in recognized academic outlets.
Quality Assessment
2.3.3. Extraction
- General characteristics of the papers—including geographical distribution, database sources, indexing bodies, and methodological approaches, along with bibliographic details (author, title, year).
- Classification schemes—grouping studies by contribution to theory, research focus, and research type.
- Identification of variables—extracting influential factors related to satisfaction with indoor environmental quality (SIEQ) in vernacular houses, documented systematically in Microsoft Excel for consistency and traceability.
2.3.4. Execution (Synthesis and Analysis)
Classification Scheme
- Contribution to theory allocation to one or more of the five theoretical frameworks (SUT, BAT, EST, SCT, TPB).
- Research focus—grouped into four categories: model development, model testing, model advancement, and model integration.
- Research type—categorized into grounded theory, descriptive study, case study, document analysis, empirical research, and analytical research. This classification provided the foundation for structured synthesis across the reviewed literature.
Theoretical Mapping
Cluster Analysis
3. Literature Review
3.1. Sustainability Theory (SUT)
3.2. Bioclimatic Architecture Theory (BAT)
3.3. Ecological Systems Theory (EST)
3.4. Social Cognitive Theory (SCT)
3.5. Theory of Planned Behavior (TPB)
3.6. Synthesis of Theories
3.7. Variable Clustering and Synthesis
4. Results
4.1. Distribution of Studies
4.1.1. Geographical Distribution of Papers
4.1.2. Databases Utilized for the Study
4.1.3. The Indexing Agencies of Papers
4.2. Theoretical Applications
4.3. Research Focus and Research Type
4.3.1. Research Approaches Used in the Papers
4.3.2. Research Focus
4.3.3. Research Type
4.4. Variable Clustering
Identification of Variables Using Cluster Analysis
- Natural Ventilation (Cluster 1): 7 variables related to passive airflow strategies: cross ventilation, ventilation openings, stack effect, window placement, natural airflow, orientation to prevailing winds, and operable windows.
- Orientation and Layout (Cluster 2): 8 variables capturing spatial and solar positioning: building orientation, spatial layout, functional zoning (privacy/accessibility), thermal zoning, floor-plan configuration, proximity to open space, room arrangement, and sun–path alignment.
- Use of Local Materials (Cluster 3): 9 variables reflecting vernacular material choices: locally sourced wood, laterite stone, bamboo, terracotta bricks, mud walls, clay tiles, thatch roofing, and recycled materials.
- Shading Devices (Cluster 4): 7 variables involving shading and buffering: roof overhangs, plant-based shading, courtyard trees, louvered screens, verandas, canopies, and pergolas.
- Perceived Thermal Comfort (Cluster 5): 8 variables describing how occupants experience thermal conditions: temperature regulation, heat dissipation, radiative cooling, humidity control, thermal insulation, adaptive clothing, evaporative cooling, and seasonal adaptability.
- Perceived Air Quality (Cluster 6): 8 variables related to ventilation and air freshness: indoor air freshness, natural filtration, ventilation rate, dust reduction, airflow distribution, carbon dioxide levels, pollutant removal, and humidity moderation.
- Perceived Natural Lighting (Cluster 7): 8 variables concerning daylighting strategies: daylight penetration, glare control, window-to-wall ratio, light shelves, sunlight redirection devices, diffuse lighting, interior reflectance, and time of light availability.
- Satisfaction with IEQ (Cluster 8): Seven variables capturing overall satisfaction: thermal comfort satisfaction, air quality satisfaction, visual comfort satisfaction, acoustic comfort satisfaction, general occupant satisfaction, energy-efficiency perception, and health-and-well-being perception.
4.5. Research Gaps
Identification of the Research Gaps
5. Discussion
5.1. Interpretation of Findings
5.2. Comparison with International Literature
5.3. Implications of the Study
5.4. Strengths and Limitations
5.5. Future Research Directions
6. Conclusions
- Theoretical Contributions: Five major frameworks: SUT, BAT, EST, SCT, and TPB were identified, with SUT and BAT most widely applied, while SCT and TPB remain underutilized.
