Most popular articles
Everything About Peaches. Clemson University Cooperative Extension Service Everything About Peaches Website: whether you are a professional or backyard peach...
Mission Statement. For the sake of mankind and the world as a whole a further increase of the sustainability...
Newsletter 9: July 2013 - Temperate Fruits in the Tropics and Subtropics. Download your copy of the Working Group Temperate...
USA Walnut varieties. The Walnut Germplasm Collection of the University of California, Davis (USA). A description of the Collection and a History...
China Walnut varieties.

Articles

USING SYSTEMS BIOLOGY TO SOLVE THE RIDDLE OF RECALCITRANT TROPICAL PLANTS

Article number
1039_27
Pages
211 – 218
Language
English
Abstract
Systems biology is an interdisciplinary approach that focuses on complex biological systems.
It is aimed at explaining and understanding the properties and behavior of the biological systems especially the dynamics aspect of network behavior.
This requires the integration of experimental and computational research.
The systems biology approach has the ability to obtain, integrate and analyze complex data from multiple experimental sources using interdisciplinary tools, such as ‘omics’ technology and computational biology platforms.
This approach has been used to study the biosynthetic pathways of secondary metabolites in plants and microbes, which will facilitate the fundamental components in secondary metabolite production.
Hence various manipulations could be carried out to increase the production of metabolites of interest.
A similar approach could be used to study recalcitrance in plants.
Recalcitrant tropical plants are known to be difficult to manipulate in culture (recalcitrant in culture or to micropropagation) and are a problem to conserve, as they are sensitive to desiccation and low temperature.
Attempts to cryopreserve these species have met with unsuccessful results.
The knowledge on fundamental aspects of these recalcitrant characteristics is limited; hence, the development of cryopreservation protocols is hindered and the reasons for failures remain unknown or only partially understood.
Systems biology may provide a fundamental approach to improve the current understanding of recalcitrant species.
Future efforts should focus on the generation of new data (genomics, proteomics, transcriptomics, and metabolomics) on different conditions, and then the focus should be on data integration to investigate and evaluate the metabolic and regulatory conditions (or models) of recalcitrance.
Integration of this data will lead to the discovery of potential factors that are useful in solving the recalcitrant seed storage problems.
Research using this approach has started in various groups but an international consortium is needed to put this enormous amount of data together at a faster rate.

Publication
Authors
M.N. Normah
Keywords
desiccation sensitive, low temperature sensitive, genomics, proteomics, metabolomics
Full text
Online Articles (39)
G.M. Volk | A.D. Henk | R.M. Bonnart | A. Shepherd | B.L. Gross
Haeng-Hoon Kim | Hyunjung Kong | Hyung-Jin Baek | Dong-Jin Shin | Ho-Nam Kang | E.V. Popova
H. Häggman | S. Sutela | J. Edesi | J. Krajňáková | A. Bertolini | A. Vianello | L. Ryynänen | T. Aronen
M.M. Jenderek | B. Ambruzs | J. Tanner | G. Holman | C. Ledbetter | J. Postman | D. Ellis | C. Leslie
I. Kovalchuk | T. Turdiev | Z. Mukhitdinova | S. Frolov | B.M. Reed | G. Kairova
C.H. Feng | B.Q. Li | L.Y. Hu | M.R. Wang | Q.C. Wang
A.C. Souza | R. Paiva | L.C. Silva | C.M. Gallo | P.A.A. Santos | M.C.C. Pinto | P.D.O. Paiva
Z.B. Zhang | S. Haugslien | J.L. Clark | C. Spetz | D.-R. Blystad | Q.C. Wang | Y. Lee | A. Sivertsen | G. Skjeseth
F. da Conceição Moreira | P.D.O. Paiva | L.C. Silva | R. Paiva | F.C. Nery
E.R.J. Keller | A. Senula | M. Grübe | K. Diekmann | K.J. Dehmer
C. Cueto | R.L. Rivera | H.H. Kim | H.J. Kong | H.J. Baek | L. Sebastian | H.J. Park
H. Lata | S. Chandra | Y.H. Wang | M.A. ElSohly | I.A. Khan
Jinmei Zhang | Xia Xin | Guangkun Yin | Xinxiong Lu | Xiaoling Chen