We bridge classical structural mechanics with modern machine learning to solve complex problems in steel structures, concrete, and corrosion engineering.
Experimental data meets AI-driven predictive models across the mechanics of structures and materials.
Artificial neural networks, XGBoost, gene expression programming, PSO, ANFIS, and hybrid meta-heuristic optimizers applied to structural capacity prediction — our primary focus.
Recycled glass, copper slag, ceramic waste powder, and metakaolin in self-compacting concrete — fresh properties, strength, microstructure, and durability.
Shear and flexural capacity of FRP-RC beams, CFRP-confined columns, compressive strength prediction, and innovative GEP equations for design practice.
A dedicated group pushing the boundaries of structural engineering and computational methods.
Professor of Structural Engineering, Vali-e-Asr University of Rafsanjan.
Structural Engineering, Vali-e-Asr University of Rafsanjan.
Structural Engineering, Vali-e-Asr University of Rafsanjan.
Recent works (2021–2026), newest first, with citation counts from Google Scholar. Click a row to read the abstract; click a title to open the paper on Google Scholar. Full archive of 95+ works on Google Scholar.
Predict the nominal shear capacity (Vₙ) of slender FRP-reinforced concrete beams with our PSO-optimized XGBoost model — trained on an experimental database of beams without stirrups.
Interested in joint research, data exchange, or academic partnership in AI-driven structural assessment, FRP-reinforced concrete, or sustainable cementitious materials? Reach out to the lab's supervisor.
Vali-e-Asr University of Rafsanjan
Rafsanjan, Kerman, Iran