Author
Listed:
- John O. Link
(Gilead Sciences)
- Martin S. Rhee
(Gilead Sciences)
- Winston C. Tse
(Gilead Sciences
Vir Biotechnology Inc)
- Jim Zheng
(Gilead Sciences)
- John R. Somoza
(Gilead Sciences)
- William Rowe
(Gilead Sciences)
- Rebecca Begley
(Gilead Sciences)
- Anna Chiu
(Gilead Sciences)
- Andrew Mulato
(Gilead Sciences)
- Derek Hansen
(Gilead Sciences)
- Eric Singer
(Gilead Sciences)
- Luong K. Tsai
(Gilead Sciences)
- Rujuta A. Bam
(Gilead Sciences)
- Chien-Hung Chou
(Gilead Sciences)
- Eda Canales
(Gilead Sciences)
- Gediminas Brizgys
(Gilead Sciences)
- Jennifer R. Zhang
(Gilead Sciences)
- Jiayao Li
(Gilead Sciences)
- Michael Graupe
(Gilead Sciences)
- Philip Morganelli
(Gilead Sciences)
- Qi Liu
(Gilead Sciences
US Food and Drug Administration)
- Qiaoyin Wu
(Gilead Sciences)
- Randall L. Halcomb
(Gilead Sciences
Terns Pharmaceuticals)
- Roland D. Saito
(Gilead Sciences
Vir Biotechnology Inc)
- Scott D. Schroeder
(Gilead Sciences)
- Scott E. Lazerwith
(Gilead Sciences)
- Steven Bondy
(Gilead Sciences)
- Debi Jin
(Gilead Sciences)
- Magdeleine Hung
(Gilead Sciences)
- Nikolai Novikov
(Gilead Sciences)
- Xiaohong Liu
(Gilead Sciences)
- Armando G. Villaseñor
(Gilead Sciences)
- Carina E. Cannizzaro
(Gilead Sciences)
- Eric Y. Hu
(Gilead Sciences)
- Robert L. Anderson
(Gilead Sciences
MyoKardia Inc)
- Todd C. Appleby
(Gilead Sciences)
- Bing Lu
(Gilead Sciences)
- Judy Mwangi
(Gilead Sciences)
- Albert Liclican
(Gilead Sciences)
- Anita Niedziela-Majka
(Gilead Sciences)
- Giuseppe A. Papalia
(Gilead Sciences)
- Melanie H. Wong
(Gilead Sciences)
- Stephanie A. Leavitt
(Gilead Sciences)
- Yili Xu
(Gilead Sciences)
- David Koditek
(Gilead Sciences)
- George J. Stepan
(Gilead Sciences)
- Helen Yu
(Gilead Sciences)
- Nikos Pagratis
(Gilead Sciences)
- Sheila Clancy
(Gilead Sciences)
- Shekeba Ahmadyar
(Gilead Sciences)
- Terrence Z. Cai
(Gilead Sciences
Bayer)
- Scott Sellers
(Gilead Sciences)
- Scott A. Wolckenhauer
(Gilead Sciences)
- John Ling
(Gilead Sciences)
- Christian Callebaut
(Gilead Sciences)
- Nicolas Margot
(Gilead Sciences)
- Renee R. Ram
(Gilead Sciences)
- Ya-Pei Liu
(Gilead Sciences)
- Rob Hyland
(Gilead Sciences)
- Gary I. Sinclair
(AIDS Arms Inc, DBA Prism Health North Texas)
- Peter J. Ruane
(Ruane Clinical Research Group Inc)
- Gordon E. Crofoot
(The Crofoot Research Center Inc)
- Cheryl K. McDonald
(Texas Centers for Infectious Disease Associates)
- Diana M. Brainard
(Gilead Sciences)
- Latesh Lad
(Gilead Sciences)
- Swami Swaminathan
(Gilead Sciences)
- Wesley I. Sundquist
(University of Utah School of Medicine)
- Roman Sakowicz
(Gilead Sciences)
- Anne E. Chester
(Gilead Sciences)
- William E. Lee
(Gilead Sciences)
- Eric S. Daar
(David Geffen School of Medicine at UCLA)
- Stephen R. Yant
(Gilead Sciences)
- Tomas Cihlar
(Gilead Sciences)
Abstract
Oral antiretroviral agents provide life-saving treatments for millions of people living with HIV, and can prevent new infections via pre-exposure prophylaxis1–5. However, some people living with HIV who are heavily treatment-experienced have limited or no treatment options, owing to multidrug resistance6. In addition, suboptimal adherence to oral daily regimens can negatively affect the outcome of treatment—which contributes to virologic failure, resistance generation and viral transmission—as well as of pre-exposure prophylaxis, leading to new infections1,2,4,7–9. Long-acting agents from new antiretroviral classes can provide much-needed treatment options for people living with HIV who are heavily treatment-experienced, and additionally can improve adherence10. Here we describe GS-6207, a small molecule that disrupts the functions of HIV capsid protein and is amenable to long-acting therapy owing to its high potency, low in vivo systemic clearance and slow release kinetics from the subcutaneous injection site. Drawing on X-ray crystallographic information, we designed GS-6207 to bind tightly at a conserved interface between capsid protein monomers, where it interferes with capsid-protein-mediated interactions between proteins that are essential for multiple phases of the viral replication cycle. GS-6207 exhibits antiviral activity at picomolar concentrations against all subtypes of HIV-1 that we tested, and shows high synergy and no cross-resistance with approved antiretroviral drugs. In phase-1 clinical studies, monotherapy with a single subcutaneous dose of GS-6207 (450 mg) resulted in a mean log10-transformed reduction of plasma viral load of 2.2 after 9 days, and showed sustained plasma exposure at antivirally active concentrations for more than 6 months. These results provide clinical validation for therapies that target the functions of HIV capsid protein, and demonstrate the potential of GS-6207 as a long-acting agent to treat or prevent infection with HIV.
Suggested Citation
John O. Link & Martin S. Rhee & Winston C. Tse & Jim Zheng & John R. Somoza & William Rowe & Rebecca Begley & Anna Chiu & Andrew Mulato & Derek Hansen & Eric Singer & Luong K. Tsai & Rujuta A. Bam & C, 2020.
"Clinical targeting of HIV capsid protein with a long-acting small molecule,"
Nature, Nature, vol. 584(7822), pages 614-618, August.
Handle:
RePEc:nat:nature:v:584:y:2020:i:7822:d:10.1038_s41586-020-2443-1
DOI: 10.1038/s41586-020-2443-1
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Cited by:
- Guochao Wei & Naseer Iqbal & Valentine V. Courouble & Ashwanth C. Francis & Parmit K. Singh & Arpa Hudait & Arun S. Annamalai & Stephanie Bester & Szu-Wei Huang & Nikoloz Shkriabai & Lorenzo Briganti , 2022.
"Prion-like low complexity regions enable avid virus-host interactions during HIV-1 infection,"
Nature Communications, Nature, vol. 13(1), pages 1-19, December.
- Anna T. Gres & Karen A. Kirby & William M. McFadden & Haijuan Du & Dandan Liu & Chaoyi Xu & Alexander J. Bryer & Juan R. Perilla & Jiong Shi & Christopher Aiken & Xiaofeng Fu & Peijun Zhang & Ashwanth, 2023.
"Multidisciplinary studies with mutated HIV-1 capsid proteins reveal structural mechanisms of lattice stabilization,"
Nature Communications, Nature, vol. 14(1), pages 1-12, December.
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