Model analyzes how viruses escape the immune system
Using this computational system, researchers can identify viral protein sequences that could make better vaccine targets.
Using this computational system, researchers can identify viral protein sequences that could make better vaccine targets.
Differently shaped RNA molecules allow HIV to express different genes from the same RNA sequence.
Researchers apply network theory to HIV protein structure, uncovering a vital link between connectivity and protective immune response.
Replacing daily pills with a weekly regimen could help patients stick to their dosing schedule.
Youth-to-youth program teaches girls about the increased odds of contracting HIV from older men.
MIT students partner with a clinic in Togo to improve health care for HIV/AIDS patients.
Christopher Love uses microscale technology to isolate rare cells, yielding insight into human disease.
Study yields insight into generating antibodies that target different strains of HIV.
New study reveals how a potential HIV drug exacts its toll on viral populations.
New MIT vaccines that catch a ride to immune cell depots could help fight cancer and HIV.
Particles that deliver vaccines directly to mucosal surfaces could defend against many infectious diseases.
Ragon Institute researchers develop a method to identify weak points in viral proteins that could be exploited for vaccine development.
Enlisted in the fight against HIV, MIT engineers and scientists contribute new technology, materials and computational studies.
Polymer film that gradually releases DNA coding for viral proteins could offer a better alternative to traditional vaccines.