Relationship between jasmonates and ethylene in regulation of some physiological processes in plants under stress conditions

• Autorzy: Saniewski M. , Ueda J. , Miyamoto K. , Urbanek H.

Warianty tytułu

PL

Zależności między jasmonianami a etylenem w regulacji niektórych procesów fizjologicznych u roślin w warunkach stresowych

• Języki publikacji: EN

Abstrakty

EN

A relationship between jasmonates and ethylene in regulation of some physiological processes in plants under stress conditions is presented. Jasmonates are naturally occurring plant hormones showing various important biological activities in the regulation of plant growth development and in defense responses against a wide variety of abiotic and biotic agents. Jasmonates have been reported to control ethylene biosynthesis in intact plants and their organs. Mechanical wounding and other abiotic (osmotic stress, water deficit, dessication stress, heavy metals, touch, ozone) and biotic stresses (pathogen infection and insect invasion) are well known to be common factors inducing ethylene and jasmonates biosynthesis, and reactive oxygen species generation (ROS). Jasmonates have been well known to interact with ethylene in regulation of different processes; various kinds of interactions were documented: 1) synergistic interaction (i.e gene expression of proteinase inhibitors, osmotin, defensin), 2) ethylene suppresses processes induced by jasmonates (i.e. biosynthesis of nicotine, vegetative storage proteins and lectins), 3) jasmonates suppress processes induced by ethylene (i.e. ethylene-induced apical hook). Jasmonic acid carboxyl methyltransfe- rase (JMT) is a key enzyme for jasmonate-regulated plant responses. Activation of JMT expression leads to production of methyl jasmonate (JA-Me). JA-Me can act as an intracellular regulator, a diffusible intercellular signal transducer, or an airborne signal mediating intra- and interplant communications. Jasmonates represent an integral part of the signal transduction chain between stress signals) and stress responses(s), in most cases of the induction of gene expression and the accumulation of defense specific proteins and secondary metabolites.

PL

Zależności między jasmonianami i etylenem w regulacji niektórych procesów fizjologicznych u roślin w warunkach stresowych są przedmiotem tego przeglądu. Jasmoniany są naturalną grupą hormonów roślinnych i wykazują wiele ważnych funkcji fizjologicznych w regulacji wzrostu i rozwoju roślin i w reakcjach obronnych przeciwko różnym czynnikom abiotycznym i biotycznym. Wykazano, że jasmoniany odgrywają ważną rolę w regulacji biosyntezy etylenu w roślinach nienaruszonych i ich organach. Mechaniczne uszkodzenie i inne czynniki abiotyczne (stres osmotyczny, deficyt wodny, stres desykacyjny, metale ciężkie, dotyk, ozon) i czynniki biotyczne (infekcja przez patogeny i żerowanie owadów) powodują wzmożoną biosyntezę etylenu i jasmonianów oraz generowanie reaktywnych form tlenu (ROS). Jasmoniany współdziałają z etylenem w regulacji różnych procesów, a interakcje te mają różny charakter: 1) synergistyczne współdziałanie (np. ekspresja genów inhibitorów proteinaz, osmotyny, defenzyny), 2) etylen hamuje procesy indukowane przez jasmoniany (np. biosynteza nikotyny, wegetatywnych białek zapasowych, lektyn), 3) jasmoniany hamują procesy indukowane przez etylen (np. wygięcia części wierzchołkowych powodowane przez etylen). Metylotransferaza karboksylową kwasu jasmonowego (JMT) jest kluczowym enzymem w procesach regulowanych przez jasmoniany w roślinach. Aktywacja ekspresji JMT doprowadza do powstawania jasmonianu metylu (JA-Me) z kwasu jasmonowego. JA-Me może działać jako regulator w obrębie komórki i jako międzykomórkowy sygnał transdukcyjny, a jako lotna substancja stanowi przekaźnik informacji między roślinami. Sugeruje się, że endogenne jasmoniany stanowią przekaźnik informacji między sygnałem stresowym a reakcją stresową, polegającą głównie na indukcji ekspresji genowej i biosyntezie specyficznych białek i metabolitów wtórnych.

Słowa kluczowe

EN

jasmonate; ethylene; relationship; regulation; physiological process; plant species; reactive oxygen species; stress condition; biotic factor; abiotic factor; stress signal

• Wydawca: -
• Czasopismo: Zeszyty Problemowe Postępów Nauk Rolniczych
• Rocznik: 2002
• Tom: 481
• Numer: 1
• Opis fizyczny: p.99-112,fig.,ref.

Twórcy

autor

Saniewski M.

• Research Institute of Pomology and Floriculture, Pomologiczna 18, 96-100 Skierniewice, Poland

autor

Ueda J.

• College of Integrated Arts and Sciences, Osaka Prefecture University, Sakai, Osaka, Japan

autor

Miyamoto K.

• College of Integrated Arts and Sciences, Osaka Prefecture University, Sakai, Osaka, Japan

autor

Urbanek H.

• Department of Plant Physiology and Biochemistry, University of Lodz, Lodz, Poland

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