Molecular genetics has confirmed older research and generated new insights into the ways how plants deal with adverse conditions. This body of research is now being used to interpret stress behavior of plants in new ways, and to add results from most recent genomics-based studies. The new knowledge now includes genome sequences of species that show extreme abiotic stress tolerances, which enables new strategies for applications through either molecular breeding or transgenic engineering. We will highlight some physiological features of the extremophile lifestyle, outline emerging features about halophytism based on genomics, and discuss conclusions about underlying mechanisms.
Biotechnology for mechanisms that counteract salt stress in extremophile species: a genome-based view / Bressan R.A.; Park H.C.; Orsini F.; Oh D.H.; Dassanayake M.; Inan G.; Yun D.J.; Bohnert H.J.; Maggio A.. - In: PLANT BIOTECHNOLOGY REPORTS. - ISSN 1863-5466. - STAMPA. - 7:(2013), pp. 11816-012-0249-9.27-11816-012-0249-9.37. [10.1007/s11816-012-0249-9]
Biotechnology for mechanisms that counteract salt stress in extremophile species: a genome-based view.
ORSINI, FRANCESCO;
2013
Abstract
Molecular genetics has confirmed older research and generated new insights into the ways how plants deal with adverse conditions. This body of research is now being used to interpret stress behavior of plants in new ways, and to add results from most recent genomics-based studies. The new knowledge now includes genome sequences of species that show extreme abiotic stress tolerances, which enables new strategies for applications through either molecular breeding or transgenic engineering. We will highlight some physiological features of the extremophile lifestyle, outline emerging features about halophytism based on genomics, and discuss conclusions about underlying mechanisms.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.
