Fig. 7: Deployment of DGC and/or PDEs to distinct subcellular locations establishes deterministic programs hardwired into the cell cycle to generate or minimize phenotypic heterogeneity. | Nature Communications

Fig. 7: Deployment of DGC and/or PDEs to distinct subcellular locations establishes deterministic programs hardwired into the cell cycle to generate or minimize phenotypic heterogeneity.

From: A deterministic, c-di-GMP-dependent program ensures the generation of phenotypically similar, symmetric daughter cells during cytokinesis

Fig. 7

In M. xanthus, DmxA (blue) localizes to the membrane. During division, it localizes to and is switched on at the division site creating a c-di-GMP burst that ensures similar daughter cells. In C. crescentus, the flagellated, swarmer cell has low c-di-GMP due to the activity of the PDE PdeA at the flagellated pole (green). Upon differentiation to the surface-associated stalked cell, the c-di-GMP level increases due to the activity of the DGC PleD at the stalked pole (blue). In predivisional cells, PdeA and PleD localize to opposite poles, giving rise to a swarmer cell with low c-di-GMP and a stalked cell with high c-di-GMP upon division. In P. aeruginosa/S. putrefaciens, the flagellated, swimming cell, has low c-di-GMP due to the activity of the PDE Pch/PdeB at the flagellated pole (green). Upon surface contact, c-di-GMP increases, but the involved DGC(s) remain to be identified. High c-di-GMP stimulates T4P formation and surface adhesion. During division, the flagellated pole inherits the PDE, creating a flagellated, swimming daughter with low c-di-GMP and a surface-adhered, piliated daughter with high c-di-GMP.

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