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C. Arabidopsis, S. /. Smr, and C. Cellulaire, Stress hydrique SUMMARY In the model plant Arabidopsis thaliana, the SIAMESE-RELATED proteins (SIM/SMR1 to 13) are a plant-specific family of Cyclin-dependent Kinase Inhibitors (CKIs), homologous to the Kip-Related Proteins (KRP1 to 7) The SIM/SMRs proteins interact with CYCD/CDKA and CYCA-B/CDKB complexes during the cell cycle. SIM and SMR1 are positive regulators of the switch from mitotic cycle to endoreplication. The expression of SIM/SMRs genes is induced in response to biotic and abiotic stress, Mots

C. Arabidopsis and S. /. Smrs, One of the major abiotic stress that plants face is the drought stress Like their homologous KRPs, the SIM/SMRs could be degraded through the specific proteolysis depending on ubiquitin and proteasome (UPS) The SIM/SMRs proteins are considered as good candidates to link cell cycle activity with environmental stimuli. So, the regulation of SIM/SMRs and their role in cell cycle control during abiotic stress have been investigated This research work has shown the involvement of the UPS proteolysis in the post-translational control of all the tested members of the SIM/SMR family It also shows that SIM, SMR2 and mostly SMR1 are required in endoreplication of leaf cells. During drought stress, the expression of SIM, SMR1, SMR3 and SMR5 genes is induced. The spacio-temporal pattern of those inductions revealed two groups of genes, SIM-SMR1 and SMR3-SMR5, with distinct functions. In addition, the sim, smr5 and sim.smr1.smr2 loss-of-function mutants tested are hypersensitive to drought stress. These results were used to develop a model of the role and regulation of SIM/SMRs in the control of mitotic cell cycle and endoreplication in response to drought stress, During abiotic stress