Elongation factor

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(New page: <StructureSection load='1efu' size='400' side='right' caption='Structure of EF-Tu with EF-Ts (PDB entry 1efu)' scene=''> '''Elongation factors''' (EF) facilitate translational elonga...)
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<StructureSection load='1efu' size='400' side='right' caption='Structure of EF-Tu with EF-Ts (PDB entry [[1efu]])' scene=''>
<StructureSection load='1efu' size='400' side='right' caption='Structure of EF-Tu with EF-Ts (PDB entry [[1efu]])' scene=''>
'''Elongation factors''' (EF) facilitate translational elongation during the formation of peptide bonds in the ribosome. EF-selB is selenocysteine-specific EF. EF-Tu or EF 1-α (elongation factor thermo unstable) is a prokaryotic EF. EF-Tu contributes to translational accuracy. It catalyzes the addition of aminoacyl tRNA.
'''Elongation factors''' (EF) facilitate translational elongation during the formation of peptide bonds in the ribosome. EF-selB is selenocysteine-specific EF. EF-Tu or EF 1-α (elongation factor thermo unstable) is a prokaryotic EF. EF-Tu contributes to translational accuracy. It catalyzes the addition of aminoacyl tRNA.
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EF-Ts or EF 1-β (elongation factor thermo stable) catalyzes the release of GDP<BR /> from EF-Tu. EF-G translocates the peptidyl tRNA from the A site to the P site while moving the mRNA through the ribosome. EF-SII helps RNA polymerase II to bypass blocks to elongation. EF-ELL2 enhances polyadenylation and exon skipping with the gene encoding the immunoglobulin heavy-chain complex. EF-GreA or GreB are cleavage factors allowing the resumption of elongation. EF-NusA recruits translesion DNA polymerases to gaps encountered during translation. EF-P alters the ribosome affinity to aminoacyl-tRNA. EF-1 gamma acts during the delivery of aminoacyl tRNA to the ribosome. EF-2 promotes the translocation of the nascent protein chain from the A site to the P site on the ribosome. EF-3 is unique EF in fungi hence it provides an anti-fungal drug target. EF Spt4, Spt5, Spt6 are conserved among eukaryotes. They modulate the chromatin structure. EF-CA150 is believed to play a role in coupling transcription and splicing. The elongin B and C complex is involved in the proteasomal degredation of target proteins.
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EF-Ts or EF 1-β (elongation factor thermo stable) catalyzes the release of GDP from EF-Tu. EF-G translocates the peptidyl tRNA from the A site to the P site while moving the mRNA through the ribosome. EF-SII helps RNA polymerase II to bypass blocks to elongation. EF-ELL2 enhances polyadenylation and exon skipping with the gene encoding the immunoglobulin heavy-chain complex. EF-GreA or GreB are cleavage factors allowing the resumption of elongation. EF-NusA recruits translesion DNA polymerases to gaps encountered during translation. EF-P alters the ribosome affinity to aminoacyl-tRNA. EF-1 gamma acts during the delivery of aminoacyl tRNA to the ribosome. EF-2 promotes the translocation of the nascent protein chain from the A site to the P site on the ribosome. EF-3 is unique EF in fungi hence it provides an anti-fungal drug target. EF Spt4, Spt5, Spt6 are conserved among eukaryotes. They modulate the chromatin structure. EF-CA150 is believed to play a role in coupling transcription and splicing. The elongin B and C complex is involved in the proteasomal degredation of target proteins.
==3D structures of elongation factor==
==3D structures of elongation factor==
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===EF-Tu===
===EF-Tu===
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[[1efm]], [[1efc]], [[1dg1]], [[2fx3]] – EcEF – Escherichia coli<BR />
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[[1efm]], [[1efc]], [[1dg1]], [[2fx3]] – EcEF – ''Escherichia coli''<BR />
[[1qzd]] – EcEF – Cryo EM<BR />
[[1qzd]] – EcEF – Cryo EM<BR />
[[3u2q]] – EcEF + drug<BR />
[[3u2q]] – EcEF + drug<BR />
[[1mj1]] – EcEF + Phe-tRNA + S12 + S13 + L11 – Cryo EM<BR />
[[1mj1]] – EcEF + Phe-tRNA + S12 + S13 + L11 – Cryo EM<BR />
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[[1ttt]], [[1ob5]] – TaEF + Phe-tRNA + GDPNP - Thermus aquaticus<BR />
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[[1ttt]], [[1ob5]] – TaEF + Phe-tRNA + GDPNP - ''Thermus aquaticus''<BR />
[[1b23]] - TaEF + Cys-tRNA<BR />
[[1b23]] - TaEF + Cys-tRNA<BR />
[[1ls2]] – yEF + Phe-tRNA – yeast – Cryo EM<BR />
[[1ls2]] – yEF + Phe-tRNA – yeast – Cryo EM<BR />
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[[3agj]] – EF + plethora protein – Aeropyrum pernix
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[[3agj]] – EF + plethora protein – ''Aeropyrum pernix''
''EF-Tu complex with antibiotics''
''EF-Tu complex with antibiotics''
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[[1efu]] – EcEF + GDP<BR />
