Sentence examples for magnetic properties compared from inspiring English sources

Spinel-type ferrite nanomaterials evoke increased interest due to their high optical, structural, electrical, and magnetic properties compared to their microcrystalline analogs.

Their special low-dimensional structures cause their unique physical and chemical properties especially magnetic properties compared with their bulk materials [5 8].

Importantly, these efforts have highlighted that nanomaterials exhibit superior cytocompatible, mechanical, electrical, optical, catalytic and magnetic properties compared to conventional (or micron structured) materials.

Meanwhile, the nanometer-sized ZnFe2O4 shows unusual magnetic properties compared to the bulk form [8], such as high Curie temperature and large magnetization at room temperature (RT) have been observed in ZnFe2O4 nanoparticles and films [9 12].

In the present decade, core/shell structured nanoparticles have received much attention, due to their enhanced combination of optical, electronic, and magnetic properties compared to those of single-component nanomaterials [31].

Transition metal oxide nanoparticles, i.e., nanoferrites have been extensively investigated due to their unique catalytic, electric, and magnetic properties compared to those of their bulk counterparts, and the wide range of their potential applications [1].

I construct what I believe is the first Ashby-style map of magnetic refrigerant properties, comparing popular materials with limits derived from an idealized first-order transition model.

The magnetic properties were compared using a vibrating-sample magnetometer.

Thermal and structural and magnetic properties were compared during heat treatment.

The adsorption, electrochemical and magnetic properties were compared between doped and un-doped ferrites.

Magnetic properties are compared to the redness rating of soil colour, which is related to the hematite content and is an established proxy for soil weathering.