Sentence examples for tolerant genes from inspiring English sources

Some of the salt tolerant genes derived from STGs that conferred salinity tolerance in different transgenic experiments are listed in Table 2.

Some of the STG species that are discussed in this review for their salt tolerant genes are recorded in Table 1 with their most probable salt tolerance mechanisms that have been focused in different transgenic experiments.

Further, if gene function effects prevail in non-exposed next generations, then these are named transgenerational epigenetic effects (maternal effects)4, 6. Adaptation can involve change in organisms' genetic material, where e.g. most tolerant genes can be selected4, 7.

Some of the salt tolerant genes from non STGs (exclusively grasses) are also mentioned.

The STGs are a therefore a potent source of salt tolerant genes.

There is an increasing interest to test the novelty of salt tolerant genes through development of transgenic plants.

The rationale behind the transformation is that if two mutations with the same FIS affect genes with different germline tolerance to functional SNVs, the impact of the mutation on the least tolerant gene is expected to be greater than its impact on the most tolerant one.

These results demonstrate that microbial functional screening is an effective tool to quickly identify stress tolerant gene candidates in plants.

Thus, the development of an immune tolerant gene delivery vehicle is an important task for the clinical use of FasL gene scalpel.

The N. crassa allele of the tolerant gene (tol C) is a key regulator of this incompatibility (Shiu and Glass 1999).

HLA-DQA1 apparently is the most tolerant gene to low data quality, demonstrating 100% accuracy at the four-digit resolution even when the quality standard was reduced to 95% of the regions with only 10-fold coverage depth (Table  2).