179 related articles for article (PubMed ID: 12456267)
1. The catalytic domains of thiamine triphosphatase and CyaB-like adenylyl cyclase define a novel superfamily of domains that bind organic phosphates.
Iyer LM; Aravind L
BMC Genomics; 2002 Nov; 3(1):33. PubMed ID: 12456267
[TBL] [Abstract][Full Text] [Related]
2. Thiamine triphosphatase and the CYTH superfamily of proteins.
Bettendorff L; Wins P
FEBS J; 2013 Dec; 280(24):6443-55. PubMed ID: 24021036
[TBL] [Abstract][Full Text] [Related]
3. The archaeal triphosphate tunnel metalloenzyme SaTTM defines structural determinants for the diverse activities in the CYTH protein family.
Vogt MS; Ngouoko Nguepbeu RR; Mohr MKF; Albers SV; Essen LO; Banerjee A
J Biol Chem; 2021 Jul; 297(1):100820. PubMed ID: 34029589
[TBL] [Abstract][Full Text] [Related]
4. Proteins with CHADs (Conserved Histidine α-Helical Domains) Are Attached to Polyphosphate Granules
Tumlirsch T; Jendrossek D
Appl Environ Microbiol; 2017 Apr; 83(7):. PubMed ID: 28130300
[TBL] [Abstract][Full Text] [Related]
5. Brachypodium distachyon triphosphate tunnel metalloenzyme 3 is both a triphosphatase and an adenylyl cyclase upregulated by mechanical wounding.
Świeżawska B; Duszyn M; Kwiatkowski M; Jaworski K; Pawełek A; Szmidt-Jaworska A
FEBS Lett; 2020 Mar; 594(6):1101-1111. PubMed ID: 31785160
[TBL] [Abstract][Full Text] [Related]
6. Structural determinants of specificity and catalytic mechanism in mammalian 25-kDa thiamine triphosphatase.
Delvaux D; Kerff F; Murty MR; Lakaye B; Czerniecki J; Kohn G; Wins P; Herman R; Gabelica V; Heuze F; Tordoir X; Marée R; Matagne A; Charlier P; De Pauw E; Bettendorff L
Biochim Biophys Acta; 2013 Oct; 1830(10):4513-23. PubMed ID: 23707715
[TBL] [Abstract][Full Text] [Related]
7. Structure-function analysis of Plasmodium RNA triphosphatase and description of a triphosphate tunnel metalloenzyme superfamily that includes Cet1-like RNA triphosphatases and CYTH proteins.
Gong C; Smith P; Shuman S
RNA; 2006 Aug; 12(8):1468-74. PubMed ID: 16809816
[TBL] [Abstract][Full Text] [Related]
8. A specific inorganic triphosphatase from Nitrosomonas europaea: structure and catalytic mechanism.
Delvaux D; Murty MR; Gabelica V; Lakaye B; Lunin VV; Skarina T; Onopriyenko O; Kohn G; Wins P; De Pauw E; Bettendorff L
J Biol Chem; 2011 Sep; 286(39):34023-35. PubMed ID: 21840996
[TBL] [Abstract][Full Text] [Related]
9. Presence of a classical RRM-fold palm domain in Thg1-type 3'- 5'nucleic acid polymerases and the origin of the GGDEF and CRISPR polymerase domains.
Anantharaman V; Iyer LM; Aravind L
Biol Direct; 2010 Jun; 5():43. PubMed ID: 20591188
[TBL] [Abstract][Full Text] [Related]
10. Evolutionary genomics of the HAD superfamily: understanding the structural adaptations and catalytic diversity in a superfamily of phosphoesterases and allied enzymes.
Burroughs AM; Allen KN; Dunaway-Mariano D; Aravind L
J Mol Biol; 2006 Sep; 361(5):1003-34. PubMed ID: 16889794
[TBL] [Abstract][Full Text] [Related]
11. Crystal structure and biochemical analyses reveal that the Arabidopsis triphosphate tunnel metalloenzyme AtTTM3 is a tripolyphosphatase involved in root development.
Moeder W; Garcia-Petit C; Ung H; Fucile G; Samuel MA; Christendat D; Yoshioka K
Plant J; 2013 Nov; 76(4):615-26. PubMed ID: 24004165
[TBL] [Abstract][Full Text] [Related]
12. Evolutionary connection between the catalytic subunits of DNA-dependent RNA polymerases and eukaryotic RNA-dependent RNA polymerases and the origin of RNA polymerases.
Iyer LM; Koonin EV; Aravind L
BMC Struct Biol; 2003 Jan; 3():1. PubMed ID: 12553882
[TBL] [Abstract][Full Text] [Related]
13. Detection of novel members, structure-function analysis and evolutionary classification of the 2H phosphoesterase superfamily.
Mazumder R; Iyer LM; Vasudevan S; Aravind L
Nucleic Acids Res; 2002 Dec; 30(23):5229-43. PubMed ID: 12466548
[TBL] [Abstract][Full Text] [Related]
14. High inorganic triphosphatase activities in bacteria and mammalian cells: identification of the enzymes involved.
Kohn G; Delvaux D; Lakaye B; Servais AC; Scholer G; Fillet M; Elias B; Derochette JM; Crommen J; Wins P; Bettendorff L
PLoS One; 2012; 7(9):e43879. PubMed ID: 22984449
[TBL] [Abstract][Full Text] [Related]
15. The adenylyl and guanylyl cyclase superfamily.
Hurley JH
Curr Opin Struct Biol; 1998 Dec; 8(6):770-7. PubMed ID: 9914257
[TBL] [Abstract][Full Text] [Related]
16. STAND, a class of P-loop NTPases including animal and plant regulators of programmed cell death: multiple, complex domain architectures, unusual phyletic patterns, and evolution by horizontal gene transfer.
Leipe DD; Koonin EV; Aravind L
J Mol Biol; 2004 Oct; 343(1):1-28. PubMed ID: 15381417
[TBL] [Abstract][Full Text] [Related]
17. The NYN domains: novel predicted RNAses with a PIN domain-like fold.
Anantharaman V; Aravind L
RNA Biol; 2006; 3(1):18-27. PubMed ID: 17114934
[TBL] [Abstract][Full Text] [Related]
18. The YHS-Domain of an Adenylyl Cyclase from Mycobacterium phlei Is a Probable Copper-Sensor Module.
Linder JU
PLoS One; 2015; 10(10):e0141843. PubMed ID: 26512893
[TBL] [Abstract][Full Text] [Related]
19. Phosphoesterase domains associated with DNA polymerases of diverse origins.
Aravind L; Koonin EV
Nucleic Acids Res; 1998 Aug; 26(16):3746-52. PubMed ID: 9685491
[TBL] [Abstract][Full Text] [Related]
20. Class III nucleotide cyclases in bacteria and archaebacteria: lineage-specific expansion of adenylyl cyclases and a dearth of guanylyl cyclases.
Shenroy AR; Visweswariah SS
FEBS Lett; 2004 Mar; 561(1-3):11-21. PubMed ID: 15043055
[TBL] [Abstract][Full Text] [Related]
[Next] [New Search]
