No significant differences in rice yield were observed between the plots using NPK and NPK + MC or NPK + GM treatments.
In addition, some weedy rice populations (e.g., HLJ-1, HLJ-2, and HLJ-3) showed a weak genetic substructure, as estimated by differences in correlation between paternal genotypes detected in progeny based on multilocus and single-locus measurement.
This could be explained by differences between the rice and Musa lineages in the rate of translocation, duplication and gene death.
The two transcription factors are closely related but have distinct differences in affecting rice phenotype.
The discrepancy of these results might be due to differences in the rice varieties.
These differences of immunolocalization in rice, maize, and wheat may be caused by different processes associated with their folding.
Total activities were significantly enhanced by ATR in rice tissues.
Our results strongly suggest that interspecific hybridization in West Africa farmers' fields is a recurrent and continuing process, resulting in different groups of genetic diversity in different rice growing areas stimulated by (cultural) differences in selection.
The integrative global warming potential of CH4 and N2O on a 100-year horizon decreased by 27.3% in the CI paddy fields, whereas no significant difference in the rice yield was observed between the CI and TI fields.
Because the estimated genome size of Og is about 20% smaller than those of the two wild rice species [ 27], the difference in the genome sizes can be explained in part by the differences in the amount of repetitive elements.
