Furthermore, the engineering of microparticles with well definite size distribution and pore architecture by bio-safe fabrication routes is crucial to avoid the use of toxic compounds potentially harmful to cells and biological tissues.
In order to meet this goal, the program must develop efficient and safe fuel fabrication processes designed for remote operation.
As well as being fully biocompatible – and, therefore, safer – the fabrication process is also cheaper and more environmentally-friendly than that used for existing technologies, and the researchers are now aiming to test it in human clinical trials.
This solid-precursor-based atmospheric pressure CVD method provides a simple, inexpensive and safe route for fabrication of graphene films.
The high specific capacitance and small relaxation time constants of the G-substituted polyaniline paved the way for the fabrication of safe and stable supercapacitors.
These new findings could open a new window for the fabrication of safe, long life time and dendrite-free Li metal anodes.
A lithium secondary battery using solid polymer electrolyte [SPE] is an attractive energy source for portable devices since the use of SPE makes the fabrication of safe batteries possible and permits the development of thin batteries with design flexibility.
In particular, the fabrication of safe intra-corporeal devices, such as pacemakers, catheters, and bone screws, represents a challenging topic since almost any abiotic surface is prone to contaminations and infections caused by microorganisms that adhere onto the device surface, then colonizing it[2, 3].
In this study, a powder technology manufacturing route as a pioneering, low cost, simple and safe method is used for the fabrication of nano-porous silicon (NPS) powder.
Therefore, the first goal of this study was to design and develop a simple, dependable, cost-effective, safe, and nontoxic approach for the fabrication of AgNPs of uniform size.
