Until recently little was known about the cell cycle parameters and division mechanisms of archaeal organisms. Although this is still the case for the majority of archaea, significant advances have been made in some model species. The information that has been gleaned thus far points to a remarkable degree of diversity within the archaeal domain of life. More specifically, members of distinct phyla have very different chromosome copy numbers, replication control systems and even employ distinct machineries for cell division
ABSTRACT Precise control of the cell cycle is central to the physiology of all cells. In prior work ...
Copyright © 2014 Felipe Sarmiento et al. This is an open access article distributed under the Creati...
Variation in recombination rates across chromosomes has been shown to be a primary force shaping the...
Archaea is the third domain of life, discovered only thirty years ago. In a microscope archaea appea...
The temporal and spatial organization of the chromosome replication, genome segregation and cell div...
In my thesis, the cell cycle analysis of archaea and hyperthermophilic organisms is presented for th...
The Archaea constitute the third domain of life, a separate evolutionary lineage together with the B...
Genome segregation is a fundamental biological process in organisms from all domains of life. How th...
A dedicated cell division machinery is needed for efficient proliferation of an organism. The eukary...
Archaea is one of the three domains of life and studies of archaeal biology are important for unders...
In contrast to the cell division machineries of bacteria, euryarchaea, and eukaryotes, no division c...
DNA replication is arguably the most fundamental biological process. On account of their shared evol...
Studies of the DNA-replication machinery of Archaea have revealed striking similarities to that of e...
All living organisms share the need to replicate and proliferate to ensure the survival of their spe...
Healthy cell growth and division are critical for individual organism survival and species long-term...
ABSTRACT Precise control of the cell cycle is central to the physiology of all cells. In prior work ...
Copyright © 2014 Felipe Sarmiento et al. This is an open access article distributed under the Creati...
Variation in recombination rates across chromosomes has been shown to be a primary force shaping the...
Archaea is the third domain of life, discovered only thirty years ago. In a microscope archaea appea...
The temporal and spatial organization of the chromosome replication, genome segregation and cell div...
In my thesis, the cell cycle analysis of archaea and hyperthermophilic organisms is presented for th...
The Archaea constitute the third domain of life, a separate evolutionary lineage together with the B...
Genome segregation is a fundamental biological process in organisms from all domains of life. How th...
A dedicated cell division machinery is needed for efficient proliferation of an organism. The eukary...
Archaea is one of the three domains of life and studies of archaeal biology are important for unders...
In contrast to the cell division machineries of bacteria, euryarchaea, and eukaryotes, no division c...
DNA replication is arguably the most fundamental biological process. On account of their shared evol...
Studies of the DNA-replication machinery of Archaea have revealed striking similarities to that of e...
All living organisms share the need to replicate and proliferate to ensure the survival of their spe...
Healthy cell growth and division are critical for individual organism survival and species long-term...
ABSTRACT Precise control of the cell cycle is central to the physiology of all cells. In prior work ...
Copyright © 2014 Felipe Sarmiento et al. This is an open access article distributed under the Creati...
Variation in recombination rates across chromosomes has been shown to be a primary force shaping the...