At 4× parallelism, CYK is implemented in single-precision floating-point log-odds probabilities, fully replicating the calculation of the non-parallel reference algorithm.
This instrumental platform is capable of detection limits of less than 50 nM, has a large linear dynamic concentration range, is tolerant of salty samples, and has been implemented in single-cell analyses.
Finally, the actual benefit of using multiple antennas at the BS is presented, allowing for spatial multiplexing of users, in contrast to allocating resources to a single user, as it is implemented in conventional single antenna systems.
These theories can be successfully implemented in a single FEM code, and without changing a single line of the program it is possible to obtain results of all the ∞3 theories.
Since infinite combinations can be freely chosen for the displacements ux,uy,uz and for the stresses σxz,σyz,σzz, the generalized unified formulation allows the user to write, with a single formal theory, ∞6 theories which can be successfully implemented in a single FEM code.
We investigate two approaches to the survivability deployment: single-layer survivability, where some recovery mechanism (e.g. protection or restoration) is implemented in a single network layer and multilayer survivability, where recovery is implemented in multiple network layers.
Unfortunately, all techniques cannot be implemented in a single experiment.
