A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation
The synthesis of artificial sequence-defined polymers that match and extend the functionality of proteins is an important goal in materials science. One way of achieving this is to program a sequence of chemical reactions between precursor building blocks by means of attached oligonucleotide adapter...
| Egile Nagusiak: | , , , , , , , , |
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| Formatua: | Journal article |
| Hizkuntza: | English |
| Argitaratua: |
Wiley
2024
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| _version_ | 1826312932083892224 |
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| author | Frommer, J Oppenheimer, R Allott, BM Núñez-Pertíñez, S Wilks, TR Cox, LR Bath, J O'Reilly, RK Turberfield, AJ |
| author_facet | Frommer, J Oppenheimer, R Allott, BM Núñez-Pertíñez, S Wilks, TR Cox, LR Bath, J O'Reilly, RK Turberfield, AJ |
| author_sort | Frommer, J |
| collection | OXFORD |
| description | The synthesis of artificial sequence-defined polymers that match and extend the functionality of proteins is an important goal in materials science. One way of achieving this is to program a sequence of chemical reactions between precursor building blocks by means of attached oligonucleotide adapters. However, hydrolysis of the reactive building blocks has so far limited the length and yield of product that can be obtained using DNA-templated reactions. Here, we report an architecture for DNA-templated synthesis in which reactants are tethered at internal abasic sites on opposite strands of a DNA duplex. We show that an abasic site within a DNA duplex can protect a nearby thioester from degradation, significantly increasing the yield of a DNA-templated reaction. This protective effect has the potential to overcome the challenges associated with programmable sequence-controlled synthesis of long non-natural polymers by extending the lifetime of the reactive building blocks. |
| first_indexed | 2024-03-07T08:24:09Z |
| format | Journal article |
| id | oxford-uuid:144b5eab-2cf5-42a9-b4d1-7b7577ae82bb |
| institution | University of Oxford |
| language | English |
| last_indexed | 2024-09-25T04:03:03Z |
| publishDate | 2024 |
| publisher | Wiley |
| record_format | dspace |
| spelling | oxford-uuid:144b5eab-2cf5-42a9-b4d1-7b7577ae82bb2024-05-13T10:09:12ZA new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradationJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:144b5eab-2cf5-42a9-b4d1-7b7577ae82bbEnglishSymplectic ElementsWiley2024Frommer, JOppenheimer, RAllott, BMNúñez-Pertíñez, SWilks, TRCox, LRBath, JO'Reilly, RKTurberfield, AJThe synthesis of artificial sequence-defined polymers that match and extend the functionality of proteins is an important goal in materials science. One way of achieving this is to program a sequence of chemical reactions between precursor building blocks by means of attached oligonucleotide adapters. However, hydrolysis of the reactive building blocks has so far limited the length and yield of product that can be obtained using DNA-templated reactions. Here, we report an architecture for DNA-templated synthesis in which reactants are tethered at internal abasic sites on opposite strands of a DNA duplex. We show that an abasic site within a DNA duplex can protect a nearby thioester from degradation, significantly increasing the yield of a DNA-templated reaction. This protective effect has the potential to overcome the challenges associated with programmable sequence-controlled synthesis of long non-natural polymers by extending the lifetime of the reactive building blocks. |
| spellingShingle | Frommer, J Oppenheimer, R Allott, BM Núñez-Pertíñez, S Wilks, TR Cox, LR Bath, J O'Reilly, RK Turberfield, AJ A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation |
| title | A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation |
| title_full | A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation |
| title_fullStr | A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation |
| title_full_unstemmed | A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation |
| title_short | A new architecture for DNA-templated synthesis in which abasic sites protect reactants from degradation |
| title_sort | new architecture for dna templated synthesis in which abasic sites protect reactants from degradation |
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