Dr. Mary Hebert's lab at the University of Washington focuses on understanding how medications taken by breastfeeding mothers can affect drug levels in breast milk. They employ advanced modeling techniques to predict how drugs may be transferred into breast milk based on various biological parameters. This research is crucial for assessing the safety of drug exposure for infants during breastfeeding and aims to fill significant gaps in current pharmacological knowledge.

Dr. Ning Zheng's lab focuses on understanding how heart rhythms are regulated at the molecular level. The team uses advanced imaging techniques to study proteins called sodium and calcium channels, which are crucial for heart cell function. By investigating their structure and function, especially in the context of mutations that cause arrhythmias, they aim to improve antiarrhythmic drug design for safer and more effective treatments.

Dr. John D. Scott's lab at the University of Washington studies how specific proteins can control the release of cortisol, the stress hormone, from our adrenal glands. They focus on a condition called Cushing's syndrome, which causes the body to produce too much cortisol, leading to serious health issues. The lab's goal is to understand the mutations in a protein called PKA that contribute to this syndrome and to develop more effective treatments using precision medicine.

Dr. Rodney Ho's lab at the University of Washington focuses on developing new antiviral treatments for hepatitis B virus (HBV) that can last longer and reduce the need for daily medication. They aim to create innovative injection-based therapies that will help patients manage their condition more effectively and avoid complications like liver cancer. The lab collaborates with other experts to translate these ideas into real-world solutions that can significantly improve patient care.

Dr. Joanne Wang's lab at the University of Washington focuses on understanding how nutrients and drugs are transported from the mother to the fetus through key organs like the placenta and developing gut. They study the protein transporters that facilitate this process and their role in protecting the developing brain and body of neonates and infants. The research aims to shed light on how these transport proteins affect the safety and effectiveness of medications and nutrients during early development.

Dr. Smita Yadav's lab at the University of Washington focuses on understanding how protein kinases, particularly TAOK1, affect the growth and function of neurons. The research examines how mutations in TAOK1 are linked to autism and related disorders, revealing the complex processes that govern neuronal development and how these processes can go awry. Through innovative techniques in biochemistry and stem cell biology, the lab seeks to uncover new therapies for neurodevelopmental disorders.

Dr. Nephi Stella's lab at the University of Washington studies how consuming cannabis, particularly THC, during adolescence affects brain development and behavior in adulthood. The team's research focuses on the impact of oral THC consumption through innovative gel formulations and aims to understand the long-term consequences on neural systems and behaviors, particularly in relation to reward and motivation. Their work highlights the need for more information on how adolescent cannabis use can lead to changes in the brain that may impair functioning later in life.

Libin Xu's lab at the University of Washington focuses on understanding how exposure to benzalkonium chloride (BAC), a common disinfectant, impacts the gut microbiome and liver metabolism. This research is particularly relevant given the increased use of disinfectants during the COVID-19 pandemic. The lab employs animal models and human samples to investigate how BAC alters microbial diversity and metabolic processes, aiming to shed light on the health implications of these environmental exposures.

Dr. Larry S. Zweifel's lab at the University of Washington focuses on how our emotions, especially positive and negative feelings, interact in the brain to affect learning and memory. By studying the central amygdala, a brain area involved in processing emotions, the lab aims to understand how positive stimuli can alter responses to fear and anxiety. This research has important implications for improving therapies for anxiety disorders, making them more effective in treating patients.