Prize Observer

David R. Liu · background · research

David R. Liu · Base editing and prime editing

Source date

A chemical biologist whose laboratory developed base editing and prime editing. These approaches offer ways to alter DNA sequences without relying on conventional double-strand-break editing.

Current nomination records are confidential for 50 years. An expert recommendation or a market listing does not establish an official nomination.

Contribution

Base editing changes particular DNA base pairs using targeted molecular machinery; prime editing uses a different design to write sequence changes. Neither should be described as unrestricted or error-free editing. Delivery, unintended changes and the biological context still matter.

Evidence

Citation Laureates identifies influential research. Recognition is not a prediction of a Nobel winner in a particular year.

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Related reading

work and contributions

Harry B. Gray

A bioinorganic chemist who investigates metals and electron movement in biological molecules. His work with collaborators helped explain long-range electron transfer through proteins.

work and contributions

Ralph G. Nuzzo

A materials chemist who helped develop self-assembled monolayers. These molecular films allow researchers to control the chemistry of surfaces and interfaces.

research

Base editing and prime editing

Base editing changes particular DNA base pairs using targeted molecular machinery; prime editing uses a different design to write sequence changes. Neither should be described as unrestricted or error-free editing. Delivery, unintended changes and the biological context still matter.

research

Self-assembled monolayers

Self-assembled monolayers form when molecules organize into a thin layer on a surface. Their anchoring groups and outward-facing groups let researchers tune surface chemistry. A molecular coating is not the same as a bulk material with identical properties.

research

Electron transfer in proteins

Proteins can transfer electrons between sites separated in space. Distance, molecular structure and environment affect the transfer rate, helping explain biological energy conversion. Electron transfer is a specific molecular process, not simply current flowing through a miniature metal wire.