Sentence examples for dots were found to from inspiring English sources

As we increased the temperature, the dots were found to change their shape significantly.

In conclusion, the quantum dots were found to be suitable for labels of lateral flow test strip.

These photoluminescent carbon nanoparticles, abbreviated as carbon dots, were found to be physicochemically and photochemically stable and non-blinking and exhibited very high two-photon absorption cross sections [9, 10].

Due to the existence of carboxyl and hydroxyl groups on the surface of carbon dots, the carbon dots were found to dissolve easily in water and polarity organic solvent (such as ethanol, acetone) but were insolubilized in apolar organic solvent.

For the many instances where a small number of widely spaced dots were found to be sufficient for recognition of the shape, it is difficult to specify a path-rule by which the boundary would be reconstructed.

Asymmetric dots are found to reverse their magnetization by nucleation and propagation of a vortex, when the field is applied parallel to the direction of asymmetry.

Furthermore, several metal nanoparticles about 10 to 20 nm with different image contrast, the black and gray dots, are found to be encapsulated in the whole range of the porous silica matrix, the edge area (Figure 3C) and the central area (Figure 3A).

C-dots are found to have the advantages of chemical inertness, low cytotoxicity, and good biocompatibility.

A For3p dot was found to contain on average 2.1±0.8 For3p dimers (ranging 1 10) [4], likely due to the limited sensitivity in detecting single dimers.

Interestingly, while DOT caused only small effect on Ang-II, both doses of DOT (DOT-L and DOT-H) were found to reduce significantly the ET-1 concentration to lower values than that in the sham-operated group, being the ET-1 value of the low dose (DOT-L) less than half of the untreated control group.

Both the strained buffer layer (SBL) below the dot layer and the strain-reducing layer (SRL) above the dot layer were found to be responsible for the redshift in photoluminescence (PL) emission of the InAs/InGaAs DWELL structure.