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Fabrication of lactoferrin-chitosan-etoposide nanoparticles with melatonin via carbodiimide coupling: In-vitro & in-vivo evaluation for colon cancer.

Journal of controlled release : official journal of the Controlled Release Society
January 10, 2025
Harshvardhan Raval et al. (11 authors)
Journal ArticleHuman StudyAnimal StudyMolecular Study
Study Details

Study Goal

The researchers aimed to evaluate the safety and efficacy of melatonin-coated lactoferrin-chitosan nanoparticles for targeted colorectal cancer therapy.

Results Summary

The nanoparticles demonstrated significant cytotoxicity in HCT116 cells, enhanced cellular uptake, tumor reduction in vivo, and improved pharmacokinetics with sustained drug release and biocompatibility. They also showed antimicrobial effects and positive impacts on the gut microbiome.

Population

DMH-induced colorectal cancer rat model and HCT116 human colorectal cancer cells.

Effective Dosage

Not specified in the abstract.

Duration

Not specified in the abstract.

Interactions

None mentioned.

Extracted Claims (14)
InterventionDirectionEndpointPopulationDosageImpactClaim #
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
drug release
in vitro
98.68 ± 4.12 % released at pH 5.5 over 24 h
showed sustained, pH-responsive release
#1
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
decrease
cell viability
HCT116 cells
IC50 = 15.32 μg/mL
exhibited significant cytotoxicity
#2
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
ROS generation
HCT116 cells
-
inducing
#3
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
apoptosis
HCT116 cells
-
inducing
#4
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
G2/M cell cycle arrest
HCT116 cells
-
inducing
#5
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
decrease
BCL2 gene expression
HCT116 cells
-
notable downregulation
#6
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
therapeutic efficacy
HCT116 cells
-
Enhanced cellular uptake due to lactoferrin targeting improved
#7
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
decrease
tumor reduction
DMH-induced colorectal cancer rat model
-
demonstrated significant
#8
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
selective colon accumulation
DMH-induced colorectal cancer rat model
-
demonstrated
#9
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
plasma circulation
DMH-induced colorectal cancer rat model
-
showing extended
#10
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
increase
bioavailability
DMH-induced colorectal cancer rat model
-
showing
#11
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
no change
hemolysis
in vitro biocompatibility assays
<1 %
confirmed the safety profiling
#12
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
decrease
Proteus mirabilis growth
in vitro
ZOI = 1.9 cm
inhibited
#13
melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs)
neutral
gut microbiome
treated animals
-
exhibited promising effects on
#14
Abstract

This study presents the development of melatonin-coated lactoferrin-chitosan nanoparticles (ETP-CS-LF-MLT-NPs) using ionic gelation and carbodiimide coupling for colorectal cancer treatment. The nanoparticles were characterized by an average size of 208.7 ± 1.25 nm, a zeta potential of 30.77 ± 1.21 mV, and 82.45 % drug encapsulation efficiency. In vitro drug release studies showed sustained, pH-responsive release, with 98.68 ± 4.12 % released at pH 5.5 over 24 h. The nanoparticles exhibited significant cytotoxicity in HCT116 cells (IC50 = 15.32 μg/mL), inducing ROS generation, apoptosis, and G2/M cell cycle arrest, with notable downregulation of BCL2 gene expression. Enhanced cellular uptake due to lactoferrin targeting improved therapeutic efficacy. In In vivo studies, the nanoparticles demonstrated significant tumor reduction and selective colon accumulation in a DMH-induced colorectal cancer rat model, along with improved pharmacokinetics, showing extended plasma circulation and bioavailability compared to free etoposide. Biocompatibility assays, including hemolysis (<1 %), platelet aggregation, and HET-CAM tests, confirmed the safety profiling of the prepared nanoparticles. The nanoparticles also inhibited Proteus mirabilis (ZOI = 1.9 cm) and exhibited promising effects on the gut microbiome of treated animals. Altogether, ETP-CS-LF-MLT-NPs hold great potential for targeted colorectal cancer therapy, improving drug delivery, tumor targeting, bioavailability, and reducing systemic toxicity.

Medical Subject Headings (MeSH)
AnimalsChitosanHumansNanoparticlesLactoferrinColonic NeoplasmsHCT116 CellsMelatoninDrug LiberationMaleEtoposideRats, Sprague-DawleyAntineoplastic Agents, PhytogenicDrug CarriersApoptosisRatsCell Survival
Study Links
Quality Scores
Safety85
Efficacy90/10
Quality88/10
Citation Metrics
Total Citations2
Citations/Year2.0
Research Impact Scores
APT Score0.05
Weight Score1.53
Normalized Score0.88
Related Supplements
Fabrication of lactoferrin-chitosan-etoposide nanoparticles ... | Panacea Index