It is anticipated that with the accumulation of more information on additional species and markers, molecular identification will become a standard approach for tick classification, complementing morphological taxonomy.
Based on these transferable markers, the molecular identification systems is able to be established for accessing the hybridization and introgression among species of the genus Phalaenopsis in future work.
Thus, CNVs can be developed as a type of molecular marker for molecular identification.
There is a dire need for rapid real-time high-throughput genomic mapping and molecular marker identification tool for isolation of quantitative trait loci, and thereby designing crops with stress, insect, and drought tolerance [7].
These projects have provided useful tools for intragenomic and intergenomic comparisons, gene discovery, molecular marker identification, microarray development, and polyploid species genomic resource development.
However, the complexity of the wheat genome presents some challenges for applying new technologies in molecular marker identification with next-generation sequencing.
Identification of molecular markers associated with salt stress tolerance genes or QTL conferring tolerance to high salinity has been demonstrated.
Identification of molecular markers for a single physiological subtype of DS cells would be useful to study its developmental mechanism.
Identification of molecular markers associated with pediatric brain tumors provides suitable conditions for treatment of these tumors.
EST sequencing projects have facilitated appropriate strategies for gene discovery [ 6], molecular markers identification [ 7, 8], and many other functional genomic developments and tools, e.g. microarray approaches [ 9- 11].
