Projects per year
Abstract
Plant production systems globally must be optimized to produce stable high yields from limited land under changing and variable climates. Demands for food, animal feed, and feedstocks for bioenergy and biorefining applications, are increasing with population growth, urbanization and affluence. Low-input, sustainable, alternatives to petrochemical-derived fertilizers and pesticides
are required to reduce input costs and maintain or increase yields, with potential biological solutions having an important role to play. In contrast to crops that have been bred for food, many bioenergy crops are largely undomesticated, and so there is an opportunity to harness beneficial plant–microbe relationships which may have been inadvertently lost through intensive crop breeding. Plant–microbe interactions span a wide range of relationships in which one or both of the organisms may have a beneficial, neutral or negative effect on the other partner.
A relatively small number of beneficial plant–microbe interactions are well understood and already exploited; however, others remain understudied and represent an untapped reservoir for optimizing plant production. There may be near-term applications for bacterial strains as microbial biopesticides and biofertilizers to increase biomass yield from energy crops grown on land unsuitable for food production. Longer term aims involve the design of synthetic genetic circuits within and between the host and microbes to optimize plant production. A highly exciting prospect is that endosymbionts comprise a unique resource of reduced complexity microbial genomes with adaptive traits of great interest for a wide variety of applications.
are required to reduce input costs and maintain or increase yields, with potential biological solutions having an important role to play. In contrast to crops that have been bred for food, many bioenergy crops are largely undomesticated, and so there is an opportunity to harness beneficial plant–microbe relationships which may have been inadvertently lost through intensive crop breeding. Plant–microbe interactions span a wide range of relationships in which one or both of the organisms may have a beneficial, neutral or negative effect on the other partner.
A relatively small number of beneficial plant–microbe interactions are well understood and already exploited; however, others remain understudied and represent an untapped reservoir for optimizing plant production. There may be near-term applications for bacterial strains as microbial biopesticides and biofertilizers to increase biomass yield from energy crops grown on land unsuitable for food production. Longer term aims involve the design of synthetic genetic circuits within and between the host and microbes to optimize plant production. A highly exciting prospect is that endosymbionts comprise a unique resource of reduced complexity microbial genomes with adaptive traits of great interest for a wide variety of applications.
Original language | English |
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Pages (from-to) | 1193-1206 |
Number of pages | 14 |
Journal | Plant Biotechnology Journal |
Volume | 12 |
Issue number | 9 |
Early online date | 28 Nov 2014 |
DOIs | |
Publication status | Published - Dec 2014 |
Keywords
- bacterial endophyte
- sustainable agriculture
- biofertilization
- symbiosis
- plant–microbe signalling
- LEANOME
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Projects
- 3 Finished
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Optimising and sustaining biomass yield
Donnison, I., Farrar, K. & Slavov, G.
01 Apr 2012 → 31 Mar 2017
Project: Externally funded research
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Identification and characterisation of bacterial endophytes in Miscanthus
Cope-Selby, N.
01 Oct 2009 → 30 Sept 2014
Project: Externally funded research
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BBSRC Fellowship Kerrie Farrar: Understanding and exploiting the diversity of form in Miscanthus
Biotechnology and Biological Sciences Research Council
18 Jun 2007 → 30 Apr 2013
Project: Externally funded research