- Research Focus and Types: The literature is dominated by model testing and advancement, with fewer contributions in model development and integration. Grounded theory was the most frequently applied methodological approach.
- Variable Clustering: Sixty-two variables were consolidated into eight thematic clusters, providing a structured foundation for conceptualizing the antecedents of SIEQ.
- Research Gaps: Six categories of gaps were identified, with evaluation void, methodological conflict, and theory application void emerging as the most critical.
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Acknowledgments
Conflicts of Interest
Abbreviations
SLR | Satisfaction with Indoor Environmental Quality |
VRA | Vernacular Architecture |
SUT | Sustainability Theory |
BAT | Bioclimatic Architecture Theory |
EST | Ecological Systems Theory |
SCT | Social Cognitive Theory |
TPB | Theory of Planned Behavior |
IEQ | Indoor Environmental Quality |
SIEQ | Satisfaction with Indoor Environmental Quality |
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Theory/Concept | Key Words and Strings with Boolean Operators |
---|---|
1. Sustainability Theory | (“Sustainable Development” OR “Sustainability Theory” OR “Sustainable Architecture” OR “SUT”) AND (“Indoor Environmental Quality” OR “Satisfaction with Indoor Environment” OR “SIEQ”) AND (“Vernacular Architecture” OR “Traditional Architecture” OR “Indigenous Architecture”) |
2. Bioclimatic Architecture Theory | (“Bioclimatic Architecture” OR “Bioclimatic Design” OR “BAT”) AND (“Indoor Environmental Quality” OR “Satisfaction with Indoor Environment” OR “SIEQ”) AND (“Vernacular Architecture” OR “Traditional Architecture” OR “Indigenous Architecture”) |
3. Ecological Systems Theory | (“Ecological Systems Theory” OR “EST”) AND (“Indoor Environmental Quality” OR “Satisfaction with Indoor Environment” OR “SIEQ”) AND (“Vernacular Architecture” OR “Traditional Architecture” OR “Indigenous Architecture”) |
4. Social Cognitive Theory | (“Social Cognitive Theory” OR “SCT”) AND (“Indoor Environmental Quality” OR “Satisfaction with Indoor Environment” OR “SIEQ”) AND (“Vernacular Architecture” OR “Traditional Architecture” OR “Indigenous Architecture”) |
5. Theory of Planned Behavior | (“Theory of Planned Behavior” OR “TPB”) AND (“Indoor Environmental Quality” OR “Satisfaction with Indoor Environment” OR “SIEQ”) AND (“Vernacular Architecture” OR “Traditional Architecture” OR “Indigenous Architecture”) |
Author and Reference | Type of Research | Objectives | Research Approach | Key Findings | Key Factors in the Study | Review Remarks | Research Gap |
---|---|---|---|---|---|---|---|
Chandel et al. (2016) [1] | Model Advancement | To study indoor thermal comfort through energy-efficient vernacular architecture features for adaptation in modern architecture. | Qualitative | The study provides adaptation strategies for modern architecture, particularly in the Himalayan region through vernacular architecture features that contribute to thermal comfort. | Building materials, Roof materials, Thermal comfort Orientation, Space planning, Openings, Sunspace provision, Construction techniques. | The study provides insights for sustainable building practices through a comprehensive review of vernacular architecture features and their applicability in modern contexts. offering. | Evaluation void: Further evaluation of the effectiveness of these features in modern contexts is necessary. |
Al-Obaidi, Woods, & Hassan (2017) [15] | Model Development | Green stormwater infrastructure model development of public spaces. | Qualitative | Three Gray space models (models for transitional zones) based on green stormwater. infrastructure: separation-association, half-association, and complete association, was validated through a case study. | Green stormwater infrastructure, Sustainable Design, Environmental Sustainability, Space Planning, Resource Management, Gray space, Traditional architecture, Stormwater utilization. | This research integrated architectural ecology with green stormwater infrastructure and provided innovative models for urban public spaces. | Methodological conflict: Methodological refinement and testing in diverse urban contexts is required. |
