贝伐单抗
医学
药理学
联合疗法
多西紫杉醇
紫杉醇
拓扑替康
阿米福汀
药效学
阿霉素
化疗
血管内皮生长因子
放射治疗
血管生成
药代动力学
癌症研究
内科学
血管内皮生长因子受体
作者
Hans‐Peter Gerber,Napoleone Ferrara
出处
期刊:Cancer Research
[American Association for Cancer Research]
日期:2005-02-01
卷期号:65 (3): 671-680
被引量:619
标识
DOI:10.1158/0008-5472.671.65.3
摘要
Abstract Preclinical models have examined the pharmacologic and pharmacodynamic activities of an anti–vascular endothelial growth factor (VEGF) humanized, monoclonal antibody, bevacizumab, and/or its murine equivalent A4.6.1. These studies found that single-agent therapy with bevacizumab/A4.6.1 resulted in tumor growth inhibition of 20 different human tumor cell lines (13 tumor types) implanted into nude mice irrespective of the route of administration or tumor location. Several of these studies also observed significant inhibition of tumor metastases. Various studies have examined the feasibility of combining anti-VEGF therapy with cytotoxic or biological agents. Combining bevacizumab/A4.6.1 with doxorubicin, topotecan, paclitaxel, docetaxel, or radiotherapy resulted in additive or synergistic tumor growth inhibition. Changes in vascular functions were frequently reported, including decreased vessel diameter, density, and permeability in response to treatment. A reduction in interstitial fluid pressure was also observed. In some studies, these improvements resulted in an increase in intratumoral uptake of chemotherapy, implying that the most effective use of anti-VEGF therapy is in combination with chemotherapy. Alternatively, combination treatment with radiation increased tumor oxygenation and tumor growth inhibition. Interestingly, anti-VEGF therapy has also been reported to reduce the development of ascites in ovarian mouse models. Finally, safety pharmacology studies with bevacizumab in cynomolgus monkeys showed that this agent is generally well tolerated with no unexpected adverse events.
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