- Researchers at the University of California, Berkeley, have identified a methane-producing microbe, *Methanosarcina acetivorans*, that challenges a fundamental genetic principle.
- This microbe sometimes interprets a "stop" codon, which typically signals the end of protein synthesis, as an instruction to insert an unusual amino acid and continue building the protein.
- As reported by Berkeley News, this flexible interpretation leads to the production of two distinct proteins from the same genetic sequence.
- According to SSBCrack News, this discovery suggests that life can operate with a more flexible genetic code than previously understood, overturning a long-held belief in molecular biology.
- The ambiguity in the genetic code allows *Methanosarcina acetivorans* to incorporate a rare amino acid called pyrrolysine, which is crucial for breaking down methylamine.
- This finding has implications for understanding genetic disorders caused by premature stop codons, potentially opening avenues for new medical strategies.
Microbe Breaks Genetic Code Rule
Researchers at UC Berkeley have uncovered a microbe, *Methanosarcina acetivorans*, that challenges a fundamental genetic principle by interpreting a "stop" codon as an instruction to insert an unusual amino acid and continue protein synthesis. This discovery reveals a surprising flexibility in the genetic code, overturning long-held beliefs about its rigidity and opening new avenues for understanding genetic disorders.
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Editorial Process: This article was drafted using AI-assisted research and thoroughly reviewed by human editors for accuracy, tone, and clarity. All content undergoes human editorial review to ensure accuracy and neutrality.
Reviewed by: Norman Metanza
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