The calibration was external matrix-matched, control samples were assessed along with participant samples and accuracy was verified by the analysis of standard reference material (SRM 955c) from the National Institute of Standards and Technology.
With simple analytic steps, the accuracy is verified and a design approach is introduced to choose the best.
Prior to the use of the splitter in the EEG recordings, its accuracy was verified with standard engineering techniques, which included delivering currents of varying frequency and amplitude to the electrode leads through a signal generator and comparing the resulting signal in the two streams.
The automated algorithm was implemented in MATLAB, and its accuracy was verified with the manual algorithm.
Finally, the calibration and 3D measurement accuracy are verified, along with the variation in the measurement accuracy with different calibration rotation intervals and LED intervals of the straight line target.
The algorithm accuracy is verified in comparison with either experimental or commercial software result.
The 1 m accuracy is verified by comparisons with Rover null position and the onboard stereo vision measurement results.
A numerical model of this photovoltaic-thermosyphon collector system was also developed and the model accuracy was verified by comparison with measured data.
As conventional image processing technique based on a single threshold of gray intensity cannot accurately determine the width of both fine and wide cracks, a new double-threshold algorithm is developed and its accuracy is verified by comparing with direct measurement under the microscope.
In order to verify the measurements reported by the UniCel DxC 800 SYNCHRON Clinical System, the accuracy was verified following calibration with SYNCHRON Systems AQUA CAL 1 and 2 (Beckman Coulter, High Wycombe, United Kingdom), in addition to internal and external quality control measures being conducted as required by the CoCH.
In this paper, a completely numerical analysis technique is employed for simulating the compressive behavior of Q690 high-strength steel columns with box- and H-sections, and its accuracy is verified by the experimental results as presented in the part 1 of the companion papers.
