All obtained mutants were highly resistant to azoxystrobin and their resistance was genetically stable.
However, our studies showed that these mutagens were stable without any drastic changes in the cellulase production profiles and corresponding enzyme activities for several subsequent generations indicating that the developed mutants were highly stable.
All these mutants are highly UV and MMC sensitive, and lose cellular viability at 4°C, similar to recD mutants.
Some of these mutants were highly susceptible to trypsin degradation Cry4Ba-A145CCry11Aa-N128D58A, Cry11Aa-Q135C and Cry11Aa-Q135C) and were not further analyzed.
These neck mutants were highly unstable, which made binding assays with these constructs very difficult to perform.
SDS-PAGE analysis showed that while V1F, V1D and V1L mutants are highly stable at high concentrations of SDS, the V1G is highly susceptible to denaturation.
Both tah18-5H8 and tah18-5I5 mutants were highly resistant to H2O2 exposure as compared to wild-type from 2 hours as shown in Fig. 1-E.
In the current paper, we first analyze the behavioral properties and ultrastructure of adult muscles in rt and/or tw mutants and then provide evidence that these mutants are highly useful for elucidating the mechanism of muscular dystrophy.
Both not4Δ and bur2Δ mutants are highly sensitive to hydroxyurea and hygromycin B, while the not4S/T5A yeast strain is weakly sensitive to hydroxyurea and mildly sensitive to hygromycin B (Figure 4A).
Previous inability to solubilize insoluble protein without adding denaturants and detergents retarded our complete understanding of the mechanisms underlying protein folding and disease-relevant aggregation because many folding intermediates and disease-causing mutants are highly insoluble.
