I am a developmental biologist studying craniofacial development and disease. The long-term goal of my research is to help children with craniofacial anomalies by generating tissue amenable for surgical repair. To achieve this goal, my lab specifically focuses on the role of a cellular organelle (the primary cilium) during craniofacial development and the craniofacial anomalies that arise when the cilium do not function properly (ciliopathies).
Projects in my lab utilize avian, murine and human-induced pluripotent stem cells to gain a better understanding of the molecular mechanisms associated with craniofacial anomalies.
My lab has uncovered the genetic cause of an avian mutant line called talpid2. Our work determined that the talpid2 was caused by a mutation in the protein coding gene C2 Domain Containing 3 Centriole Elongation Regulator (C2cd3) and, as such, could serve as a bona fide animal model for the human ciliopathic disorder orofacial-digital-syndrome (OFD). This discovery has allowed for novel experimentation of molecular mechanisms and treatment options for children with OFD.
In addition to using existing animal models to understand human craniofacial disorders, we are also sequencing patients and generating cell-based models to uncover novel genetic causes for craniofacial ciliopathies.
For my work, I was recognized with the 2013 Presidential Early Career Award for Science and Engineering. This award is the highest honor given by the United States government to outstanding scientists and engineers who are beginning their independent research careers and show exceptional promise for leadership in science and technology. In 2017, I received a Sustaining Outstanding Achievement in Research (SOAR) grant award from the National Institutes of Health. This grant allows mid-career investigators with outstanding productivity to have stable funding as they pursue potentially transformative research programs.
Cranial neural crest shortage leads to extensive craniofacial anomalies in mice mutant for the NR2F1/2 nuclear receptors. Developmental Biology. 2026; 530:102-118.
An inducible system to study the regulatory functions of GSX2 in human lateral ganglionic eminence-like progenitors. Developmental Biology. 2026.
A dual role for GLI3 signaling in neural crest development. Development. 2026; 153(1).
Detection of the Heterozygous Recurrent MAX p.(Arg60Gln) Variant in Two Females Confirms and Expands the Phenotypic Spectrum of Polydactyly-Macrocephaly Syndrome. Clinical Genetics. 2025.
Centriolar protein PIBF1 is required for craniofacial and forebrain development. Developmental Biology. 2025; 527:55-64.
A non-syndromic orofacial cleft risk locus links tRNA splicing defects to neural crest cell pathologies. American Journal of Human Genetics. 2025; 112(5):1097-1116.
The widely used Ucp1-Cre transgene elicits complex developmental and metabolic phenotypes. Nature Communications. 2025; 16(1):770.
Genetic analysis and functional assessment of a TGFBR2 variant in micrognathia and cleft palate. PLoS ONE. 2025; 20(6):e0324803.
ARID1A-BAF coordinates ZIC2 genomic occupancy for epithelial-to-mesenchymal transition in cranial neural crest specification. American Journal of Human Genetics. 2024; 111(10):2232-2252.
The society for craniofacial genetics and developmental biology 46th annual meeting. American Journal of Medical Genetics, Part A. 2024; 194(8):e63615.