Genome Research · 2004 · 215 citations · 46 references
Life SciencesEvolutionary BiologyMolecular BiologyComparative GenomicsGenome EvolutionMolecular EvolutionComparative ParasitologyParasite BiodiversityParasite EvolutionParasitic Disease PathogenesisParasitic PathogenesisProtozoan Host-parasite InteractionsAnimal ProteinsCell Surface ProteinsLineage-specific Gene DuplicationsLineage-specific Gene ExpressionLineage-specific Gene LossLineage-specific GenesMicrobial EukaryotesSpliceosomal Protein Components
The apicomplexans Plasmodium and Cryptosporidium have developed distinctive adaptations via lineage-specific gene loss and gene innovation in the process of diverging from a common parasitic ancestor. The two lineages have acquired distinct but overlapping sets of surface protein adhesion domains typical of animal proteins, but in no case do they share multidomain architectures identical to animals. Cryptosporidium, but not Plasmodium, possesses an animal-type O-linked glycosylation pathway, along with >30 predicted surface proteins having mucin-like segments. The two parasites have notable qualitative differences in conserved protein architectures associated with chromatin dynamics and transcription. Cryptosporidium shows considerable reduction in the number of introns and a concomitant loss of spliceosomal machinery components. We also describe additional molecular characteristics distinguishing Apicomplexa from other eukaryotes for which complete genome sequences are available.
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Initial sequencing and analysis of the human genome
Eric S. Lander, Lauren Linton, Bruce W. Birren et al. · Nature · 2001 · 24.6K citations · Full text
PHYLIP-Phylogeny inference package (Version 3.2)
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The Pfam Protein Families Database
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