Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops
Lignin and cellulose represent the two main components of plant secondary walls and the most abundant polymers on Earth. Quantitatively one of the principal products of the phenylpropanoid pathway, lignin confers high mechanical strength and hydrophobicity to plant walls, thus enabling erect growth...
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doaj-c1dc9724dc5740de8b1d48cb358dd0cc2020-11-25T00:24:55ZengMDPI AGInternational Journal of Molecular Sciences1422-00672013-05-01146109581097810.3390/ijms140610958Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre CropsGea GuerrieroKjell SergeantJean-François HausmanLignin and cellulose represent the two main components of plant secondary walls and the most abundant polymers on Earth. Quantitatively one of the principal products of the phenylpropanoid pathway, lignin confers high mechanical strength and hydrophobicity to plant walls, thus enabling erect growth and high-pressure water transport in the vessels. Lignin is characterized by a high natural heterogeneity in its composition and abundance in plant secondary cell walls, even in the different tissues of the same plant. A typical example is the stem of fibre crops, which shows a lignified core enveloped by a cellulosic, lignin-poor cortex. Despite the great value of fibre crops for humanity, however, still little is known on the mechanisms controlling their cell wall biogenesis, and particularly, what regulates their spatially-defined lignification pattern. Given the chemical complexity and the heterogeneous composition of fibre crops’ secondary walls, only the use of multidisciplinary approaches can convey an integrated picture and provide exhaustive information covering different levels of biological complexity. The present review highlights the importance of combining high throughput -omics approaches to get a complete understanding of the factors regulating the lignification heterogeneity typical of fibre crops.http://www.mdpi.com/1422-0067/14/6/10958systems biology-omicsfibre cropsligninbast fibressecondary cell wall |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Gea Guerriero Kjell Sergeant Jean-François Hausman |
spellingShingle |
Gea Guerriero Kjell Sergeant Jean-François Hausman Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops International Journal of Molecular Sciences systems biology -omics fibre crops lignin bast fibres secondary cell wall |
author_facet |
Gea Guerriero Kjell Sergeant Jean-François Hausman |
author_sort |
Gea Guerriero |
title |
Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops |
title_short |
Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops |
title_full |
Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops |
title_fullStr |
Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops |
title_full_unstemmed |
Integrated -Omics: A Powerful Approach to Understanding the Heterogeneous Lignification of Fibre Crops |
title_sort |
integrated -omics: a powerful approach to understanding the heterogeneous lignification of fibre crops |
publisher |
MDPI AG |
series |
International Journal of Molecular Sciences |
issn |
1422-0067 |
publishDate |
2013-05-01 |
description |
Lignin and cellulose represent the two main components of plant secondary walls and the most abundant polymers on Earth. Quantitatively one of the principal products of the phenylpropanoid pathway, lignin confers high mechanical strength and hydrophobicity to plant walls, thus enabling erect growth and high-pressure water transport in the vessels. Lignin is characterized by a high natural heterogeneity in its composition and abundance in plant secondary cell walls, even in the different tissues of the same plant. A typical example is the stem of fibre crops, which shows a lignified core enveloped by a cellulosic, lignin-poor cortex. Despite the great value of fibre crops for humanity, however, still little is known on the mechanisms controlling their cell wall biogenesis, and particularly, what regulates their spatially-defined lignification pattern. Given the chemical complexity and the heterogeneous composition of fibre crops’ secondary walls, only the use of multidisciplinary approaches can convey an integrated picture and provide exhaustive information covering different levels of biological complexity. The present review highlights the importance of combining high throughput -omics approaches to get a complete understanding of the factors regulating the lignification heterogeneity typical of fibre crops. |
topic |
systems biology -omics fibre crops lignin bast fibres secondary cell wall |
url |
http://www.mdpi.com/1422-0067/14/6/10958 |
work_keys_str_mv |
AT geaguerriero integratedomicsapowerfulapproachtounderstandingtheheterogeneouslignificationoffibrecrops AT kjellsergeant integratedomicsapowerfulapproachtounderstandingtheheterogeneouslignificationoffibrecrops AT jeanfrancoishausman integratedomicsapowerfulapproachtounderstandingtheheterogeneouslignificationoffibrecrops |
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