These predictors allow us to assess the significance of TFs with respect to their computationally computed, top-ranked and experimentally validated targets, respectively.
There are two projects crucial to meeting these targets: respectively Huntington and Catcher, each with their own nuance.
The direct-current (DC) and radio-frequency (RF) powers were connected to TiB2 and Cr targets, respectively.
CrAlN/BN nanocomposite coatings were deposited through reactive cosputtering, i.e., pulsed dc and rf sputtering, of CrAl and h-BN targets, respectively.
The conventional "40 log R" and "20 log R" TVG functions, which apply to single and distributed targets respectively, provide exact compensation only at infinite range.
An asymmetric bipolar-pulsed DC power supply and a DC power supply were used to sputter Si and Ti targets, respectively in Ar + N2 plasma.
This performance improvement is attributed to efficient visual processing that automatically segregates tail (amber) and brake (red) lamp colors into distractors and targets respectively.
Energy use reductions of 64 67% and 88 89% from a baseline were achieved when meeting the 75 kWh/m2 and EnerPHit equivalency targets, respectively.
The multilayers were deposited by dc and RF reactive magnetron sputtering from Ti0.5Al0.5 and C targets respectively in a N2/Ar plasma.
From the hysteresis loops of reactive gas flow and discharge voltage, the threshold flow rates of N2 and O2 were determined for partial and complete poisoning of the targets, respectively.
Two beams are irradiated on graphite and 316L stainless steel targets, respectively, in a vacuum chamber, and the produced dissimilar plasmas are mixed in space before they are deposited on a stainless steel 316L substrate.
