PARN Antibody

1. Results show that PARN deadenylase activity is regulated by the phosphorylated form of Nucleolin. PMID: 29168431
2. Studies suggest that the effects of poly(A)-specific ribonuclease (PARN) mutations on telomere length are likely indirect and may lead to telomere shortening that less perfectly cosegregates with heterozygous mutations. PMID: 26908837
3. Pulmonary fibrosis patients with mutations in telomerase reverse transcriptase, telomerase RNA component, regulator of telomere elongation helicase 1 and poly(A)-specific ribonuclease were identified and clinical data were analysed. Genetic mutations in telomere related genes lead to a variety of interstitial lung disease diagnoses that are universally progressive. PMID: 27540018
4. PARN polyadenylates the 3' end of telomerase RNA component (known as TERC or hTR), which serves as the template for telomerase reverse transcriptase-mediated telomere replication. PMID: 28414520
5. PARN is a new component of the ribosome biogenesis machinery in human cells. PMID: 28402503
6. provide evidence that PARN can also deadenylate the U6 and RMRP RNAs without affecting their levels PMID: 28760775
7. poly(A)-specific ribonuclease (PARN) participates in steps leading to 18S pre-rRNA maturation in human cells PMID: 27899605
8. we found a polyadenylation-dependent 3' end maturation pathway for the human telomerase RNA that relies on the nuclear poly(A)-binding protein PABPN1 and the poly(A)-specific RNase PARN. PMID: 26628368
9. PARN increased telomerase RNA component levels by deadenylating telomerase RNA component, thereby limiting its degradation by EXOSC10. PMID: 26950371
10. Large monoallelic mutations of PARN can cause developmental/mental illness. Biallelic PARN mutations cause severe bone marrow failure and central hypomyelination. PMID: 26342108
11. results highlight the clinical significance of PARN and NOC on the survival in SCC diagnosed patients. PMID: 26541675
12. Mutations in the PARN gene cause dyskeratosis congenital. PMID: 26482878
13. The results indicate that the cellular level of miR-122 is determined by the balance between the opposing effects of GLD-2 and PARN/CUGBP1 on the metabolism of its 3'-terminus. PMID: 26130707
14. 3 families with dyskeratosis congenita had key domain mutations in PARN shortening telomeres, reducing deadenylation, and downregulating TERC, DKC1, RTEL1, and TERF1. PMID: 25893599
15. PARN and RTEL1 mutation carriers had shortened leukocyte telomere lengths. PMID: 25848748
16. poly(A)-specific ribonuclease (PARN) was upregulated in gastric tumor tissues and gastric cancer cell lines MKN28 and AGS. PMID: 25499764
17. Both R3H and RRM domains were essential for the high affinity of long poly(A) substrate. PMID: 23388391
18. poly(A) polymerase Gld2, deadenylase PARN, and translation inhibitory factor neuroguidin (Ngd) are components of a dendritic CPEB-associated polyadenylation apparatus PMID: 22727665
19. The atomic force microscopy images of single PARN molecules reveal compact ellipsoidal dimers (10.9 x 7.6 x 4.6nm). PMID: 21741754
20. PARN harbors specificity for adenosine recognition in its active site and that the nucleotides surrounding the scissile bond are critical for adenosine recognition. PMID: 19901024
21. residues of human PARN, Asp(28), Glu(30), Asp(292), and Asp(382), are essential for catalysis but are not required for stabilization of the PARN x RNA substrate complex. PMID: 11742007
22. Results show that tristetraprolin can promote the deadenylation of AU-rich element (ARE)-containing, polyadenylated substrates by poly(A) RNase. PMID: 12748283
23. study of binding and coordination of divalent metal ions in the active site of PARN PMID: 15358788
24. The crystal structure of C-terminal truncated human PARN determined in two states (free and RNA-bound forms) reveals that PARN is folded into two domains, an R3H domain and a nuclease domain PMID: 16281054
25. CUG-BP binds specifically to both of these RNAs and stimulates poly(A) shortening by PARN. Moreover, CUG-BP interacts with PARN in extracts by coimmunoprecipitation, and this interaction can be recapitulated using recombinant proteins PMID: 16601207
26. The entire RNA-recognition motif (RRM) domain not only contributes to the substrate binding and efficient catalysis of PARN, but also stabilizes the overall structures of the protein. PMID: 17391638
27. REsults describe the crystal structure of the poly(A)-specific ribonuclease (PARN)-RRM domain with a bound 7-methylguanosine triphosphate nucleotide, revealing a novel binding mode for the m(7)G cap. PMID: 18694759
28. PARN is an allosteric enzyme, and potassium ions and the cap analogue are effectors with binding sites located at the RRM domain. PMID: 19103158
29. Xenopus oocytes contain cytoplasmic (p62) and nuclear (p74) isoforms of PARN. p62 is proteolytically derived from p74. Both isoforms are expressed throughout oogenesis and early development. PMID: 11424938
30. The m7GpppG cap has multiple effects on PARN activity. In cis, the 5'cap stimulates deadenylation by increasing PARN processivity. In trans, low concentrations of cap stimulate PARN activity whereas high concentrations inhibit deadenylation. PMID: 11359775
31. PARN is a poly(A)-specific member of the RNase D family of 3' exoribonucleases. It is distributed between the nucleus and the cytoplasm and is not stably associated with ribosomes. Xenopus PARN catalyzes deadenylation during oocyte maturation. PMID: 9736620
32. Deadenylation by the mammalian and amphibian poly(A)-specific exoribonuclease, PARN, is stimulated by the presence of an m(7)-guanosine cap on substrate RNAs. PARN exhibits intrinsic cap-binding activity. PMID: 10698948
33. PARN binds to the 5' cap on substrate mRNAs. Cap-binding is stimulated by a poly(A) tail and competed by eIF4E. Cap-PARN interactions integrate regulated mRNA stability and translation. PMID: 10882133

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HGNC: 8609

OMIM: 604212

KEGG: hsa:5073

STRING: 9606.ENSP00000387911

UniGene: Hs.253197