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Chitosan Soft Matter Vesicles Loaded with Acetaminophen as Promising Systems for Modified Drug Release.

Loredana Nicoleta HilițanuLiliana Mititelu-TartauEliza Grațiela PopaBeatrice Rozalina BucăIrina Luciana GurzuPaula Alina FotacheAna Maria PelinDaniela Angelica PricopLiliana Lăcrămioara Pavel
Published in: Molecules (Basel, Switzerland) (2023)
Our study was designed to acquire, characterize and evaluate the biocompatibility of novel lipid vesicles loaded with acetaminophen (APAP) and coated with chitosan (CS). We investigated the in vitro and in vivo drug release kinetics from these systems, and we conducted assessments for both in vitro hemocompatibility and in vivo biocompatibility. For the in vivo biocompatibility evaluation, the mice were randomly divided into four groups of six animals and were treated orally as follows: control group: 0.1 mL/10 g body weight of double-distilled water; CS group: 0.1 mL/10 g body weight 1% CS solution; APAP group: 150 mg/kg body weight APAP; APAP-v group: 150 mg/kg body weight APAP-loaded lipid vesicles. The impact of APAP-v on various hematological, biochemical, and immune parameters in mice were assessed, and the harvested tissues were subjected to histopathological examination. The innovative formulations effectively encapsulating APAP within soft vesicles exhibited reasonable stability in solution and prolonged drug release in both in vitro and in vivo studies. The in vitro hemolysis test involving APAP-loaded vesicles revealed no signs of damage to red blood cells. The mice treated with APAP-v showed neither significant variances in hematological, biochemical, and immune parameters, nor structural changes in the examined organ samples, compared to the control group. APAP-v administration led to prolonged drug release. We can conclude that the APAP-v are innovative carrier systems for modifying drug release, making them promising candidates for biomedical applications.
Keyphrases
  • drug release
  • body weight
  • drug delivery
  • cancer therapy
  • red blood cell
  • gene expression
  • liver injury
  • type diabetes
  • mass spectrometry
  • high resolution
  • drug induced
  • tissue engineering
  • atomic force microscopy