As expected, as higher is the Abbe number, there is less difference between both calculations, leading to the same calculated IOL power.
Both calculations are done using the same underlying algorithm.
Officials cautioned that there was a wide margin of error involved in both calculations.
In the lower temperature range (<10,000 K), a strong temperature dependency is well reproduced, but both calculations show lower values than the measurement.
The use of a different chemically controlled time step constraint in both calculations induces some inconsistencies into the validation tests.
Both calculations comprise the calculation of the Fourier transform (ft), but in order to obtain the amplitude one must take the absolute value, whereas for the phase angle the argument must be taken.
As it turns out a significant difference is obtained for both calculations showing the importance of anisotropic models for these loading situations.
Both calculations and experimental observations show that: (i) a preferential zinc grain orientation with the [0001] direction parallel to the interface and (ii) a small grain size mitigate zinc coating/steel substrate interface cracking.
However, both calculations with flexible framework accuracy may be acceptable for the purpose of screening membrane materials when compared with experiments, especially the permeation selectivity of an equimolar mixture.
Both calculations take constant time, so sampling does as well.
The nickel concentration in the system is the same in both calculations C = 18%.
