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Fabricating transdermal film formulations of montelukast sodium with improved chemical stability and extended drug release

Montelukast Sodium (MK) is a leukotriene receptor antagonist, an oral drug generally prescribed to control chronic asthma symptoms. This research aims to provide the transdermal delivery of this drug in a controlled release profile as a better mode of drug delivery, specifically for the pediatric and elderly population. Transdermal delivery of the drug not only improves the drug's bioavailability but also maintains the concentration of the drug in the plasma without increasing the frequency of the drug dosage. Transdermal film formulations were developed using sodium alginate (SA) and lignosulphonic acid (LS) as the matrix and PEG-400 or Glycerine (Gly) as the plasticizers. Various physiochemical characteristic evaluations of the formulated films were conducted, revealing that the formulation with Glycerine as the plasticizer had a smooth surface and was flexible. It was observed that this formulation had the highest moisture uptake capacity and the lowest moisture loss capacity when compared with the other two formulations. It was also observed that the barium chloride cross-linked formulation had a higher swelling index when compared with calcium chloride cross-linked films. The surface pH of all the formulations was monitored to be around 7.5. In the in vitro release studies, the cross-linked films showed a controlled release over 36 h compared with the non-cross-linked films. Based on the observations and results, the cross-linked film formulation showed a better-controlled release of the drug and could potentially increase its bioavailability. TGA analysis of the polymeric mixture demonstrated the thermal stability of the SA blends, which enhanced the flexibility of the SALS blend with Glycerine. XRD of samples confirmed the amorphous nature of SALS blends with Gly, which influences the flexibility of the blend. The blends are further investigated for morphology using SEM to test their compatibility with the drug.

 

Comments:

The research aimed to develop a transdermal delivery system for Montelukast Sodium (MK), a drug used to control chronic asthma symptoms, with the goal of improving its bioavailability and providing a better mode of drug delivery for pediatric and elderly patients. The transdermal film formulations were prepared using sodium alginate (SA) and lignosulphonic acid (LS) as the matrix and PEG-400 or Glycerine (Gly) as the plasticizers. The physical and chemical properties of the formulations were evaluated to determine their suitability for drug delivery.

The formulation with Glycerine as the plasticizer showed the best physical properties, including a smooth surface and flexibility. It also had the highest moisture uptake capacity and the lowest moisture loss capacity, indicating its ability to maintain drug stability. Cross-linking the films with barium chloride resulted in better-controlled release over 36 hours compared with non-cross-linked films. The polymeric blend of SA and LS with Glycerine was found to be thermally stable and showed amorphous behavior, enhancing the flexibility of the blend. The morphology of the blends was investigated using SEM to test their compatibility with the drug.

Overall, the research demonstrated the potential of transdermal delivery of Montelukast Sodium using SA and LS-based films as a controlled release drug delivery system. The formulation with Glycerine as the plasticizer showed the best physical properties and the cross-linked films exhibited better-controlled release of the drug. The results suggest that this transdermal delivery system could potentially improve the bioavailability of Montelukast Sodium, making it a promising option for pediatric and elderly patients.

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