Discovery may help design effective therapies for the genetic disease that mainly affects Ashkenazi Jews
An interdisciplinary team of Weizmann Institute scientists has solved the three-dimensional structure of an enzyme called glucocerebrosidase. Mutations occurring in this enzyme cause Gaucher disease, a genetic illness that mainly affects Ashkenazi Jews. The Institute study, published recently in EMBO Reports, may lead to the design of effective new therapies for treating the disease.
Gaucher disease was first described in 1882 by the French physician Philippe Gaucher. It is characterized by swelling and enlargement of the spleen and liver and disruption in the function of these organs, and in rare cases it also affects the brain. In the 1920s, the disease was found to be caused by the excessive accumulation of a fatty substance, or lipid, called glucosylceramide. In the 1960s, researchers discovered that the accumulation occurs due to a defect in the glucocerebrosidase enzyme, whose function is to break down this lipid and regulate its amount. In the 1980s, the gene responsible for manufacturing the enzyme was isolated; scientists found that mutations in this gene disrupt the function of the enzyme, leading to the development of Gaucher disease.
Alex Smith | EurekAlert!
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