Sentence examples for pulse ignition from inspiring English sources

The time-resolved IVDF measurements revealed that ions with high energy generated at the cathode arrive at the substrate position about 25 30 μs after the HiPIMS pulse ignition.

Long-pulse ignition "cannot be assured," it says, "but [it] remains a reasonable possibility".

Nanosecond pulse discharge ignition of ethylene air is compared with ignition by DC arc discharge of approximately the same power.

Both designs are based on the Rayleigh–Taylor instability carried out on a laser system providing a truncated ignition pulse.

The input pulse energy and ignition characteristics are found to be highly sensitive to uncertainties in dielectric properties.

By using LIF imaging technique, two-dimensional images of the NO concentration were registered at different times in the ignition pulse, and the wavelength dependence of the ignition source was also studied.

The voltage was controlled by the phase method principle, i.e., the average anode voltage applied to the reactor depended on the phase of the pulsating voltage at the anode and on the instant at which an ignition pulse was delivered.

Repetitive nanosecond pulse plasma assisted ignition and flameholding of premixed and non-premixed ethylene air and hydrogen air flows are studied in a cavity flow at a pressure of 0.2 atm and flow velocities of up to 100 m/s.

The plasma was maintained using a low-power DC power supply as a pre-ionizer in conjunction with a conventional HiPIMS power supply, allowing reduced times between the initiation of the HiPIMS pulse and plasma ignition.

A method is suggested to compare the effect of nonequilibrium pulse discharge plasma on ignition in different fuel air and fuel-oxygen mixtures above self-ignition temperatures.

A typical pulse consists of an ignition, low current and high current phase.