In the frontal plane, we used the adduction angle at 20% of the gait cycle in the analysis, since there was a peak in the angle at that particular phase of the gait cycle.
As variability in stromal thickness in eyes with advanced keratoconus, ectasia, or dense and deep stromal scars may limit the ability of the femtosecond laser to produce a uniform lamellar plane, we used the FS laser only to create the side cut both in donor and in recipient cornea, while leaving a minimal amount of residual corneal tissue.
So, in order to detect wall planes, we use similar constraints with ground plane except that the angle between gravity vector and wall's normal vector is almost (90^{circ }) and we do not need to check distance between wall plane and the Kinect, because wall plane can appear anywhere in our scene.
In particular, for a meromorphic function f ( z ) in the complex plane ℂ, we use ρ ( f ) and μ ( f ) to denote its order and lower order respectively, and λ ( f ) to denote the exponent of the convergence of the zero-sequences.
To test plane detection, we use two completely different sets of images.
We give a general method to construct divisible designs from semifield planes and we use this technique to construct some divisible designs.
In addition to using "swing hinges", which allow rotation in the plane, we can use "twist hinges", which allow one piece to be flipped over relative to another piece via rotation by 180° through a third dimension.
As we have two most significant peaks corresponding to (002) and (100) plane, we only use the Miller indices of these planes to calculate the lattice parameters.
First, for plane segmentation step, we use organized point cloud with the segmentation algorithm proposed in [7] instead of using RANSAC as in the work of Vlaminck.
