QED Eukaryote Genetic Code and Principle of Information Flow and Biological Protein Synthesis

The QED (Quadruplet expanded DNA) eukaryote genetic code model comprises all four DNA (T, A, C, and G) bases, the base position being independent and symmetric.In this model, the adjacent bases that naturally pair are designated noncoding.Based on these assumptions, the QED code consists of twenty nondegenerate independent protein-encoding and thirty-five nondegenerate noncoding codons, demonstrating a strong correlation with cis-regulatory elements.Despite variations in genetic pathways and information flow, the QED coding system applies to protein synthesis across eukaryotes, prokaryotes, and viruses.This broad applicability underscores fundamental principles of genetic information processing and protein biosynthesis.The search for genedisease causality revealed the absence of a dedicated eukaryote genetic code for protein synthesis-a discovery that led to the development of the QED code.Since functional proteins are essential for cellular homeostasis, while dysfunctional proteins contribute to disease, addressing these dysfunctions is crucial for therapeutic advancements.The role of the QED code in understanding and correcting genetic dysfunctions at both the DNA and protein levels presents a transformative approach to disease treatment.This pioneering framework is expected to drive a paradigm shift in research and development, opening new avenues for treating monogenic rare diseases, multigenic cancers, and neurodegenerative disorders.