Design and Comprehensive Study of Biodegradable Zinc–based Implants for Bio–medical Applications

Development and Comparative Analysis of MWCNT-Polymer Composites for Bioelectronics Application

“…Properties, including mechanical strength, fracture toughness, thermal stability, permittivity, and electrical conductivity, are known to be improved by introducing tiny quantities of CNTs [13]. Because of its distinctive mechanical, thermal, and electrical characteristics, epoxy is desirable for many applications, including fiber-reinforced composites, laminates, adhesives, and coatings [6,[14][15][16][17][18]. The qualities of composites with various kinds of fillers' microwave absorption are the subject of several investigations.…”

“…Such composites could be thin and light, with the exception of having a high absorption intensity and a broad absorption bandwidth [14]. Additionally, hexaferrites have benefits such cheap cost, simple production, strong coercivity, high Curie temperature, and high magnetic loss [15][16][17][18], therefore the incidence of electromagnetic radiation may be taken into account in hexaferrite based composites. However, after the epoxy has dried, it becomes hard, brittle, and has a low impact strength [4,5,19,20].…”

A Numerical Study on Microgap-Based Focal Brain Cooling Device to Mitigate Hotspot for the Treatment of Epileptic Seizure

“…So, the inefficiency of these existing treatments for epilepsy requires headway in the advancement in the existing treatments. Recently, several biomedical devices have been investigated to develop an alternative devices and implants for several conventional treatments including but not limited to artificial urinary sphincters [13,14], retinal implant [15][16][17], blood oxygenators [18,19], tissue scaffold [20,21], and tissue regeneration [22]. One such technique is focal brain cooling (FBC), and a bio-implantable device is used as an attractive alternative treatment to suppress seizures [23].…”