Sentence examples for substrates for controlled from inspiring English sources

New foreseeable applications include miniaturized, multiparametric biosensors for high performance multianalyte assays or DNA sequencing, biocomputers, and substrates for controlled cell growth (i.e. tissue engineering).

One of promising substrates for controlled cell growth is a solid substrate comprised of synthetic one-dimensional nanostructures such as polymer nanofibers, carbon-based nanotubes/nanofibers, and inorganic nanowires.

The introduction of microelectronics technology in the area of biological sciences has brought forth previously unforeseeable applications such as DNA or protein biochips, miniaturized, multiparametric biosensors for high performance multianalyte assays, DNA sequencing, biocomputers, and substrates for controlled cell growth (i.e. tissue engineering).

Figure 3 CNT-based substrates for controlling and monitoring cell behaviors.

Lee et al. studied the effect of the spacer length in RGD-modified substrates for controlling cell phenotype in the 2D and 3D cell microenvironment via the use of G n RGDSP-modified alginate hydrogels.

A quartz crystal monitor (Sigma Instruments, SQM-160, USA) positioned close to the substrate for controlling the deposition rate.

Polyelectrolyte multilayers (PEMs), formed by alternating layer-by-layer deposition of polyanions and polycations, are an ideal substrate for controlling cellular adhesion and behavior.

Prior to the surface functionalization, three as-prepared nanopatterned substrates (QNP, SiNW, and planar glass substrates for control samples) were carefully cleaned with H2O2/H2SO4 (1 1) for 10 min to remove all of the organic materials and impurities on the surface.

100 μg protein extracts were incubated with 200 μM of DEVD-pNA, IETD-pNA, Ac-LEDH-pNA colorimetric substrates for 3 hrs at 37C. Cell lysates were incubated with 10 μM of caspase inhibitor (zDEVD-fmk, zIETD-fmk, zLEDH-fmk) for 30 min before addition of the respective caspase substrates for control experiments.

These findings elucidate the optoelectronic behavior (and degradation) of OLEDs on imperfect substrates, and suggest a strategy based on substrate topography for controlling device behavior.

Thus, in the current work, the concept of the imposed substrate vibration for controlling the film characteristics is applied on perovskite layers through a method termed here as the two-step sequential substrate vibration-assisted spray coating (2S-SVASC).