The article is devoted to topical issues of genetic biomechanics, which studies structural connections between molecular-genetic informatics and inherited physiological complexes. It is known that amino acid sequences of proteins are genetically inherited using code messages in DNA and RNA molecules based on the alphabet of 4 nucleotides. But, as Nobel laureate geneticist T. Steitz emphasizes, all knowledge about these biomolecules encoded in the genome in this biochemical alphabet will not tell us about the inheritance of biomechanical algorithms and functions by genetic automata. Thus, in modern science of biological inheritance, there is no knowledge about a bioinformation system capable of ensuring the inheritance of cooperative phenomena of algorithmic behavior of body parts. These inherited logical forms of algorithmic behavior in biosystems require the search for bioinformation alphabets that could form the basis for the operation of genetic automata and the algorithmic inheritance of biological structures. The article describes the genetic algebraic-operator alphabets, identified as a result of such a search, based on unitary Hadamard matrices, as well as cyclic power groups based on them, which make it possible to model inherited cyclic and biorhythmic structures in connection with the formalisms of quantum logic. The evolutionary paradigm of algebraic-alphabetic Darwinism has been formulated. Related issues of inherited brain mechanisms, artificial intelligence, and the functioning of operators in human-machine systems are discussed.
S V Petoukhov (Thu,) studied this question.