Paul Saliba
Bachelor of Engineering, Honours, Final Year
Immersed in the rhythm of construction sites from such a young age, all gratitude goes to my father and his formwork business, which helped me to develop an enduring passion for the process of construction as a whole, in addition to all the details that are accompanied with.
From pouring concrete to deciphering steel plans, my interest/eagerness for the fineness blossomed. Intrigued by the engineering nuances of shaping structures, I delved into the art of design and planning.
Megastructures, with their colossal engineering challenges, captivated my interest. For my postgraduate plans, my trajectory involves honing engineering and design skills, driven by an enthusiasm to contribute meaningfully to the creation of monumental megastructures.
My journey unfolds as a testament to the love and transformative power of construction industry.
Compressive Strength of Magnesium Oxychloride Cement (MOC) Based Fibre Reinforced Cementitious Composites at Ambient and Elevated Temperatures
Magnesium oxide cement (MOC) is a promising alternative for construction materials due to its fire resistance, high strength, and environmental benefits. Although researchers assert its fire resistance, there has yet to be an actual evaluation.
This research aims to develop an innovative fibre-reinforced cementitious composite using MOC, optimizing its compressive characteristics under high temperatures. The study incorporates basalt fibres (BF) and polypropylene fibres (PP) into the MOC matrix, conducting precise uniaxial compression experiments at temperatures ranging from 20°C to 800°C.
The findings show that adding PP and BF fibres to MOC increases residual compressive strength and resistance to spalling, making it a potential fireproof material for construction. This study represents a significant milestone in transforming the construction industry and positioning MOC as a leading fire-resistant and environmentally sustainable building materials provider.
Further investigation is needed to uncover MOC's environmental, economic, and social advantages when combined with advanced fibres and improved properties. This study is a pivotal milestone in transforming the construction industry and positioning MOC as a leading fire-resistant and environmentally sustainable building materials provider.
