AI-Driven Conservation Framework Integrating Security, Environmental Performance, and Human Comfort in Sacred Spaces

In the architecture of sacred places, the relationship between spirituality, environmental adaptation, and embodied human experience has been documented across centuries of liturgical, spatial, and climatic practice. In Islamic architecture, there is extensive historical evidence demonstrating the application of passive environmental strategies to achieve higher levels of physical comfort while also enhancing spiritual prayer and emotional connection with the divine. Meanwhile, architects employed spatial orientation, calibrated daylight, and stained-glass compositions in medieval cathedrals in Europe to integrate environmental adaptation into sacred expression. The research problem identifies the need for a conservation approach that combines smart applications and AI technology while preserving the culture and spiritual integrity of the place. This paper introduces an AI-driven Conservation Framework (AICF) that integrates environmental performance, material durability, and occupant safety, acknowledging the practical constraints imposed by sacred-use patterns, ritual circulation, and heritage-sensitive interventions. The AICF introduces a unified central core that evaluates sensor networks, predictive algorithms, and adaptive control systems. Within the AICF, the combined subsystems modulate illumination, ventilation, and acoustic behavior to support conservation objectives while safeguarding the contemplative qualities of the site. The framework reconceives a range of otherwise disconnected digital tools as a single adaptive structure capable of responding to diverse operational pressures. The study’s methodology combines comparative qualitative analysis, a focused literature review, environmental assessment informed by cultural readings, and in situ examinations of both historic and contemporary sacred buildings in the Gulf. Findings from the study point to the possibility of maintaining cultural and spiritual authenticity when AI interventions observe strict ethical parameters and respond sensitively to ritual patterns and local environmental dynamics. Used judiciously, the framework enhances the reliability of conservation measures and supports the ritual and symbolic functions embedded in sacred architecture.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-01
DOI
https://doi.org/10.5281/zenodo.18073899
Primary Topic
Conservation Techniques and Studies
Type
article
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article

AI-Driven Conservation Framework Integrating Security, Environmental Performance, and Human Comfort in Sacred Spaces

Khuloud Ali, Ghayth Tintawi
Zenodo (CERN European Organization for Nuclear Research)
Conservation Techniques and Studies
article

AI-Driven Conservation Framework Integrating Security, Environmental Performance, and Human Comfort in Sacred Spaces

Khuloud Ali, Ghayth Tintawi
article en

Abstract

In the architecture of sacred places, the relationship between spirituality, environmental adaptation, and embodied human experience has been documented across centuries of liturgical, spatial, and climatic practice. In Islamic architecture, there is extensive historical evidence demonstrating the application of passive environmental strategies to achieve higher levels of physical comfort while also enhancing spiritual prayer and emotional connection with the divine. Meanwhile, architects employed spatial orientation, calibrated daylight, and stained-glass compositions in medieval cathedrals in Europe to integrate environmental adaptation into sacred expression. The research problem identifies the need for a conservation approach that combines smart applications and AI technology while preserving the culture and spiritual integrity of the place. This paper introduces an AI-driven Conservation Framework (AICF) that integrates environmental performance, material durability, and occupant safety, acknowledging the practical constraints imposed by sacred-use patterns, ritual circulation, and heritage-sensitive interventions. The AICF introduces a unified central core that evaluates sensor networks, predictive algorithms, and adaptive control systems. Within the AICF, the combined subsystems modulate illumination, ventilation, and acoustic behavior to support conservation objectives while safeguarding the contemplative qualities of the site. The framework reconceives a range of otherwise disconnected digital tools as a single adaptive structure capable of responding to diverse operational pressures. The study’s methodology combines comparative qualitative analysis, a focused literature review, environmental assessment informed by cultural readings, and in situ examinations of both historic and contemporary sacred buildings in the Gulf. Findings from the study point to the possibility of maintaining cultural and spiritual authenticity when AI interventions observe strict ethical parameters and respond sensitively to ritual patterns and local environmental dynamics. Used judiciously, the framework enhances the reliability of conservation measures and supports the ritual and symbolic functions embedded in sacred architecture.

Zenodo (CERN European Organization for Nuclear Research)
Imagineering (Japan) (JP), Institut des Maladies Génétiques Imagine (FR)
Life in Land
Openalex Percentile: Top 22%
Conservation Techniques and Studies
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