TY - JOUR
T1 - Potential of the Oryza officinalis to augment the cold tolerance genetic mechanisms of Oryza sativa by network complementation
AU - de los Reyes, Benildo
AU - Pabuayon, Isaiah Catalino M
AU - Ohyanaggi, Hajime
AU - Fujita, Masahiro
AU - Osti, Bipush
AU - Shenton, Matthew R
AU - Kakaei, Yusuke
AU - Nakamura, Yasukazu
AU - Brar, Darshan S
AU - Kurata, Nori
AU - de los Reyes, Benildo
PY - 2018/10
Y1 - 2018/10
N2 - Oryza officinalis is an accessible alien donor for genetic improvement of rice. Comparison across a
representative panel of Oryza species showed that the wild O. officinalis and cultivated O. sativa
ssp. japonica have similar cold tolerance potentials. The possibility that either distinct or similar
genetic mechanisms are involved in the low temperature responses of each species was addressed by
comparing their transcriptional networks. General similarities were supported by shared transcriptomic
signatures indicative of equivalent metabolic, hormonal, and defense status. However, O. officinalis
has maintained an elaborate cold-responsive brassinosteroid-regulated BES1-network that appeared
to have been fragmented in O. sativa. BES1-network is potentially important for integrating
growth-related responses with physiological adjustments and defenses through the protection of
photosynthetic machinery and maintenance of stomatal aperture, oxidative defenses, and osmotic
adjustment. Equiv
AB - Oryza officinalis is an accessible alien donor for genetic improvement of rice. Comparison across a
representative panel of Oryza species showed that the wild O. officinalis and cultivated O. sativa
ssp. japonica have similar cold tolerance potentials. The possibility that either distinct or similar
genetic mechanisms are involved in the low temperature responses of each species was addressed by
comparing their transcriptional networks. General similarities were supported by shared transcriptomic
signatures indicative of equivalent metabolic, hormonal, and defense status. However, O. officinalis
has maintained an elaborate cold-responsive brassinosteroid-regulated BES1-network that appeared
to have been fragmented in O. sativa. BES1-network is potentially important for integrating
growth-related responses with physiological adjustments and defenses through the protection of
photosynthetic machinery and maintenance of stomatal aperture, oxidative defenses, and osmotic
adjustment. Equiv
M3 - Article
SP - 14
JO - Nature Scientific Reports
JF - Nature Scientific Reports
ER -