Gene Editing of CCR5 in Autologous CD4 T Cells of Persons Infected with HIV

被引:1010
|
作者
Tebas, Pablo [1 ]
Stein, David [2 ]
Tang, Winson W. [3 ]
Frank, Ian [1 ]
Wang, Shelley Q. [3 ]
Lee, Gary [3 ]
Spratt, S. Kaye [3 ]
Surosky, Richard T. [3 ]
Giedlin, Martin A. [3 ]
Nichol, Geoff [3 ]
Holmes, Michael C. [3 ]
Gregory, Philip D. [3 ]
Ando, Dale G. [3 ]
Kalos, Michael [1 ]
Collman, Ronald G. [1 ]
Binder-Scholl, Gwendolyn [1 ]
Plesa, Gabriela [1 ]
Hwang, Wei-Ting [1 ]
Levine, Bruce L. [1 ]
June, Carl H. [1 ]
机构
[1] Univ Penn, Perelman Sch Med, Philadelphia, PA 19104 USA
[2] Albert Einstein Coll Med, Bronx, NY 10467 USA
[3] Sangamo BioSci, Richmond, CA USA
关键词
RESISTANCE; RECEPTOR; HETEROZYGOSITY; INDIVIDUALS; CORECEPTOR; BINDING;
D O I
10.1056/NEJMoa1300662
中图分类号
R5 [内科学];
学科分类号
1002 ; 100201 ;
摘要
BackgroundCCR5 is the major coreceptor for human immunodeficiency virus (HIV). We investigated whether site-specific modification of the gene (gene editing) in this case, the infusion of autologous CD4 T cells in which the CCR5 gene was rendered permanently dysfunctional by a zinc-finger nuclease (ZFN) is safe. MethodsWe enrolled 12 patients in an open-label, nonrandomized, uncontrolled study of a single dose of ZFN-modified autologous CD4 T cells. The patients had chronic aviremic HIV infection while they were receiving highly active antiretroviral therapy. Six of them underwent an interruption in antiretroviral treatment 4 weeks after the infusion of 10 billion autologous CD4 T cells, 11 to 28% of which were genetically modified with the ZFN. The primary outcome was safety as assessed by treatment-related adverse events. Secondary outcomes included measures of immune reconstitution and HIV resistance. ResultsOne serious adverse event was associated with infusion of the ZFN-modified autologous CD4 T cells and was attributed to a transfusion reaction. The median CD4 T-cell count was 1517 per cubic millimeter at week 1, a significant increase from the preinfusion count of 448 per cubic millimeter (P<0.001). The median concentration of CCR5-modified CD4 T cells at 1 week was 250 cells per cubic millimeter. This constituted 8.8% of circulating peripheral-blood mononuclear cells and 13.9% of circulating CD4 T cells. Modified cells had an estimated mean half-life of 48 weeks. During treatment interruption and the resultant viremia, the decline in circulating CCR5-modified cells (-1.81 cells per day) was significantly less than the decline in unmodified cells (-7.25 cells per day) (P=0.02). HIV RNA became undetectable in one of four patients who could be evaluated. The blood level of HIV DNA decreased in most patients. ConclusionsCCR5-modified autologous CD4 T-cell infusions are safe within the limits of this study. (Funded by the National Institute of Allergy and Infectious Diseases and others; ClinicalTrials.gov number, NCT00842634.) In this small study, investigators genetically disrupted the HIV receptor CCR5 in CD4 T cells of aviremic persons who were infected with HIV. After reinfusion and during viremia, the modified cells declined at a significantly slower rate than did the unmodified cells. The ability to make site-specific modifications to (or edit) the human genome has been an objective in medicine since the recognition of the gene as the basic unit of heredity.(1),(2) The challenge of genome editing is the ability to generate a single double-strand break at a specific point in the DNA molecule. Numerous agents, including meganucleases, oligonucleotides that form DNA triplexes, and peptide nucleic acids, have been tested and shown to be limited by inefficiency.(3)-(5) Another class of reagents, the zinc-finger nucleases (ZFNs), have proved versatile for genome editing, and the use of ZFNs is now well established ...
