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; wherein the cluster spacing a is greater than a nozzle spacing ns between adjacent nozzles of a nozzle cluster; wherein, when the first row is projected in a transverse direction onto the row direction, a transition region between adjacent nozzle clusters comprises two or more nozzles from a first cluster and two or more nozzles from a second cluster, the second cluster being adjacent to the first cluster, and the nozzles in the transition region being equidistantly spaced from one another by a projected nozzle spacing; wherein the first row of nozzles comprises a first set of subrows comprising first and second subrows (22_1, 22_2) that extend alongside one another in respective subrow directions, the first and second subrows extending parallel to the row direction; wherein the first and second subrows (22_1, 22_2) are spaced apart by a first subrow spacing b in the transverse direction, perpendicular to the row direction; and wherein each of the first and second subrows (22_1, 22_2) comprises the one or more nozzle clusters (24_1, 24_2); wherein each nozzle cluster within a subrow (22_1, 22_2) is spaced apart from a neighbouring nozzle cluster by the cluster spacing a; wherein the cluster spacing a is the distance between the outermost nozzles of adjacent clusters in the same subrow (22_1, 22_2) measured along the respective subrow direction; and wherein the two or more nozzles from the first cluster and two or more nozzles from the second cluster comprised within the transition region are comprised within the first and second subrows (22_1, 22_2), respectively. 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; wherein the cluster spacing a is greater than a nozzle spacing ns between adjacent nozzles of a nozzle cluster; wherein, when the first row is projected in a transverse direction onto the row direction, a transition region between adjacent nozzle clusters comprises two or more nozzles from a first cluster and two or more nozzles from a second cluster, the second cluster being adjacent to the first cluster, and the nozzles in the transition region being equidistantly spaced from one another by a projected nozzle spacing; wherein the first row of nozzles comprises a first set of subrows comprising first and second subrows (22_1, 22_2) that extend alongside one another in respective subrow directions, the first and second subrows extending parallel to the row direction; wherein the first and second subrows (22_1, 22_2) are spaced apart by a first subrow spacing b in the transverse direction, perpendicular to the row direction; and wherein each of the first and second subrows (22_1, 22_2) comprises the one or more nozzle clusters (24_1, 24_2); wherein each nozzle cluster within a subrow (22_1, 22_2) is spaced apart from a neighbouring nozzle cluster by the cluster spacing a; wherein the cluster spacing a is the distance between the outermost nozzles of adjacent clusters in the same subrow (22_1, 22_2) measured along the respective subrow direction; and wherein the two or more nozzles from the first cluster and two or more nozzles from the second cluster comprised within the transition region are comprised within the first and second subrows (22_1, 22_2), respectively.