Bourdeau, Pirard, & Dupont (2022) [16] | Model Development | To provide machine-learning-based real-time prediction scheme (ML-PIS) for evaluation of indoor humidity status in unlabelled positions within buildings. | Quantitative | Traditional spatial interpolation algorithms have been outperformed by ML-PIS significantly in reducing errors and predicting indoor humidity at unlabelled positions. | Spatial graph model, Indoor environmental quality, Humidity, Machine learning, Real-time prediction. | It is a novel approach to improving real-time indoor environment monitoring, with significant implications for digital buildings. | Evaluation void: Further evaluation is needed across different environmental variables and building types is required. |
Berardi, 2020 [17] | Model Development | To enhance indoor air quality and thermal comfort by analyse the impact of energy-efficient ventilation strategies in vernacular architecture. | Quantitative | The cross ventilation and operable windows, significantly reduce indoor CO2 levels and improve thermal comfort. | Thermal comfort, Carbon-dioxide levels, Cross ventilation, Operable windows, Ventilation rate, | Useful insights into the passive cooling strategies of vernacular buildings are provided. | Evaluation void: Evaluation of the suggested strategies across different climate zones and building types are required to generalize the findings. |
Singh et al. (2024) [18] | Model Development | To study the influence of locally sourced materials in in tropical climates in achieving thermal comfort and energy efficiency in vernacular buildings. | Qualitative | Bamboo and laterite stone have merged out to be effective in providing thermal insulation and humidity control in tropical regions. | Thermal insulation, Humidity control, locally sourced wood, Laterite stone usage, Adaptive clothing. | The research provides valuable insights into the role of materials in passive cooling. | Knowledge void: The long-term performance of these materials in urban construction must be explored. |
Aelenei, Aelenei, & Gonçalves (2023) [19] | Model Integration | To develop an integrated approach for structural and thermal retrofitting strategies for masonry wall. | Qualitative | Structural retrofitting is necessary in high seismic risk areas, and the best solution is location dependent. | Thermal comfort, Ecological cost, Seismic capacity, Environment quality. | The integrated approach considering both structural and thermal aspects has been achieved. | Methodological conflict: Methods refinement is required as results are not corroborated well with earlier studies. |
Attia, Gratia, De Herde, & Hensen (2020) [20] | Model Advancement | To identify similarities, differences, and limitations of building component rating models. | Qualitative | The objectives, scope, and aggregation techniques differed in the rating systems, but similarities were observed in methodology, and, processes were highly subjective. | Environmental quality, building component rating systems, Building performance, Condition assessment, Rating scale, Weighting coefficients. | The comparison of building component rating models, of this study are useful in highlighting key areas for improvement in existing buildings. | Methodological conflict: The methodologies are based on subjective judgement, so there is need for more objective and standardized assessment methods. |
Heidari et al., 2017 [21] | Model Advancement | To develop guidelines to enhance ventilation performance of wind-induced ventilation in Sistan’s vernacular architecture. | Qualitative | Provided guidelines to enhance natural ventilation performance in both existing and future buildings in three different compound room types. | Ventilation elements, Room orientation, Wind behavior, satisfaction with indoor environment quality. | The optimizing ventilation strategies in traditional Sistan architecture provided in this research are quite effective. | Methodological conflict: The empirical validation across different environmental contexts is totally. |
