Integrating Traditional Architectural Knowledge with Digital Innovation for Climate-Responsive Construction in Remote Mountain Regions: A Case Study in Neelum Valley, Pakistan

Mountainous areas are prone to extreme climatic conditions, and the lack of modern infrastructure makes it difficult to achieve sustainable construction. To overcome the challenges of thermal comfort, robustness, and post-occupancy performance in hazard zones like the Neelum Valley in Pakistan, this research proposes a Digital–Vernacular Integration Model (DVIM), which integrates traditional architectural expertise with modern digital technology. The research design was based on mixed-methods research with the integration of qualitative information obtained through interviews and household surveys (n = 120), and quantitative measures of indoor thermal environments and hazards-based spatial analysis. Vernacular buildings made of wood, stone, and mud were digitally reconstructed using geometric modeling with SketchUp and Autodesk Revit with building information (BIM)-based modeling for assigning materials’ properties. Simulations were carried out using DesignBuilder software with EnergyPlus engines for assessing thermal environment, snow resistance, and seismic resistance to local hazards. The incorporation of the double-layered wall resulted in the improvement of heat retention by 12 to 15%. Moreover, the optimized roof and walls of the hybrid model resulted in the reduction of the sensible heating demand by 42% when compared to the conventional log houses and nearly 80% when compared to the conventional concrete block houses of the modern era. The proposed hybrid model resulted in R-values ranging from 33 to 40 m2·K/W, which are significantly higher when compared to the R-values for conventional timber walls (R = 15 m2·K/W) and concrete block walls (R = 1.0 to 1.3 m2·K/W). These results show the effectiveness of the digitally optimized hybrid model in improving the thermal performance in severe climatic conditions. The results clearly show that the integration of traditional architecture with digital simulation can ensure that modern comfort and safety standards are met without affecting the cultural identity of the region. The proposed framework will be implemented in pilot projects to ensure that the hybrid architectural models are incorporated into regional building regulations.

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Publication Details

Journal
Buildings
Published
2026-04-01
DOI
https://doi.org/10.3390/buildings16071383
Primary Topic
Hygrothermal properties of building materials
Type
article
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article

Integrating Traditional Architectural Knowledge with Digital Innovation for Climate-Responsive Construction in Remote Mountain Regions: A Case Study in Neelum Valley, Pakistan

Rizwan U. Farooqui, Adnan Anwar, Yasmeen Ahmed
Buildings
Hygrothermal properties of building materials
article

Integrating Traditional Architectural Knowledge with Digital Innovation for Climate-Responsive Construction in Remote Mountain Regions: A Case Study in Neelum Valley, Pakistan

Rizwan U. Farooqui, Adnan Anwar, Yasmeen Ahmed
article en

Abstract

Mountainous areas are prone to extreme climatic conditions, and the lack of modern infrastructure makes it difficult to achieve sustainable construction. To overcome the challenges of thermal comfort, robustness, and post-occupancy performance in hazard zones like the Neelum Valley in Pakistan, this research proposes a Digital–Vernacular Integration Model (DVIM), which integrates traditional architectural expertise with modern digital technology. The research design was based on mixed-methods research with the integration of qualitative information obtained through interviews and household surveys (n = 120), and quantitative measures of indoor thermal environments and hazards-based spatial analysis. Vernacular buildings made of wood, stone, and mud were digitally reconstructed using geometric modeling with SketchUp and Autodesk Revit with building information (BIM)-based modeling for assigning materials’ properties. Simulations were carried out using DesignBuilder software with EnergyPlus engines for assessing thermal environment, snow resistance, and seismic resistance to local hazards. The incorporation of the double-layered wall resulted in the improvement of heat retention by 12 to 15%. Moreover, the optimized roof and walls of the hybrid model resulted in the reduction of the sensible heating demand by 42% when compared to the conventional log houses and nearly 80% when compared to the conventional concrete block houses of the modern era. The proposed hybrid model resulted in R-values ranging from 33 to 40 m2·K/W, which are significantly higher when compared to the R-values for conventional timber walls (R = 15 m2·K/W) and concrete block walls (R = 1.0 to 1.3 m2·K/W). These results show the effectiveness of the digitally optimized hybrid model in improving the thermal performance in severe climatic conditions. The results clearly show that the integration of traditional architecture with digital simulation can ensure that modern comfort and safety standards are met without affecting the cultural identity of the region. The proposed framework will be implemented in pilot projects to ensure that the hybrid architectural models are incorporated into regional building regulations.

BuildingsVol. 16(7)
Hazara University (PK), Mississippi State University (US)
Openalex Percentile: Top 36%
Hygrothermal properties of building materials
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