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-Structure paper
| タイトル | Evolution of multivalent supramolecular assemblies of aptamers with target-defined spatial organization. |
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| ジャーナル・号・ページ | Nat Nanotechnol, Vol. 20, Issue 8, Page 1087-1097, Year 2025 |
| 掲載日 | 2025年6月6日 |
著者 | Artem Kononenko / Vincenzo Caroprese / Yoan Duhoo / Cem Tekin / Maartje M C Bastings / ![]() |
| PubMed 要旨 | Rapid identification of neutralizing molecules against new and mutating viruses is key to efficiently combating biorisk. Current binder identification techniques use a monovalent library of potential ...Rapid identification of neutralizing molecules against new and mutating viruses is key to efficiently combating biorisk. Current binder identification techniques use a monovalent library of potential binders. Interestingly, proteins on pathogens are often homo-oligomeric-for example, the SARS-CoV-2 spike protein is a homotrimer. Here we describe a simple strategy, MEDUSA (multivalent evolved DNA-based supramolecular assembly), to evolve multivalent assemblies of aptamers with precise interligand spacing and three-fold symmetry, mirroring the geometric structure of many viral capsid proteins. MEDUSA allowed the selection of potent SARS-CoV-2 spike binders structurally distinct from any known aptamers. Decoupling the geometric and structural rigidity contributions toward selectivity made it possible to connect form to function, as demonstrated by the design of tunable fluorescent sensors. This approach offers a blueprint for targeting geometrically defined pathogen structures and developing rapid-response tools for emerging pathogens. |
リンク | Nat Nanotechnol / PubMed:40481269 / PubMed Central |
| 手法 | EM (単粒子) |
| 解像度 | 20.0 Å |
| 構造データ | ![]() EMDB-52510: MEDUSA-Complex |
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