Material science is a fundamental field of research. Understanding how materials behave under various operating conditions can help scientists and engineers propose efficient and economical designs with the aim of potentially establishing a robust foundation for our infrastructure. 

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The interdisciplinary nature of my research has allowed me to venture into multiple fields, ranging from engineering to mathematics, physics, and chemistry, to build predictive physics-based constitutive frameworks for the response of soft materials. At the same time, I have relied on experimental assessments with the aim of gaining better insight into the performance of heterogeneous materials under extreme conditions. Findings from this research will contribute to the analysis and design of various composite systems, such as cement-based materials with embedded polymer systems for water-absorption applications. We can utilize the general understanding gained from this research on heterogeneous multiphase materials, along with our knowledge of the multi-physics responses of polymers, to inform and establish robust design strategies for cement-polymer composites. These strategies can be advanced through the use of additive manufacturing and robotic technologies, with the hope of reducing flood risks in areas with heavy rainfall. Such exciting research directions will pave the way for the development of well-founded, robust, and resilient infrastructure that is sustainable for our generation and future generations. Ultimately, we can hope that future ASCE quadrennial reports will show significant improvement in the current infrastructure of the United States, enabling the country to regain its resiliency and regain its position as one of the world's greatest powers.