Gene/Protein Disease Symptom Drug Enzyme Compound
Pivot Concepts:   Target Concepts:
Query: EC:3.4.15.1 (ACE)
 18,300 document(s) hit in 31,850,051 MEDLINE articles (0.00 seconds)

The potential of the CREM family of proteins to activate transcription of the genes encoding the testis-specific isozyme of angiotensin converting enzyme (ACET) and the gluconeogenic enzyme, phosphoenolpyruvate carboxykinase (GTP) (PEPCK) (EC 4.1.1.32) were investigated. Both CREM tau and CREM alpha bind efficiently to the putative cyclic AMP response element (CRE) present in the ACET gene (CRET) and to the CRE in the PEPCK gene. In HepG2 cells, the CRE was required for the strong stimulation by CREM tau of the expression of a chimeric PEPCK (-210 to +73)-chloramphenicol acetyl transferase (CAT) gene. The CRE could be mutated to the CRET sequence without losing the stimulatory effects of CREM tau. However, a similar chimeric gene driven by the regulatory region of the ACET gene, which contains the CRET site, could only be stimulated by CREM tau when its imperfect TATA element was mutated to an authentic TATA. Surprisingly, CREM alpha, an alleged inhibitor of CRE-mediated transcription, stimulated the expression of both PEPCK-CAT and ACET-CAT genes in HepG2 cells, a process which required the presence of the CRE and the CRET sites, respectively. In contrast, when the same CRE elements were used to drive the transcription of a chimeric gene containing the thymidine kinase promoter linked to the CAT structural gene, CREM alpha inhibited its expression in HepG2 and JEG3 cells. The expression of the same chimeric gene, however, was stimulated by CREM alpha in F9 embryonal carcinoma cells. These results demonstrated that the nature of the transcriptional effects of CREM isoforms on CRE-mediated transcription depends on the specific gene, the specific cell type and the promoter context of the CRE site.
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PMID:The cyclic AMP response elements of the genes for angiotensin converting enzyme and phosphoenolpyruvate carboxykinase (GTP) can mediate transcriptional activation by CREM tau and CREM alpha. 764 72

Understanding the genetic architecture of athletic performance is an important step in the development of methods for talent identification in sport. Research concerned with molecular predictors has highlighted a number of potentially important DNA polymorphisms contributing to predisposition to success in certain types of sport. This review summarizes the evidence and mechanistic insights on the associations between DNA polymorphisms and athletic performance. A literature search (period: 1997-2014) revealed that at least 120 genetic markers are linked to elite athlete status (77 endurance-related genetic markers and 43 power/strength-related genetic markers). Notably, 11 (9%) of these genetic markers (endurance markers: ACE I, ACTN3 577X, PPARA rs4253778 G, PPARGC1A Gly482; power/strength markers: ACE D, ACTN3 Arg577, AMPD1 Gln12, HIF1A 582Ser, MTHFR rs1801131 C, NOS3 rs2070744 T, PPARG 12Ala) have shown positive associations with athlete status in three or more studies, and six markers (CREM rs1531550 A, DMD rs939787 T, GALNT13 rs10196189 G, NFIA-AS1 rs1572312 C, RBFOX1 rs7191721 G, TSHR rs7144481 C) were identified after performing genome-wide association studies (GWAS) of African-American, Jamaican, Japanese, and Russian athletes. On the other hand, the significance of 29 (24%) markers was not replicated in at least one study. Future research including multicenter GWAS, whole-genome sequencing, epigenetic, transcriptomic, proteomic, and metabolomic profiling and performing meta-analyses in large cohorts of athletes is needed before these findings can be extended to practice in sport.
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PMID:Current Progress in Sports Genomics. 2623 89