G. Rivero

TL;DR: The measurements show a correlation between the biological evolution and the electrical bioimpedance of the organs, which increases from its in vivo value immediately after excision, multiplying its value by 2 in a few hours.

TL;DR: The aim of this work is to find a magnetic sensor, which could be integrated in a bioprosthesis, monitoring the prosthesis in such a way that allows to confidently forecast the failure, and characterizing the signal changes when the valve begins to fail, preventing the bioposthesis functional failure.

TL;DR: In this paper, the magnetic properties and the crystallographic structure of the cobalt nanowire arrays as a function of their nanoscale dimensions are reported. But no significant changes in the magnetic behavior were observed with decreasing temperature, indicating that the effective magnetoelastic anisotropy does not play a dominant role in the remagnetization processes of individual nanowires.

TL;DR: The magnetic behavior of the material depends strongly on the Co/Ni ratio, ranging from paramagnetic to ferromagnetic as the Co content increases as mentioned in this paper, and the extrapolation for 100% Co content is very close to that of crystalline Co. Although the X-ray diffraction patterns indicate that the material is amorphous, the observed magnetic behavior suggests that the system is composed by nanocrystalline Co particles embedded in an ammorphous Ni P matrix.