[[1efu]] – EcEF + GDP<BR />
[[1exm]] – TtEF + GTP analog<br />
[[1exm]] – TtEF + GTP analog<br />
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[[1eft]] – TaEF + GNP – Thermus aquaticus<BR />
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[[1eft]] – TaEF + GNP – ''Thermus aquaticus''<BR />
[[1tui]] – TaEF + GDP<BR />
[[1tui]] – TaEF + GDP<BR />
[[1d2e]] – bEF + GDP – bovine<BR />
[[1d2e]] – bEF + GDP – bovine<BR />
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[[1jny]], [[1skq]] – SsEF + GDP – Sulfolobus solfataricus
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[[1jny]], [[1skq]] – SsEF + GDP – ''Sulfolobus solfataricus''
''EF-Tu with EF-Ts''
''EF-Tu with EF-Ts''
[[1efu]] – EcEF + EcEF-Ts<BR />
[[1efu]] – EcEF + EcEF-Ts<BR />
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[[1aip]] - TtEF + TtEF-Ts - Thermus thermophilus<BR />
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[[1aip]] - TtEF + TtEF-Ts - ''Thermus thermophilus''<BR />
[[1xb2]] – bEF + EF-Ts - bovine<BR />
[[1xb2]] – bEF + EF-Ts - bovine<BR />
[[1f60]] – yEF + EF-Ts C terminal<BR />
[[1f60]] – yEF + EF-Ts C terminal<BR />
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[[1enw]] – yEF domain II – NMR<BR />
[[1enw]] – yEF domain II – NMR<BR />
[[1eo0]] - yEF domain I – NMR<BR />
[[1eo0]] - yEF domain I – NMR<BR />
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[[2xex]] – SaEF – Staphylococcus aureus<BR />
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[[2xex]] – SaEF – ''Staphylococcus aureus''<BR />
[[1pqv]], [[1y1v]] – yEF + RNA polymerase II<BR />
[[1pqv]], [[1y1v]] – yEF + RNA polymerase II<BR />
[[1y1y]], [[3gtm]] – yEF + RNA polymerase II + RNA<BR />
[[1y1y]], [[3gtm]] – yEF + RNA polymerase II + RNA<BR />
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===EF-GreA/GreB===
===EF-GreA/GreB===
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[[2pn0]] – EF – Nitrosomonas europaea<BR />
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[[2pn0]] – EF – ''Nitrosomonas europaea''<BR />
[[2p4v]] – EcEF-GreB
[[2p4v]] – EcEF-GreB
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[[1ueb]] – TtEF<BR />
[[1ueb]] – TtEF<BR />
[[3huw]], [[3huy]] – TtEF in 70S ribosome<BR />
[[3huw]], [[3huy]] – TtEF in 70S ribosome<BR />
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[[3oyy]] – EF – Pseudomonas aeruginosa<BR />
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[[3oyy]] – EF – ''Pseudomonas aeruginosa''<BR />
[[3a5z]] – EcEF + lysyl-tRNA synthetase
[[3a5z]] – EcEF + lysyl-tRNA synthetase
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[[1b64]] – hEF guanine exchange factor domain – NMR<BR />
[[1b64]] – hEF guanine exchange factor domain – NMR<BR />
[[2cp9]] – UBA domain – NMR<BR />
[[2cp9]] – UBA domain – NMR<BR />
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[[1gh8]] – EF – Methanobacterium thermoautotrophicum – NMR<BR />
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[[1gh8]] – EF – ''Methanobacterium thermoautotrophicum'' – NMR<BR />
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[[2yy3]] – EF – Pyrococcus horikoshii<BR />
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[[2yy3]] – EF – ''Pyrococcus horikoshii''<BR />
[[2uz8]] – hEF (mutant)
[[2uz8]] – hEF (mutant)
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===EF-SelB===
===EF-SelB===
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[[1lva]] – MtEF C terminal – Moorella thermoacetica<BR />
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[[1lva]] – MtEF C terminal – ''Moorella thermoacetica''<BR />
[[2v9v]] – MtEF winged helix domain<BR />
[[2v9v]] – MtEF winged helix domain<BR />
[[1wsu]], [[2uwm]] – MtEF + RNA<BR />
[[1wsu]], [[2uwm]] – MtEF + RNA<BR />
[[2ply]] – MtEF (mutant) + RNA<BR />
[[2ply]] – MtEF (mutant) + RNA<BR />
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[[1wb2]] – MmEF – Methanococcus maripaludis<BR />
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[[1wb2]] – MmEF – ''Methanococcus maripaludis''<BR />
[[1wb3]] – MmEF + GTP analog<br />
[[1wb3]] – MmEF + GTP analog<br />
[[4ac9]] – MmEF + GDP<BR />
[[4ac9]] – MmEF + GDP<BR />
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===EF-Spt6===
===EF-Spt6===
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[[3gxw]], [[3gxx]], [[3pjp]] – EF SH2 domain – Candida glabrata<BR />
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[[3gxw]], [[3gxx]], [[3pjp]] – EF SH2 domain – ''Candida glabrata''<BR />
[[3psf]], [[3psi]] – yEF core domain<BR />
[[3psf]], [[3psi]] – yEF core domain<BR />
[[3psj]], [[3psk]] – yEF SH2 domain<BR />
[[3psj]], [[3psk]] – yEF SH2 domain<BR />

Revision as of 11:37, 17 October 2012

Structure of EF-Tu with EF-Ts (PDB entry 1efu)

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Proteopedia Page Contributors and Editors (what is this?)

Michal Harel, Alexander Berchansky, Joel L. Sussman

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