The Microcystis-microbiome interactions: origins of the colonial lifestyle

Piccini, Claudia - Martínez de la Escalera, Gabriela - Segura, Angel - Kruk, Carla - Croci, Carolina

Resumen:

Species of the Microcystis genus are the most common bloom-forming toxic cyanobacteria worldwide. They belong to a clade of unicellular cyanobacteria whose ability to reach high biomasses during blooms is linked to the formation of colonies. Colonial lifestyle provides several advantages under stressing conditions of light intensity, ultraviolet light, toxic substances and grazing. The progression from a single-celled organism to multicellularity in Microcystis has usually been interpreted as individual phenotypic responses of the cyanobacterial cells to the environment. Here, we synthesize current knowledge about Microcystis colonial lifestyle and its role in the organism ecology. We then briefly review the available information on Microcystis microbiome and propose that changes leading from single cells to colonies are the consequence of specific and tightly regulated signals between the cyanobacterium and its microbiome through a biofilm-like mechanism. The resulting colony is a multi-specific community of interdependent microorganisms.


Detalles Bibliográficos
2024
Agencia Nacional de Investigación e Innovación
Microcystis
Microbiome
Colonies
Mucilage
EPS
Holobiont
Ciencias Naturales y Exactas
Ciencias Biológicas
Biología Celular, Microbiología
Ciencias de la Tierra y relacionadas con el Medio Ambiente
Inglés
Instituto de Investigaciones Biológicas Clemente Estable
IIBCE en REDI
https://hdl.handle.net/20.500.12381/3484
https://doi.org/10.1093/femsec/fiae035
Acceso abierto
Reconocimiento 4.0 Internacional. (CC BY)
Resumen:
Sumario:Species of the Microcystis genus are the most common bloom-forming toxic cyanobacteria worldwide. They belong to a clade of unicellular cyanobacteria whose ability to reach high biomasses during blooms is linked to the formation of colonies. Colonial lifestyle provides several advantages under stressing conditions of light intensity, ultraviolet light, toxic substances and grazing. The progression from a single-celled organism to multicellularity in Microcystis has usually been interpreted as individual phenotypic responses of the cyanobacterial cells to the environment. Here, we synthesize current knowledge about Microcystis colonial lifestyle and its role in the organism ecology. We then briefly review the available information on Microcystis microbiome and propose that changes leading from single cells to colonies are the consequence of specific and tightly regulated signals between the cyanobacterium and its microbiome through a biofilm-like mechanism. The resulting colony is a multi-specific community of interdependent microorganisms.