The metabolism of Archaea, the third domain of life, resembles in its complexity those of
Bacteria and lower Eukarya. However, this metabolic complexity in Archaea is accompanied …

The tree of life is split into three main branches: eukaryotes, bacteria, and archaea. Our
knowledge of eukaryotic and bacteria cell biology has been built on a foundation of studies …

The scope and variety of the metabolic intermediates from the mitochondrial tricarboxylic
acid (TCA) cycle that are engaged in epigenetic regulation of the chromatin function in the …

For decades, archaea were misclassified as bacteria because of their prokaryotic
morphology. Molecular phylogeny eventually revealed that archaea, like bacteria and …

Sugar-utilizing hyperthermophilic and halophilic Archaea degrade glucose and glucose
polymers to acetate or to CO2 using O2, nitrate, sulfur or sulfate as electron acceptors …

We assess the use to which bioinformatics in the form of bacterial genome sequences,
functional gene probes and the protein sequence databases can be applied to hypotheses …

Haloarchaea are adapted to high-salt environments and accumulate equally high salt
concentrations in the cytoplasm. The genomes of representatives of six haloarchaeal genera …

Cyclic nitramine explosives are synthesized globally mainly as military munitions, and their
use has resulted in environmental contamination. Several biodegradation pathways have …

The ability to survive and proliferate at 37° C is an essential virulence attribute of pathogenic
microorganisms. A partial-genome microarray was used to profile gene expression in the …

The basal transcription apparatus of archaea is well characterized. However, much less is
known about the mechanisms of transcription termination and translation initation. Recently …