The non-linear behavior is attributed to the direct tethering of the exfoliated ZrP nanoplatelets to the disentangled MWCNTs, which are proposed to serve as mechanically robust junctions.
Our descriptor is robust to articulation and can reflect the junction feature well without any explicit shape decomposition or prior skeleton extraction procedure.
At the cell surface, β-catenin binds the cytoplasmic domain of cadherin-type adhesion receptors which, together with the actin-binding protein, α-catenin, allows cells to link their cytoskeletal networks through robust intercellular adhering junctions [1], [2], [3], [4].
The data demonstrate a robust capacity for calyceal junction rebuilding, and indicate that synaptic elements are differentially regulated across these processes.
Our findings reveal a significant functional advantage to re-localization of CRAC channels to ER-PM junctions, enabling robust signaling to spatially distant targets.
The dentinoenamel junction is a robust, natural interface that successfully joins stiff, brittle enamel to compliant, relatively ductile dentin.
Moreover, this DNA junction biosensor is robust and can be applied to the reliable monitoring of spiked BPA in environmental water samples with good recovery and accuracy.
Results show a more robust design space of multi-junctions with active silicon substrates when the current sharing approach is used, with performances close to the optimum for a completely free choice of band gaps.
In this work, we describe results on a modified CBIRD device that incorporates a double tunnel junction contact designed for robust device and focal plane array processing.
The restriction for paracellular transport is mediated via the robust expression of tight and adherence junction proteins between BCECs.
