Lisa Goodrich's lab at Harvard Medical School studies how specialized cells in the cochlea, particularly glia and neurons, interact to support hearing throughout life. Her team investigates the genetic and molecular mechanisms behind these interactions and how they may be disrupted in conditions leading to hearing loss. By exploring these relationships, they aim to uncover methods to promote recovery from cochlear damage and better understand auditory function.

Dr. Diane J Mathis's lab at Harvard Medical School studies the mechanisms of autoimmune diseases, which affect a significant portion of the population. The lab focuses on understanding how certain cells in the thymus, called medullary thymic epithelial cells (mTECs), help T cells learn to tolerate the body's own antigens, preventing autoimmune reactions. They recently discovered a new type of thymic cell that could play a crucial role in this tolerance process. This research aims to uncover the molecular interactions that help generate these cells and understand their significance in preventing autoimmune diseases.

Dr. Paola Arlotta's lab at Harvard University focuses on understanding how the brain develops, particularly in relation to neurodevelopmental disorders like autism. They use advanced techniques to create models of the human brain using organoids, which are miniature, simplified versions of the brain. By studying these organoids, the lab investigates how specific genetic mutations affect neuron development and brain circuits, aiming to uncover the underlying causes of autism spectrum disorder (ASD).

Dr. Tom A. Rapoport's lab focuses on understanding how proteins are transported across cellular membranes, particularly from the endoplasmic reticulum (ER) to other parts of the cell, or to be degraded. The lab investigates processes like misfolded protein degradation and how proteins are imported into organelles such as peroxisomes. Their research is crucial for addressing diseases linked to protein misfolding, like cystic fibrosis and Zellweger syndrome, and aims to uncover new therapeutic approaches.

Dr. David P. Corey’s lab at Harvard Medical School focuses on understanding and developing therapies for hearing and balance disorders. The lab works on innovative gene therapy techniques to treat hereditary deafness, specifically targeting genetic mutations that cause hearing loss. In addition, they study the fundamental processes of auditory transduction — how sound is converted into electrical signals in the ear, with the ultimate goal of improving treatments for patients with hearing impairments.

Dr. Gordon J. Fishell's lab at Harvard Medical School focuses on understanding the development of cortical interneurons, specifically those expressing somatostatin (SST) and parvalbumin (PV). They aim to unravel how diverse these interneurons are and how genetic regulation and signals from neighboring cells shape their development and function, contributing to circuit formation in the brain. This research holds significance for understanding how disruptions in these processes can lead to brain diseases.

Dr. Jennifer Oyler-Yaniv's lab at Harvard Medical School studies how immune signals, specifically cytokines produced by T-cells, spread through tissues and influence immune responses. By exploring the limited range of these signals, the lab aims to understand how local differences in cytokine availability can lead to variations in gene expression and immune cell behavior. This research is important for developing better strategies for immunotherapy and other treatments that rely on understanding immune dynamics in complex environments.

David D Ginty's lab focuses on understanding how our sense of touch works, including how our body and brain process different types of tactile stimuli like pressure and texture. They explore the biology of sensory neurons in the skin and how these neurons develop and function in both healthy and disease conditions. By using advanced techniques and mouse models, the lab aims to uncover the underlying mechanisms of touch sensation and train the next generation of neuroscientists.

Dr. Michael Eldon Greenberg's lab at Harvard Medical School investigates how sensory experiences influence the development of neural circuits, particularly in the visual system. His research focuses on the role of a specific type of brain cell called astrocytes in regulating visual plasticity and the molecular mechanisms tied to learning and memory. By understanding these processes, the lab aims to uncover new approaches to treat conditions such as amblyopia and other neurodevelopmental disorders.

Dr. Ya-Chieh Hsu's research lab at Harvard University focuses on understanding how stem cells age, particularly hair follicle stem cells (HFSCs). The lab studies the loss of regenerative capacity in aging stem cells and seeks to identify genes that could rejuvenate these cells. By employing advanced genetic techniques and innovative methods, the team aims to uncover the cellular changes that occur as HFSCs age, with hopes of developing therapies to combat age-related declines in stem cell function.

