Using a computational approach, we demonstrate that the 1795insD mutation exerts variable effects depending on the myocardial substrate.
Via this approach, we demonstrate modular gel mechanics tailored by the nucleation behavior of the self-assembled, molecular gel.
To validate the proposed approach, we demonstrate a column-formation task in computer simulations and physical experiments.
Via this approach, we demonstrate atmospheric pressure growth of CNT structures with widths of 80 350 nm.
By leveraging a data-driven approach, we demonstrate the predictive value of single-cell 'omics' for patient stratification in a translational setting and provide a framework for its application to human cancer.
In contrast to the reports on this approach, we demonstrate that the conductance switch behavior can be realized with only a bare metallic contact without any molecules under light illumination.
Using this knowledge and approach, we demonstrate reproducible dopant-free 1 cm2 perovskite solar cells surpassing 20% efficiency (19.83% certified) with stabilized power output, a high VOC (1.17 V) and record fill factor (>81%).
To provide a proof of principle for the approach, we demonstrate the scalable 3D integration of dual-gate organic transistors on plastic foil by printing with high yield, uniformity, and year-long stability.
Through this approach, we demonstrate how military land managers can integrate varying streams of evidence, including empirical, model generated or expert opinion, into a network for decision support.
Here using the same approach, we demonstrate that B-cells can be programmed for the enforced biogenesis and synchronous release of multiple sncRNAs.
After a short review of the needle problem approach we demonstrate in this note how the stationary results can be transferred to time-dependent problems.
