Sentence examples for high-precision processing from inspiring English sources
Changes in the technology will provide challenging tasks for the researchers and engineers specializing in abrasive machining and high-precision processing.
These admirable results indicate that Tm3+/Ho3+/Yb3+ triply doped NMAG channel waveguide is a promising light source for medical and high-precision processing illumination.
To date, we have realized that the anisotropy of layered crystalline materials such as muscovite, in which the atomic structures are periodically weak, allows the following: the realization of the high-precision processing of crystalline materials using their atomic periods, layered unit processing in the depth direction, and the exploration of processing possibilities.
Antenna phase center variations, ocean tidal loading displacements, and atmospheric loading effects were corrected as standard procedures of high-precision GIPSY-OASIS data processing.
With the improvement of frequency standard comparison and precise frequency and phase processing technique, the high-precision frequency measurement, phase comparison, phase locked loop and signal processing are necessary.
This work demonstrates the feasibility of applying a high-speed digitizer and off-line digital signal processing techniques for high-precision nuclear β-decay half-life measurements.
This representation is more suitable for digital signal processing and high-precision lighting control.
The fast reaction time and high precision data processing during the beam test have verified the usability and maintainability of the software framework.
The instantaneous slant range equation (or history) is the key to high precision SAR processing.
Accurate estimation of the effective velocity allows complicated mathematical manipulations involving a satellite/earth geometry model to be avoided and a simple hyperbolic approximation to be adopted in most high precision SAR processing algorithms [42].
The workshop organizers, CHESS scientists, EAC, and UEC identified seven themes from the white papers: structural materials, high-precision plant phenotyping, nanocrystal superlattices, in-situ processing of organic semiconductors, atomically thin films and interfaces, catalysts, and disordered materials.
