Literature DB >> 12467238

The role of natural killer cells in adenovirus-mediated p53 gene therapy.

J L Carroll1, L L Nielsen, S B Pruett, J M Mathis.   

Abstract

Adenovirus-mediated gene therapy is a promising new approach for treatment of ovarian cancer. In animal models, complete elimination of cancer cells is often achieved, although the therapeutic gene has not been delivered to all these cells. This is referred to as a bystander effect, because tumor cells near those that receive the therapeutic gene are also eliminated. Several mechanisms have been proposed for the bystander effect, including intercellular communication within the tumor via gap junctions, apoptosis, antiangiogenesis, cytokines or other soluble mediators, and immunological mechanisms. There are two well-documented antitumor effector cell populations in athymic nude mice: macrophages and natural killer (NK) cells. We hypothesize that peritoneal populations of NK cells in nude mice treated with adenoviruses are involved in the observed bystander effect in this in vivo model. We investigated the role of NK cells as immunological mediators for the bystander effect using the p53 tumor suppressor as the therapeutic anticancer gene. Most ovarian cancer cell lines tested were sensitive to lysis by NK cells, although different ovarian cancer cell lines exhibited different sensitivities to NK cell-mediated lysis. To determine the importance of NK cells in the overall efficacy and in the bystander effect of gene therapy, NK cells were depleted in mice by administration of anti-NK1.1 monoclonal antibodies. To study the efficacy of NK depletion, C57BL/6 (nu/nu) mice were given injections i.v. by a single tail vein injection or i.p. with increasing doses of anti-NK1.1 IgG. All doses of anti-NK1.1 antibody, from 100-500 micrograms, essentially eliminated cytotoxic NK activity. To assess the duration of depletion after a single dose of anti-NK1.1 IgG, a time-course experiment was performed. NK 1.1 antibody was effective in completely depleting cytotoxic NK cell activity in the mice for up to 7 days, whether given as 500 micrograms (i.p.) or 200 micrograms (i.v.). Flow cytometric analysis performed on peritoneal cell populations confirmed depletion of NK cells by approximately 80%. Finally, a survival study was performed, in which animals were depleted of NK cells. In this experiment, NK cell-depleted mice were injected with anti-NK1.1 IgG, and control mice were mice were treated with normal saline. Two days later, all mice were inoculated with a lethal i.p. dose of NIH:OVCAR-3 ovarian cancer cells. After 3 days, the mice were divided into two treatment groups; one treatment group received three consecutive daily i.p. injections of Ad-CMV-p53 (SCH58500), and the second treatment group received three consecutive daily i.p. injections of control adenovirus construct, rAd-null. All of the NK cell-depleted animals, whether treated with rAd-null or with Ad-CMV-p53 (SCH58500) were dead of disease by 116 and 138 days, respectively, after initiation of adenovirus treatment, and no statistically significant difference in survival was observed (P = 0.349). A significant survival advantage was seen in control (NK-competent) mice treated with rAd-null (P = 0.04), although all were dead of disease by day 184. Importantly, control NK-competent mice treated with Ad-CMV-p53 (SCH58500) showed no tumor growth or ascites production, and all animals survived. These results indicate that immunological mechanisms involving natural killer cells play an important role in the bystander effect involving adenovirus-p53 gene therapy for ovarian cancer.

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Mesh:

Year:  2001        PMID: 12467238

Source DB:  PubMed          Journal:  Mol Cancer Ther        ISSN: 1535-7163            Impact factor:   6.261


  13 in total

1.  p53 Gene therapy for lung cancer.

Authors:  Stephen G Swisher; Jack A Roth
Journal:  Curr Oncol Rep       Date:  2002-07       Impact factor: 5.075

Review 2.  Gene Therapy for Lung Cancer.

Authors:  Humberto Lara-Guerra; Jack A Roth
Journal:  Crit Rev Oncog       Date:  2016

3.  Heterogeneity, inherent and acquired drug resistance in patient-derived organoid models of primary liver cancer.

Authors:  Linfeng Xian; Pei Zhao; Xi Chen; Zhimin Wei; Hongxiang Ji; Jun Zhao; Wenbin Liu; Zishuai Li; Donghong Liu; Xue Han; Youwen Qian; Hui Dong; Xiong Zhou; Junyan Fan; Xiaoqiong Zhu; Jianhua Yin; Xiaojie Tan; Dongming Jiang; Hongping Yu; Guangwen Cao
Journal:  Cell Oncol (Dordr)       Date:  2022-08-29       Impact factor: 7.051

4.  Macrophages are not the source of injurious interleukin-18 in ischemic acute kidney injury in mice.

Authors:  Zhibin He; Belda Dursun; Dong-Jin Oh; Lawrence Lu; Sarah Faubel; Charles L Edelstein
Journal:  Am J Physiol Renal Physiol       Date:  2009-01-07

5.  TUSC2 Immunogene Therapy Synergizes with Anti-PD-1 through Enhanced Proliferation and Infiltration of Natural Killer Cells in Syngeneic Kras-Mutant Mouse Lung Cancer Models.

Authors:  Ismail M Meraz; Mourad Majidi; Xiaobo Cao; Heather Lin; Lerong Li; Jing Wang; Veera Baladandayuthapani; David Rice; Boris Sepesi; Lin Ji; Jack A Roth
Journal:  Cancer Immunol Res       Date:  2018-01-16       Impact factor: 11.151

Review 6.  [The use of p53 as a tool for human cancer therapy].

Authors:  V P Almazov; D V Kochetkov; P M Chumakov
Journal:  Mol Biol (Mosk)       Date:  2007 Nov-Dec

7.  Cancer-specific targeting of a conditionally replicative adenovirus using mRNA translational control.

Authors:  Mariam A Stoff-Khalili; Angel A Rivera; Ana Nedeljkovic-Kurepa; Arrigo DeBenedetti; Xiao-Lin Li; Yoshinobu Odaka; Jagat Podduturi; Don A Sibley; Gene P Siegal; Alexander Stoff; Scott Young; Zheng B Zhu; David T Curiel; J Michael Mathis
Journal:  Breast Cancer Res Treat       Date:  2007-05-17       Impact factor: 4.872

8.  Adenoviral vector-based strategies for cancer therapy.

Authors:  Anurag Sharma; Manish Tandon; Dinesh S Bangari; Suresh K Mittal
Journal:  Curr Drug ther       Date:  2009-05-01

9.  Splenic macrophage phagocytosis of intravenously infused mesenchymal stromal cells attenuates tumor localization.

Authors:  Suheyla Hasgur; Laura Desbourdes; Theresa Relation; Kathleen M Overholt; Joseph R Stanek; Adam J Guess; Minjun Yu; Pratik Patel; Linda Roback; Massimo Dominici; Satoru Otsuru; Edwin M Horwitz
Journal:  Cytotherapy       Date:  2021-03-26       Impact factor: 5.414

10.  Genomic characterization of explant tumorgraft models derived from fresh patient tumor tissue.

Authors:  David J Monsma; Noel R Monks; David M Cherba; Dawna Dylewski; Emily Eugster; Hailey Jahn; Sujata Srikanth; Stephanie B Scott; Patrick J Richardson; Robin E Everts; Aleksandr Ishkin; Yuri Nikolsky; James H Resau; Robert Sigler; Brian J Nickoloff; Craig P Webb
Journal:  J Transl Med       Date:  2012-06-18       Impact factor: 5.531

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