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

STILBENE SYNTHASE GENE TRANSFER RESULTED IN DOWN REGULATION OF ENDOGENOUS CHALCONE SYNTHASE IN STRAWBERRY (FRAGARIA × ANANASSA) AND LED TO THE IDENTIFICATION OF NOVEL PHENYLPROPANOID GLUCOSIDES

Article number
839_92
Pages
673 – 680
Language
English
Abstract
Modification of plants by introducing the stilbene synthase (STS) gene has often resulted in novel production of the phytoalexin resveratrol, and provided enhanced resistance against several pathogenic fungi.
In the present study, a grapevine STS expressing strawberry (Fragaria × ananassa) was investigated for the effect of the transgene on plant metabolism by techniques including quantitative real-time PCR, UPLC-qTOF-MS profiling and NMR analysis.
The introduced STS gene caused down-regulation of the strawberry endogenous chalcone synthase (CHS) gene expression.
The perturbation of the gene expression was reflected at the metabolite content, as the CHS enzyme downstream products, mainly flavonols, were found at reduced levels concomitantly with the accumulation of the precursor molecules like phenolic acid derivatives.
In addition, several previously unidentified metabolites were accumulating in the leaves of the transgenic strawberry plants.
A detailed metabolite analysis was pertinent for the detection of unintended consequences of the gene transfer, and eventually provided deeper insight in the phenolic compound metabolism of strawberry.

Publication
Authors
K. Hanhineva, M.J. Anttonen, H. Kokko, P. Soininen, R. Laatikainen, S. Kärenlampi, I. Rogachev, A. Aharoni
Keywords
Fragaria × ananassa, strawberries, genetic engineering, resveratrol, metabolic profiling, phenolic compounds
Full text
Online Articles (99)
A.M. Ciccotti | C. Bisognin | I. Battocletti | A. Salvadori | M. Herdemertens | M. Wallbraun | W. Jarausch
H.Y. Yuan | Y.X. Wu | K. Liao | W.J. Geng | J. Li | Z. Xu | T. Wang
S.Z. El-Agamy | T.K. El-Mahdy | A.A. Mohamed
S.Z. El-Agamy | T.K. El-Mahdy | D.SH. El-Kasas
S.Z. El-Agamy | H.A.A. Galil | M.A.M. Elsysy
V. Lukoševičiūtė | R. Rugienius | A. Sasnauskas | V. Stanys | C. Bobinas
Y. Ozden Tokatli | E.A. Ozudogru | H. Akdemir | F. Gumusel | A. De Carlo
F. Paprstein | J. Sedlak | L. Talacko | L. Svobodova | P. Zeman | J. Polak | M. Hassan
B. Křižan | E. Ondrušiková
H.M. Díaz-Mula | D. Valero | P.J. Zapata | F. Guillén | S. Castillo | D. Martínez-Romero | M. Serrano
R. Karjalainen | M. Anttonen | N. Saviranta | D. Stewart | G.J. McDougall | H. Hilz | P. Mattila | R. Törrönen
H. Wang | M.D. Nortes | M. Faize | L. Faize | S. López-Noguera | C. García-Almodovar | I.M.G. Padilla | N. Alburquerque | C. Petri | L. Burgos | O. Pérez-Tornero
H. Wang | M.D. Nortes | L. Burgos | N. Alburquerque | J.M. López
R. Torreblanca | E. Palomo-Ríos | S. Cerezo | J.A. Mercado | F. Pliego-Alfaro
C. Hättasch | H. Flachowsky | M.-V. Hanke | I. Szankowski | P. Wolff | S. Waidmann
S.G. Joshi | J.M. Soriano | A. Kortstee | J.G. Schaart | F.A. Krens | E. Jacobsen | H.J. Schouten
J.L. Norelli | D.A. Lalli | C.L. Bassett | M.E. Wisniewski | S.E. Gardiner | J.M. Celton | D.R. Bowatte | C.M. Carlisle | M. Malnoy | H.S. Aldwinckle | R.E. Farrell, Jr. | A.M. Baldo | M.B. Horner | V.G.M. Bus
A.C. Allan | W.A. Laing | R.V. Espley | M. Montefiori | C. Dwamena | R. Henry | K. Lin-Wang | A.P. Dare | R.P. Hellens
L. Blank | A. Dietrich | K. Eimert | T. Geier | T. Wolf | M.-B. Schröder
J.M. Soriano | S. Joshi | R. Groenwold | Y. Noordijk | B. Henken | M. van Kaauwen | H.J. Schouten
G.A.L. Broggini | P. Galli | G. Parravicini | C. Gessler | L. Gianfranceschi | A. Patocchi
R. Paris | L. Dondini | S. Tartarini | S. Sansavini | D. Bastia | V. Mantovani | V. Gualdi | P. Piffanelli
Y. Zhu | Y. Wang | J. Kong | J. Wang | X. Zhang | H. Han
I. Király | M. Tóth | A. Pedryc | J. Halász | T. Deák
Y. Ma | H. Sun | G. Zhao | H. Dai | X. Gao | H. Li | Z. Zhang
P. Pilařová | B. Krška | G. Marandel | V. Decroocq | J. Salava | A.G. Abbott
S. Jimenéz | Z. Li | G.L. Reighard | D.G. Bielenberg | A.L. Lawton-Rauh | A.G. Abbott
A. Khadem Nematollahi | K. Vahdati | B. Golein | A. Nabipour | M. Danesh
B. Establés-Ortiz | M.T. Lafuente | L. González-Candelas | J. Forment | J. Gadea
L.G. Fraser | G.K. Tsang | P.M. Datson | E. Hilario | H. Nihal De Silva | M.M. McNeilage
A. Ebadi | R. Nikkhah | R. Naghavi | M. Cresti | M. Scali | R. Vignani | J. Bigliazzi
A. Hernández Jiménez | J.M. López-Roca | E. Gómez Plaza | R. Gil-Muñoz | A. Martinez Cutillas
I. Szankowski | S. Waidmann | A. El-Din Saad Omar | H. Flachowsky | C. Hättasch | M.-V. Hanke
E. Vergne | S. Sourice | F. Dupuis | K. Loridon | T. Dugé de Bernonville | M.N. Brisset | E. Chevreau
A. Zok | R. Oláh | B.P. Kós | E. Hideg | V.G. Horváth | GY. Váradi | E. Szegedi | B. Báló
A. Wang | L. Tian | T.-S. Huang | D.C.W. Brown | A.M. Svircev | L.W. Stobbs | B. Miki | H. Sanfaçon
M. Wisniewski | C. Bassett | D. Macarisin | J. Norelli | T. Artlip | S. Korban
L.H. Zhu | X.Y. Li | L. Kāle | M. Welander