claim
active
claim:aperiodic-structure-of-genetic-molecules-enables-exponential-diversity-of-encodable-information-compared-to-periodic-crystalsAperiodic structure of genetic molecules enables exponential diversity of encodable information compared to periodic crystals.
Schrödinger argues that non-repeating molecular structure (aperiodic solid) allows information density far exceeding periodic/crystalline alternatives.
Source paper
extracted_fromNeighborhood — ranked by edge-count
Communities (2)
community
- Causal emergence in biological systemsmembers_ofExamines how macro-scale causal power exceeds micro-scale in living and learning systems.
- Explores how quantum theory—not classical physics—explains hereditary persistence, discrete mutations, and molecular information encoding in biological systems.
Concepts (1)
concept
- Schrödinger's hypothesized structure for the gene/chromosome: a non-repeating arrangement of atoms allowing vast information storage.
Related by similarity (8)
cosine ≥ 0.65 · no typed edgeEntities in the same semantic neighborhood but without a typed relation to this one — candidates for new edges or unrecognized duplicates.
- Schrödinger's hypothesis about the physical nature of the hereditary substance.
- The hereditary substance is a single huge aperiodic molecule capable of discrete configuration changes (mutations) via quantum jumps.hypothesis0.782Schrödinger's central hypothesis, later confirmed by discovery of DNA structure.
- Historical priority claim regarding information theory.
- Schrödinger's statement of the puzzle that quantum mechanics resolves.
- The core predictive hypothesis derived from Delbrück's model.
- Central claim linking life's properties to the inherent competencies of its material substrate.
- The exponential growth in combinatorial possibilities with sequence length, allowing vast genetic information storage.