Table 1 summarizes the ability of SiteHopper to detect structural similarity between analogous binding sites derived from structures of the same protein, for both the ligCav and fpocket-derived datasets.
A similar kind of phonon trapping is known to cause problems in silicon structures of the same size.
Homology can be recognized not only between different organisms but also between repetitive structures of the same organism.
Furthermore, these 2nd order hybrid Koch absorbers outperform a wide range of multi-cell structures of the same mass.
Reliability-based design criteria are usually calibrated to existing structures (of the same class) having a history of successful service.
Results obtained using the two methods show an excellent agreement with experimental data in similar structures of the same dimensions.
They were prepared in hydrothermal conditions by a template method based on polymer periodic structures of the same geometry, and fabricated by a 3D printer using photocurable resin.
Results demonstrate first how to combine and use analysis data from various structures to predict the performance of the members of structures of the same class with different topology and boundary conditions.
In the cases when multiple crystal structures of the same sequence similarity to the target proteins are available, how to select the most relevant structures as templates for homology modeling becomes critical.
This highly versatile approach enables construction of multi-layer structures of the same MOFs or potentially, of different MOFs targeting specific application with particular interest in multi-component gas separation and multi-functional detection systems.
In Fig. 3d, we show the gas phase CE versus nc−1/3 trend for the AunSRm core structures (without the presence of the shells) identified from the crystal structures of the experimentally synthesized NCs (black rectangles) and compare against the CE behaviour of the global minimum energy gas phase Au NC structures of the same size range (red circles).
