Dr. Jingyi Fei's lab at the University of Chicago focuses on understanding membraneless organelles (MLOs) in eukaryotic cells. These organelles, which consist of proteins and RNAs, play crucial roles in cellular processes and are linked to various diseases. The lab aims to develop new methods to study the organization and function of MLOs at high resolution, which could ultimately lead to better therapeutic strategies for related health conditions.

Dr. Chuan He's research lab at the University of Chicago focuses on understanding DNA modifications, particularly epigenetic changes that affect gene expression. They are developing new methods to label and sequence specific chemical changes in DNA, particularly 5-hydroxymethylcytosine and 5-methylcytosine, which may have significant implications for diagnosing and treating diseases. This research is crucial for both basic science and clinical applications, promising advancements in how we study and understand genetics and health.

Dr. Benoit Roux's research lab at the University of Chicago focuses on using molecular dynamics simulations to investigate how potassium (Kv) and sodium (Nav) channels function within biological membranes. The lab aims to understand the complex interactions that influence ion channel behavior, particularly in relation to neurological disorders and cardiac functions. By improving computational models, the lab seeks to explore the fundamental forces that guide ion permeation and channel activation, which are critical for human health.

Dr. Robert J Keenan's lab at the University of Chicago focuses on understanding how membrane proteins are created and folded in cells. These proteins play essential roles in various cellular functions and their improper folding can lead to diseases. The lab's research investigates the molecular mechanisms behind the assembly of multi-pass membrane proteins, crucial for both cell functionality and health. By studying these processes, they aim to provide insights that may help address various human diseases related to membrane protein dysfunction.

Dr. Tao Pan's lab at the University of Chicago focuses on understanding small nucleolar RNAs (snoRNAs), which are important molecules that help guide modifications in ribosomal RNA and can influence gene expression. By using advanced sequencing technologies, the lab aims to uncover the roles and interactions of these snoRNAs in human cells and how they impact various biological processes and diseases. This work could provide new insights into genome regulation and RNA-based therapies.

Dr. Joseph Piccirilli's lab at the University of Chicago focuses on understanding the role and structure of non-coding RNAs and their complexes with proteins and small molecules. They utilize innovative chemical and biochemical methods to investigate how these RNAs function in health and disease. By developing synthetic antibodies and studying catalytic RNAs, the lab aims to reveal critical insights into RNA structures and their biological significance.

Dr. Tobin R Sosnick's lab at the University of Chicago focuses on understanding how proteins, especially membrane and disordered proteins, work and fold. They use advanced techniques to study how these proteins transport molecules across cell membranes and how they behave under stress. This research is not only foundational for biology but also has practical implications for drug development and understanding disease processes.

Dr. Savas Tay's lab at the University of Chicago focuses on how cells communicate and process information in complex environments. The lab combines experimental techniques with advanced technologies to analyze single cells, particularly in the context of immune signaling in health and disease. By understanding these processes, the research aims to improve therapies for various conditions, including cancer and autoimmune diseases.

Dr. Ronald S. Rock's lab studies how specific motor proteins called myosins move and function within cells. They focus on myosin-10, which plays a crucial role in delivering important molecules to areas of the cell that help it move, especially during cell division and in cancer metastasis. By understanding how these proteins are regulated and how they navigate within cells, the lab aims to shed light on fundamental biological processes and improve our understanding of cell movement in health and disease.