We are studying the molecular pathways involved in craniofacial patterning and heart development and their role in the pathology of congenital disease. A large number of congenital malformations affecting infants involve either craniofacial structures or the heart, leading to substantial morbidity and mortality. Interestingly, many congenital syndromes result in abnormalities both in craniofacial development and cardiac development suggesting that the molecular signals involved in the development of these two different organ systems are shared. Yet, the identities and the biological roles of many of these signals are still not well defined. Here, we will develop genetic approaches using both a forward and reverse screen in Xenopus that will be integrated with ongoing cellular and biochemical approaches in our two labs to investigate the genetic control of craniofacial pattern formation and heart development.
Our primary goal is to better understand the basic biology and pathobiology of craniofacial and cardiac development. To this end, we will use the model organism Xenopus tropicalis to conduct forward and reverse genetics screens to generate animal for human disease states and to identify the molecular pathways involved in the development of cardiac and craniofacial tissues.
|Griffin, John N; Sondalle, Samuel B; Del Viso, Florencia et al. (2015) The ribosome biogenesis factor Nol11 is required for optimal rDNA transcription and craniofacial development in Xenopus. PLoS Genet 11:e1005018|
|Dorr, Kerry M; Amin, Nirav M; Kuchenbrod, Lauren M et al. (2015) Casz1 is required for cardiomyocyte G1-to-S phase progression during mammalian cardiac development. Development 142:2037-47|
|Charpentier, Marta S; Tandon, Panna; Trincot, Claire E et al. (2015) A distinct mechanism of vascular lumen formation in Xenopus requires EGFL7. PLoS One 10:e0116086|
|Amin, Nirav M; Greco, Todd M; Kuchenbrod, Lauren M et al. (2014) Proteomic profiling of cardiac tissue by isolation of nuclei tagged in specific cell types (INTACT). Development 141:962-73|
|Sojka, Stephen; Amin, Nirav M; Gibbs, Devin et al. (2014) Congenital heart disease protein 5 associates with CASZ1 to maintain myocardial tissue integrity. Development 141:3040-9|
|Amin, Nirav M; Tandon, Panna; Osborne Nishimura, Erin et al. (2014) RNA-seq in the tetraploid Xenopus laevis enables genome-wide insight in a classic developmental biology model organism. Methods 66:398-409|
|Amin, Nirav M; Gibbs, Devin; Conlon, Frank L (2014) Differential regulation of CASZ1 protein expression during cardiac and skeletal muscle development. Dev Dyn 243:948-56|
|Kaltenbrun, Erin; Greco, Todd M; Slagle, Christopher E et al. (2013) A Gro/TLE-NuRD corepressor complex facilitates Tbx20-dependent transcriptional repression. J Proteome Res 12:5395-409|
|Boskovski, Marko T; Yuan, Shiaulou; Pedersen, Nis Borbye et al. (2013) The heterotaxy gene GALNT11 glycosylates Notch to orchestrate cilia type and laterality. Nature 504:456-9|
|Tandon, Panna; Miteva, Yana V; Kuchenbrod, Lauren M et al. (2013) Tcf21 regulates the specification and maturation of proepicardial cells. Development 140:2409-21|
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