Liposome as nanocarrier: Site targeted delivery in lung cancer

N. Ullah, Saba Noreen, K. Tehreem, A. Zaman, Z. Ahmad, H. Balouch, N. Samad
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引用次数: 3

Abstract

The phenomenal perceptive and study of how to handle the materials at molecular, macromolecular and atomic levels, possessing characteristics which are appreciably discriminated from the higher levels, is notorious as nanoscience. The applications of these technologies for cancer handling are drug delivery modifications and overpowering some drug delivery disorders[1]. One billionth of a meter (a nanometer) and this subatomic and atomic level, has the material features which are evidently distinctive from features of larger sized forms of the same materials. The innovative traits haunted by nanomaterials, though, renowned were for its mechanical, electrical, physical, magnetic, biological and chemical applications, presently, pharmaceutical purposes, mainly in drug delivery field, are getting a much more dedication[2]. Extensive research has been done for many eras in cancer mitigation using nanotechnology that is moving ahead quickly up to now. The pharmacokinetics individuality of many chemotherapeutic medications that are potentially functioning with less aqueous solubility, can be enhanced by nanocarriers predominantly. In this way the therapeutic effect of these products is being boosted. Hence, a multiplicity of drug delivery systems based on the biocompatible polymeric resources has been anticipated[3]. The most substantial research field for the pharmaceutical drugs management and development is targeted drug delivery system (TDDS). TDDS has the major role in drug delivery to the targeted tissues while comparative medication strength is reduced in other remaining tissues subsequent this. Consequently, leaving the neighboring tissues uninfluenced, the drug is mainly confined to the targeted area. The TDDS advantages, mainly include safe and welfare consignment and perfection in therapeutic catalog. A greater variety of quantitative advantages of TDDS for disease therapy are also explored[4]. The four most frequently identified cancers are prostate, breast, colorectal and lung cancers. Plentiful hostile effects of chemotherapeutic drugs are also pragmatic. Nanotechnology has a great exploitation in medical sciences as it is the escalating filed in medicine[5]. Cancer is one of the miscellaneous and heterogeneous diseases. Drug withstanding is the consequence of the synchronized practice of multiple drugs which is known as multidrug resistance (MDR) and it can be either intrinsic or acquired. Cancerous cells are being immune to typical therapy due to MDR with many anticancer mechanisms. Now it is the foremost routine in cancer medication to ARTICLE INFO ABSTRACT
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脂质体作为纳米载体:肺癌部位靶向递送
对如何在分子、大分子和原子水平上处理材料的非凡感知和研究,具有明显区别于更高水平的特征,被称为纳米科学。这些技术在癌症治疗中的应用是药物递送修饰和克服某些药物递送障碍[1]。十亿分之一米(纳米)和这种亚原子和原子水平的材料特征与相同材料的较大尺寸形式的特征明显不同。然而,纳米材料的创新特性以其机械、电气、物理、磁性、生物和化学应用而闻名,目前,制药目的,主要是在药物递送领域,正变得更加专注[2]。使用纳米技术缓解癌症已经进行了许多时代的广泛研究,目前进展迅速。许多化疗药物的药代动力学特性可能具有较小的水溶性,主要可以通过纳米载体来增强。通过这种方式,这些产品的治疗效果得到了提高。因此,基于生物相容性聚合物资源的多种药物递送系统已被预期[3]。药物管理和开发最重要的研究领域是靶向给药系统(TDDS)。TDDS在药物递送到靶组织中具有主要作用,而随后在其他剩余组织中的相对药物强度降低。因此,在不影响邻近组织的情况下,药物主要局限于靶区。TDDS的优势,主要包括安全、福利的托运和完善的治疗目录。TDDS在疾病治疗中的各种量化优势也得到了探索[4]。四种最常见的癌症是前列腺癌、乳腺癌、结直肠癌和肺癌。化疗药物的大量敌对作用也是实用的。纳米技术是医学领域不断发展的一个领域,在医学科学中有着巨大的开发潜力[5]。癌症是多种疾病中的一种。药物耐受是多种药物同步使用的结果,这种药物被称为多药耐药性(MDR),它可以是内在的,也可以是后天的。由于MDR具有许多抗癌机制,癌细胞对典型的治疗具有免疫性。现在这是癌症治疗的首要常规
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