Technologies for One Water in Extremely Resilient buildings

Illustration of different water sources.

Funding Agency: National Science Foundation (NSF)

Collaborators: Diana S. Aga (PI, University at Buffalo); Ning Dai (University at Buffalo); Martha Bohm (University at Buffalo); Haiqing Lin (University at Buffalo); Fatin Samara (American University of Sharjah) 

Project Description: The TOWER Project develops resilient, net-zero water buildings in urban areas facing droughts, floods, and climate change. As centralized water systems become less reliable, they are integrating innovations in water treatment, vapor harvesting, and smart design to achieve water independence and resilience. Using analytical tools such as high-resolution mass spectrometry, the team will study water quality and disinfection byproducts and develop improved oxidation processes for safe wastewater reuse. Novel polymer materials will be engineered for efficient vapor capture, expanding sustainable water sources. Grounded in the “One Water” approach, TOWER combines expertise from architecture, chemistry, environmental engineering, and chemical engineering. It promotes international collaboration with partners in the Philippines, UAE, Costa Rica, Egypt, and Taiwan. Educational and outreach activities aim to build a climate-aware, diverse workforce, increase STEM participation, and boost public understanding of sustainable water management. These efforts advance global water sustainability, resilience, and climate adaptation.

The overarching goal of the TOWER Project is to promote innovation in net-zero water buildings with closed-loop water systems. By encouraging international research collaboration, it aims to boost global urban water resilience and sustainable infrastructure. The project also offers education and training to enhance climate resilience and water management skills, preparing future leaders. Additionally, TOWER supports evidence-based policies to guide sustainable building and water practices worldwide, fostering a more resilient, water-secure future.

The objectives of the study are to (1) analyze building water quality, focusing on disinfection byproducts (DBPs) and developing advanced oxidation treatments for safe wastewater reuse; (2) Engineer temperature-switchable polymers for vapor harvesting and create models linking radical chemistry to system performance for more innovative treatment; (3) guide resilient building design across various climates and cultures; (4) review policies to support sustainable water use and use educational efforts to boost STEM diversity, retention, and public awareness of climate and water issues.

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