Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms

Societal Impact Statement Bioenergy is a major component of the global transition to renewable energy technologies. The plant and fungal kingdoms offer great potential but remain mostly untapped. Their increased use could contribute to the renewable energy transition and addressing the United Nation...

Full description

Bibliographic Details
Main Authors: Olwen M. Grace, Jon C. Lovett, Charles J. N. Gore, Justin Moat, Ian Ondo, Samuel Pironon, Moses K. Langat, Oscar A. Pérez‐Escobar, Andrew Ross, Mary Suzan Abbo, Krishna K. Shrestha, Balakrishna Gowda, Kerrie Farrar, Jessica Adams, Rodrigo Cámara‐Leret, Mauricio Diazgranados, Tiziana Ulian, Saut Sagala, Elisabeth Rianawati, Amit Hazra, Omar R. Masera, Alexandre Antonelli, Paul Wilkin
Format: Article
Language:English
Published: Wiley 2020-09-01
Series:Plants, People, Planet
Subjects:
Online Access:https://doi.org/10.1002/ppp3.10147
id doaj-e01d8c1e63ee4a779ee7dbfca4567cc1
record_format Article
collection DOAJ
language English
format Article
sources DOAJ
author Olwen M. Grace
Jon C. Lovett
Charles J. N. Gore
Justin Moat
Ian Ondo
Samuel Pironon
Moses K. Langat
Oscar A. Pérez‐Escobar
Andrew Ross
Mary Suzan Abbo
Krishna K. Shrestha
Balakrishna Gowda
Kerrie Farrar
Jessica Adams
Rodrigo Cámara‐Leret
Mauricio Diazgranados
Tiziana Ulian
Saut Sagala
Elisabeth Rianawati
Amit Hazra
Omar R. Masera
Alexandre Antonelli
Paul Wilkin
spellingShingle Olwen M. Grace
Jon C. Lovett
Charles J. N. Gore
Justin Moat
Ian Ondo
Samuel Pironon
Moses K. Langat
Oscar A. Pérez‐Escobar
Andrew Ross
Mary Suzan Abbo
Krishna K. Shrestha
Balakrishna Gowda
Kerrie Farrar
Jessica Adams
Rodrigo Cámara‐Leret
Mauricio Diazgranados
Tiziana Ulian
Saut Sagala
Elisabeth Rianawati
Amit Hazra
Omar R. Masera
Alexandre Antonelli
Paul Wilkin
Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
Plants, People, Planet
Bioenergy
biofuel
biogas
energy poverty
feedstock
renewables
author_facet Olwen M. Grace
Jon C. Lovett
Charles J. N. Gore
Justin Moat
Ian Ondo
Samuel Pironon
Moses K. Langat
Oscar A. Pérez‐Escobar
Andrew Ross
Mary Suzan Abbo
Krishna K. Shrestha
Balakrishna Gowda
Kerrie Farrar
Jessica Adams
Rodrigo Cámara‐Leret
Mauricio Diazgranados
Tiziana Ulian
Saut Sagala
Elisabeth Rianawati
Amit Hazra
Omar R. Masera
Alexandre Antonelli
Paul Wilkin
author_sort Olwen M. Grace
title Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
title_short Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
title_full Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
title_fullStr Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
title_full_unstemmed Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
title_sort plant power: opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdoms
publisher Wiley
series Plants, People, Planet
issn 2572-2611
publishDate 2020-09-01
description Societal Impact Statement Bioenergy is a major component of the global transition to renewable energy technologies. The plant and fungal kingdoms offer great potential but remain mostly untapped. Their increased use could contribute to the renewable energy transition and addressing the United Nations Sustainable Development Goal 7 “Ensure access to affordable, reliable, sustainable and modern energy for all.” Current research focuses on species cultivated at scale in temperate regions, overlooking the wealth of potential new sources of small‐scale energy where they are most urgently needed. A shift towards diversified, accessible bioenergy technologies will help to mitigate and adapt to the threats of climate change, decrease energy poverty, improve human health by reducing indoor pollution, increase energy resilience of communities, and decrease greenhouse gas emissions from fossil fuels. Summary Bioenergy derived from plants and fungi is a major component of the global transition to renewable energy technologies. There is rich untapped diversity in the plant and fungal kingdoms that offers potential to contribute to the shift away from fossil fuels and to address the United Nations Sustainable Development Goal 7 (SDG7) “Ensure access to affordable, reliable, sustainable and modern energy for all.” Energy poverty—the lack of access to modern energy services—is most acute in the Global South where biodiversity is greatest and least investigated. Our systematic review of the literature over the last 5 years (2015–2020) indicates that research efforts have targeted a very small number of plant species cultivated at scale, mostly in temperate regions. The wealth of potential new sources of bioenergy in biodiverse regions, where the implementation of SDG7 is most urgently needed, has been largely overlooked. We recommend next steps for bioenergy stakeholders—research, industry, and government—to seize opportunities for innovation to alleviate energy poverty while protecting biodiversity. Small‐scale energy production using native plant species in bioenergy landscapes overcomes many pitfalls associated with bioenergy crop monocultures, such as biodiversity loss and conflict with food production. Targeted trait‐based screening of plant species and biological screening of fungi are required to characterize the potential of this resource. The benefits of diversified, accessible bioenergy go beyond the immediate urgency of energy poverty as more diverse agricultural landscapes are more resilient, store more carbon, and could also reduce the drivers of the climate and environmental emergencies.
topic Bioenergy
biofuel
biogas
energy poverty
feedstock
renewables
url https://doi.org/10.1002/ppp3.10147
