Dr. Dane Parker's lab focuses on understanding how the immune system interacts with Staphylococcus aureus, a common cause of pneumonia and antibiotic-resistant infections. The research aims to explore how a specific immune signaling pathway, known as type III interferon, affects the body's ability to clear this pathogen. By studying the role of immune cells called alveolar macrophages and the mechanisms by which Staphylococcus aureus activates immune responses, the lab hopes to discover new therapeutic strategies to combat infections caused by this dangerous bacterium.

Ina Stelzer's research lab focuses on understanding the complex interplay between the brain, immune system, and hormone signaling during pregnancy, particularly how these factors contribute to spontaneous preterm birth. By investigating the role of dopamine and other neuroimmunoendocrine processes, the lab aims to develop new predictive tools and therapeutic strategies to improve maternal and fetal health. This work has the potential to significantly impact public health by enhancing our understanding of pregnancy complications.

Dr. Maria Marianovich's lab studies how the sympathetic nervous system influences the aging of blood-forming stem cells within the bone marrow. They aim to uncover the mechanisms that govern stem cell function and their environment as we age, which is crucial for understanding blood disorders and potential therapeutic strategies. Her research involves cutting-edge techniques and aims to reveal how nerve signals affect stem cell health and longevity.

Dr. Margaret T. Fuller's lab at Stanford University studies how adult stem cells transition from proliferating to differentiating. Their research focuses on understanding the cellular mechanisms that govern this critical switch, which is important for the proper development of cells in various tissues. They use Drosophila sperm development as a model to uncover these processes, aiming to gain insights that could advance knowledge about tissue maintenance and cancer prevention.

Dr. Dagmar Sternad's lab explores how humans control complex objects, such as a cup of coffee. Their research aims to understand how motor control strategies can make these interactions more predictable, which is crucial for individuals with motor impairments. By using both virtual simulations and real-life experiments, the lab aims to develop new ways to assess motor function and recovery in patients after strokes, ultimately helping to improve the quality of life for those with neurological conditions.

Dr. Jeffery A Goldstein's lab focuses on using advanced machine learning techniques to understand the causes of stillbirth, a heartbreaking event affecting thousands of families each year. By analyzing placental histopathology, the lab aims to develop models that help identify placental issues leading to stillbirth, thereby improving diagnosis and treatment options. This research not only seeks to enhance understanding of stillbirth causes but also hopes to support families in their future pregnancies by providing personalized care based on identified risks.

Dr. David L. Stokes' lab focuses on understanding how cells transport ions like potassium and zinc across their membranes. By combining advanced techniques such as cryo-electron microscopy and molecular dynamics simulations, the lab investigates the mechanisms that regulate these transport processes. This research not only provides insights into cellular ionic homeostasis but also has implications for understanding how these processes can be disrupted in diseases.

Dr. Eric S Wohleb's lab at the University of Cincinnati investigates how chronic stress impacts the brain, particularly focusing on how stress causes changes in neurons that can lead to mental health disorders like PTSD and depression. The research looks at DNA damage in stressed neurons and how it alters gene activity and neuron structure. By understanding these processes, the lab aims to find new ways to treat stress-related cognitive issues.

Dr. Sidney Strickland's lab at Rockefeller University focuses on understanding the mechanisms of Alzheimer's disease (AD), particularly the roles of inflammation and blood clotting. They investigate how interactions between the beta-amyloid peptide and fibrinogen contribute to cognitive decline and vascular dysfunction in AD. The lab aims to develop new therapeutic strategies by targeting these molecular interactions and understanding their impact on brain health.

Dr. Boris Striepen’s lab focuses on the Cryptosporidium parasite, a significant cause of severe diarrhea that affects many vulnerable populations, particularly children and immunocompromised individuals. The lab investigates how the parasite undergoes sexual development, which is crucial for its lifecycle and transmission. By understanding the genetic and epigenetic mechanisms involved in this process, the research aims to contribute to the development of effective treatments and vaccines against cryptosporidiosis.

