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Telomerase reverse transcriptase (abbreviated to TERT, or hTERT in humans) is a catalytic subunit of the enzyme telomerase, which, together with the telomerase RNA component (TERC), comprises the most important unit of the telomerase complex. [5] [6] Telomerases are part of a distinct subgroup of RNA-dependent polymerases.
The genes of telomerase subunits, which include TERT, [16] TERC, [17] DKC1 [18] and TEP1, [19] are located on different chromosomes. The human TERT gene (hTERT) is translated into a protein of 1132 amino acids. [20] TERT polypeptide folds with (and carries) TERC, a non-coding RNA (451 nucleotides long). TERT has a 'mitten' structure that allows ...
The core domain of TERC contains the RNA template from which TERT synthesizes TTAGGG telomeric repeats. [10] Unlike in other RNPs, in telomerase, the protein TERT is catalytic while the lncRNA TERC is structural, rather than acting as a ribozyme. [14] The core region of TERC and TERT are sufficient to reconstitute catalytic telomerase activity ...
Human chromosomes (grey) capped by telomeres (white). A telomere (/ ˈ t ɛ l ə m ɪər, ˈ t iː l ə-/; from Ancient Greek τέλος (télos) 'end' and μέρος (méros) 'part') is a region of repetitive nucleotide sequences associated with specialized proteins at the ends of linear chromosomes (see Sequences).
Telomeric repeat–containing RNA (TERRA) is a long non-coding RNA transcribed from telomeres - repetitive nucleotide regions found on the ends of chromosomes that function to protect DNA from deterioration or fusion with neighboring chromosomes. TERRA has been shown to be ubiquitously expressed in almost all cell types containing linear ...
The terC RNA motif is a conserved RNA structure that was discovered by bioinformatics. [1] terC motif RNAs are found in Pseudomonadota, within the sub-lineages Alphaproteobacteria and Pseudomonadales. terC motif RNAs likely function as cis-regulatory elements, in view of their positions upstream of protein-coding genes.
Termed a dihybrid cross or “two-gene test cross”, this experiment was grounded in the principle of segregation. When conducting a dihybrid test cross, two dominant phenotypic characteristics are selected and crossed with parents displaying double recessive traits. The phenotypic characteristics of the F1 generation are then analyzed.
Also, TERF2 has a basic N-terminus, differing from TERF1’s acidic N-terminus, and was found to be much more conserved, suggesting that the two proteins have distinct functions. [ 7 ] There are 4 domain categories on the TERF2 protein that allow it to bind to both other proteins in the shelterin protein complex, and to specific types of DNA.