Short inverse complementary amino acid sequences generate protein complexity

Inversions of short genomic sequences play a central role in the generation of protein complexity. More than half of the 1300 motifs registered in ProSite have protein inverse complementary sequences (princoms) among protein registered in Swiss Prot. The observed number of princoms occurrences excee...

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Autores principales: Goldstein, D.J., Fondrat, C., Muri, F., Nuel, G., Saragueta, P., Tocquet, A.-S., Prum, B.
Formato: JOUR
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DNA
Acceso en línea:http://hdl.handle.net/20.500.12110/paper_16310691_v326_n3_p339_Goldstein
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spelling todo:paper_16310691_v326_n3_p339_Goldstein2023-10-03T16:28:33Z Short inverse complementary amino acid sequences generate protein complexity Goldstein, D.J. Fondrat, C. Muri, F. Nuel, G. Saragueta, P. Tocquet, A.-S. Prum, B. Genomic complexity Genomic inversions Inverse complementary amino acid disulfide DNA messenger RNA amino acid genome protein amino acid sequence article biochemistry controlled study disulfide bond gene sequence gene structure protein analysis protein function protein motif sequence database SWISS-PROT Inversions of short genomic sequences play a central role in the generation of protein complexity. More than half of the 1300 motifs registered in ProSite have protein inverse complementary sequences (princoms) among protein registered in Swiss Prot. The observed number of princoms occurrences exceeds by far the expected number (p < 10-10). Princoms often endow their host proteins with a whole new range of biochemical and physiological capabilities, including the possibility of intramolecular and intermolecular disulfide bond formation. These results support the idea that, like the duplications, the inversions of small genomic fragments have been a fundamental mechanism for shaping genomes. © 2003 Académie des sciences/Éditions scientifiques et médicales Elsevier SAS. All rights reserved. JOUR info:eu-repo/semantics/openAccess http://creativecommons.org/licenses/by/2.5/ar http://hdl.handle.net/20.500.12110/paper_16310691_v326_n3_p339_Goldstein
institution Universidad de Buenos Aires
institution_str I-28
repository_str R-134
collection Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA)
topic Genomic complexity
Genomic inversions
Inverse complementary
amino acid
disulfide
DNA
messenger RNA
amino acid
genome
protein
amino acid sequence
article
biochemistry
controlled study
disulfide bond
gene sequence
gene structure
protein analysis
protein function
protein motif
sequence database
SWISS-PROT
spellingShingle Genomic complexity
Genomic inversions
Inverse complementary
amino acid
disulfide
DNA
messenger RNA
amino acid
genome
protein
amino acid sequence
article
biochemistry
controlled study
disulfide bond
gene sequence
gene structure
protein analysis
protein function
protein motif
sequence database
SWISS-PROT
Goldstein, D.J.
Fondrat, C.
Muri, F.
Nuel, G.
Saragueta, P.
Tocquet, A.-S.
Prum, B.
Short inverse complementary amino acid sequences generate protein complexity
topic_facet Genomic complexity
Genomic inversions
Inverse complementary
amino acid
disulfide
DNA
messenger RNA
amino acid
genome
protein
amino acid sequence
article
biochemistry
controlled study
disulfide bond
gene sequence
gene structure
protein analysis
protein function
protein motif
sequence database
SWISS-PROT
description Inversions of short genomic sequences play a central role in the generation of protein complexity. More than half of the 1300 motifs registered in ProSite have protein inverse complementary sequences (princoms) among protein registered in Swiss Prot. The observed number of princoms occurrences exceeds by far the expected number (p < 10-10). Princoms often endow their host proteins with a whole new range of biochemical and physiological capabilities, including the possibility of intramolecular and intermolecular disulfide bond formation. These results support the idea that, like the duplications, the inversions of small genomic fragments have been a fundamental mechanism for shaping genomes. © 2003 Académie des sciences/Éditions scientifiques et médicales Elsevier SAS. All rights reserved.
format JOUR
author Goldstein, D.J.
Fondrat, C.
Muri, F.
Nuel, G.
Saragueta, P.
Tocquet, A.-S.
Prum, B.
author_facet Goldstein, D.J.
Fondrat, C.
Muri, F.
Nuel, G.
Saragueta, P.
Tocquet, A.-S.
Prum, B.
author_sort Goldstein, D.J.
title Short inverse complementary amino acid sequences generate protein complexity
title_short Short inverse complementary amino acid sequences generate protein complexity
title_full Short inverse complementary amino acid sequences generate protein complexity
title_fullStr Short inverse complementary amino acid sequences generate protein complexity
title_full_unstemmed Short inverse complementary amino acid sequences generate protein complexity
title_sort short inverse complementary amino acid sequences generate protein complexity
url http://hdl.handle.net/20.500.12110/paper_16310691_v326_n3_p339_Goldstein
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AT fondratc shortinversecomplementaryaminoacidsequencesgenerateproteincomplexity
AT murif shortinversecomplementaryaminoacidsequencesgenerateproteincomplexity
AT nuelg shortinversecomplementaryaminoacidsequencesgenerateproteincomplexity
AT saraguetap shortinversecomplementaryaminoacidsequencesgenerateproteincomplexity
AT tocquetas shortinversecomplementaryaminoacidsequencesgenerateproteincomplexity
AT prumb shortinversecomplementaryaminoacidsequencesgenerateproteincomplexity
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