The phrase "arrays with large" is correct and usable in written English.
It can be used when discussing data structures, programming, or mathematical concepts that involve arrays of significant size.
Example: "The algorithm performs efficiently even with arrays with large dimensions."
Alternatives: "arrays of considerable size" or "large-sized arrays".
Also, there is a potential for the fabrication of uniform detector arrays with large area.
Although better MPSR can be observed for logarithmic arrays with large centroid offset, it does not necessarily represent superior ability to suppress non-target sources.
That is because arrays with large dispersion and small centroid offset typically generate a large DPD distribution spread (demonstrated by the increasing range of DPD standard deviation in Figure 7(c)) extending over many wavelengths in the useful frequency range.
However, the present study shows that the thick Au mesh induces a high etching rate, and the SiNWs in the same sample have almost identical heights, especially for the SiNW arrays with large heights (see Figures 4b and 5d).
To overcome these defects, TiO2 nanotube arrays with large specific surface areas were synthesized [14 16] and various strategies were developed to expand its absorption to the visible light range.
Ultra-long metal nanowire arrays with large circular area up to 25 mm in diameter were obtained by direct electrodeposition on metalized Si and glass substrates via a template-based method.
The etched cordierite channels can induce the Mn-Co-O arrays with larger unit size, higher density and thickness.
However, the application of TiO2 nanosheet arrays with larger specific surface area in photocatalytic degradation is rarely reported.
In this paper, a series of highly ordered TiO2 nanotube arrays with larger diameters ranging from 150 nm to 470 nm were fabricated via high voltage anodization.
Experimental results demonstrated that ZnO nanowire arrays with larger aspect ratio and proper density have better FE properties including lower turn-on field and higher field-enhancement factors.
Nowadays, array technology has made viable the production of 2D arrays with larger flexibility on elements size, shape and position, allowing to study other configurations different to the classical matrix organisation, such as circular, archimedes spiral or polygonal layout between others.
