Due to an analogy with an electric circuit, it is possible to write the equation system in a matrix suitable to be solved by computer.
The cortical magnification matrix M is introduced founded on a notion similar to that of the scalar cortical magnification factor M. Unlike M, this matrix is suitable to describe anisotropy in cortical magnification, which is of particular interest in the highly gyrified human cerebral cortex.
A more systematic approach may be provided by the adoption of the tissue engineering concepts of using matrices, suitable (stem) cells, and signaling molecules to direct tissue events.
We describe how the inferred substitution models can be used to generate scoring matrices suitable for alignment and similarity searches.
The diagonal block-wise basis identity matrices are well suitable to without inter-symbol interference orthogonal frequency division multiplexing, diagonal block zero forcing precoding, and SVD for multiuser MIMO.
For a better estimation of the multicomponent wideband spectral matrix, it is suitable to realize jointly spatial and frequential smoothing.
Furthermore, unlike the scalar factor M, this matrix is also suitable to describe anisotropy in cortical magnification, which is of particular interest in the highly gyrified human cerebral cortex.
Moreover, the different behavior in terms of swelling and degradability of the networks was able to affect the release of a model macromolecule over time, making DEX PEG MA matrices suitable candidates for the delivery of high molecular weight peptides.
Fibrous substrates functioning as temporary extracellular matrices can be prepared easily by electrospinning, yielding fibrous matrices suitable as internal fillers for nerve guidance channels.
The Matthews correlation coefficient is essentially a one number representation of the confusion matrix, and is thus suitable to compare the outcome of different model predictions.
