AIMS: The fibroblast growth factor (FGF) family plays an important role in cardiac growth and development. However, only FGF-16 RNA levels are reported to increase during the perinatal period and to be expressed preferentially in the myocardium, suggesting control at the transcriptional level and a role for FGF-16 in the postnatal heart. Beyond the identification of two TATA-like elements (TATA1 and TATA2) in the mouse FGF-16 promoter region and the preferential cardiac activity of TATA2, there is no report of Fgf-16 gene regulation. Assessment of promoter sequences, however, reveals putative nuclear factor-kappaB (NF-kappaB) elements, suggesting that Fgf-16 is regulated via NF-kappaB activation and thereby implicated in a number of cardiac events. Thus, the Fgf-16 gene was investigated as a target for NF-kappaB activation in cardiac cells. METHODS AND RESULTS: Assessments of Fgf-16 promoter activity were made using truncated and transfected hybrid genes with NF-kappaB inhibitors and/or beta-adrenergic stimulation via isoproterenol (IsP) treatment (a known NF-kappaB activator) in culture, and on endogenous mouse and human Fgf-16 genes in situ. The mouse Fgf-16 promoter region was stimulated in response to IsP treatment, but this response was lost with NF-kappaB inhibitor pretreatment. Deletion analysis revealed IsP responsiveness linked to sequences between TATA2 and TATA1 and, more specifically, a NF-kappaB element upstream and adjacent to TATA1 that associates with NF-kappaB p50/p65 subunits in chromatin. Finally, TATA1 and the proximal NF-kappaB element are conserved in the human genome and responsive to IsP. CONCLUSION: The mouse and human Fgf-16 gene is a target for NF-kappaB activation in the postnatal heart.
AIMS: The fibroblast growth factor (FGF) family plays an important role in cardiac growth and development. However, only FGF-16 RNA levels are reported to increase during the perinatal period and to be expressed preferentially in the myocardium, suggesting control at the transcriptional level and a role for FGF-16 in the postnatal heart. Beyond the identification of two TATA-like elements (TATA1 and TATA2) in the mouseFGF-16 promoter region and the preferential cardiac activity of TATA2, there is no report of Fgf-16 gene regulation. Assessment of promoter sequences, however, reveals putative nuclear factor-kappaB (NF-kappaB) elements, suggesting that Fgf-16 is regulated via NF-kappaB activation and thereby implicated in a number of cardiac events. Thus, the Fgf-16 gene was investigated as a target for NF-kappaB activation in cardiac cells. METHODS AND RESULTS: Assessments of Fgf-16 promoter activity were made using truncated and transfected hybrid genes with NF-kappaB inhibitors and/or beta-adrenergic stimulation via isoproterenol (IsP) treatment (a known NF-kappaB activator) in culture, and on endogenous mouse and humanFgf-16 genes in situ. The mouseFgf-16 promoter region was stimulated in response to IsP treatment, but this response was lost with NF-kappaB inhibitor pretreatment. Deletion analysis revealed IsP responsiveness linked to sequences between TATA2 and TATA1 and, more specifically, a NF-kappaB element upstream and adjacent to TATA1 that associates with NF-kappaB p50/p65 subunits in chromatin. Finally, TATA1 and the proximal NF-kappaB element are conserved in the human genome and responsive to IsP. CONCLUSION: The mouse and humanFgf-16 gene is a target for NF-kappaB activation in the postnatal heart.
Authors: M S Rodriguez; J Wright; J Thompson; D Thomas; F Baleux; J L Virelizier; R T Hay; F Arenzana-Seisdedos Journal: Oncogene Date: 1996-06-06 Impact factor: 9.867
Authors: A Miyake; M Konishi; F H Martin; N A Hernday; K Ozaki; S Yamamoto; T Mikami; T Arakawa; N Itoh Journal: Biochem Biophys Res Commun Date: 1998-02-04 Impact factor: 3.575
Authors: Gianluigi Condorelli; Carmine Morisco; Michael V G Latronico; Pier Paolo Claudio; Paul Dent; Philip Tsichlis; Gerolama Condorelli; Giacomo Frati; Alessandra Drusco; Carlo M Croce; Claudio Napoli Journal: FASEB J Date: 2002-11 Impact factor: 5.191
Authors: Matthew C Catley; Maria B Sukkar; K Fan Chung; Bruce Jaffee; Sha-Mei Liao; Anthony J Coyle; El-Bdaoui Haddad; Peter J Barnes; Robert Newton Journal: Mol Pharmacol Date: 2006-05-10 Impact factor: 4.436
Authors: James Shaw; Tong Zhang; Marek Rzeszutek; Natalia Yurkova; Delphine Baetz; James R Davie; Lorrie A Kirshenbaum Journal: Circ Res Date: 2006-11-02 Impact factor: 17.367
Authors: Kara N Thomas; Katherine N Zimmel; Alexis N Roach; Alison Basel; Nicole A Mehta; Yudhishtar S Bedi; Michael C Golding Journal: FASEB J Date: 2021-12 Impact factor: 5.834
Authors: Richard C Chang; Kara N Thomas; Nicole A Mehta; Kylee J Veazey; Scott E Parnell; Michael C Golding Journal: Epigenetics Chromatin Date: 2021-06-15 Impact factor: 4.954
Authors: Navid Koleini; Barbara E Nickel; Jie Wang; Zeinab Roveimiab; Robert R Fandrich; Lorrie A Kirshenbaum; Peter A Cattini; Elissavet Kardami Journal: Oncotarget Date: 2017-08-24