Compared with Figure 4a, the nETR in the single nanorod structure increases with a maximum enhancement of 23,300, while the RET-enhancing abilities of the V-shaped structures become weaker.
In contrast, commercially available formulations achieved a maximum enhancement of 1.9-fold.
The maximum enhancement of convective heat transfer coefficient is observed to be ∼170% at 0.5 vol% in the turbulent region.
The maximum enhancement of 62% was observed with the addition of 3 wt.% 50 nm graphite nanoparticles.
The composite electrode calcinated at 300 °C offers the maximum enhancement of 205% in both specific capacitance and energy density.
These results suggest appropriate geometric configuration of the graphite-wafers for maximum enhancement of active-passive damping.
After that, it would be possible to optimize location, sizing and control modes of SVC and TCSC in order to achieve maximum enhancement of system loadability.
The maximum enhancement of 19.8% was obtained in the local convective heat transfer by using the oscillating magnetic field compared with the case no magnetic field was applied.
In both cases, a 10 times increase of the detection limit was observed, correlated to a 20 times maximum enhancement of the CL signal.
The maximum enhancement of convective heat transfer coefficient of nanofluid is observed to be ∼42% at 0.45 vol% compared with pure basefluid.
A novel formulation is presented for disturbance enhancement in multichannel systems, which limits the maximum enhancement of each individual error signal.
