This phenomenon allows synthetic long-chain DNA and RNA to form micro-sized, nucleic acid-rich condensates upon temperature change. The abstract frames it as a distinct assembly mode from conventional base-pairing-driven nanotechnology.
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temperature-induced phase separation of synthetic long-chain DNA and RNA
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Nucleic acid phase separation expands the scope of DNA/RNA nanotechnology for new applications.
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While it expands the scope of DNA/RNA nanotechnology for new applications
Nucleic acid phase separation leverages the intrinsic polymeric nature of nucleic acids rather than relying primarily on base-pairing interactions.
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Unlike conventional DNA/RNA nanotechnology, which relies primarily on base-pairing interactions, phase separation leverages the intrinsic polymeric nature of nucleic acids.
Long-chain nucleic acids can undergo temperature-induced phase separation that enables rapid and facile formation of micro-sized, nucleic acid-rich condensates.
Quoted textsource-backed
Recent discoveries have shown that long-chain nucleic acids can undergo temperature-induced phase separation, enabling rapid and facile formation of micro-sized, nucleic acid-rich condensates.
Nucleic acid phase separation provides a perspective for how compartmentalization may have emerged in the prebiotic RNA world during the origin of life.
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nucleic acid phase separation also provides a fresh perspective for how compartmentalization may have emerged in the prebiotic RNA world during the origin of life.