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About

About Project WISER Cities

Development of Water Footprint Decision Support and Visualization System for Sustainable Urban Water Management

The Project

Decision Support Systems for Water Management

Urbanization trends indicate that more than two-thirds of the world's population will reside in cities by 2050. Global temperatures have risen by 1.1°C, and a 20–30% increase in flood risk is projected for many urban areas. Nearly 80% of the world's wastewater is discharged untreated into rivers, lakes, and oceans, worsening water quality.

The WISER Cities project aims to assist local government units and decision makers in achieving sustainable water management through the development of a simplified water footprint accounting framework, serving as the basis for an integrated decision support and visualization system.

This initiative also emphasizes the integration of green infrastructure solutions, which complement traditional approaches by enhancing water resilience, reducing runoff, and providing co-benefits such as improved urban livability and ecosystem health. By embracing water footprint accounting and its holistic approach, cities can not only secure their water futures but also contribute to the global endeavor of building water-resilient and sustainable urban environments.

>66%

of the world's population will live in cities by 2050

1.1°C

rise in global temperatures with 20–30% increase in flood risk

~80%

of wastewater discharged untreated globally

WISER Cities Research Poster

Objectives

Project Objectives

Aid LGUs in sustainable urban water management through a simplified water footprint accounting tool as the basis for an integrated decision support and visualization system.

01

Water Footprint Accounting

Develop a simplified water footprint accounting framework that quantifies blue, green, and gray water use at the city scale as the basis for an integrated decision support system.

02

Decision Support System

Build an integrated decision support and visualization system that translates complex hydrologic data into actionable policy insights for local government units.

03

Green Infrastructure Integration

Integrate green infrastructure solutions that complement traditional approaches by enhancing water resilience, reducing runoff, and providing co-benefits such as improved urban livability and ecosystem health.

Framework

Conceptual Framework

The conceptual framework of the project that serves as reference for project implementation.

Methods

Methodology

Our research follows a rigorous pipeline from field measurement to policy recommendation, using numerical modeling with calibration and validation against observed data.

Methodology

Outputs

Project Output Pillars

Publication

Peer-reviewed journal articles and conference papers

Products

Decision support and visualization tools for water management

People

Trained researchers and professionals in urban water science

Partnership

Collaborations with LGUs, academe, and government agencies

Patent

Intellectual property from novel research outputs

People

The Team

Student Researchers — MSCE

IF

Israelbelle Ferolino

Graduate Research Assistant

MSCE
JB

Jhon Bensig

Graduate Research Assistant

MSCE

Student Researchers — BSCE

JK

Julianne Kyle Jalandoni

Undergraduate Research Assistant

BSCE
MT

Marc Tristan Lo

Undergraduate Research Assistant

BSCE
JL

John Lloyd Villadoz

Undergraduate Research Assistant

BSCE
DA

Deirdre Andreus Sarmiento

Undergraduate Research Assistant

BSCE
MD

Mikhaela Dizon

Undergraduate Research Assistant

BSCE

Partners

Partner Institutions

University of the Philippines Diliman
Institute of Civil Engineering
DOST-PCIEERD
City Government of Balanga