Cross Index Pseudoanabaena
SuperSet Prokaryote, Eubacteria Oxygenic Phototrophic Bacteria
Compare Cyanobacteria

Prochlorales Procloron didemni, Prochlorothrix hollandica

Contrast Anoxygenic Phototrophic Bacteria
Archaea
Subset  

 

Morphology Pseudoanabaena
CELLULAR  
Staining  
Morphology  
Motility  
Specialized structures  
Division  
COLONIAL  
Solid surface Culture isolation can usually be done by using gliding self-isolation (see Castenholz 1981; Rippka et al. 1981a).
Liquid The colour of Pseudanabaena may be blue- green to red, depending of the presence or absence of C-PE.

 

Growth Parameters Pseudoanabaena
PHYSIOLOGICAL  
Tropism obligate photoautotrophs
Oxygen  
pH  
Temperature  
Requirements  
Products  
Enzymes Some are capable of synthesizing nitrogenase when cultures are kept anaerobic (Rippka et al. 1979).
Unique features Electrophoretic patterns of phycobilin and the ultrastructure of phycobilisomes have shown a uniformity for culture strains comprising "phenon" A, which further supports the redefinition of the genus Pseudanabaena by Guglielmi and Cohen-Bazire (1984b).

 

ENVIRONMENTAL  
Habitat worldwide. It is seen in collections from hot springs (probably not above 55`C) and in marine and freshwater muds. It is particularly common in anaerobic, sulfide-containing sediments. Some forms are known in freshwater plankton and include those in the mucilage of other planktonic cyanobacteria.
Lifestyle  
Pathogenicity  
Distribution  

 

Genome Pseudoanabaena
G+C Mol % 42 to 47
  (Herdman etal. 1979a; Guglielmi and Cohen-Bazire 1984a), the genome size is from 2.14 to 5.19 x 109 daltons.

 

Reference Pseudoanabaena
First citation Lauterborn, R.1916. Die sapropelische Lebewelt. Ein Beitrag zur Biologie des Faulschlammes naturlicher Gewasser. Verh. Naturkundl. Med. Ver. Heidelb. 13:395-481
The Prokaryotes  
Bergey's Systematatic p 1778 R.W. Castenholz
Bergey's Determinative p 397
References