免疫检查点阻断通过扩增效应 CD8⁺ T 细胞克隆增强淋巴细胞清除性化疗诱导的抗肿瘤免疫
Immune Checkpoint Blockade Augments Lymphodepleting Chemotherapy-Induced Antitumor Immunity by Expanding Effector CD8+ T-cell Clones.
CELL INTELLIGENCE · 肿瘤细胞治疗研究
肿瘤细胞治疗研究
英文原题:Nanotechnology and immunotherapy synergies in skin cancer.
Nanotechnology and immunotherapy synergies in skin cancer.
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全球最常见的恶性肿瘤——皮肤癌,因其高死亡率、高发病率及不断上升的患病率,构成了重大的公共卫生问题。尽管在早期检测以及手术、放疗和化疗等常规疗法方面取得了进展,但仍存在局限性,如脱靶毒性、复发风险和治疗耐药性,尤其是在晚期疾病中。利用机体免疫系统产生靶向抗肿瘤反应,免疫疗法是一种颠覆性的策略。
然而,其更广泛的成功受到临床挑战的限制,包括免疫逃逸、低缓解率和不良的免疫相关副作用。本章讨论了纳米技术在免疫疗法和诊疗一体化中的应用,并提出了一种协同方法来优化皮肤癌治疗的精准性、疗效和个体化。从脂质体和聚合物纳米颗粒到金属和碳基平台,纳米材料促进了实时图像引导治疗、更好的局部浓度、降低的全身毒性以及增强的免疫治疗递送。本章讨论了两种最常见皮肤癌类型——黑色素瘤和非黑色素瘤——的分子病理生理学,以及当前大多数免疫治疗策略、临床结局和相关毒性。特别强调了纳米技术在诊疗一体化中用于同步治疗和诊断、检查点抑制剂靶向递送、癌症疫苗和过继细胞疗法的应用。可编程的组合纳米平台和生物纳米材料有可能绕过肿瘤耐药性并提供真正个性化的治疗。本章最后考虑了皮肤癌诊疗一体化和纳米技术赋能免疫治疗的当前临床应用、挑战及可能的未来方向。
The world's most prevalent malignancy, skin cancer, is a major public health problem due to its high mortality, morbidity, and rising incidence. There are still limitations, such as off-target toxicity, risk of recurrence, and resistance to therapy, particularly in advanced disease, even with the progress in early detection and conventional therapies such as surgery, radiation, and chemotherapy. Employing the immune system of the body to generate targeted anti-tumor responses, immunotherapy is a game-changing strategy. Its broader success is, however, limited by clinical challenges, including immune evasion, low response rates, and adverse immune-related side effects. The application of nanotechnology to immunotherapy and theranostics is discussed in this chapter and presents a synergistic approach to refining the precision, efficacy, and individualization of skin cancer therapy.
Real-time image-guided therapy, better local concentration, reduced systemic toxicity, and enhanced immunotherapeutic delivery are all facilitated through nanomaterials, ranging from liposomes and polymeric nanoparticles to metallic and carbon-based platforms. Molecular pathophysiology of the two most common types of skin cancer, melanoma and non-melanoma and most current immunotherapeutic strategies, clinical outcomes, and associated toxicities are discussed in this chapter.
The applications of nanotechnology in theranostics for concurrent therapy and diagnosis, targeted delivery of checkpoint inhibitors, cancer vaccines, and adoptive cell therapy are highlighted with specific emphasis.
Combinatorial nanoplatforms and bionanomaterials that can be programmed have the possibility to bypass tumor resistance and offer truly personalized treatment. The chapter concludes with consideration of the present clinical applications, challenges, and possible future directions of theranostics and nanotechnology-enabled immunotherapy for skin cancer.
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