Computer techniques were used to minimise the effects of experimental errors, uncertainties in the scattering factors, and termination errors.
In contrast, premature termination errors lead to truncation of variable severity depending on where along the mRNA the error occurs.
In contrast, selection against premature termination errors does not predict 5′-3′ differobustnessbustoess to ameliorate with rising GC content.
Selection against premature termination errors predicts a gradient in codon adaptation toward greater decoding accuracy at the 3′ end of mRNAs, predicated on npre as the principal process cost.
Although premature termination errors incur costs approximately proportional to the number of residues translated before the error occurred (npre, fig. 1), frameshifting errors incur an additional cost (npost) because the ribosome carries on translating until it encounters an off-frame stop codon or the mRNA ends.
Comparing process cost estimates across 641 prokaryotic genomes, we demonstrate that frameshifting errors exhibit process cost dynamics that are different from both missense and premature termination errors and can be exploited to establish support for the hypothesis that selection against frameshifting at least in part explains differential codon adaptation at the 5′ and 3′ termini of mRNAs.
It reduces the effects of series-termination errors in the Fourier syntheses, but tends to make the electron-density integration used to assign the element types less reliable.
Analogously, with enabled early termination, the error probability of the proposed ET-FSD algorithm is defined and bounded as (see Equations 4 to 7 of [22] as well) p e ET − FSD ≜ P ( s ~ ET − FSD ≠ s ) ≤ p e ML + p e ET − SE, (4).
There are, however, multiple forms of inaccuracy (missense, premature termination, and frameshifting errors) and pinpointing a particular error process behind apparently adaptive mRNA anatomy is rarely straightforward.
A recent study [14] demonstrates that oxidized mRNA induces translation errors, producing short polypeptides because of premature termination or translation error-induced degradation.
