The conservation of ceramic materials in cultural heritage faces challenges due to their vulnerability to environmental factors such as humidity, extreme temperatures and natural wear. These materials are essential in architecture and historical artifacts, requiring specialized interventions to preserve their cultural and aesthetic value. This research explores the use of artificial intelligence (AI) to optimize the diagnostic and conservation processes of ceramic materials in cultural heritage, addressing the lack of effective methodologies that combine accurate analysis with sustainable interventions.
Through a methodology based on machine learning algorithms, high-resolution digital images and data obtained from advanced sensors, such as humidity, temperature and vibration, were analyzed. The data were also complemented with environmental monitoring techniques to obtain a comprehensive view of the factors affecting conservation. The objective is to identify and evaluate the state of conservation of ceramic materials through a predictive solution that facilitates early and accurate interventions. To this end, AI models were trained to detect deterioration patterns, such as microcracks and changes in molecular structure, which are imperceptible to the naked eye.
Preliminary findings indicate that AI can identify deterioration patterns in ceramic materials with an accuracy of over 90%. These results suggest that the implementation of AI not only improves diagnostic accuracy, but also the speed of interventions, optimizing decision making in conservation processes. The ability of AI to process large volumes of data and learn from previous patterns also offers new possibilities for preventive interventions, reducing the risk of irreparable damage.
In terms of qualitative results, it was observed that the integration of AI in conservation reduces the dependence on manual and observational methods, which often limit the efficiency of interventions. In terms of quantitative results, a significant improvement in the accuracy of deterioration detection was achieved, reaching levels of more than 90% in the identification of microcracks and structural alterations.
In conclusion, the research shows that AI has great potential to transform the conservation of ceramic materials in cultural heritage, improving the accuracy and efficiency of interventions. Integrating this technology facilitates a more sustainable and scalable approach, allowing the model to be replicated in different regions without the need for specialized experts, ensuring the long-term conservation of cultural heritage.