Magnetoliposome Nanoparticle Data for Curcumin Drug Delivery

Experimental data from 2020 details the synthesis and characterization of magnesium ferrite nanoparticles with diameters around 25 nm and superparamagnetic behavior. The dataset includes measurements for producing aqueous and solid magnetoliposomes below 130 nm, with curcumin encapsulation efficiencies above 89%. Results from FRET and fluorescence quenching assays demonstrate interactions with model biological membranes, pointing to applications in combined magnetic hyperthermia and chemotherapy.

Use Cases

• Analyze the relationship between nanoparticle diameter (around 25 nm) and superparamagnetic properties like maximum magnetization (16.2 emu/g) and blocking temperature (183.2 K).
• Model curcumin encapsulation efficiency (above 89%) in magnetoliposomes as a function of nanoparticle synthesis method and PEGylation status.
• Correlate magnetoliposome size (below 130 nm) with interaction outcomes from FRET or fluorescence quenching assays on model biological membranes.

Strengths

• Reports specific nanoparticle diameters around 25 nm and magnetoliposome sizes below 130 nm.
• Quantifies key magnetic properties including a maximum magnetization of 16.2 emu/g and a coercive field of 22.1 Oe.
• Documents high curcumin encapsulation efficiencies above 89% for the nanosystems.

Limitations

• Dataset size, row count, and column structure are unknown, limiting statistical analysis.
• Data is from a single experimental study published in 2020, lacking temporal breadth or external validation.
• Focus is on in-vitro characterization and model membranes, with no in-vivo therapeutic efficacy data.

Provenance

Source

Beatriz D. Cardoso via Dryad.

Collection Method

Experimental data from nanoparticle synthesis (coprecipitation), magnetoliposome production, and characterization assays (FRET, fluorescence quenching).

Time Range

Data from experiments culminating in 2020 publication.

Freshness

Last updated 2020-06-24.