Weissig Volkmar, Guzman-Villanueva Diana
Department of Pharmaceutical Sciences, Midwestern University College of Pharmacy Glendale, Glendale, AZ, USA.
Int J Nanomedicine. 2015 Feb 11;10:1245-57. doi: 10.2147/IJN.S65526. eCollection 2015.
In part I of this review we assessed nanoscience-related definitions as applied to pharmaceuticals and we discussed all 43 currently approved drug formulations, which are widely publicized as nanopharmaceuticals or nanomedicines. In continuation, here we review the currently ongoing clinical trials within the broad field of nanomedicine. Confining the definition of nanopharmaceuticals to therapeutic formulations, in which the unique physicochemical properties expressed in the nanosize range, when man-made, play the pivotal therapeutic role, we found an apparently low number of trials, which reflects neither the massive investments made in the field of nanomedicine nor the general hype associated with the term "nano." Moreover, after an extensive search for information through clinical trials, we found only two clinical trials with materials that show unique nano-based properties, ie, properties that are displayed neither on the atomic nor on the bulk material level.
在本综述的第一部分,我们评估了应用于药物的与纳米科学相关的定义,并讨论了目前所有43种已获批的药物制剂,这些制剂被广泛宣传为纳米药物或纳米医药。接下来,我们在此回顾纳米医学广泛领域内目前正在进行的临床试验。将纳米药物的定义局限于治疗性制剂,即人为制造的、在纳米尺寸范围内表现出独特物理化学性质并发挥关键治疗作用的制剂,我们发现试验数量明显较少,这既没有反映出在纳米医学领域的巨额投资,也没有反映出与“纳米”一词相关的普遍炒作。此外,在通过临床试验广泛搜索信息后,我们仅发现两项针对具有独特纳米基性质(即在原子层面和块状材料层面均未表现出的性质)材料的临床试验。