Sikic B I
Stanford University School of Medicine, California, USA.
Ann Oncol. 1999;10 Suppl 6:149-53.
Major advances in cellular biology, genetics, pharmacology and immunology in the past decade are beginning to be translated into progress in cancer treatment. This progress is manifested by new cytotoxic drugs which have recently entered clinical practice (taxanes, topoisomerase I inhibitors, gemcitabine, vinorelbine, new purines), as well as the efficacy of monoclonal antibody therapies against the CD-20 antigen of B-cell lymphomas and the Her2/neu oncogene in breast cancer. Several new drugs in development are targeted at reversal or prevention of the multidrug resistance mechanism caused by expression of the MDR1 gene (P-glycoprotein). Tumour angiogenesis as a target is being studied in several early clinical trials. As with many other biological therapies, the evaluation of these compounds and their integration with standard therapies presents a major challenge to clinical investigators. The emerging field of genomics and gene expression micro-arrays will provide enormous information about the biology of cancers. This technology offers great opportunities for the discovery of new therapeutic targets, which should provide a basis for the design and evaluation of many new agents in the coming decade.
过去十年间,细胞生物学、遗传学、药理学及免疫学领域取得的重大进展正逐渐转化为癌症治疗方面的进步。这一进步表现为近期已进入临床应用的新型细胞毒性药物(紫杉烷类、拓扑异构酶I抑制剂、吉西他滨、长春瑞滨、新型嘌呤类药物),以及针对B细胞淋巴瘤CD - 20抗原和乳腺癌中Her2/neu癌基因的单克隆抗体疗法的疗效。几种正在研发的新药旨在逆转或预防由MDR1基因(P - 糖蛋白)表达引起的多药耐药机制。肿瘤血管生成作为一个靶点正在多项早期临床试验中进行研究。与许多其他生物疗法一样,对这些化合物的评估以及它们与标准疗法的整合给临床研究人员带来了重大挑战。新兴的基因组学和基因表达微阵列领域将提供有关癌症生物学的大量信息。这项技术为发现新的治疗靶点提供了巨大机遇,这应为未来十年许多新药的设计和评估奠定基础。