RNA metabolism dysfunction and RNA-targeting therapy in neurodegeneration The nervous system has extremely complex RNA processing regulation. Dysfunction of RNA metabolism has emerged to play crucial roles in multiple neurological diseases. Mutations and pathologies of several RNA-binding proteins are...
Our laboratory’s research focuses on understanding (1) how cells measure levels of available nutrients and (2) how cells adapt to changes in nutrient supply to control metabolic homeostasis. Our studies have primarily centered on changes in cholesterol and oxygen...
The Fukunaga lab is broadly interested in RNA biology. More specifically, the Fukunaga lab investigates the mechanism and biology of post-transcriptional gene regulation controlled by small silencing RNAs and RNA-binding proteins. Our research projects will answer fundamental biological questions...
The ribosome is a complex molecular machine that translates the genetic code into functional polypeptides. Our work focuses on understanding how the ribosome functions at a molecular level and how changes in its activity lead to mRNA quality control...
My laboratory has taken a multidisciplinary approach to understand the cellular and molecular mechanisms of different types of somatosensations including pain and itch, which are initiated and mediated by primary sensory neurons in dorsal root ganglia (DRG). We identified...
My laboratory is actively engaged in discovering and defining cell signaling pathways that lead to either neuronal survival or neuronal death. We have characterized neuronal injury and survival pathways in fly, mouse and human models of Parkinson’s disease and...
Our lab studies the earliest stages of embryogenesis to understand how single-celled eggs develop into complex multicellular embryos. We study how RNAs and proteins become localized to pattern the developmental potential of newly fertilized eggs. We have identified a...
We study how epithelial tubular organs – which are essential to life in all multicellular organisms – form and specialize. Using the simple unbranched tubes of the Drosophila salivary gland and the beautifully branched tubular network of the Drosophila...
The goal of the Meffert lab is to gain a mechanistic understanding of how selective gene programs are recruited and maintained to modify the nervous system during development, experience-dependent plasticity, and in injury or disease. Rather than focusing on...
My laboratory is interested in the molecular mechanisms by which cells interpret signals from their environment that instruct them to proliferate, differentiate, or die by apoptosis. This process is of fundamental importance in the development and function of the...