This insight has greatly affected implant development so that metal-on-highly cross-linked polyethylene (MoHXPE), metal-on-metal (MoM), ceramic-on-ceramic (CoC), and ceramic-on-metal (CoM) bearings have been developed to reduce volumetric wear and to mitigate particle-driven chronic foreign body inflammation and peri-implant osteolysis.
Therefore, it is expected that the incorporation of highly conducting metal nanowires into cobalt oxide materials would be a promising way to increase electrical conductivity and mitigate the particle agglomeration of the cobalt oxide during Li-ion insertion/extraction.
However, macro-particles (MPs) emitted from the vacuum arc degrade the properties of the deposited samples and various types of magnetic filters have been proposed to mitigate macro-particle contamination.
However, Ar showed better extraction efficiency than He, especially for the finer particles, due to a shorter mean free path, which mitigated nano-particle slipping.
These fluorescent particles mitigate many of the above limitations, largely due to the fact that they minimize fluorophore contact with their surrounding environment and remain strongly fluorescent.
In this paper, the use of nanospherical particles to mitigate the rheology was explored.
In this experimental study, nanoparticles (NPs) treatment of low salinity water (LSW) flooding in order to mitigate the induced colloidal particles migration in the medium has been investigated.
The current work was aimed to elucidate the role of engineered nanosilica (SiNPs) particles to mitigate the damaging impacts of Na+-derived salinity on cucumber (Cucumis sativus) Beit Alpha variety by conducting in vitro experiments applying various Na+ concentrations i.e. 0, 1000, 2000, 3000, 4000 and 5000 mg L−1.
To test this, they planned to irradiate tungsten with deuterium and helium plasma at various surface temperatures, simulating the conditions in a fusion reactor, and see whether the nano grains would help mitigate the effects of trapped particles.
The proposed strategy to pre-reduce the anode at elevated temperature (800 °C) and then decrease to lower operation temperature (750 °C) is demonstrated to effectively mitigate the Co-Fe nano particles coarsening and could presumably slow down the anode polarization resistance degradation.
