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Abstract
Miscanthus spp. are promising lignocellulosic energy crops, but cell wall recalcitrance to deconstruction still hinders their widespread use as bioenergy and biomaterial feedstocks. Identification of cell wall characteristics desirable for biorefining applications is crucial for lignocellulosic biomass improvement. However, the task of scoring biomass quality is often complicated by the lack of a reference for a given feedstock.
A multidimensional cell wall analysis was performed to generate a reference profile for leaf and stem biomass from several miscanthus genotypes harvested at three developmentally distinct time points. A comprehensive suite of 155 monoclonal antibodies was used to monitor changes in distribution, structure and extractability of noncellulosic cell wall matrix glycans.
Glycan microarrays complemented with immunohistochemistry elucidated the nature of compositional variation, and in situ distribution of carbohydrate epitopes. Key observations demonstrated that there are crucial differences in miscanthus cell wall glycomes, which may impact biomass amenability to deconstruction.
For the first time, variations in miscanthus cell wall glycan components were comprehensively characterized across different harvests, organs and genotypes, to generate a representative reference profile for miscanthus cell wall biomass. Ultimately, this portrait of the miscanthus cell wall will help to steer breeding and genetic engineering strategies for the development of superior energy crops.
A multidimensional cell wall analysis was performed to generate a reference profile for leaf and stem biomass from several miscanthus genotypes harvested at three developmentally distinct time points. A comprehensive suite of 155 monoclonal antibodies was used to monitor changes in distribution, structure and extractability of noncellulosic cell wall matrix glycans.
Glycan microarrays complemented with immunohistochemistry elucidated the nature of compositional variation, and in situ distribution of carbohydrate epitopes. Key observations demonstrated that there are crucial differences in miscanthus cell wall glycomes, which may impact biomass amenability to deconstruction.
For the first time, variations in miscanthus cell wall glycan components were comprehensively characterized across different harvests, organs and genotypes, to generate a representative reference profile for miscanthus cell wall biomass. Ultimately, this portrait of the miscanthus cell wall will help to steer breeding and genetic engineering strategies for the development of superior energy crops.
Original language | English |
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Pages (from-to) | 1710-1725 |
Number of pages | 16 |
Journal | New Phytologist |
Volume | 213 |
Issue number | 4 |
Early online date | 15 Nov 2016 |
DOIs | |
Publication status | Published - 06 Feb 2017 |
Keywords
- BIOENERGY
- BIOMASS
- CARBOHYDRATE
- Cell Wall
- GLYCAN
- Lignocellulose
- Miscanthus
- recalcitrance
- biomass
- bioenergy
- carbohydrate
- glycan
- miscanthus
- cell wall
- lignocellulose
- Crops, Agricultural/growth & development
- Plant Leaves/metabolism
- Glycomics
- Poaceae/growth & development
- Biomass
- Epitopes/metabolism
- Acetylation
- Principal Component Analysis
- Monosaccharides/metabolism
- Plant Development
- Biofuels
- Plant Stems/metabolism
- Polysaccharides/metabolism
- Organogenesis
- Cell Wall/metabolism
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Maurice Bosch
Person: Teaching And Research
Projects
- 1 Finished
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Matching cell-wall composition with conversion processes
Donnison, I. (PI), Allison, G. (PI) & Bosch, M. (PI)
01 Apr 2012 → 31 Mar 2017
Project: Externally funded research