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Giovanni Castellazzi

Professore associato

Dipartimento di Ingegneria Civile, Chimica, Ambientale e dei Materiali

Settore scientifico disciplinare: CEAR-06/A Scienza delle costruzioni

Temi di ricerca

Parole chiave: Metodo degli elementi finiti Strutture in muratura Meccanica Computazionale Materiali ecosostenibili Monitoraggio strutturale Conservazione del patrimonio storico Cristallizzazione salina Gemelli digitali strutturali Elaborazione di nuvole di punti Generazione automatica di mesh Modellazione strutturale ibrida Analisi strutturale non lineare Modellazione multi-fisica Modellazione strutturale basata sui dati Intelligenza artificiale spiegabile Metodo degli elementi virtuali Materiali bio-based

1. Digital Twins and Data-Informed Modeling of Historical Structures

Development of ontology-driven frameworks for structural digital twins of heritage buildings, integrating multi-source data (point clouds, monitoring, FEM results) into a unified, traceable, and interpretable pipeline.

2. Computational Geometry from Point Clouds for Structural Analysis

Automatic extraction of structural information from point clouds, including profile recognition, adaptive mesh generation, and geometric abstraction for direct use in finite element modeling.

3. Advanced Modeling of Masonry Structures under Seismic Actions

Development of computational models for masonry structures, including equivalent frame models, block-based approaches, and hybrid formulations to capture nonlinear behavior and failure mechanisms under seismic loading.

4. Hybrid and Multi-Scale FEM Frameworks

Design of integrated modeling strategies combining beam, continuum, and polyhedral (VEM) elements to efficiently represent complex structural systems derived from real geometries.

5. Finite Element Method Advancements and Open-Source Implementation

Development of advanced FEM formulations (plasticity, damage, cohesive interfaces, VEM) with a focus on robust numerical implementation in open-source environments (e.g., Julia/FinEtools).

6. Data-Driven and Explainable Structural Modeling

Integration of machine learning and statistical methods (e.g., ARIMA, regression models) for structural prediction and monitoring, with emphasis on model interpretability (feature importance, SHAP) and reliability.

7. Multi-Physics Modeling of Degradation Processes in Porous Materials

Investigation of coupled thermo-hygro-mechanical processes, including salt crystallization, and their effects on long-term degradation of masonry and building materials.

8. Sustainable and Bio-Based Construction Materials

Experimental and numerical characterization of eco-sustainable materials derived from recycled or natural resources, with applications to energy efficiency and structural performance.

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