In vitro suppression of human immunodeficiency virus type 1 replication by measles virus. 2005

Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
W. Harry Feinstone Department of Molecular Microbiology and Immunology, Johns Hopkins Bloomberg School of Public Health, 615 N. Wolfe St., Baltimore, MD 21205, USA.

During the acute phase of measles, human immunodeficiency virus type 1 (HIV-1)-infected children have a transient, but dramatic, decrease in plasma HIV-1 RNA levels (W. J. Moss, J. J. Ryon, M. Monze, F. Cutts, T. C. Quinn, and D. E. Griffin, J. Infect. Dis. 185:1035-1042, 2002). To determine the mechanism(s) by which coinfection with measles virus (MV) decreases HIV-1 replication, we established an in vitro culture system that reproduces this effect. The addition of MV to CCR5- or CXCR4-tropic HIV-1-infected human peripheral blood mononuclear cells (PBMCs) decreased HIV-1 p24 antigen production in a dose-dependent manner. This decrease occurred with the addition of MV before or after HIV-1. The inhibition of HIV-1 p24 antigen production was decreased when UV-inactivated MV or virus-free supernatant fluid from MV-infected PBMCs was used. Inhibition was not due to increased production of chemokines known to block coreceptor usage by HIV-1, a decrease in the percentage of CD4+ T cells, or a decrease in chemokine receptor expression by CD4+ T cells. Viability of PBMCs was decreased only 10 to 20% by MV coinfection; however, lymphocyte proliferation was decreased by 60 to 90% and correlated with decreased production of p24 antigen. These studies showed that an in vitro system of coinfected PBMCs could be used to dissect the mechanism(s) by which MV suppresses HIV-1 replication in coinfected children and suggest that inhibition of lymphocyte proliferation by MV may play a role in the suppression of HIV-1 p24 antigen production.

UI MeSH Term Description Entries
D008213 Lymphocyte Activation Morphologic alteration of small B LYMPHOCYTES or T LYMPHOCYTES in culture into large blast-like cells able to synthesize DNA and RNA and to divide mitotically. It is induced by INTERLEUKINS; MITOGENS such as PHYTOHEMAGGLUTININS, and by specific ANTIGENS. It may also occur in vivo as in GRAFT REJECTION. Blast Transformation,Blastogenesis,Lymphoblast Transformation,Lymphocyte Stimulation,Lymphocyte Transformation,Transformation, Blast,Transformation, Lymphoblast,Transformation, Lymphocyte,Activation, Lymphocyte,Stimulation, Lymphocyte
D008459 Measles virus The type species of MORBILLIVIRUS and the cause of the highly infectious human disease MEASLES, which affects mostly children. Edmonston virus
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D014779 Virus Replication The process of intracellular viral multiplication, consisting of the synthesis of PROTEINS; NUCLEIC ACIDS; and sometimes LIPIDS, and their assembly into a new infectious particle. Viral Replication,Replication, Viral,Replication, Virus,Replications, Viral,Replications, Virus,Viral Replications,Virus Replications
D015497 HIV-1 The type species of LENTIVIRUS and the etiologic agent of AIDS. It is characterized by its cytopathic effect and affinity for the T4-lymphocyte. Human immunodeficiency virus 1,HIV-I,Human Immunodeficiency Virus Type 1,Immunodeficiency Virus Type 1, Human
D015704 CD4 Antigens 55-kDa antigens found on HELPER-INDUCER T-LYMPHOCYTES and on a variety of other immune cell types. They are members of the immunoglobulin supergene family and are implicated as associative recognition elements in MAJOR HISTOCOMPATIBILITY COMPLEX class II-restricted immune responses. On T-lymphocytes they define the helper/inducer subset. T4 antigens also serve as INTERLEUKIN-15 receptors and bind to the HIV receptors, binding directly to the HIV ENVELOPE PROTEIN GP120. Antigens, CD4,CD4 Molecule,CD4 Receptor,CD4 Receptors,Receptors, CD4,T4 Antigens, T-Cell,CD4 Antigen,Receptors, Surface CD4,Surface CD4 Receptor,Antigen, CD4,Antigens, T-Cell T4,CD4 Receptor, Surface,CD4 Receptors, Surface,Receptor, CD4,Surface CD4 Receptors,T-Cell T4 Antigens,T4 Antigens, T Cell
D016655 HIV Core Protein p24 A major core protein of the human immunodeficiency virus encoded by the HIV gag gene. HIV-seropositive individuals mount a significant immune response to p24 and thus detection of antibodies to p24 is one basis for determining HIV infection by ELISA and Western blot assays. The protein is also being investigated as a potential HIV immunogen in vaccines. HIV Major Core Protein p24,HIV gag Gene Product p24,HIV p24 Antigen,gag Protein p24, HIV,p24(HIV),HIV Protein p24,HTLV-III p24,p24 protein, Human Immunodeficiency Virus,HTLV III p24,p24 Antigen, HIV,p24, HIV Protein,p24, HTLV-III
D018925 Chemokines Class of pro-inflammatory cytokines that have the ability to attract and activate leukocytes. They can be divided into at least three structural branches: C; (CHEMOKINES, C); CC; (CHEMOKINES, CC); and CXC; (CHEMOKINES, CXC); according to variations in a shared cysteine motif. Chemokine,Chemotactic Cytokine,Chemotactic Cytokines,Cytokines, Chemotactic,Intercrine,Intercrines,Cytokine, Chemotactic
D019713 Receptors, CCR5 CCR receptors with specificity for CHEMOKINE CCL3; CHEMOKINE CCL4; and CHEMOKINE CCL5. They are expressed at high levels in T-LYMPHOCYTES; B-LYMPHOCYTES; MACROPHAGES; MAST CELLS; and NK CELLS. The CCR5 receptor is used by the HUMAN IMMUNODEFICIENCY VIRUS to infect cells. Antigens, CD195,CC Chemokine Receptor 5,CCR5 Receptors,CD195 Antigens,CC-CKR5,CCR5 Receptor,CKR5 Receptors,Receptors, CKR5,Receptor, CCR5
D019718 Receptors, CXCR4 CXCR receptors with specificity for CXCL12 CHEMOKINE. The receptors may play a role in HEMATOPOIESIS regulation and can also function as coreceptors for the HUMAN IMMUNODEFICIENCY VIRUS. CXC Chemokine Receptor 4,CXCR4 Receptors,Fusin,CXCR4 Receptor,LESTR Receptor,Leukocyte-Derived Seven-Transmembrane Domain Receptor,Receptor, LESTR,Leukocyte Derived Seven Transmembrane Domain Receptor,Receptor, CXCR4

Related Publications

Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
October 1990, The Journal of infectious diseases,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
April 2002, The Journal of infectious diseases,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
August 1995, Journal of virology,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
January 2009, The Pediatric infectious disease journal,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
June 2006, The Journal of general virology,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
February 1993, The Journal of clinical investigation,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
April 2003, Journal of virology,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
September 2005, Journal of virology,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
January 1994, Journal of acquired immune deficiency syndromes,
Mayra García, and Xiao-Fang Yu, and Diane E Griffin, and William J Moss
September 1994, Antiviral research,
Copied contents to your clipboard!