work_keys_str_mv AT olwenmgrace plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT jonclovett plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT charlesjngore plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT justinmoat plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT ianondo plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT samuelpironon plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT mosesklangat plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT oscaraperezescobar plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT andrewross plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT marysuzanabbo plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT krishnakshrestha plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT balakrishnagowda plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT kerriefarrar plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT jessicaadams plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT rodrigocamaraleret plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT mauriciodiazgranados plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT tizianaulian plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT sautsagala plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT elisabethrianawati plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT amithazra plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT omarrmasera plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT alexandreantonelli plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
AT paulwilkin plantpoweropportunitiesandchallengesformeetingsustainableenergyneedsfromtheplantandfungalkingdoms
_version_ 1724580670238359552
spelling doaj-e01d8c1e63ee4a779ee7dbfca4567cc12020-11-25T03:29:06ZengWileyPlants, People, Planet2572-26112020-09-012544646210.1002/ppp3.10147Plant Power: Opportunities and challenges for meeting sustainable energy needs from the plant and fungal kingdomsOlwen M. Grace0Jon C. Lovett1Charles J. N. Gore2Justin Moat3Ian Ondo4Samuel Pironon5Moses K. Langat6Oscar A. Pérez‐Escobar7Andrew Ross8Mary Suzan Abbo9Krishna K. Shrestha10Balakrishna Gowda11Kerrie Farrar12Jessica Adams13Rodrigo Cámara‐Leret14Mauricio Diazgranados15Tiziana Ulian16Saut Sagala17Elisabeth Rianawati18Amit Hazra19Omar R. Masera20Alexandre Antonelli21Paul Wilkin22Royal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKSchool of Chemical and Process Engineering University of Leeds Leeds UKCentre for Research in Energy and Energy Conservation Makerere University Kampala Kampala UgandaCentral Department of Botany Tribhuvan University Kathmandu NepalDepartment of Forestry and Environmental Science Gandhi Krishni Vignan Kendra CampusUniversity of Agricultural Sciences Bangalore IndiaInstitute of Biological, Environmental & Rural Sciences Aberystwyth University Aberystwyth UKInstitute of Biological, Environmental & Rural Sciences Aberystwyth University Aberystwyth UKDepartment of Evolutionary Biology and Environmental Studies University of Zurich Zurich SwitzerlandRoyal Botanic Gardens, Kew Wakehurst Place Ardingly West Sussex UKRoyal Botanic Gardens, Kew Wakehurst Place Ardingly West Sussex UKSchool of Architecture, Planning & Policy Development Bandung Institute of Technology Bandung IndonesiaResilence Development Initiative Bandung IndonesiaDepartment of Lifelong Learning and Extension Visva‐Bharati University Santiniketan IndiaInstituto de Investigaciones en Ecosistemas y Sustentabilidad Universidad Nacional Autónoma de México Morelia Michoacán MéxicoRoyal Botanic Gardens, Kew Richmond UKRoyal Botanic Gardens, Kew Richmond UKSocietal Impact Statement Bioenergy is a major component of the global transition to renewable energy technologies. The plant and fungal kingdoms offer great potential but remain mostly untapped. Their increased use could contribute to the renewable energy transition and addressing the United Nations Sustainable Development Goal 7 “Ensure access to affordable, reliable, sustainable and modern energy for all.” Current research focuses on species cultivated at scale in temperate regions, overlooking the wealth of potential new sources of small‐scale energy where they are most urgently needed. A shift towards diversified, accessible bioenergy technologies will help to mitigate and adapt to the threats of climate change, decrease energy poverty, improve human health by reducing indoor pollution, increase energy resilience of communities, and decrease greenhouse gas emissions from fossil fuels. Summary Bioenergy derived from plants and fungi is a major component of the global transition to renewable energy technologies. There is rich untapped diversity in the plant and fungal kingdoms that offers potential to contribute to the shift away from fossil fuels and to address the United Nations Sustainable Development Goal 7 (SDG7) “Ensure access to affordable, reliable, sustainable and modern energy for all.” Energy poverty—the lack of access to modern energy services—is most acute in the Global South where biodiversity is greatest and least investigated. Our systematic review of the literature over the last 5 years (2015–2020) indicates that research efforts have targeted a very small number of plant species cultivated at scale, mostly in temperate regions. The wealth of potential new sources of bioenergy in biodiverse regions, where the implementation of SDG7 is most urgently needed, has been largely overlooked. We recommend next steps for bioenergy stakeholders—research, industry, and government—to seize opportunities for innovation to alleviate energy poverty while protecting biodiversity. Small‐scale energy production using native plant species in bioenergy landscapes overcomes many pitfalls associated with bioenergy crop monocultures, such as biodiversity loss and conflict with food production. Targeted trait‐based screening of plant species and biological screening of fungi are required to characterize the potential of this resource. The benefits of diversified, accessible bioenergy go beyond the immediate urgency of energy poverty as more diverse agricultural landscapes are more resilient, store more carbon, and could also reduce the drivers of the climate and environmental emergencies.https://doi.org/10.1002/ppp3.10147Bioenergybiofuelbiogasenergy povertyfeedstockrenewables