Preterm Labor Powerhouse Therapy Offers Promise for Inflammatory Diseases, Case Western Reserve University Study
Published: Oct 09, 2012
In a study published in The Journal of Immunology, the laboratories of Helene Bernstein, MD, PhD, and Andrea Romani, MD, PhD, reported that magnesium decreases inflammation by reducing the activity of cells’ primary protein, Nuclear Factor Kappa Beta (NF-kB), and the subsequent production of cytokines. This new insight offers a promising new immunotherapeutic strategy by which a simple nutrient, known to be safe based on its extensive usage in obstetric settings, can decrease inflammation in diseases other than pregnancy, including in other sepsis, respiratory distress syndrome, asthma, atherosclerosis, diabetes and cancer. The cost of all of these diseases in the United States exceeds $200 billion annually.
“We really didn’t understand how or why magnesium worked, which was frustrating for both physicians and patients. As cytokines levels at birth are the strongest predictor of cerebral palsy and are associated with preterm birth, we asked whether magnesium influences cytokine production. The concept that such a small molecule decreases inflammation is exciting and relevant to other diseases. Now that we understand how magnesium functions, we can figure out how to make it work even better,” says Dr. Bernstein, associate professor of reproductive biology and molecular biology and microbiology, Case Western Reserve School of Medicine, OB/GYN at University Hospitals MacDonald Women’s Hospital, and senior author of the study.
The physician-scientists are now examining how magnesium could be used therapeutically, looking at factors including dosage, timing, frequency, and delivery method. Further research is needed to pinpoint magnesium sulfate’s broader applicability.
“The last decade has registered an incredible progress in understanding the basics of magnesium homeostasis both at the cellular and whole body level. Yet, a significant gap still exists when our knowledge about magnesium is compared to that of calcium, sodium, potassium, or hydrogen. As efforts continue to elucidate magnesium regulation and effects, more effective ‘therapeutic approaches’ will become applicable to patient health care,” says Andrea Romani, MD, PhD, associate professor of physiology and biophysics, Case Western Reserve School of Medicine and first author of the study.
About Case Western Reserve University School of Medicine
Founded in 1843, Case Western Reserve University School of Medicine is the largest medical research institution in Ohio and is among the nation's top medical schools for research funding from the National Institutes of Health. The School of Medicine is recognized throughout the international medical community for outstanding achievements in teaching. The School's innovative and pioneering Western Reserve2 curriculum interweaves four themes--research and scholarship, clinical mastery, leadership, and civic professionalism--to prepare students for the practice of evidence-based medicine in the rapidly changing health care environment of the 21st century. Eleven Nobel Laureates have been affiliated with the school.
Annually, the School of Medicine trains more than 800 M.D. and M.D./Ph.D. students and ranks in the top 25 among U.S. research-oriented medical schools as designated by U.S. News & World Report "Guide to Graduate Education."
The School of Medicine's primary affiliate is University Hospitals Case Medical Center and is additionally affiliated with MetroHealth Medical Center, the Louis Stokes Cleveland Department of Veterans Affairs Medical Center, and the Cleveland Clinic, with which it established the Cleveland Clinic Lerner College of Medicine of Case Western Reserve University in 2002.
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