We calculated results (presented in Figure 1) for every possible combination of individuals as long as the number of combinations totaled less than 4,000; when more combinations were possible, we randomly sampled 4,000 cases to generate our results.
More combinations were suggested as nearby patients lay moaning with various maladies.
Since the impact of the Rhgt value is identical for domains and combinations, differences arise because more combinations were invented late in evolution (Figure 4).
Relatively more combinations were invented in the descendant nodes of the tree, as indicated by the increase in the ratio of number of new combinations and domains at each node along the tree of life (Figure 4B), and the relative increase in combinations is more significant in eukaryotes than in prokaryotes (Table 1).
At lower values, no more combinations were found to classify 148 samples or more correctly, even when k was reduced to 0, and the selected gene number is 1428 accompanied by 33,390 combinations with a 100% depended degree.
Because of the quite large standard deviations related to NPQ800 measurements (RSD = 19.7% on average), 2 more combinations were tested for photosynthetic responses (total number = 8) in order to increase confidence toward the general tendency of data.
Some of the more common combinations are wheat products (cereal, bread or pasta) with one or more nutrients including calcium, iron, niacin, riboflavin, thiamine and zinc.
Thus, more potent combinations are warranted.
In a model of co-evolution between loci or extrinsic selection against hybrid phenotypes (C ), more genotype combinations are potentially under selection.
In the case more than 1000 combinations are possible, only 1000 random combinations were used.
