The multiphase droplet ejection cycle dispenses the droplet in two stages.

The method and device include a controller having a multi-phase droplet ejection cycle stored thereon.

The time of initiation of at least one of the fill cycle and the eject cycle is varied in relation to systole of the ventricle to which the pump is connected to thereby vary the loading of the ventricle.

The ejection cycle of the mechanism is initiated to sequentially eject the tray connectors (42) from the panel mounted connectors until all trays are ejected.

The left ventricular ejection time of the cardiac cycle may likewise be calculated.

The multiphase droplet ejection cycle dispenses the droplet in two stages.

The ejection means (12) is capable of a sweeping motion both horizontally and vertically in order to determine the ejection direction and azimuth, the ejection means (12) is capable setting the ejection speed.

A push off palm mounted in a push off position.

This enables the ejector device (1) to be flexibly converted to an ejector system having a plurality of ejector devices.

The ejector drive is connected to rotate the ejector blade through a curved ejection path.

The present disclosure is directed to a micro-fluid ejection head for a microfluid ejection device.

In order to change the ejection stroke, the ejection lever (5) is adjustable.

The method and device include a controller having a multi-phase droplet ejection cycle stored thereon.

The invention provides a micro-fluid ejection head (40) for a micro-fluid ejection device and a method for making a micro-fluid ejection head.

The stent ejection component includes a body and an ejection collar.