Department of Biological Sciences, National University of Medical Sciences, Rawalpindi, Pakistan.
School of Chemistry and Biochemistry, Georgia Institute of Technology, Atlanta, GA, USA.
Cancer Treat Res. 2023;185:207-235. doi: 10.1007/978-3-031-27156-4_11.
Considerable advances in the field of cancer have been made; however, these have not been translated into similar clinical progress which results in the high prevalence and increased cancer-related mortality rate worldwide. Available treatments have several challenges such as off-target side effects, non-specific long-term potential biodisruption, drug resistance, and overall inadequate response rates and high probability of recurrence. The limitations associated with independent cancer diagnosis and therapy can be minimized by an emerging interdisciplinary research field of nanotheranostics which include successful integration of diagnosis and therapy on a single agent using nanoparticles. This may offer a powerful tool in developing innovative strategies to enable "personalized medicine" for diagnosis and treatment of cancer. Nanoparticles have been proven to be powerful imaging tools or potent agents for cancer diagnosis, treatment, and prevention. The nanotheranostic provides minimally invasive in vivo visualization of drug biodistribution and accumulation at the target site with real-time monitoring of therapeutic outcome. This chapter intends to cover several important aspects and the advances in the field of nanoparticles-mediated cancer therapeutics including nanocarrier development, drug/gene delivery, intrinsically active nanoparticles, tumor microenvironment, and nanotoxicity. The chapter represents an overview of challenges associated with cancer treatment, rational for nanotechnology in cancer therapeutics, novel concepts of multifunctional nanomaterials for cancer therapy along with their classification and their clinical prospective in different cancers. A special focus is on the nanotechnology: regulatory perspective for drug development in cancer therapeutics. Obstacles hindering further development of nanomaterials-mediated cancer therapy are also discussed. In general, the objective of this chapter is to improve our perceptive in the design and development of nanotechnology for cancer therapeutics.
在癌症领域已经取得了相当大的进展;然而,这些进展并没有转化为类似的临床进展,导致全球癌症发病率高和癌症相关死亡率上升。现有的治疗方法存在许多挑战,例如脱靶副作用、非特异性长期潜在的生物破坏、耐药性以及总体反应率不足和高复发率。纳米诊断和治疗这一新兴的跨学科研究领域可以最大限度地减少独立癌症诊断和治疗的局限性,该领域包括成功地将诊断和治疗整合到单个纳米粒子上。这可能为开发创新策略提供有力工具,实现癌症诊断和治疗的“个性化医疗”。纳米粒子已被证明是癌症诊断、治疗和预防的强大成像工具或有效药物。纳米诊断和治疗提供了在目标部位进行药物生物分布和积累的微创体内可视化,并实时监测治疗效果。本章旨在涵盖几个重要方面和纳米粒子介导的癌症治疗领域的进展,包括纳米载体的开发、药物/基因传递、固有活性纳米粒子、肿瘤微环境和纳米毒性。本章代表了对癌症治疗相关挑战的概述,纳米技术在癌症治疗中的合理性,用于癌症治疗的多功能纳米材料的新概念及其分类以及它们在不同癌症中的临床前景。特别关注的是纳米技术:癌症治疗中药物开发的监管视角。还讨论了阻碍纳米材料介导的癌症治疗进一步发展的障碍。总的来说,本章的目的是提高我们对癌症治疗中纳米技术的设计和开发的认识。
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