ASU's Future H2O

Building a future of water abundance and opportunity

The global future of water is about abundance and opportunity — not scarcity.

Future H2O is helping create that future through solutions-oriented research and implementation partnerships with the world’s biggest corporations, NGOs, transboundary multinationals, venture funds and public institutions.

Why abundance and opportunity, not scarcity?

  • Because thinking in terms of “scarcity,” “vulnerability” and “risk” locks us into yesterday’s mindset and approaches — obscuring the full range of opportunity and ingenuity we have to build the future of water.
  • Because scarcity management’s centralized, hard-path engineering solutions are too inflexible for a dynamic world of rapid urbanization and climate change.
  • Because water-scarcity approaches often shut out the private sector — the world’s leading water-user — from co-creating solutions.

water drop

Cross training leaders

leveraging bright minds in water work

Goals

  • Develop innovative curricula that blend aspects of online platforms and internships
  • Cultivate the next generation of global water leaders who collaborate at the intersection of water, energy and food systems

Outcome

A pipeline of water leaders that collaborate across sector boundaries and at scales that accelerate the path to water security

Corporate decision support

big data to drive private sector investment in better water management

Goals

  • Enable private sector investment in resilient water infrastructure
  • Promote public-private partnerships to implement and scale up new projects

Outcome

A visual, global database that identifies opportunities for the public and private sector to collaborate on water security.

Harnessing IoT datasheds

monitoring water from “snow cap to tap”

Goal 

Harness distributed computing and ever-increasing streams of big water data to better manage water resources at scale from individual building operations to watersheds

Outcomes

  • The first fully instrumented building in the world that can link the domains of water quantity and water quality
  • Integrated data streams used to create new narratives about water supply, demand and efficiency and build water literacy

Urban efficiency

responsible growth for economies and communities

Goal

Design a narrative and shape markets to enable economic growth while reducing water use

Outcome

Improved commercial, industrial and institutional water use efficiency through a lead-by-example approach, harnessing sensor test beds at ASU and leveraging relationships with the private sector valley-wide

Modular FEW technology

holistic solutions to global water challenges

Goals

  • Track metrics and certify performance standards for modular tech interventions for the developing world
  • Evaluate social, legal, religious and gender contexts for successful deployment via women-operated small businesses

Outcome

A testbed and core USAID performance evaluation center that offers transferable lessons and scalable solutions

Water

ASU researchers are developing tools to help governments and businesses make better water decisions, exploring options for adapting to urbanization and climate change, and identifying how cultural beliefs and values affect individual behaviors and public policy.

DIVE IN

Future H2O Director John Sabo

John Sabo is a professor of river ecology and water resources in the School of Life Sciences and founding director of Future H2O in the Arizona State University Knowledge Enterprise. He is also a senior sustainability scientist in the Julie Ann Wrigley Global Institute of Sustainability, a fellow in the Institute for the Future of Innovation in Society, an honors faculty in the Barrett Honors College, and serves on the graduate faculty in the Hydrosystems Engineering Graduate Program.

Sabo is a river food web ecologist and has designed and implemented large-scale field experiments to understand the role of aquatic-terrestrial energy flow on terrestrial food web dynamics as well as the dynamic effects of groundwater on surface water food webs. His research has been published in top journals including Ecology, Ecological Monographs, Ecology Letters, Global Change Biology, Frontiers in Ecology and the Environment, PNAS, and Science. 

Sabo has also developed quantitative, data-driven methods to connect hydrology to freshwater fisheries and aspects of riverine biodiversity. His work in this realm is driven by a desire to understand how to better manage basin scale flows in rivers ranging from the Colorado, the Mekong and the Amazon. He received his PhD from the University of California-Berkeley in 2000.