Hybrid of niosomes and bio-synthesized selenium nanoparticles as a novel approach in drug delivery for cancer treatment.
Mahmoud GharbaviBehrooz JohariNavid MousazadehBahareh RahimiMilad Parvinzad LeilanSeyed Sadegh EslamiAli SharafiPublished in: Molecular biology reports (2020)
The current study intends to investigate a novel drug delivery system (DDS) based on niosomes structure (NISM) and bovine serum albumin (BSA) which was formulated to BSA coated NISM (NISM-B). Also, selenium nanoparticles (SeNPs) have been prepared by BSA mediated biosynthesis. Finally, the NISM-B was hybridized with SeNPs and was formulated as NISM-B@SeNPs for drug delivery applications. Physicochemical properties of all samples were characterized by UV-Vis spectroscopy, FT-IR, DLS, FESEM, and EDX techniques. The cytotoxicity of all samples against A549 cell line was assessed by cell viability analysis and flow cytometry for apoptotic cells as well as RT-PCR for the expression of MDR-1, Bax, and Bcl-2 genes. Besides, in vivo biocompatibility was performed by LD50 assay to evaluate the acute toxicity. The proposed formulation has a regular spherical shape and approximately narrow size distribution with proper zeta-potential values; the proposed DDS revealed a good biocompatibility. The compound showed a significant cytotoxic effect against A549 cell line. Although the Bax/Bcl-2 expression ratio was significantly in NISM-B@SeNPs- treated cancer cells, the expression of MDR-1 was non-significantly lower in NISM-B@SeNPs-treated cancer cells. The obtained results suggest that the proposed DDS presents a promising approach for drug delivery, co-delivery and multifunctional biomedicine applications.
Keyphrases
- drug delivery
- poor prognosis
- cancer therapy
- induced apoptosis
- flow cytometry
- drug release
- multidrug resistant
- binding protein
- oxidative stress
- cell death
- high throughput
- liver failure
- high resolution
- long non coding rna
- gene expression
- signaling pathway
- endoplasmic reticulum stress
- single cell
- cell cycle arrest
- drug induced
- aortic dissection
- climate change