Batterman (2017) [22] | Model Advancement | To estimate ventilation rates in school classrooms to review and evaluate CO2-based methods and to provide guidance on their application. | The transient mass balance method emerged out to be the best. | Ventilation rate (VR), Indoor environmental quality (IEQ), CO2-based methods, Transient mass balance, HVAC systems. | The study advances improving indoor air quality in schools by using CO2-based methods for estimating VRs and provides practical implications. | Evaluation void: While the transient mass balance method showed promise, evaluation on its accuracy remains incomplete. | |
Chen et al., 2023 [23] | Model Testing | To enhance thermal comfort and energy efficiency in residential buildings through the evaluation of the impact of building orientation and ventilation strategies. | Quantitative | Improving thermal comfort and reducing energy consumption was possible through cross ventilation, stack effect, and natural airflow strategies. | Building orientation Cross ventilation, Vent openings, Stack effect, Window placement, Natural airflow, | The study effectively evaluates passive design strategies for improving thermal comfort in homes. | Evaluation void: Building types and regions considered are not adequate to assess long-term effectiveness, so further validation is needed. |
Cluster | Research Construct | Variables from Review Articles | Number of Times Cited | Contributing Authors |
---|---|---|---|---|
1. | Natural Ventilation (NVN) | Cross ventilation | 10 | [6,21,23,30,58,59,60] |
Vent openings | 8 | [21,58,59,60,61,62,63] | ||
Stack effect | 7 | [21,58,59,60,62,63] | ||
Window placement | 6 | [1,15,23,60,64,65] | ||
Natural airflow | 9 | [15,21,38,58,59,66] | ||
Orientation to wind direction | 5 | [10,20,67,68] | ||
Operable windows | 8 | [19,67,69] | ||
2. | Orientation and Layout (ORL) | Building orientation | 7 | [10,20,37,39,67,70,71,72,73] |
Spatial layout | 6 | [46,70,71,74,75,76,77] | ||
Zoning (function, privacy, accessibility) | 5 | [8,20,57,70,78,79] | ||
Thermal zoning | 7 | [62,67,80,81,82] | ||
Floor plan configuration | 9 | [8,40,67,68,83,84] | ||
Proximity to open spaces | 8 | [57,65,85,86,87] | ||
Room arrangement | 7 | [88,89,90,91,92] | ||
Sun path alignment | 6 | [20,64,67,68] | ||
3. | Use of Local Materials (ULM) | Locally sourced wood | 12 | [9,16,40,93,94,95] |
Laterite stone usage | 9 | [9,57,79,96,97] | ||
Bamboo materials | 8 | [10,41,86,94,96] | ||
Stone masonry | 8 | [16,79,81,98] | ||
Terracotta bricks | 6 | [10,40,96] | ||
Mud walls | 7 | [9,85,86,94] | ||
Clay tiles | 6 | [67,68,79,89,99] | ||
Thatch roofing | 5 | [9,100,101,102] | ||
Recycled materials | 8 | [16,65,71,103,104] | ||
4. | Shading Devices (SHD) | Roof overhangs | 5 | [40,59,79,90,105] |
Plant-based shading | 4 | [68,71,86,98,101] | ||
Courtyard trees | 6 | [79,86,90,94] | ||
Louvered screens | 7 | [21,80,87,89] | ||
Verandas | 8 | [81,86,89,94,101] | ||
Canopies | 9 | [3,16,45,100] | ||
Pergolas | 5 | [3,59,78] | ||
5. | Perceived Thermal Comfort (PTC) | Temperature regulation | 11 | [1,15,16,21] |
Heat dissipation | 7 | [16,21,45,59,94] | ||
Radiative cooling | 6 | [3,106,107] | ||
Humidity control | 6 | [21,80,81,107] | ||
Thermal insulation | 8 | [3,16,93,94] | ||
Adaptive clothing | 9 | [22,89,100,107] | ||
Cooling through evaporation | 5 | [16,21,45,81] | ||
Seasonal adaptability | 7 | [59,80,100] | ||
6. | Perceived Air Quality (PAQ) | Indoor air freshness | 8 | [2,3,22,61,66,108] |
Natural filtration | 6 | [3,16,63,66] | ||
Ventilation rate | 5 | [3,19,93,107,108,109] | ||
Dust reduction | 7 | [3,19,22,80] | ||
Airflow distribution | 7 | [19,21,66] | ||
Carbon-dioxide levels | 8 | [3,16,21,22] | ||
Removal of indoor pollutants | 9 | [19,22,107] | ||
Humidity moderation | 6 | [3,16,19,80] | ||
7. | Perceived Natural Lighting (PNL) | Daylight penetration | 9 | [3,59,100,110,111] |
Glare control | 5 | [19,21,80,107,111] | ||
Window-to-wall ratio | 8 | [2,3,19,22,111] | ||
Light shelves | 6 | [2,3,16,19,100] | ||
