Science June 1992 PMID 1604315

Unusual resistance of peptidyl transferase to protein extraction procedures.

H F Noller, V Hoffarth, L Zimniak

Mentions

3
Peak: 2 in Mar 2025
across 2 sources since Nov 2023

Extended reach

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Nov 2023 – Mar 2025

Where it's discussed

  • YouTube2 videos
  • Bluesky1 posts

AI synopsis

What people are saying

The discussions reflect excitement and curiosity, with users mentioning aspects like the resistance of peptidyl transferase to treatments and its implications for understanding ribosomal catalysis, often using words like 'unexpected' and 'significant' to underscore its scientific impact.

AgreementModerate agreement

Most discussions show support or agreement with the significance of the findings, emphasizing the unusual resistance of peptidyl transferase and its implications.

InterestHigh interest

Posts demonstrate high interest in the research, especially regarding its implications for understanding ribosomal function and the role of RNA, with mentions like 'fascinating discovery' and 'game-changing insight.'

EngagementModerate engagement

There is a moderate level of engagement, with some users discussing experimental methods and expression of curiosity about the enzyme's nature, but few deep technical debates.

ImpactModerate impact

The overall sentiment suggests that the research could have meaningful impact on molecular biology, indicated by comments about how it challenges traditional views of proteins and RNA.

Abstract in brief

  • Peptidyl transferase, the enzyme responsible for forming peptide bonds in ribosomes, is unusually resistant to common protein removal methods like phenol extraction and EDTA, suggesting it may not be a traditional protein.
  • Experiments show that ribosomal activity persists even after harsh treatments with proteinase K and SDS, especially in Thermus aquaticus, indicating the core catalytic component might be RNA rather than protein.
  • The activity can be specifically inhibited by antibiotics that target peptidyl transferase, and it is destroyed by ribonuclease T1, supporting the idea that 23S ribosomal RNA plays a key role in this catalytic function.]

Top posts

Most liked on X and Bluesky
Manny Ares
@mannyares.bsky.social · Bluesky

Unfortunately it was published in Science, so it is still behind a paywall... pubmed.ncbi.nlm.nih.gov/1604315/

Mar 2, 2025 View post →

All mentions

Manny Ares
@mannyares.bsky.social · Bluesky

Unfortunately it was published in Science, so it is still behind a paywall... pubmed.ncbi.nlm.nih.gov/1604315/

Mar 2, 2025 View post →