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How can codons be represented in binary? 


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Codons can be represented in binary by assigning a unique 2-bit identifier to each of the four mRNA bases, resulting in a 6-bit label for each triplet codon . Another approach is to use binary dichotomic algorithms (BDAs) to generate models of the genetic code. BDAs partition the set of 64 codons into two classes of size 32 each, allowing for different partitions and code tables with varying numbers of classes . Additionally, a representation called codons has been proposed, which uses curvature primitives to represent plane curves. This representation has been extended to include open and closed curves with straight lines and cusps, and is organized hierarchically in a codon-tree . The classic results of various studies link genetic code nucleotide patterns to protein structure and evolution, and discuss the symbolic representation of binary addresses defining nucleotide and amino acid properties . Finally, a compacted version of the "I Ching" genetic code uses 8 symbolic binary constants to represent codons, resulting in a total set of 46 possible combinations .

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The paper does not provide information on how codons can be represented in binary. The paper focuses on compressing the genetic code using a compacted version of the "I Ching" genetic code.
The paper does not provide information on how codons can be represented in binary. The paper discusses the symbolic representation of binary addresses for nucleotide and amino acid properties, but does not specifically mention codons.
The paper does not provide information on how codons can be represented in binary.
Open accessJournal ArticleDOI
01 May 2017-BioSystems
20 Citations
The paper introduces a binary representation of codons by assigning a unique 2-bit identifier to each of the four mRNA bases, resulting in a 6-bit label for each triplet codon.
The paper states that each codon can be uniquely represented as a binary string of length 6, referring to 2^6 (64) codons.

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