From a set of experimental machining tests, the parameters investigated are: feed per revolution, insert nose radius, depth of cut and cutting speed.
These effects are quantified and can be sorted in descending order of importance as feed per revolution, insert nose radius, depth of cut and cutting speed.
A series of non-linear FEM analysis of plates with partial depth corrosion pits are carried out, changing geometrical attributes of both pits and plates, i.e., the radius, depth and location of pits and the slenderness of plates.
Thus, impedance measurement techniques can be applied to porous electrodes of more intricate pore-texture, and evaluate the radius, depth and pore number of its equivalent cylindrical pore electrode.
For the sake of argument, let us assume that the system under consideration has the same geometrical properties as the one in this paper, so that the lumen radius, depth of the membrane wall and length of the fiber are given by d = 200 µm, s = 200 µm, L = 10 cm, respectively.
Both model calculation and experimental results show that melt-pool geometry parameters-radius-depth ratio and tangent angle directly influence ring RL thermal structural stability.
Smaller radius-depth ratio range and larger tangent angle (on (1 0 0) substrate) can significantly improve RL performance or even avoid high temperature service structural damage.
The empirical scaling relations of the normalized crater radii and depth are provided.
To comprehensively study, moreover, the effect of nanohole radii and depth on wetting states of droplets on nanohole-patterned surfaces, we obtained a phase diagram of the wetting states of a water droplet on the nanohole-patterned surface from the analysis of the free energy difference between the W and CB states as the function of nanohole depth and radii.
(8), (9) and (7) by adding the additional terms in an available computer code for 3-D local Cartesian form and using the lateral grid intervals Δx and Δy depending on the radius r (or depth z) and the latitude θ′ as Delta x = rDelta theta^{{prime }}, quad Delta y = rcos theta^{{prime }} Delta phi.