Dr. Yajaira Suarez's lab at Yale University studies how certain cellular processes in blood vessels and immune cells contribute to heart diseases, particularly atherosclerosis. They focus on understanding how non-coding RNAs and specific metabolic pathways influence the behavior of endothelial cells, smooth muscle cells, and macrophages in the context of vascular inflammation. The ultimate goal of this research is to uncover new treatment strategies for cardiovascular diseases through a better understanding of these mechanisms.

Dr. Suresh Subramani's lab at UC San Diego primarily investigates the mechanisms of peroxisome biogenesis, focusing on how these essential organelles are formed in cells. By utilizing yeast models, the lab aims to uncover key genes and proteins involved in the creation and regulation of peroxisomes, as well as the communication between peroxisomes and other cellular structures. This research not only enhances our understanding of cellular biology but also has implications for diagnosing and treating peroxisome biogenesis disorders in humans.

Dr. Joerg Bewersdorf's lab at Yale University focuses on advancing super-resolution microscopy techniques to better visualize the intricate structures of cellular organelles. The research aims to understand how these structures change in diseases like cancer and neurodegenerative disorders. By developing innovative imaging tools, the lab strives to make it easier for scientists to explore the complexities of cellular biology and to improve public health outcomes through better diagnostic and therapeutic strategies.

Dr. Richard Jarrett Rushmore's lab at Boston University focuses on mapping an important part of the brain called the superficial white matter (SWM) in primates, specifically rhesus monkeys. This research aims to understand how the SWM connects different brain areas, which is crucial for studying neurological disorders like Alzheimer's disease and autism. By using advanced imaging and histological techniques, the lab will create detailed maps of these connections, benefiting both animal and human health research.

Dr. Rejji Kuruvilla's lab at Johns Hopkins University focuses on the interactions between sympathetic neurons and satellite glial cells, which play crucial roles in the sympathetic nervous system. The lab investigates how these glial cells, often overlooked, help regulate neuronal activity and contribute to overall body physiology. By exploring the development and communication mechanisms of these cell types, the research aims to uncover insights that could lead to new therapies for disorders such as chronic heart failure and hypertension.

Dr. Yongli Zhang's lab at Yale University focuses on understanding how proteins involved in neuron communication and lipid transfer work at a molecular level. Specifically, the research explores how SNARE proteins help trigger the fusion of synaptic vesicles, which is essential for transmitting signals between nerve cells, and how lipid transfer proteins facilitate the movement of lipids between membranes. The ultimate goal is to uncover the mechanisms behind these processes, which could help in addressing various neurological diseases.

Dr. Tammy Kielian's lab focuses on understanding how immune cells, particularly T cells, interact with the bacterium Staphylococcus aureus during infections that can occur after brain surgeries like craniotomies. The lab investigates how these immune responses can both help and hinder the body's ability to eliminate biofilms formed by this bacteria, aiming to improve treatments for infections that can lead to serious complications.

Dr. Weiguo Cui's lab at Northwestern University focuses on understanding how T cells respond to chronic viral infections. They investigate the mechanisms behind T cell exhaustion and differentiation, aiming to harness this knowledge to develop new therapeutic strategies. By exploring how specific T cell subsets are formed and function, the lab aims to improve treatments for conditions like HIV and cancer.

Dr. Michelle Krogsgaard's lab focuses on enhancing the effectiveness of T cell-based immunotherapies for cancer treatment. By studying the signaling pathways of T cell receptors, the lab aims to improve the ability of T cells to recognize and kill tumor cells without compromising their specificity. This research holds promise for developing better strategies in cancer immunotherapy, particularly for melanoma.

Dr. Brian D. Evavold's lab focuses on understanding how T cell receptors (TCRs) recognize antigens and how this interaction influences immune responses, particularly in autoimmune diseases like multiple sclerosis. By studying the physical properties of TCRs, such as bond lifetime and force, the lab aims to reveal critical information about T cell behavior and function. This research has the potential to lead to new therapies for autoimmune conditions by improving our understanding of how T cells can be regulated during immune responses.