Sentence examples for marker technology has from inspiring English sources

The advancement of molecular marker technology has led to the development of genetic maps that make it possible to identify and locate genes or quantitative trait loci (QTLs) controlling quantitative characters.

Molecular marker technology has proved to be an efficient tool for plant genetic resource characterization, conservation, and management.

Genetic marker technology has facilitated the identification, localization and characterization of QTL associated with important agronomic traits including SCN resistance [ 7].

Molecular marker technology has advanced from laborious and expensive restriction fragment polymorphisms to high-throughput sequence bases markers such as simple sequence repeats and single nucleotide polymorphisms (SNPs) [ 3].

Recent advances in molecular marker technology have enabled the dissection of the genetic basis of salinity tolerance to identify major-effect QTLs and their use in marker-assisted breeding to develop salinity-tolerant rice varieties (Munns 2005; Tuberosa and Salvi 2006; Passioura et al. 2007; Thomson et al. 2010, 2012; Thomson 2014; Hossain et al. 2015).

Since the 1980s, the fast advent of molecular markers technology has revolutionized the field of genetics by changing the pace and accuracy of genetic analysis.

In the last decade, a number of molecular marker technologies have been developed, including RAPD, AFLP, SSR and SNP.

Polymorphisms detected by various marker technologies have been used to generate molecular marker maps of those species that do not have any genome sequences and physical maps.

The current molecular marker technologies have characteristics which additionally affect the level of genome coverage, their discrimination ability, reproducibility and technical and time demand.

Molecular marker technologies have allowed a significant progress in the genetics and breeding of this vast genus that includes over 700 species [ 36].

Many molecular marker technologies have been developed and applied to studying patterns of genetic diversity in sorghum germplasm collections and in breeding programs, including RFLPs [ 7- 9], RAPDs [ 10, 11], ISSRs [ 12], SSRs [ 13- 19] and AFLPs [ 17, 20].