{"record":{"author":{"account_ref":null,"orcid":null},"builds_on":[],"content_schema":"pubphys.content.topic/1","content_sha256":"3e35c0755be9f935ba3c7ffc8802efa1e2b29cd41af425da0dda5c63962b3643","created":"2026-10-03T07:17:50Z","files":[],"origin":{"assisted_by":[],"kind":"seed"},"parents":[],"salt":"0b88f055e908433675ac4e7a5bb0c8edf1a80f829e198307156c7d709d536385","schema":"pubphys.record/2","site":"pubphys.com","target":null,"type":"topic"},"content":{"external_id":"bio.quantum-biology","field":"bio","n":"1","review_cite":"N. Lambert, Y.-N. Chen, Y.-C. Cheng, C.-M. Li, G.-Y. Chen, F. Nori, Quantum biology, Nature Physics, 2013","review_link":"https://doi.org/10.1038/nphys2474","review_verified":"true","summary":"Some living processes may use quantum physics, such as electron spins that stay correlated, energy spreading as a wave, or particles passing through energy barriers they classically could not cross. The open question is when these effects actually matter for what the organism does.","title":"Quantum effects in biological function","topic_ref":null,"why":"Deciding where quantum dynamics survives in warm, wet, noisy cells sets the limits of biological sensing and chemistry and tests open-quantum-system theory on real molecules."},"attested":{"attestation":{"batch":null,"client_id":null,"id_token_sha256":null,"kind":"platform"},"record_hash":"09ae11151c6960c350987cff295f5389414ff4280e786c847e9a83227e3d91ac","schema":"pubphys.attested/1"},"envelope":{"attested_hash":"14b44b593ba800b8a4478c7cab24eeff8259a5378e65fd9f09e48d5162357cee","platform_signature":{"key_id":"c6afc19b31429869751f06879c75cd64ea92654423d15b44be775bf1310a60da","sig":"pw04j5lUOf3eHAy9HvJn10oWVcxlq28sqfwXEsWUJP0-dAVdiv0cFAK2ZoLuOjPGt2YyWzACKhAV5dsTSneZBg"},"schema":"pubphys.envelope/1"},"record_hash":"09ae11151c6960c350987cff295f5389414ff4280e786c847e9a83227e3d91ac","leaf_index":101}