Research in the Redonda Miller Lab is focused on women’s health, including osteoporosis and menopause, and medical education. We're also interested in physician practice issues.

Research in the Amy Knight Lab focuses on methods by which information technology can improve the quality of health care. We investigate the role computer systems can play in expanding patient-doctor communication, streamlining healthcare tasks for both medical students and practitioners, and establishing a higher standard of care. Our studies have explored the effectiveness of semi-automating daily progress notes for improved documentation, peer assessment of professional performance among hospitalists, ways to enable patient-centered care using information technology and other topics.

The Anna Durbin Lab evaluates experimental vaccines through human clinical trials. We have conducted both pediatric and adult clinical trials on vaccines for HIV, hepatitis C, HPV, influenza, malaria, dengue virus, rotavirus and other viruses. We also have a longstanding interest in better understanding the immunologic factors of dengue infection and disease. We’re working to identify the viral, host and immunologic factors that cause severe dengue illness.

Research in the David Sack Lab focuses on enteric infections. Our team has worked to develop laboratory detection methods to better understand the epidemiology of these agents. We also work to create appropriate clinical management strategies, such as antibiotics and rehydration methods, for enteric infections. Our work has included participating in the development of vaccines for a range of bacterial infections, including rotavirus, cholera and enterotoxigenic E. coli.

Research in the William Checkley Lab explores the field of lung health, with an emphasis on the epidemiology of obstructive lung diseases as well as acute lung injury and mechanical ventilation. We also explore the interactions between nutrition and infection, and the impact of environmental exposures to health.

Our research focuses on the biology of the peptidoglycan of Mycobacterium tuberculosis, the organism that causes tuberculosis, and Mycobacteroides abscessus, a related bacterium that causes opportunistic infections. We study basic mechanisms associated with peptidoglycan physiology but with an intent to leverage our findings to develop tools that will be useful in the clinic to treat mycobacterial infections. Peptidoglycan is the exoskeleton of bacteria that not only provides structural rigidity and cell shape but also several vital physiological functions. Breaching this structure is often lethal to bacteria. We are exploring fundamental mechanisms by which bacteria synthesize and preserve their peptidoglycan. Although our lab uses genetic, biochemical and biophysical approaches to study the peptidoglycan, we pursue questions irrespective of the expertise required to answer those questions. It is through these studies that we identified synergy between two beta-lactam antibiotics against select mycobacteria.

The Kunisaki lab is a NIH-funded regenerative medicine group within the Division of General Pediatric Surgery at Johns Hopkins that works at the interface of stem cells, mechanobiology, and materials science. We seek to understand how biomaterials and mechanical forces affect developing tissues relevant to pediatric surgical disorders. To accomplish these aims, we take a developmental biology approach using induced pluripotent stem cells and other progenitor cell populations to understand the cellular and molecular mechanisms by which fetal organs develop in disease.

Our lab projects can be broadly divided into three major areas: 1) fetal spinal cord regeneration 2) fetal lung development 3) esophageal regeneration

Lab members: Juan Biancotti, PhD (Instructor/lab manager); Annie Sescleifer, MD (postdoc surgical resident); Kyra Halbert-Elliott (med student), Ciaran Bubb (undergrad)

Recent publications:
Kunisaki SM, Jiang G, Biancotti JC, Ho KKY, Dye BR, Liu AP, Spence JR. Human induced pluripotent stem cell-derived lung organoids in an ex vivo model of congenital diaphragmatic hernia fetal lung. Stem Cells Translational Medicine 2021, PMID: 32949227

Biancotti JC, Walker KA, Jiang G, Di Bernardo J, Shea LD, Kunisaki SM. Hydrogel and neural progenitor cell delivery supports organotypic fetal spinal cord development in an ex vivo model of prenatal spina bifida repair. Journal of Tissue Engineering 2020, PMID: 32782773.

Kunisaki SM. Amniotic fluid stem cells for the treatment of surgical disorders in the fetus and neonate. Stem Cells Translational Medicine 2018, 7:767-773

The Foster Lab uses the tools of protein biochemistry and proteomics to tackle fundamental problems in the fields of cardiac preconditioning and heart failure. Protein networks are perturbed in heart disease in a manner that correlates only weakly with changes in mRNA transcripts. Moreover, proteomic techniques afford the systematic assessment of post-translational modifications that regulate the activity of proteins responsible for every aspect of heart function from electrical excitation to contraction and metabolism. Understanding the status of protein networks in the diseased state is, therefore, key to discovering new therapies. D. Brian Foster, Ph.D., is an assistant professor of medicine in the division of cardiology, and serves as Director of the Laboratory of Cardiovascular Biochemistry at the Johns Hopkins University School of Medicine.

The Franco D’Alessio Lab investigates key topics within the fields of critical care, internal and pulmonary medicine. We primarily explore immunological determinants of acute lung inflammation and repair. Our lab also investigates age-dependent lung immune response in patients with acute lung injury and acute respiratory distress syndrome (ARDS), regulatory T-cells in lung injury and repair, and modulation of alveolar macrophage innate immune response in ARDS.

The Frederick Anokye-Danso Lab investigates the biological pathways at work in the separation of human pluripotent stem cells into adipocytes and pancreatic beta cells. We focus in particular on determinant factors of obesity and metabolic dysfunction, such as the P72R polymorphism of p53. We also conduct research on the reprogramming of somatic cells into pluripotent stem cells using miRNAs.