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What is the appropriate ratio for mixing kleenmold 26 base and kleenmold 26 catalyst for optimum performance? 

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Based on the results of heating value, activation energy, base/acid ratio and gaseous pollutant emissions, the blending ratio of 20-30% biomass content is regarded as optimum composition for blending and could be applied directly at current combustion application with few modifications.
The results indicated the catalyst prepared by combustion synthesis with a fuel ratio of 1.5 was optimum specifications for biodiesel production.
The results indicate that an appropriate temperature (750 degrees C for the current study) and more catalyst are favorable for getting a higher H(2)/CO ratio.
The lower total equivalence ratio is beneficial for the mixing augmentation, as well the smaller fuel equivalence ratio discrepancy.
The results reveal that for a given volume fraction, there are optimum small-to-large size ratio and light-to-heavy density ratio that can provide the maximum mixing index.
Hence, an optimum Nafion content in the catalyst layer is necessary for good performance.
(by mass), the $^{26}$Al: $^{27}$ Al ratio resulting from this in situ production can be as high as 3 $\times $ 10$^{-11}$.
It has been observed that an optimum power, temperature and catalyst loading exist for maximum benefits whereas higher molar ratio was found to be favourable for the progress of the reaction.
The NO/C2H4 ratio in the feedstream is an important factor determining the NO reduction activity of the catalyst, and there exists an optimum value of this ratio for a maximum conversion of NO.
For the same Pt/C ratio, although a higher I/C ratio brings more mass transport loss, it increases the active catalyst area and ultimately yields better performance.

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