Marco Corradi 
- (2025): Recycled red brick masonry demolition waste as a sustainable cement replacement alternative: A DoE-Based approach. In: Journal of Building Engineering, v. 100 ( 2025).
- (2024): A new bond-slip model for NSM FRP systems using cement-based adhesives through artificial neural networks (ANN). In: Construction and Building Materials, v. 427 (Mai 2024).
- (2023): Structural Performance of Cold-Formed Steel (CFS) Structures. In: Buildings, v. 13, n. 7 (28 Juni 2023).
- (2023): Web Crippling Behaviour of Cold-Formed High-Strength Steel Unlipped Channel Beams Under Interior-Two-Flange Load Case. In: International Journal of Steel Structures, v. 23, n. 4 (Juni 2023).
- (2022): Numerical Modelling of Timber Beams with GFRP Pultruded Reinforcement. In: Buildings, v. 12, n. 11 (27 Oktober 2022).
- (2022): Web crippling design of channel beams: Carbon steel, stainless steel and aluminium. In: Journal of Constructional Steel Research, v. 196 (September 2022).
- (2022): A repair method of cracked shear walls with stainless steel rods and fibres. In: Composite Structures, v. 293 (August 2022).
- (2022): Shear performance of lightweight concrete filled hollow flange cold-formed steel beams. In: Case Studies in Construction Materials, v. 17 (Dezember 2022).
- (2022): Web crippling behaviour of cold-formed high-strength steel unlipped channel beams under End-One-Flange load case. In: Case Studies in Construction Materials, v. 16 (Juni 2022).
- (2022): Web Crippling Behaviour of Cold-Formed High Strength Steel Unlipped Channel Beams. In: Buildings, v. 12, n. 3 (8 März 2022).
- (2022): Unified approach for the web crippling design of cold-formed channels: Carbon steel, stainless steel and aluminium. In: Journal of Building Engineering, v. 51 (Juli 2022).
- (2020): Optimal design of cold-formed steel lipped channel beams: Combined bending, shear, and web crippling. In: Structures, v. 28 (Dezember 2020).
- (2020): Repairing brickwork panels using titanium rods embedded in the mortar joints. In: Engineering Structures, v. 221 (Oktober 2020).
- (2020): Out-of-plane reinforcement of masonry walls using joint-embedded steel cables. In: Bulletin of Earthquake Engineering, v. 18, n. 10 (Juni 2020).
- (2021): Seismic retrofit of stone walls with timber panels and steel wire ropes. In: Proceedings of the Institution of Civil Engineers - Structures and Buildings, v. 174, n. 5 (Mai 2021).
- (2018): A review of the use of stainless steel for masonry repair and reinforcement. In: Construction and Building Materials, v. 181 (August 2018).
- (2019): Stainless steel strip – A proposed shear reinforcement for masonry wall panels. In: Construction and Building Materials, v. 211 (Juni 2019).
- (2014): Masonry wall panels with GFRP and steel-cord strengthening subjected to cyclic shear: An experimental study. In: Construction and Building Materials, v. 56 (April 2014).
- (2014): Strengthening of fair face masonry columns with steel hooping. In: Materials and Structures, v. 47, n. 12 (Dezember 2014).
- (2017): The use of transverse connectors as reinforcement of multi-leaf walls. In: Materials and Structures, v. 50, n. 2 (April 2017).
- (2012): Round Robin Test for composite-to-brick shear bond characterization. In: Materials and Structures, v. 45, n. 12 (Dezember 2012).
- (2017): Seismic vulnerability assessment of a monumental masonry building. In: Engineering Structures, v. 136 (April 2017).
- (2018): A numerical study on seismic damage of masonry fortresses. In: Bulletin of Earthquake Engineering, v. 16, n. 10 (Februar 2018).
- (2016): The Reticulatus method for shear strengthening of fair-faced masonry. In: Bulletin of Earthquake Engineering, v. 14, n. 12 (September 2016).
- (2015): A method for the analysis and classification of historic masonry. In: Bulletin of Earthquake Engineering, v. 13, n. 9 (März 2015).
- (2016): Superelastic SMA Belleville washers for seismic resisting applications: experimental study and modelling strategy. In: Smart Materials and Structures, v. 25, n. 10 (Oktober 2016).
- (2005): Retrofit and monitoring of an historical building using "Smart" CFRP with embedded fibre optic Brillouin sensors. In: Construction and Building Materials, v. 19, n. 7 (September 2005).
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