Although there have been significant developments to regulate spatial and temporal distribution of biomolecules in various materials, most micropatterning techniques are applicable only to two-dimensional patterning.
It is worthwhile to mention that the SFFT-related techniques are applicable only for the sparse sensing scenarios; e.g., referring to [20, 21], the authors exemplified the sparsity level by imposing the restriction that up to 89 % of the Fourier coefficients are zeroes or negligible, thus can be discarded.
Some of the suboptimal techniques are applicable to specific constant modulus constellations [17, 18].
However, all these techniques are applicable to only a linear counterpart of the problem (1.1 - 1.2 1.1 - 1.2
Additionally, not all techniques are applicable to every system; for example, selective antibody removal17 is common in some model systems but would be challenging to apply to complex, uncharacterized systems when interfering, high abundance protein sequences are unknown.
These techniques are applicable to all species of shark.
Furthermore, this technique is applicable only on regular grids and it is not clear how it would adapt to unstructured meshes.
This new technique is applicable not only to the MHD system, but also to other problems.
This technique is applicable for 2D localization with two sensors only.
When the beam penetrates some obstacles whose attenuation does not avoid the beam detection, the TOA technique is applicable.
The technique is applicable to both all-poly and metal-backed PE acetabular implants, unlike the computerized radiographic techniques which are only applicable with sufficient accuracy to metal-backed components (Barrack et al. 2001).
