Dr. Pamela J Skinner's lab focuses on understanding how HIV persists in the body, particularly in secretive reservoirs like the gut and brain. They are developing innovative therapies that use genetically engineered immune cells to seek out and eliminate these hidden viral reservoirs, aiming for a potential cure for HIV. This research is crucial for improving treatment strategies and possibly eradicating the virus in infected individuals.

Dr. Jan M. Skotheim's lab at Stanford University focuses on understanding how cells control their growth and division, with a particular emphasis on budding yeast as a model system. The lab aims to uncover the molecular mechanisms that link cell growth to cell division, and how these processes are disrupted in cancer. Their research has significant implications for both basic biology and medical applications, especially in developing new cancer treatments.

Dr. Leslie C. Griffith's lab at Brandeis University studies how lack of sleep affects our ability to form memories. They investigate the molecular and circuit-level changes that occur during sleep deprivation, using fruit flies as a model organism. This research aims to uncover the mechanics of memory impairment due to sleep loss and to explore potential solutions to mitigate these effects.

Dr. Alex C Keene's lab at Texas A&M University focuses on understanding the genetics of sleep regulation and its implications for sleep disorders like insomnia. The research combines genetic analysis, animal models, and behavioral studies to identify how specific genes and molecular pathways affect sleep patterns in humans and model organisms. The ultimate goal is to elucidate the biological mechanisms behind sleep-related genetic variations, which could lead to better diagnosis and treatment for sleep disorders.

Dr. Keith B. Hengen's lab at Washington University focuses on understanding the relationship between sleep and brain health, particularly in the context of neurodegenerative diseases like Alzheimer's. The research aims to uncover how sleep can help maintain optimal neural activity and prevent cognitive decline. By using innovative techniques to enhance sleep and its restorative effects, the lab seeks to identify new therapeutic strategies for combating neurodegeneration.

Dr. Duncan J. Smith's lab at New York University focuses on understanding how DNA processes like replication and transcription interact and sometimes conflict with each other. They use yeast as a model to explore the behaviors of helicases—proteins that unwind DNA—and how their activities affect genome integrity, especially in relation to cancer. The lab develops novel methods to map these interactions and aims to provide insights that could help in understanding diseases related to DNA damage.

Dr. Ebru Demir's lab at Southern Illinois University Carbondale investigates how animals make decisions between social interactions and satisfying basic needs, like hydration. The research focuses on understanding the brain circuits involved in these decision processes, particularly how they operate in a naturalistic setting with mice. By using advanced techniques, the lab aims to uncover the neural mechanisms that influence social behavior, which can help address issues related to mental health, such as autism and addiction.

Dr. Annaliese K. Beery’s research focuses on understanding how social relationships, particularly peer friendships, are formed and maintained. Using prairie voles as a model organism, her lab investigates the role of the neuropeptide oxytocin in influencing social behaviors like acceptance of familiar partners and avoidance of strangers. By exploring these mechanisms, the lab aims to shed light on the neural basis of social connections and their implications for human relationships.

Dr. Scott H. Soderling's lab at Duke University investigates how specific proteins called kinases regulate neuronal function and contribute to brain disorders. The lab employs advanced techniques like AI algorithms and CRISPR to explore the molecular mechanics underlying neurodegenerative diseases, such as Parkinson's, and developmental disorders like Autism Spectrum Disorder. They aim to deepen our understanding of these conditions and identify potential therapeutic strategies.

Dr. Farida Sohrabji's lab at Texas A&M focuses on understanding how stroke affects cognitive impairment, especially in aging female rats. The research explores the role of hormones and microRNAs in stroke recovery and looks at how gut health may influence brain outcomes. Their work aims to develop new therapeutic approaches to improve recovery from stroke, especially for women who are more affected by these conditions.

Dr. Sergei Sokol's lab studies how cells communicate during the early development of vertebrates, specifically using the model organism Xenopus. They explore the processes that help shape an embryo, looking at how proteins influence cell behavior and organization. This research helps us understand normal development and how diseases like congenital defects and cancer can arise when these processes go wrong.

Dr. Steven H Green's lab at the University of Iowa focuses on understanding how noise exposure affects hearing, particularly through the damage of cochlear synapses. They are investigating the role of sex hormones like progesterone in protecting against this type of damage and ways to promote synapse regeneration after noise trauma, with an emphasis on sex differences in susceptibility. This research could lead to new treatments for hearing impairments that result from noise exposure.

Dr. Joe Sorg's lab at Texas A&M University focuses on understanding the resilient spores of Clostridioides difficile, a major cause of hospital infections. The lab studies small acid soluble proteins (SASPs) that protect these spores from damage, particularly from UV light and harmful chemicals. By uncovering how these proteins work, the lab aims to develop strategies to combat C. difficile contamination in healthcare settings and improve patient outcomes.

Dr. Bradley D Winters' research lab focuses on uncovering the complexities of how the brain processes sound localization, particularly through a group of neurons known as the lateral superior olive (LSO). They study how different types of LSO neurons handle various sound cues, such as timing and intensity, which are crucial for understanding speech in noisy environments. The goal is to understand how hearing impairments affect these neural processes, especially in children with auditory processing disorders.

Dr. Nancy Speck's lab focuses on understanding how a gene called RUNX1 influences inflammation in blood cells, particularly in patients who have mutations that can lead to blood cancers. Her research aims to uncover how these mutations affect immune responses, potentially contributing to cancer development. By studying both human patients and mouse models, the lab seeks to find ways to reduce harmful inflammation linked to these genetic changes.

Dr. Dmitry Fyodorov's lab at Albert Einstein College of Medicine focuses on understanding how sperm chromatin is structured and remodeled during the development of sperm and the process of fertilization. By studying the unique features of sperm chromatin—especially how it differs from chromatin in other cell types—his team aims to uncover mechanisms that may inform treatments for fertility issues and develop new contraceptives. The research combines molecular biology, biophysics, and genetics using the fruit fly as a model organism.

Dr. Michel Bagnat's lab studies the biological mechanisms behind vertebrate spine formation and gut nutrient absorption. The team focuses on specialized cells in the notochord and enterocytes, using models like zebrafish and mice. Their research aims to uncover how these cells regulate crucial processes that could inform treatments for spinal dysfunction and improve understanding of digestive health, particularly in infants.

Dr. Pengbo Zhou's lab focuses on understanding how specific mutations in the SPOP gene influence the development and progression of prostate cancer. By exploring both upstream regulators and downstream effects of this signaling pathway, the lab aims to identify new treatment strategies that target specific cancer subtypes, particularly those that display unique responses to therapy. This research is crucial for creating more effective, personalized medical interventions for patients with prostate cancer.

Dr. Ankita Srivastava's lab focuses on understanding how alcohol consumption affects the liver's ability to regenerate and recover from damage. By studying both male and female rats, the lab investigates the differences in liver responses to ethanol and identifies the mechanisms that lead to disruption in repair processes. The ultimate goal is to translate these findings to human conditions related to alcohol-related liver disease.

Dr. Matthew D Stachler's lab at UCSF focuses on understanding how Barrett's esophagus, a condition that can lead to esophageal cancer, progresses and how at-risk patients can be identified. The team develops and validates a combination of genomic and methylation biomarkers to enhance risk stratification for patients. Through this research, they aim to improve early detection and treatment of esophageal adenocarcinoma, which is often aggressive and difficult to manage.