TY - JOUR
T1 - A research agenda for the future of urban water management: Exploring the potential of non-grid, small-grid, and hybrid solutions
AU - Hoffmann, Sabine
AU - Feldmann, Ulrike
AU - Bach, Peter M.
AU - Binz, Christian
AU - Farrelly, Megan
AU - Frantzeskaki, Niki
AU - Hiessl, Harald
AU - Inauen, Jennifer
AU - Larsen, Tove A.
AU - Lienert, Judit
AU - Londong, Jörg
AU - Lüthi, Christoph
AU - Maurer, Max
AU - Mitchell, Cynthia
AU - Morgenroth, Eberhard
AU - Nelson, Kara L.
AU - Scholten, Lisa
AU - Truffer, Bernhard
AU - Udert, Kai M.
PY - 2020
Y1 - 2020
N2 - Recent developments in high- and middle-income countries have exhibited a shift from conventional urban water systems to alternative solutions that are more diverse in source separation, decentralization, and modularization. These solutions include nongrid, small-grid, and hybrid systems to address such pressing global challenges as climate change, eutrophication, and rapid urbanization. They close loops, recover valuable resources, and adapt quickly to changing boundary conditions such as population size. Moving to such alternative solutions requires both technical and social innovations to coevolve over time into integrated socio-technical urban water systems. Current implementations of alternative systems in high- and middle-income countries are promising, but they also underline the need for research questions to be addressed from technical, social, and transformative perspectives. Future research should pursue a transdisciplinary research approach to generating evidence through socio-technical “lighthouse” projects that apply alternative urban water systems at scale. Such research should leverage experiences from these projects in diverse socio-economic contexts, identify their potentials and limitations from an integrated perspective, and share their successes and failures across the urban water sector.
AB - Recent developments in high- and middle-income countries have exhibited a shift from conventional urban water systems to alternative solutions that are more diverse in source separation, decentralization, and modularization. These solutions include nongrid, small-grid, and hybrid systems to address such pressing global challenges as climate change, eutrophication, and rapid urbanization. They close loops, recover valuable resources, and adapt quickly to changing boundary conditions such as population size. Moving to such alternative solutions requires both technical and social innovations to coevolve over time into integrated socio-technical urban water systems. Current implementations of alternative systems in high- and middle-income countries are promising, but they also underline the need for research questions to be addressed from technical, social, and transformative perspectives. Future research should pursue a transdisciplinary research approach to generating evidence through socio-technical “lighthouse” projects that apply alternative urban water systems at scale. Such research should leverage experiences from these projects in diverse socio-economic contexts, identify their potentials and limitations from an integrated perspective, and share their successes and failures across the urban water sector.
KW - Anatomy
KW - Solution chemistry
KW - Wastewater
KW - Chemical structure Water treatment
UR - https://www.mendeley.com/catalogue/d87be330-bf5b-3f84-ad50-79793c2417ea/
U2 - 10.1021/acs.est.9b05222
DO - 10.1021/acs.est.9b05222
M3 - Article
SN - 0013-936X
VL - 54
SP - 5312
EP - 5322
JO - Environmental Science & Technology
JF - Environmental Science & Technology
IS - 9
ER -