Looking for natural resistance to HIV

Researchers from the Partners AIDS Research Center
| 1 min read
Register for free to listen to this article
Listen with Speechify
0:00
1:00
TORONTO—Researchers from the Partners AIDS Research Center (PARC) at Massachusetts General Hospital announced the formation of an international multi-institutional effort to discovery how some HIV-positive people manage to naturally suppress virus replication. The Elite Controller Collaborative Study is a large-scale haplotype mapping project looking for genetic factors that explain the existence of these "long-term nonprogressors".
Continue reading below...
A black mosquito is shown on pink human skin against a blurred green backdrop.
InfographicsDiscovering deeper insights into malaria research
Malaria continues to drive urgent research worldwide, with new therapies and tools emerging to combat the parasite’s complex lifecycle and global burden.
Read More
"We want to use that knowledge to develop a first-generation HIV vaccine, which may not cure or prevent infection but could successfully suppress viral levels," explains Dr. Florencia Pereyra, a PARC researcher and lead coordinator of the team. "Since this natural ability is so rare, we need to work with collaborators around the world to recruit the number of participants we will need to determine what is going on."
To date, the study has enrolled almost 200 participants from across the United States, but it looks forward to enrolling people from around the world. Collaborators in countries such as Canada, the Netherlands, Australia and the United Kingdom are sure to help in this process.

About the Author

Related Topics

Loading Next Article...
Loading Next Article...
Subscribe to Newsletter

Subscribe to our eNewsletters

Stay connected with all of the latest from Drug Discovery News.

Subscribe

Sponsored

Fluorescent-style illustration of spherical embryonic stem cells clustered together against a dark background.
Explore how emerging in vitro systems — built from primary cells, cocultures, and vascularized tissues — are improving translational research outcomes. 
3D illustration of ciliated cells, with cilia shown in blue.
Ultraprecise proteomic analysis reveals new insights into the molecular machinery of cilia.
3D illustration showing a DNA double helix encapsulated in a transparent capsule, surrounded by abstract white and orange protein-like molecular structures against a blue background.
Discover an integrated analytical approach that unites identification, purification, and stability assessment for therapeutic molecules.
Drug Discovery News December 2025 Issue
Latest IssueVolume 21 • Issue 4 • December 2025

December 2025

December 2025 Issue

Explore this issue