Sentence examples for nanoscale depth from inspiring English sources

We track the motion of objects, measure nanoscale depth maps of surfaces, and measure objects' vibrational resonances.

Two types of measurements were performed: single-spot measurements from both a void area and outside the void area in the SiC layers, and line-mapping measurements conducted along the voids with nanoscale depth profile of the void varied from 30 nm up to 2000 nm (at the centre of void).

Here, microtopographical features with nanoscale depths, similar in scale to osteoclast resorption pits, were used to promote in vitro bone formation in basal medium.

Conventional microfabrication techniques such as photolithography and wet chemical etching are used to fabricate 1D nanoscale-depth microchannels, but techniques such as e-beam lithography and focused ion beam milling are typically needed to fabricate 2D structures that are confined to the nanoscale in both lateral dimensions.

Channels may be confined to the nanoscale in depth, width, or both, depending on the fabrication method.

With this high modulation depth, nanoscale devices with 3-dB modulation depth are possible.

Bischak, C. G., Sanehira, E. M., Precht, J. T., Luther, J. M. & Ginsberg, N. S. Heterogeneous charge carrier dynamics in organic inorganic hybrid materials: nanoscale lateral and depth-dependent variation of recombination rates in methylammonium lead halide perovskite thin films.

While microscale pores in the electrodes facilitated mass transfer of fluid electrolytes in the depth direction, nanoscale pores contributed to an increase in the amount of adsorbed dye.

The influence of instrumental parameters on the nanoscale mechanical properties (indentation depth, Young's modulus) shows that for modulus determination one has to rely on simpler methods of force curve analysis based on trace curve alone.

Using high resolution scanning tunneling microscopy and spectroscopy (STM/STS), photoemission electron microscopy/spectroscopy (PEEM) and μ-ARPES we investigate the electronic properties of MoS2 as a function of the number of layers at the nanoscale and show in-depth how the band gap is affected by a shift of the valence band edge as a function of the layer number.

Then using clinically prepared cell blocks, we investigate the depth-resolved nanoscale structural alterations within the cell nucleus during the regulation of cell proliferation through cell cycle and chromatin decondensation induced by histone acetylation with altered chromatin density and structure.