- Clinical Interests
- Critical care
- Acute respiratory distress syndrome (ARDS)
- Medical Education
- MD, University of Rochester School of Medicine and Dentistry
- Residency, Massachusetts General Hospital|Residency, NIH, National Heart, Lung, and Blood Institute
- Board Certifications
- Foreign Languages
- Boston: Massachusetts General Hospital
- Patient Age Group
The Zapol lab is presently closely allied with Dr. Kenneth Bloch's laboratory. Together they are focusing on the storage lesion of aged blood cells, and methods for preventing the toxic effects of extracellular hemoglobin that is released by hemolysis in malaria or genetic diseases such as sickle cell anemia. In addition, the Zapol lab is studying how to make the transfusion of heme-based oxygen carriers both safe and effective for transfusion in the field.
- Research Summary
Research AreasInhaled nitric oxide, stored blood transfusion, cerebral malaria, hemoglobin gas binding
Description of ResearchMy research is directed at understanding a wide range of critical illnesses that can be therapeutically treated with novel inhaled gases. Inhaled nitric oxide (NO) is a central focus of this laboratory's research, both as a selective pulmonary vasodilator and a safe method for loading the body with NO donor molecules. As a selective pulmonary vasodilator, inhaled NO is used to treat pulmonary hypertension and to improve ventilation-perfusion matching. NO inhalation leads to the formation of circulating NO metabolite which can neutralize oxygen free radicals, activate soluble guanylate cyclase (to make cGMP) and prevent the side effects of excessive scavenging of endogenous NO molecules by transfusion of stored red cells. We also study hemoglobin, discovering small molecules that alter its affinity for gases such as oxygen, carbon monoxide and NO. The prevention and treatment of acute lung injury is also studied in this laboratory with mouse models of ventilator-induced lung injury and transfusion. My group studies inhaled nitric oxide in children with cerebral malaria and adults with stored blood transfusion. Methods for the economical in situ manufacture of Nitric Oxide by electrical sparks in air are being explored. Animal models used in the laboratory extend from mice to sheep, with a special focus on translational research to improve the care of critically ill patients
- View publications
A team led by MGH investigators has found that the controlled induction of the hypoxia response, the body's reaction to a reduced level of oxygen in the bloodstream, may relieve the symptoms of one of the most challenging groups of genetic disorders – mitochondrial diseases.
A lightweight, portable system developed by an MGH research team can produce the potentially life-saving gas nitric oxide from the air by means of an electrical spark.
In General awards and honors
A study published in the March 2010 issue of the journal Anesthesiology gives researchers new insights in how to better understand and control a severe side effect of hemoglobin-based oxygen carriers, often referred to as "artificial blood."
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