Unlike natural macromolecules (eg, nucleic acids and proteins) possessing precisely
defined molar mass, chain sequence, chirality, and topology, synthetic polymers are typically …

Precise sequence‐defined polymers (SDPs) with uniform chain‐to‐chain structure including
chain length, unit sequence, and end functionalities represent the pinnacle of sophistication …

Dynamic supramolecular polymers, with their functional similarities to classical covalent
polymers and their adaptive and self-repairing nature reminiscent of biological assemblies …

Modifying biomacromolecules with synthetic polymers has been a powerful approach to
develo** multifunctional hybrid biomaterials for nanoscience and biomedical applications …

Discrete polymers offer an excellent platform for comprehending the interplay between
precise chain structures, distinctive self‐assembly behavior, and functional applications …

The design of new protein structures is challenging due to their vast sequence space and
the complexity of protein folding. Here, we report a new modular DNA-templated strategy to …

Nucleic acid condensates are essential for various biological processes and have numerous
applications in nucleic acid nanotechnology, gene therapy, and mRNA vaccines. However …

Compared with spherical micelles, rod/worm-like micelles not only have extended blood
circulation duration, but also exhibit favorable cellular uptake behavior, which is promising …

Nanopores have developed into powerful single-molecule sensors capable of identifying
and characterizing small polymers, such as DNA, by electrophoretically driving them through …

DNA-functionalized gold nanoparticles (AuNPs), also known as spherical nucleic acids, are
widely used in the development of biosensors, resulting in anchoring DNA onto AuNPs …