Controlling of the magnetic anisotropy or magnetization directly by using electric field [1 3] is of great importance not only in fundamental research, but also in technological applications, including high density information storage, ultra-low power-consuming magnetoelectric devices and sensors [4 6].
Heatmaps exhibit both characteristics by enabling the visualization of high density information and providing exact data values in the cells.
The objectives of our study were to 1) evaluate the level of genetic purity within each inbred line and understand genetic identity among different seed sources of the same line designation; and 2) compare the correlation between the KASP-based low density and the GBS-based high density information for QC analysis.
Magnetic nanoparticles have unique size effects that may provide insights into potential applications in various fields, such as ultra-high density information storage, color imaging, bioprocessing, and ferrofluids [1 3].
For the parents, genotyping, if required, entailed obtaining higher density information compared to that obtained for the same individuals as selection candidates.
Single-molecule magnets (SMMs) are under research regarding several future applications such as quantum computing [5], magnetic refrigeration [6, 7], and high-density information storage [8].
For example, the uniformly sized and shaped nanodomains formed in the films have been used for nanolithography, nanoparticle synthesis, and high-density information storage media.
Such films have applications in sensors that utilize the giant magnetoresistance effect, for example, read heads in high-density information storage devices.
1D cobalt nanostructures with uniform shape and high purity have become increasingly required for specific uses in many areas, such as in high-density information storage, magnetic sensors, commercial batteries, and catalysts.
Ordered nanodot arrays have attracted great research attention in the last decade because of their applications in the functional nanodevices, such as high-density information storage media [1, 2] and highly sensitive sensors [3, 4].
Magnetic particles are gaining attraction due to a variety of technological applications such as high-density information storage nanodevices, ferrofluids, magnetic refrigeration, residential cooling, and biomedical applications like magnetic separations, biosensors, resonance imaging, hyperthermia, and targeted and controlled drug delivery.
