Telomerase is an RNA protein complex (RNP) that extends telomeric DNA at the 3′ ends of chromosomes using its telomerase reverse transcriptase (TERT) and integral template-containing telomerase RNA (TER).
Telomeres are short DNA repeats added to the ends of chromosomes by the reverse transcriptase telomerase [ 1, 2], a ribonucleoprotein enzyme that uses an integral RNA template for DNA replication [ 3].
Telomerase synthesizes chromosome-capping telomeric repeats using an active site in telomerase reverse transcriptase (TERT) and an integral RNA subunit template.
The integral component is the template DNA i.e., the DNA that contains the region to be copied, such as a gene.
On the other hand, the template is integral to the consultation, and actively shapes what goes on, sustaining normative standards which are realised through consensus and performed daily through social practices.
The eukaryotic ribonucleoprotein reverse transcriptase (RT) telomerase uses a template within its integral RNA subunit to extend chromosome ends by synthesis of single-stranded telomeric repeats.
During DNA extension, telomerase uses a short segment within its integral RNA subunit as the template to extend the 3′ end of the G-rich strand of the telomere (Greider and Blackburn 1989).
The geomorphic template is, therefore, as integral as the flow.
The integral relationship between the soil-geomorphic template and biotic change is an example of how biological and geological systems are coupled and co-evolve over long-term (Quaternary landscape evolution) and short-term (human-induced desertification) time-scales.
Considering the particular conditions of the model, proposed algorithm finds the locations of border vertices which have the maximum integral of average low-intensities through a template window.
As a result, PAEs are integral to this process because they can template and cap nanoparticle formation, leading to the formation of stable dispersions in aqueous media.
