EMD-27660
cryoEM map of de novo hallucinated homooligomer of C33-C3 symmetry, design HALC33-3_343
EMD-27660
Single-particle6.32 Å
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Map released: 14/09/2022
Last modified: 17/01/2024
Sample Organism:
Escherichia coli,
Escherichia coli 'BL21-Gold(DE3)pLysS AG'
Sample: De novo hallucinated homooligomer of C33-C3 symmetry, design HALC33-3_343
Deposition Authors: Wicky BIM
,
Milles LF
,
Courbet A
,
Baker D
Sample: De novo hallucinated homooligomer of C33-C3 symmetry, design HALC33-3_343
Deposition Authors: Wicky BIM
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Hallucinating symmetric protein assemblies.
Wicky BIM
,
Milles LF
,
Courbet A
,
Ragotte RJ
,
Dauparas J
,
Kinfu E
,
Tipps S
,
Kibler RD
,
Baek M
,
DiMaio F
,
Li X
,
Carter L
,
Kang A
,
Nguyen H
,
Bera AK
,
Baker D
(2022) Science , 378 , 56 - 61
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(2022) Science , 378 , 56 - 61
Abstract:
Deep learning generative approaches provide an opportunity to broadly explore protein structure space beyond the sequences and structures of natural proteins. Here, we use deep network hallucination to generate a wide range of symmetric protein homo-oligomers given only a specification of the number of protomers and the protomer length. Crystal structures of seven designs are very similar to the computational models (median root mean square deviation: 0.6 angstroms), as are three cryo-electron microscopy structures of giant 10-nanometer rings with up to 1550 residues and C33 symmetry; all differ considerably from previously solved structures. Our results highlight the rich diversity of new protein structures that can be generated using deep learning and pave the way for the design of increasingly complex components for nanomachines and biomaterials.
Deep learning generative approaches provide an opportunity to broadly explore protein structure space beyond the sequences and structures of natural proteins. Here, we use deep network hallucination to generate a wide range of symmetric protein homo-oligomers given only a specification of the number of protomers and the protomer length. Crystal structures of seven designs are very similar to the computational models (median root mean square deviation: 0.6 angstroms), as are three cryo-electron microscopy structures of giant 10-nanometer rings with up to 1550 residues and C33 symmetry; all differ considerably from previously solved structures. Our results highlight the rich diversity of new protein structures that can be generated using deep learning and pave the way for the design of increasingly complex components for nanomachines and biomaterials.