Newly discovered molecule plays key role in HIV infection
BY Advocate.com Editors
February 10 2001 1:00 AM ET
A recently discovered molecule may play a major role in how HIV invades and infects the body, according to researchers at the University of Nijmegen, The New York Times reports. A study by the research team identified a molecule, called DC-SIGN (dendritic-cell-specific, icam-grabbing nonintegrin), that exists on the fingerlike dendritic cells just below the skin surface and under moist mucus tissues of the vagina, urethra, and penis. According to scientists, the dendritic cells capture microbes and viruses like HIV that invade the body through the mucus membranes, then carry the invaders to lymph nodes throughout the body where they are attacked by immune system cells. But HIV replicates within the very cells sent to destroy it, turning the dendritic cells into Trojan horses. Researchers say the study could spawn a new class of HIV drugs aimed at the DC-SIGN molecule and aid in the development of microbicides used vaginally and anally to prevent HIV infection.
-
Conservatives Outraged By MSNBC Mom Talking to Daughter About Gay Marriage
-
WATCH: Stephen Colbert Riffs on Jeremy Irons and Marriage Equality
-
Jeremy Irons Says He's Not Antigay But Made 'Valid' Case
-
WATCH: Jon Stewart on Right Wing's Obsessions With Bestiality and 'Wussification'
-
Still Mad About Jon, Christina, and Elisabeth
-
In the Galleries: Boys of Summer
Sign Up For Email Updates
- Television Still Mad About Jon, Christina, and Elisabeth 1 hour 23 min ago
- Religion Pastor Rick Warren's Son Commits Suicide April 06 2013 8:00 PM
- People Jeremy Irons Says He's Not Antigay But Made 'Valid' Case April 06 2013 4:52 PM
- Television Kathy Griffin's Talk Show Gets Canceled April 06 2013 4:30 PM
- Sports Report: 4 Gay NFL Players to Come Out Together April 06 2013 4:12 PM
- Media Conservatives Freak Out When Mom Talks About Gays Marrying April 06 2013 3:53 PM
- Marriage Equality Does Maine's GOP Senator Support Marriage Equality? April 06 2013 1:05 PM









