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Functionality of Disintegrants and Their Mixtures in Enabling Fast Disintegration of Tablets by a Quality by Design Approach

机译:崩解剂及其混合物在通过设计质量实现片剂快速崩解中的功能

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摘要

Investigation of the effect of disintegrants on the disintegration time and hardness of rapidly disintegrating tablets (RDTs) was carried out using a quality by design (QbD) paradigm. Ascorbic acid, aspirin, and ibuprofen, which have different water solubilities, were chosen as the drug models. Disintegration time and hardness of RDTs were determined and modeled by executing combined optimal design. The generated models were validated and used for further analysis. Sodium starch glycolate, croscarmellose sodium, and crospovidone were found to lengthen disintegration time when utilized at high concentrations. Sodium starch glycolate and crospovidone worked synergistically in aspirin RDTs to decrease disintegration time. Sodium starch glycolate-crospovidone mixtures, as well as croscarmellose sodium-crospovidone mixtures, also decreased disintegration time in ibuprofen RDTs at high compression pressures as compared to the disintegrants used alone. The use of sodium starch glycolate in RDTs with highly water soluble active ingredients like ascorbic acid slowed disintegration, while microcrystalline cellulose and crospovidone drew water into the tablet rapidly and quickened disintegration. Graphical optimization analysis demonstrated that the RDTs with desired disintegration times and hardness can be formulated with a larger area of design space by combining disintegrants at difference compression pressures. QbD was an efficient and effective paradigm in understanding formulation and process parameters and building quality in to RDT formulated systems.
机译:研究了崩解剂对快速崩解片(RDTs)崩解时间和硬度的影响,这是使用质量设计(QbD)范式进行的。选择具有不同水溶性的抗坏血酸,阿司匹林和布洛芬作为药物模型。通过组合优化设计确定RDT的崩解时间和硬度并进行建模。生成的模型经过验证,可用于进一步分析。当以高浓度使用时,发现羟乙酸淀粉钠,交联羧甲基纤维素钠和交联维酮会延长崩解时间。淀粉乙醇酸钠和交聚维酮钠在阿司匹林RDT中协同工作,以减少崩解时间。与单独使用的崩解剂相比,在高压缩压力下,布洛芬RDT中的羟乙酸淀粉钠-交联维酮混合物以及交联羧甲基纤维素钠-交联维酮混合物也减少了崩解时间。在具有高度水溶性的活性成分(如抗坏血酸)的RDT中使用羟乙酸淀粉钠可减缓崩解,而微晶纤维素和交聚维酮则将水迅速吸入片剂并加速崩解。图形优化分析表明,通过在不同压缩压力下结合崩解剂,可以将具有所需崩解时间和硬度的RDT制成更大的设计空间。 QbD是了解RDT配方系统的配方和工艺参数以及提高建筑质量的有效范例。

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