Rapid structural enhancement in the range from 1800 to 2200 °C originates from the abrupt evolution of the residual catalytic compounds and is seen as partially aligned small fringes along the tube length.
Alumina, 38.4 nm, in water resulted in thermal conductivity enhancement in the range of 2%to10%0% in two studies [1, 7] but up to 21% in another study [16].
Most observations indicate a heat transfer enhancement in the range 5-9% (42% of the sample).
The majority of the publications shows heat transfer enhancement in the range of 10-14% (14% of the sample).
Statistically, most observations indicate an enhancement in the range of 10-14% (41% of the sample) with a moderate spread.
In this article, we analytically investigate this problem and propose a low cost enhancement to ensure the full-range distribution of tag values for each data, hence effectively removing the vulnerability of the original design.
Enhancements in the range of 10 to 100 have been reported, but only very few molecules have been studied.
Due to the range enhancement artefact, Miron et al. [ 54] suggested that up- and down-regulated genes should be inspected separately.
For Epump = 1.3 eV, we numerically calculate a (resonant) plasmonic field-enhancement factor in the range up to g ~9 at the tips of the emitter, while at the collector g < 4 (cf. inset of Fig. 2b and Supplementary Fig. 3).
To identify the ideal layer design for mirror-enhanced dSTORM of NPCs and to match the enhancement range to the fluorophore's height range above the coverslip, we performed finite element method simulations of the distance-dependent excitation and emission enhancement for the fluorophore of choice (Fig. 1a), Alexa Fluor 647 (A647).
Thermal conductivity increases as usual with weight fraction showing an enhancement up to 14% in the range studied, and the experimental values were compared with available theoretical models.
