Sentence examples for many phenotypic differences from inspiring English sources

Though many phenotypic differences were observed, also the accessory genome differed by only one 81 kb Ralstonia pickettii PAGI-2 like genomic island absent in the first but present in the latter isolate [ 16].

Although any two humans are 99.9% identical at the nucleotide sequence level [1], [2], many phenotypic differences are apparent in individuals within the same and from distinct human populations.

They reported a large-scale RNA-seq analysis of six mammalian tissues and showed the dynamics of transcriptome evolution that may underlie many phenotypic differences between species.

These results are suggestive, but given the many phenotypic differences between mice, chimpanzees and humans (besides lifespan), this evolutionary criterion does not establish the functional significance of Dio1, Papp-A or other positively selected genes.

As this is a highly differentiated region of the genome between individuals from the north and south of the distribution, it can in principle harbor the causative mutations responsible for many phenotypic differences between these populations.

We focused on hepatic mRNA levels because liver displays a broad spectrum of mRNAs that are responsive to dioxins and/or to AHR genotype [ 20] and because liver is a prime site of dioxin toxicity, displaying many phenotypic differences between sensitive and resistant rats [ 29].

Consistent with this, there are many known phenotypic differences between K12 and EDL933.

Furthermore, the presence of TEs of large effect are largely ignored in eQTL and QTL studies and many observed phenotypic differences between individuals may be due, at least in part, to TE insertions.

It should be noted that despite the similarities in microglia HLA-DR expression triggered by MPTP and that present in the PD brain, many other phenotypic differences are likely to exist between the two microglioses, such as their profiles of inflammatory factor production.

Integrated approaches to understanding ecological adaptation are particularly attractive in tomato and its wild relatives: many presumptively adaptive phenotypic differences characterize wild species, and the physiological and mechanistic basis of many relevant traits and environmental responses has already been examined in the context of cultivated tomato and some wild species.

Because many species-specific phenotypic differences are assumed to be caused by differential regulation of gene expression, many recent investigations have focused on measuring transcript abundance.