A photo of Brian Gebelein.

Associate Professor, UC Department of Pediatrics

513-636-3366

Biography & Affiliation

Biography

My research areas include developmental biology, gene expression regulation, neural cell-fate specification, mechanisms patterning the early embryo and the mechanisms underlying Notch signaling, with a specific emphasis on modeling the disease alleles of Adams-Oliver syndrome.

The goal of my laboratory is to understand the molecular mechanisms underlying cell-specific transcription. I have always been fascinated with how cells within our body can use the same genome to generate the vast array of cell types needed to form functional organs and tissues.

Some of my groundbreaking discoveries include:

  • How Hox transcription factors are integrated with genes regulating segmentation to pattern the early embryo
  • How Hox transcription factors are integrated with zinc finger proteins to pattern the nervous system and regulate hematopoiesis

I received the Basil O'Connor Award from the March of Dimes in 2006. I have been a researcher for more than 26 years and began my work at Cincinnati Children's in 2004. My research has been published in respected journals, such as eLife, Nature, Science, Developmental Cell, Genes and Development, Development, Developmental Biology and PLoS Genetics.

Academic Affiliation

Associate Professor, UC Department of Pediatrics

Research Divisions

Developmental Biology

Education

BS: University of Wisconsin, Milwaukee, WI, 1994.

PhD: Mayo Graduate School, Rochester, MN, 2000.

Postdoctoral Fellow: Molecular mechanisms of Hox specificity in Drosophila melanogaster, Columbia University.

Publications

Mechanisms of stearoyl CoA desaturase inhibitor sensitivity and acquired resistance in cancer. Oatman, N; Dasgupta, N; Arora, P; Choi, K; Gawali, MV; Gupta, N; Parameswaran, S; Salomone, J; Reisz, JA; Lawler, S; et al. Science advances. 2021; 7.

Conserved Gsx2/Ind homeodomain monomer versus homodimer DNA binding defines regulatory outcomes in flies and mice. Salomone, J; Qin, S; Fufa, TD; Cain, B; Farrow, E; Guan, B; Hufnagel, RB; Nakafuku, M; Lim, HW; Campbell, K; et al. Genes and Development. 2021; 35:157-174.

Notch dimerization and gene dosage are important for normal heart development, intestinal stem cell maintenance, and splenic marginal zone B-cell homeostasis during mite infestation. Kobia, FM; Preusse, K; Dai, Q; Weaver, N; Hass, MR; Chaturvedi, P; Stein, SJ; Pear, WS; Yuan, Z; Kovall, RA; et al. PLoS Biology. 2020; 18.

Gli3 utilizes Hand2 to synergistically regulate tissue-specific transcriptional networks. Elliott, KH; Chen, X; Salomone, J; Chaturvedi, P; Schultz, PA; Balchand, SK; Servetas, JD; Zuniga, A; Zeller, R; Gebelein, B; et al. eLife. 2020; 9.

Enhancer architecture sensitizes cell specific responses to Notch gene dose via a bind and discard mechanism. Kuang, Y; Golan, O; Preusse, K; Cain, B; Christensen, CJ; Salomone, J; Campbell, I; Okwubido-Williams, FV; Hass, MR; Yuan, Z; et al. eLife. 2020; 9.

Physical interactions between Gsx2 and Ascl1 balance progenitor expansion versus neurogenesis in the mouse lateral ganglionic eminence. Roychoudhury, K; Salomone, J; Qin, S; Cain, B; Adam, M; Pottert, SS; Nakafuku, M; Gebelein, B; Campbell, K. Development (Cambridge). 2020; 147.

Physical interactions between Gsx2 and Ascl1 balance progenitor expansion versus neurogenesis in the mouse lateral ganglionic eminence. Roychoudhury, K; Salomone, J; Qin, S; Cain, B; Adam, M; Potter, SS; Nakafuku, M; Gebelein, B; Campbell, K. Development (Cambridge). 2020.

A Comprehensive Structure-Function Study of Neurogenin3 Disease-Causing Alleles during Human Pancreas and Intestinal Organoid Development. Zhang, X; McGrath, PS; Salomone, J; Rahal, M; McCauley, HA; Schweitzer, J; Kovall, R; Gebelein, B; Wells, JM. Developmental Cell. 2019; 50:367-380.e7.

The cis-regulatory logic underlying abdominal Hox-mediated repression versus activation of regulatory elements in Drosophila. Zandvakili, A; Uhl, JD; Campbell, I; Salomone, J; Song, YC; Gebelein, B. Developmental Biology. 2019; 445:226-236.

Degenerate Pax2 and Senseless binding motifs improve detection of low-affinity sites required for enhancer specificity. Zandvakili, A; Campbell, I; Gutzwiller, LM; Weirauch, MT; Gebelein, B. PLoS Genetics. 2018; 14.