32results about How to "Increasing the speed of the media substrate" patented technology

An inkjet printhead that has an array of droplet ejectors supported on a single printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture. The array has a nozzle aperture density of more than 100 nozzle apertures per square millimetre and all the nozzle apertures are formed in a printhead surface layer on one face of the printhead IC.

An inkjet printhead that has an array of droplet ejectors supported on a printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture. The nozzle apertures each have an area less than 600 microns squared.

An inkjet printhead that has an array of droplet ejectors supported on a printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture. The array of droplet ejectors is arranged in a plurality of rows and an ink supply channel extending parallel to the plurality of rows, and an inlet conduit extending from the supply channel to an opposing surface of the printhead IC.

An inkjet printhead that has an array of droplet ejectors supported on a printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture. Each of the droplet ejectors has a chamber in which the actuator is positioned, the chamber having an inlet for fluid communication with an ink supply. A filter structure in positioned the inlet to inhibit ingress of contaminants into the chamber.

An inkjet printhead that has an array of droplet ejectors supported on one face of a printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture. The printhead IC having a printhead surface layer on one face which defines all the nozzle apertures on the array. The printhead IC also having a back face that is opposite said one face on which the printhead surface layer is formed, and at least one supply conduit extending from the back face to the array of droplet ejectors. The at least one supply conduit is in fluid communication with a plurality of the droplet ejectors in the array.

An inkjet printhead that has an array of droplet ejectors supported on a printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture. The actuator in each of the droplet ejectors is configured to generate a pressure pulse in a quantity of ink adjacent the nozzle aperture, the pressure pulse being directed towards the nozzles aperture such that the droplet of ink is ejected through the nozzle aperture. The actuator is positioned in the droplet ejector such that it is less than 30 microns from an exterior surface of the printhead surface layer.

An inkjet printhead that has an array of droplet ejectors supported on a printhead integrated circuit (IC). Each of the droplet ejectors has a nozzle aperture and an actuator for ejecting a droplet of ink through the nozzle aperture and is configured to eject droplets with a volume less than 3 pico-litres each.

A method of fabricating an inkjet printhead by forming a plurality of actuators on a monolithic substrate, covering the actuators with a sacrificial material, covering the sacrificial material with a printhead surface layer, defining a plurality of nozzle apertures in the printhead surface layer such that each of the actuators corresponds to one of the nozzle apertures and then, removing at least some of the sacrificial material on each of the actuators through the nozzle aperture corresponding to each of the actuators.