There are many applications of fractal analysis for the characterization of biological surfaces or structures using magnetic resonance imaging [57-59] [57-59]oultrasound] or other techniques [60,61].
To find out, Engler and her colleagues extracted cyanogens from the plants and recently emerged butterflies and determined their chemical structures using nuclear magnetic resonance and mass spectroscopy.
We present a new map reflecting the boundaries between the crustal domains (proximal, necking, hyper-extended, exhumed mantle, proto-oceanic and oceanic domains) and structures using bathymetry, magnetic surveys and seismic reflection data.
Controlled synthesis of smart nanostructures based on magnetic materials assumes important due to their potential applications in various fields and the possibility for manipulating these structures using an external magnetic field [19, 20].
These results have been compared with the parametric instability regions of the sandwich beam with fully viscoelastic core to show the passive and active vibration reduction of these structures using MRE and magnetic field.
Another point of interest is the feasibility of tracking SPIO-labeled cells within the joint in relation to other anatomical structures, using a clinical magnetic resonance imaging (MRI) protocol, in a model of clinically relevant size.
Moreover we are in the procedure of evaluating the width L and amplitude A of the magnetic structure by using HI-SCALE measurements and a sinusoidal form geometry.
To this end, micron scale magnetic structures are fabricated using cleanroom technologies.
Magnetic structures can be used to shield electromagnetic disturbances, but it can lead to some other disturbances to the magnetic sensor as well.
Studying dynamic aspects of protein structure using nuclear magnetic resonance spectroscopy, for example, is still sufficiently costly and time consuming as to prevent its use in the same scale as X-ray crystallography.
