Supporting urban greenspace with microbial symbiosis

Societal Impact Statement Cities are stressful environments for plants, plagued by heat, pollution, and biodiversity loss. As a result, plant communities tend to suffer in green roofs, parks, and living walls. Finding solutions to help plants grow in stressful environments is a goal of the sustainab...

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Main Authors: Justin D. Stewart, E. Toby Kiers, Mark A. Anthony, A. Haven Kiers
Format: Article
Language:English
Published: Wiley 2024-01-01
Series:Plants, People, Planet
Subjects:
Online Access:https://doi.org/10.1002/ppp3.10403
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author Justin D. Stewart
E. Toby Kiers
Mark A. Anthony
A. Haven Kiers
author_facet Justin D. Stewart
E. Toby Kiers
Mark A. Anthony
A. Haven Kiers
author_sort Justin D. Stewart
collection DOAJ
description Societal Impact Statement Cities are stressful environments for plants, plagued by heat, pollution, and biodiversity loss. As a result, plant communities tend to suffer in green roofs, parks, and living walls. Finding solutions to help plants grow in stressful environments is a goal of the sustainable city. One solution is to better incorporate plant–microbe symbiosis in green architecture. Symbiotic fungi and bacteria can provide nutrients, water, and help plants to cope with urban stress. The reconceptualization of green infrastructure from a microbial‐focused perspective has the potential to improve plant health, growth, and diversity in cities. Summary Plant communities in cities help maintain the health and stability of urban ecosystems and inhabitants. Ensuring that greenspace is healthy and productive is a key goal of green infrastructure and landscape architecture (GILA). However, cities are stressful environments for plants. In natural ecosystems, plants live in symbiosis with fungi, bacteria, and other microbes that can help alleviate stress. Microbial communities may also help with stress associated with urban environments. Incorporating mutualistic symbioses into GILA is a sustainable way to enhance urban greenspace. Here, we address key stressors for GILA in cities, including dependency on fertilizers, pathogens, drought, fewer pollinators, pollution, and reduced plant biodiversity. For each of these stressors, we discuss how symbiotic fungi and bacteria can help mitigate these issues, including case‐use scenarios. We conclude with new approaches to deliberately incorporate mutualisms in cities and open dialogues with stakeholders.
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spelling doaj.art-3b2b0699d82845679941ae2df8786f152023-12-14T04:19:15ZengWileyPlants, People, Planet2572-26112024-01-016131710.1002/ppp3.10403Supporting urban greenspace with microbial symbiosisJustin D. Stewart0E. Toby Kiers1Mark A. Anthony2A. Haven Kiers3Amsterdam Institute for Life and Environment (A‐LIFE) Section Ecology & Evolution Vrije Universiteit Amsterdam Amsterdam the NetherlandsAmsterdam Institute for Life and Environment (A‐LIFE) Section Ecology & Evolution Vrije Universiteit Amsterdam Amsterdam the NetherlandsSwiss Federal Institute for Forest Snow and Landscape Research WSL Birmensdorf SwitzerlandDepartment of Human Ecology University of California Davis California USASocietal Impact Statement Cities are stressful environments for plants, plagued by heat, pollution, and biodiversity loss. As a result, plant communities tend to suffer in green roofs, parks, and living walls. Finding solutions to help plants grow in stressful environments is a goal of the sustainable city. One solution is to better incorporate plant–microbe symbiosis in green architecture. Symbiotic fungi and bacteria can provide nutrients, water, and help plants to cope with urban stress. The reconceptualization of green infrastructure from a microbial‐focused perspective has the potential to improve plant health, growth, and diversity in cities. Summary Plant communities in cities help maintain the health and stability of urban ecosystems and inhabitants. Ensuring that greenspace is healthy and productive is a key goal of green infrastructure and landscape architecture (GILA). However, cities are stressful environments for plants. In natural ecosystems, plants live in symbiosis with fungi, bacteria, and other microbes that can help alleviate stress. Microbial communities may also help with stress associated with urban environments. Incorporating mutualistic symbioses into GILA is a sustainable way to enhance urban greenspace. Here, we address key stressors for GILA in cities, including dependency on fertilizers, pathogens, drought, fewer pollinators, pollution, and reduced plant biodiversity. For each of these stressors, we discuss how symbiotic fungi and bacteria can help mitigate these issues, including case‐use scenarios. We conclude with new approaches to deliberately incorporate mutualisms in cities and open dialogues with stakeholders.https://doi.org/10.1002/ppp3.10403green roofgreenspacelandscape architecturemicrobiomemutualismmycorrhizal
spellingShingle Justin D. Stewart
E. Toby Kiers
Mark A. Anthony
A. Haven Kiers
Supporting urban greenspace with microbial symbiosis
Plants, People, Planet
green roof
greenspace
landscape architecture
microbiome
mutualism
mycorrhizal
title Supporting urban greenspace with microbial symbiosis
title_full Supporting urban greenspace with microbial symbiosis
title_fullStr Supporting urban greenspace with microbial symbiosis
title_full_unstemmed Supporting urban greenspace with microbial symbiosis
title_short Supporting urban greenspace with microbial symbiosis
title_sort supporting urban greenspace with microbial symbiosis
topic green roof
greenspace
landscape architecture
microbiome
mutualism
mycorrhizal
url https://doi.org/10.1002/ppp3.10403
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