肿瘤重新编程其代谢途径以满足癌细胞的生物能量和生物合成需求。这些重新编程的活动现在被认为是癌症的标志,它们不仅为癌细胞提供了不受限制的增殖和转移潜力,而且还增强了它们对应激条件和治疗挑战的抵抗力。尽管纳米医学的最新进展在很大程度上促进了各种治疗方式的发展,如光动力疗法、光热疗法、纳米催化疗法、肿瘤饥饿/窒息疗法等,但纳米药物的治疗效果仍然不够高,不足以达到令人满意的肿瘤治疗效果。 ‐抑制作用。因此,研究人员有必要回顾癌细胞生物学的本质,例如新陈代谢,以制定合适的治疗方案。本文综述了癌细胞的特征代谢途径,如有氧呼吸、糖酵解、自噬、谷氨酰胺分解等,总结了纳米药物智能设计的最新进展,可调节肿瘤代谢,以增强传统治疗方式。还对这些利用肿瘤代谢的纳米药物的基本化学进行了全面的讨论。预计通过利用肿瘤代谢,癌症纳米疗法在未来将得到显着改善。
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Chemistry of Advanced Nanomedicines in Cancer Cell Metabolism Regulation
Tumors reprogram their metabolic pathways to meet the bioenergetic and biosynthetic demands of cancer cells. These reprogrammed activities are now recognized as the hallmarks of cancer, which not only provide cancer cells with unrestricted proliferative and metastatic potentials, but also strengthen their resistance against stress conditions and therapeutic challenges. Although recent progress in nanomedicine has largely promoted the developments of various therapeutic modalities, such as photodynamic therapy, photothermal therapy, nanocatalytic therapy, tumor‐starving/suffocating therapy, etc., the therapeutic efficacies of nanomedicines are still not high enough to achieve satisfactory tumor‐suppressing effects. Therefore, researchers are obliged to look back to the essence of cancer cell biology, such as metabolism, for tailoring a proper therapeutic regimen. In this work, the characteristic metabolic pathways of cancer cells, such as aerobic respiration, glycolysis, autophagy, glutaminolysis, etc. are reviewed, to summarize the very recent advances in the smart design of nanomedicines that can regulate tumor metabolism for enhancing conventional therapeutic modalities. The underlying chemistry of these nanomedicines by which tumor metabolism is harnessed, is also discussed in a comprehensive manner. It is expected that by harnessing tumor metabolism cancer nanotherapeutics will be substantially improved in the future.