Detailed Information on Publication Record
2016
Evolution and functions of SMC complexes: new SMC5/6 insights
PALEČEK, Jan, Stephan GRUBER, Lucie VONDROVÁ, Marek ADAMUS, Kateřina ZÁBRADY et. al.Basic information
Original name
Evolution and functions of SMC complexes: new SMC5/6 insights
Name (in English)
Evolution and functions of SMC complexes: new SMC5/6 insights
Authors
PALEČEK, Jan, Stephan GRUBER, Lucie VONDROVÁ, Marek ADAMUS, Kateřina ZÁBRADY, Lenka JURČIŠINOVÁ, Saskia N van der CRABBEN, Marije P HENNUS, Grant MCGREGOR, Deborah I RITTER, Alan R LEHMANN, Antony W OLIVER, Barbora KOZLÍKOVÁ, Sharon E PLON, Johanne M MURRAY and Gijs van HAAFTEN
Edition
Central European Genome Stability and Damage Meeting, 2016
Other information
Type of outcome
Vyžádané přednášky
Confidentiality degree
není předmětem státního či obchodního tajemství
Změněno: 9/8/2017 16:40, doc. Mgr. Jan Paleček, Dr. rer. nat.
V originále
The SMC (structure maintenance of chromosome) complexes are conserved from bacteria to humans (SMC/ScpAB and MukBEF in prokaryotes; cohesin, condensin and SMC5/6 in eukaryotes). They are critical for DNA replication, chromosome compaction and segregation, genome maintenance, and regulation of gene expression. We described marked structural similarities between bacterial SMC/ScpAB and eukaryotic SMC5/6 complexes (particularly their kite subunits). We discovered several important features of SMC5/6 kite subunits: their role in structural organization of the SMC5/6 complex, their DNA-binding ability, their evolution from bacteria to novel mammalian MAGE protein superfamily and new chromosome breakage syndrome associated with human Nse3-kite subunit mutations.
In English
The SMC (structure maintenance of chromosome) complexes are conserved from bacteria to humans (SMC/ScpAB and MukBEF in prokaryotes; cohesin, condensin and SMC5/6 in eukaryotes). They are critical for DNA replication, chromosome compaction and segregation, genome maintenance, and regulation of gene expression. We described marked structural similarities between bacterial SMC/ScpAB and eukaryotic SMC5/6 complexes (particularly their kite subunits). We discovered several important features of SMC5/6 kite subunits: their role in structural organization of the SMC5/6 complex, their DNA-binding ability, their evolution from bacteria to novel mammalian MAGE protein superfamily and new chromosome breakage syndrome associated with human Nse3-kite subunit mutations.
Links
GA13-00774S, research and development project |
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MUNI/M/0822/2015, interní kód MU |
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