Dr. Christopher D. Harvey's lab at Harvard Medical School focuses on understanding how the brain processes spatial navigation and decision-making, critical functions that can be impaired in diseases like Alzheimer's. The lab investigates the posterior parietal cortex (PPC), a brain region involved in these processes, by exploring its connectivity, the roles of different neuron types, and how these elements change during learning. This research aims to provide insights into the neuronal mechanisms that underpin cognitive functions and their disruptions in neurodegenerative conditions.

Dr. Terence D Capellini's lab at Harvard University focuses on studying the genes that determine the unique features of the human skeleton compared to other mammals, particularly mice. By examining the human fetal skeleton, the lab uses advanced genomic techniques to find causal genetic variants linked to skeletal diseases. Their work aims to enhance our understanding of musculoskeletal development, which can lead to better insights into conditions like hip dysplasia and osteoarthritis.

Dr. Bruce P. Bean's lab focuses on understanding how different types of ion channels in neurons work together to control how neurons fire. By studying the interactions between various channels, such as sodium, calcium, and potassium, the lab aims to design new drugs that can precisely target specific types of neurons involved in pain and epilepsy. This pioneering research could lead to more effective treatments for these conditions.

The lab led by Galit Lahav at Harvard Medical School focuses on understanding how the p53 protein, a crucial tumor suppressor, responds to cellular stressors like DNA damage. By studying single cells and their response dynamics, the team aims to uncover the mechanisms that influence cell survival and death. This research is significant for cancer treatment as it may lead to new strategies that enhance the elimination of cancer cells while protecting healthy cells.

Jessica L. Whited's lab at Harvard University focuses on understanding how axolotls can completely regenerate their limbs after amputation. They explore the systemic responses activated during this process, providing insights that could eventually lead to better regenerative medicine solutions for humans. By studying the interaction between the central nervous system and tissue regeneration, the lab aims to unravel the complex mechanisms behind successful limb repair and regeneration.

Dr. Margaret S. Livingstone's lab at Harvard Medical School studies how early visual experiences shape the brain's ability to recognize different types of objects, such as faces and places. By manipulating visual input during critical development periods, the lab investigates the lasting effects on neuronal circuits involved in object recognition. Understanding these processes can help address issues like amblyopia and improve therapies for visual processing disorders.

The Mitchison Lab at Harvard Medical School studies microtubules, which are essential structures in human cells that help with processes like cell division and neuron function. By using advanced imaging and biochemistry techniques, the lab aims to uncover how microtubules operate and interact in cells, and how they can be affected by diseases such as cancer and ALS. Their research could lead to new treatments for these conditions by targeting specific cellular mechanisms.

Dr. Sandeep R Datta's lab at Harvard Medical School focuses on understanding how the brain processes and interprets olfactory (smell) information, as well as studying behavioral changes in Alzheimer's disease. The lab uses innovative techniques like single cell sequencing and advanced motion analysis to explore how sensory systems adapt and how behavioral patterns are affected by neurological conditions. Students in the lab will learn about the intersection of molecular biology, neuroscience, and behavior.

Dr. Steven P Gygi's lab at Harvard Medical School focuses on innovative techniques for studying proteins, which are crucial molecules in biological processes. His research aims to improve methods for analyzing protein levels and modifications in various conditions, helping to define protein functions and discover potential therapies for diseases. The lab is particularly known for advancing sample multiplexing technologies that allow for efficient analysis of multiple protein samples simultaneously.

Dr. Sharad Ramanathan's lab at Harvard University focuses on understanding how specific cells in the human brain, called astrocytes, develop and function. They create advanced models of the human brain using stem cells to explore the genetic and environmental factors that influence brain development. Ultimately, this research aims to improve our understanding of various brain diseases and may help develop new treatments.