Abstract: A nozzle plate for a droplet ejection head, the nozzle plate comprising a first row of nozzles arranged to deposit droplets onto a deposition media; wherein the first row of nozzles extends in a row direction and comprises two or more nozzle clusters, each nozzle cluster being arranged along the row direction for a cluster length c, and extending along a cluster depth direction perpendicular to the row direction by a cluster depth d; wherein each nozzle cluster comprises a plurality of nozzles of which one or more nozzles within each nozzle cluster define the cluster length c and two or more nozzles within each nozzle cluster define the cluster depth d; wherein each nozzle cluster is spaced apart from an adjacent nozzle cluster along the row direction by a cluster spacing a such that an air flow path is created for forced air to pass through the row of nozzles in a controlled manner; and wherein, when the first row is projected in a transverse direction onto the row direction, a transition region between adja

Abstract: A nozzle plate for a droplet ejection device: comprising a first, media facing surface and, opposing it, a second, back surface; and at least one nozzle: wherein said at least one nozzle passes through the nozzle plate from the second surface to the first surface; and wherein said at least one nozzle comprises an exit bore having an exit bore centreline and wherein the exit bore centreline is inclined at an oblique inclination angle ? to the first surface and is adapted such that, in use, one or more droplets will be ejected from the nozzle at an acute inclination angle ? to the first surface. A droplet ejection device comprising the nozzle plate. A droplet ejection apparatus comprising at least one droplet ejection device and a deposition media movement apparatus and a method of operating the droplet ejection apparatus.

Abstract: A nozzle plate for a droplet ejection head, the nozzle plate comprising a first row of nozzles arranged to deposit droplets onto a deposition media; wherein the first row of nozzles extends in a row direction and comprises two or more nozzle clusters, each nozzle cluster being arranged along the row direction for a cluster length c, and extending along a cluster depth direction perpendicular to the row direction by a cluster depth d; wherein each nozzle cluster comprises a plurality of nozzles of which one or more nozzles within each nozzle cluster define the cluster length c and two or more nozzles within each nozzle cluster define the cluster depth d; wherein each nozzle cluster is spaced apart from an adjacent nozzle cluster along the row direction by a cluster spacing a such that an air flow path is created for forced air to pass through the row of nozzles in a controlled manner; and wherein, when the first row is projected in a transverse direction onto the row direction, a transition region between adja