Modules, multidomain proteins and organismic complexity

Originally the term ‘protein module’ was coined to distinguish mobile domains that frequently occur as building blocks of diverse multidomain proteins from ‘static’ domains that usually exist only as stand‐alone units of single‐domain proteins. Despite the widespread use of the term ‘mobile domain’,...

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Veröffentlicht in:The FEBS journal 2005-10, Vol.272 (19), p.5064-5078
Hauptverfasser: Tordai, Hedvig, Nagy, Alinda, Farkas, Krisztina, Bányai, László, Patthy, László
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container_end_page 5078
container_issue 19
container_start_page 5064
container_title The FEBS journal
container_volume 272
creator Tordai, Hedvig
Nagy, Alinda
Farkas, Krisztina
Bányai, László
Patthy, László
description Originally the term ‘protein module’ was coined to distinguish mobile domains that frequently occur as building blocks of diverse multidomain proteins from ‘static’ domains that usually exist only as stand‐alone units of single‐domain proteins. Despite the widespread use of the term ‘mobile domain’, the distinction between static and mobile domains is rather vague as it is not easy to quantify the mobility of domains. In the present work we show that the most appropriate measure of the mobility of domains is the number of types of local environments in which a given domain is present. Ranking of domains with respect to this parameter in different evolutionary lineages highlighted marked differences in the propensity of domains to form multidomain proteins. Our analyses have also shown that there is a correlation between domain size and domain mobility: smaller domains are more likely to be used in the construction of multidomain proteins, whereas larger domains are more likely to be static, stand‐alone domains. It is also shown that shuffling of a limited set of modules was facilitated by intronic recombination in the metazoan lineage and this has contributed significantly to the emergence of novel complex multidomain proteins, novel functions and increased organismic complexity of metazoa.
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subjects Animals
Computational Biology
Correlation analysis
Definitions
domain
Evolution, Molecular
Exons - genetics
exon‐shuffling
Mobility
Models, Biological
module
multidomain protein
organismic complexity
Protein Structure, Tertiary
Proteins
Proteins - chemistry
Proteins - genetics
Proteins - metabolism
title Modules, multidomain proteins and organismic complexity
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