引用
收藏
页码:901 / 910
页数:10
相关论文
共 50 条
  • [1] Genome editing of CCR5 by AsCpf1 renders CD4+T cells resistance to HIV-1 infection
    Liu, Zhepeng
    Liang, Jin
    Chen, Shuliang
    Wang, Kewu
    Liu, Xianhao
    Liu, Beibei
    Xia, Yang
    Guo, Mingxiong
    Zhang, Xiaoshi
    Sun, Guihong
    Tian, Geng
    CELL AND BIOSCIENCE, 2020, 10 (01)
  • [2] CCR5 density levels on primary CD4 T cells impact the replication and Enfuvirtide susceptibility of R5 HIV-1
    Heredia, Alonso
    Gilliam, Bruce
    DeVico, Anthony
    Le, Nhut
    Bamba, Douty
    Flinko, Robin
    Lewis, George
    Gallo, Robert C.
    Redfield, Robert R.
    AIDS, 2007, 21 (10) : 1317 - 1322
  • [3] CCR5 promoter activity correlates with HIV disease progression by regulating CCR5 cell surface expression and CD4 T cell apoptosis
    Joshi, Anjali
    Punke, Erin B.
    Sedano, Melina
    Beauchamp, Bethany
    Patel, Rima
    Hossenlopp, Cassady
    Alozie, Ogechika K.
    Gupta, Jayanta
    Mukherjee, Debabrata
    Garg, Himanshu
    SCIENTIFIC REPORTS, 2017, 7
  • [4] Owl monkey CCR5 reveals synergism between CD4 and CCR5 in HIV-1 entry
    Nahabedian, John
    Sharma, Amit
    Kaczmarek, Maryska E.
    Wilkerson, Greg K.
    Sawyer, Sara L.
    Overbaugh, Julie
    VIROLOGY, 2017, 512 : 180 - 186
  • [5] CCR5 gene editing - Revisiting pros and cons of CCR5 absence
    Ellwanger, Joel Henrique
    Kaminski, Valeria de Lima
    Bogo Chies, Jose Artur
    INFECTION GENETICS AND EVOLUTION, 2019, 68 : 218 - 220
  • [6] Interaction of soluble CD4 with the chemokine receptor CCR5
    Wang, XH
    Staudinger, R
    BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS, 2003, 307 (04) : 1066 - 1069
  • [7] CCR5 interaction with HIV-1 Env contributes to Env-induced depletion of CD4 T cells in vitro and in vivo
    Tsao, Li-Chung
    Guo, Haitao
    Jeffrey, Jerry
    Hoxie, James A.
    Su, Lishan
    RETROVIROLOGY, 2016, 13
  • [8] Circulating human CD4 and CD8 T cells do not have large intracellular pools of CCR5
    Pilch-Cooper, Heather A.
    Sieg, Scott F.
    Hope, Thomas J.
    Koons, Ann
    Escola, Jean-Michel
    Offord, Robin
    Veazey, Ronald S.
    Mosier, Donald E.
    Clagett, Brian
    Medvik, Kathy
    Jadlowsky, Julie K.
    Chance, Mark R.
    Kiselar, Janna G.
    Hoxie, James A.
    Collman, Ronald G.
    Riddick, Nadeene E.
    Mercanti, Valentina
    Hartley, Oliver
    Lederman, Michael M.
    BLOOD, 2011, 118 (04) : 1015 - 1019
  • [9] Gene-editing of CCR5 for the Treatment of HIV: A Novel Therapeutic Approach
    Veerabathiran, Ramakrishnan
    Mansoor, Shahil Ahamed
    Kalarani, Iyshwarya Bhaskar
    Mohammed, Vajagathali
    TURKISH JOURNAL OF IMMUNOLOGY, 2022, 10 (01): : 1 - 11
  • [10] Pleiotropy Complicates Human Gene Editing: CCR5Δ32 and Beyond
    Li, Ting
    Shen, Xia
    FRONTIERS IN GENETICS, 2019, 10