Our first generation phantom is an imaging phantom originally used to test resolution in imaging system.
Therefore, the tested spatial resolution was broadly divided into four scale categories from five millimeters to one meter.
For the cases tested at resolution that is doubled, we find that the values for R τ and (R_{tau ^{prime }}) are within 5% difference.
This is why we only tested the resolution criterion in combination with MCE.
We tested the resolution of these new markers against a set of previously isolated microsatellites in delineating neotropical populations and establishing relatedness patterns at a fine spatial scale.
This frequency dependency in amplitude also influences the testing resolution and complicates the damage evaluation.
Its effectiveness in testing resolution improvement and damage identification could be obviously demonstrated by the imaging result of the damage.
This research project provides a safe way to test lower resolution hardware since a driver remains in control and the environment is more controlled than a city roadway, while still providing the benefits of a real-wold testing ground.
The use of femtosecond inscription theoretically allows a calibration artifact to be designed to test the resolution of OCT systems from a single B-scan.
We performed a series of studies with simulated data to test the resolution, quantitative accuracy and detection sensitivity of the approach.
