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, CAN (open fuchsia triangle) and OCP2 CAN (closed fuchsia triangle). (b) Photoactivation kinetics of Scytonema OCPX CAN (blue circles) and OCPX ECN (black triangles) (c) Dark recovery kinetics of OCP1Tolypothrix-CAN in absence(closed square) or presence of Synechocystis FRP (open square). The figures (a-c) show representative experiments

|. Ocp2 and . Synechocystis, PCC 7509: photoactivation and recovery. (a) Photoactivation kinetics of OCP2 CAN (blue square) and OCPX CAN (black triangle) from Synechocystis sp. PCC 7509 at 8°C under 5000 µE of white light illumination. (b) Back-conversion kinetics of Synechocystis sp. PCC 7509 OCP2 CAN (blue square) and OCPX CAN in the absence (black triangle) and in presence of FRP

Y. Wen, OCP-E174K (g), OCP-?174-179 (h), and dark spectra of OCP-e174K-R185E (black curve), holo-OCP O contribution (dotted orange curve) and holo-OCP R contribution (dotted red curve) obtained from spectral decomposition (dotted blue curve) (i). The figures (a-i) show representative experiments, which were repeated 3 times with similar results, Supplementary Figure 7 | Absorbance spectra of OCP1 linker mutants. Dark (black) and photoactivated (red) spectrum of WT OCP and OCP R185A (dashed lines) (a), OCP-P175A-P179A (b), vol.1, pp.1-11, 2019.

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. Ni-holo-anactdh-ni-holo-tectdh-ne-peuvent-transférer-le-caroténoïde-À-l'apo-ntd-isolé and . Cependant, AnaCTDH est en mesure de transférer partiellement le caroténoïde à l'OCP. Ce résultat inattendu suggère fortement que le transfert de caroténoïde s'effectue de CTDH au domaine CTD de l'OCP. En accord avec cela, CTDH peut transférer le caroténoïde en CTD isolé. En outre, AnaCTDH peut extraire le caroténoïde de l'OCP R , dans lequel le caroténoïde se trouve dans le NTD. Ce résultat a montré qu'il existe également un transfert «inverse» de caroténoïde des NTD vers les CTDH. En accord avec cela

, Il a été suggéré que ce transfert «inverse» de caroténoïde pourrait jouer le rôle de FRP en désactivant l'OCP R dans les souches dépourvues de FRP (ces souches contiennent généralement de l'OCPX). L'interaction entre apo-CTDH et OCP R entraînerait un transfert de caroténoïde vers CTDH et la formation d'apo-OCP, qui est inactif. Ensuite, l'holo-OCP pourrait être régénéré dans l'obscurité par transfert de caroténoïde du même CTDH vers l'apo-OCP. Il est important de noter qu'il s'agit simplement d'une observation in vitro et que de nouvelles expériences in vivo seront nécessaires pour prouver cette hypothèse

. Enfin, AnaCTDH peut récupérer le caroténoïde de l'énigmatique holo-HCP1. Malgré le fait que cette protéine est exprimée in vivo, son rôle n'est pas clair car HCP1 ne peut pas quencher ni le 1 O2 ni la fluorescence du PBS. Bien que nos résultats suggèrent que HCP1