Dr. Sally A. Camper's lab focuses on understanding congenital birth defects associated with the hypothalamus and pituitary gland. By studying genetically altered mice, the lab aims to identify the genetic defects that lead to conditions like congenital hypopituitarism, which can result in severe health problems. The lab employs advanced techniques to analyze how these defects affect brain development and hormone regulation, which ultimately helps in diagnosing and treating similar human conditions.

The lab led by Dr. Shigeki Iwase focuses on understanding how chromatin modifications, specifically histone methylation, influence brain function and development. The research aims to uncover the specific roles that various enzymes play in synaptic plasticity and neurodevelopmental disorders such as autism and intellectual disabilities. By investigating the complex regulatory mechanisms in neurons, the lab hopes to develop new therapeutic strategies to address these disorders.

Dr. Jacob L. Mueller's lab at the University of Michigan focuses on understanding the competition between genes on sex chromosomes and how these interactions affect fertility. They study the roles of specific gene families that influence sperm success and investigate large palindromic DNA sequences in the genome to uncover their functions and evolutionary significance. By using advanced genetic techniques, the lab aims to provide insights into male infertility and the mechanisms of genetic inheritance.

Dr. Saher Sue Hammoud's lab at the University of Michigan focuses on the critical process of meiosis, which is essential for the production of sperm and eggs. Their research investigates how specific proteins, particularly ZCWPW1, influence the accurate pairing and recombination of chromosomes during this process. By studying these mechanisms, the lab aims to uncover the molecular causes of chromosome mis-segregation, a leading factor in infertility and genetic disorders.

Dr. Sundeep Kalantry's lab at the University of Michigan focuses on understanding how mammals balance gene expression from their sex chromosomes, particularly how females with two X chromosomes and males with one equalize their gene expression. The research investigates the role of a specific RNA called Xist in this process and explores alternative mechanisms that may have evolved over time, using mouse models to uncover these genetic insights. This work has broad implications for understanding genetic regulation and potential health impacts.