Sunlight redirection devices | 6 | [3,66,81,89] | ||
Diffuse lighting | 7 | [21,22,107] | ||
Interior reflectance | 8 | [3,16,66,89,100,107] | ||
Time of light availability | 6 | [3,16,19,100] | ||
8. | Satisfaction with Indoor Environmental Quality (SIEQ) | Thermal comfort satisfaction | 15 | [19,20,21,59,67,98] |
Air quality satisfaction | 12 | [59,80,89,93] | ||
Visual comfort satisfaction | 14 | [2,19,21,100,107] | ||
Acoustic comfort satisfaction | 10 | [19,22,89,107] | ||
General occupant satisfaction | 18 | [2,3,86,100] | ||
Energy efficiency perception | 11 | [16,19,21,22,107] | ||
Health and well-being perception | 13 | [3,16,19,21,89,112] | ||
Total | 484 |
Research Gap | Deficiencies | Need to Bridge the Gap | Key Contributing Authors | Directions for Future Research |
---|---|---|---|---|
| Lack of thorough, integrated research examining the relationships between environmental quality, sociocultural views of residents, and architectural design elements. | To advance the theoretical and practical understanding. The research can help create more efficient and culturally aware architectural designs that improve SIEQ and occupant happiness. | [1,8,15,45,67,82] |
|
| Dearth of empirical evidence or assessments of the ways in which different VRA design elements affect SIEQ. | Filling this research gap is crucial for developing evidence-based guidelines that can inform the design of future vernacular-inspired buildings, ensuring they meet modern SIEQ standards while preserving cultural heritage. | [1,17,20,43,85,120] |
|
| Discrepancies or contradictions in the findings based on methods applied in several studies across regions, contexts, and settings. | To provide unified or comparative methodological framework that can address these discrepancies, yield more dependable and generalizable results, and improve the consistency and comparability of study findings, resulting in a better comprehension of how VRA affects SIEQ | [15,18,20,82,91,121] |
|
| Disparity between study findings (knowledge of SIEQ) and practical use of that information (VRA application). | To ensure that the important insights obtained from research on VRA are successfully transformed into realistic, sustainable architectural practices, hence improving SIEQ. | [10,45,66,85,88,93] |
|
| Insufficient use or incorporation of current theories in the investigation of VRA and its influence on SIEQ. | Plugging this gap will provide a stronger theoretical foundation that can direct future studies and real-world architectural applications, which makes it imperative to fill. By filling this gap, scholars can create approaches that improve SIEQ in vernacular architecture while remaining theoretically and practically sound. | [65,85,104,107,122,123] |
|
| Disparities or contradictory results on the relationship between VRA and SIEQ because of variations in regional circumstances, or theoretical frameworks utilized. | To develop more trustworthy evidence and more precise instructions for integrating VRA into contemporary building practices by addressing these conflicts, which would ultimately improve SIEQ in a variety of climatic and cultural contexts. | [2,8,17,19,67,100] |
|
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Shetty, S.S.; Patil, S. Vernacular Architecture and Indoor Environmental Satisfaction: A Systematic Review of Influencing Factors. Architecture 2025, 5, 87. https://doi.org/10.3390/architecture5040087
Shetty SS, Patil S. Vernacular Architecture and Indoor Environmental Satisfaction: A Systematic Review of Influencing Factors. Architecture. 2025; 5(4):87. https://doi.org/10.3390/architecture5040087
Chicago/Turabian StyleShetty, Sanjana S., and Shantharam Patil. 2025. "Vernacular Architecture and Indoor Environmental Satisfaction: A Systematic Review of Influencing Factors" Architecture 5, no. 4: 87. https://doi.org/10.3390/architecture5040087
APA StyleShetty, S. S., & Patil, S. (2025). Vernacular Architecture and Indoor Environmental Satisfaction: A Systematic Review of Influencing Factors. Architecture, 5(4), 87. https://doi.org/10.3390/architecture5040087