A liquid discharge apparatus, comprising: a nozzle plate including an array of nozzles arranged in a first direction and a second direction and a plurality of actuators corresponding to the nozzles, the array of nozzles including first, second, and third nozzles, the first and second nozzles being directly adjacent to each other in the first direction, and the first and third nozzles being directly adjacent to each other in the second direction, and the plurality of actuators including first, second, and third actuators corresponding to the first, second, and third nozzles, respectively; and a drive controller configured to apply a drive signal to the first, second, and third actuators during a drive cycle, wherein a difference between a first timing at which the drive signal is applied to the first actuator and a second timing at which the drive signal is applied to the second actuator is an odd number multiple of a half of an inherent vibration cycle of the liquid discharge apparatus, and a difference between the first timing and a third timing at which the drive signal is applied to the third actuator is an odd number multiple of half of the inherent vibration cycle, wherein the array of nozzles further includes a fourth nozzle, the second and fourth nozzles being directly adjacent to each other in the second direction, and the third and fourth nozzles being directly adjacent to each other in the first direction, the plurality of actuators further includes a fourth actuator corresponding to the fourth nozzle, the drive controller is further configured to apply the drive signal to the fourth actuator during the drive cycle, characterised in that a difference between the second timing and a fourth timing at which the drive signal is applied to the fourth actuator is an odd number multiple of half of the inherent vibration cycle, and a difference between the third timing and the fourth timing is an odd number multiple of half of the inherent vibration cycle. a nozzle plate including an array of nozzles arranged in a first direction and a second direction and a plurality of actuators corresponding to the nozzles, the array of nozzles including first, second, and third nozzles, the first and second nozzles being directly adjacent to each other in the first direction, and the first and third nozzles being directly adjacent to each other in the second direction, and the plurality of actuators including first, second, and third actuators corresponding to the first, second, and third nozzles, respectively; and the array of nozzles including first, second, and third nozzles, the first and second nozzles being directly adjacent to each other in the first direction, and the first and third nozzles being directly adjacent to each other in the second direction, and the plurality of actuators including first, second, and third actuators corresponding to the first, second, and third nozzles, respectively; and a drive controller configured to apply a drive signal to the first, second, and third actuators during a drive cycle, wherein a difference between a first timing at which the drive signal is applied to the first actuator and a second timing at which the drive signal is applied to the second actuator is an odd number multiple of a half of an inherent vibration cycle of the liquid discharge apparatus, and a difference between the first timing and a third timing at which the drive signal is applied to the third actuator is an odd number multiple of half of the inherent vibration cycle, wherein the array of nozzles further includes a fourth nozzle, the second and fourth nozzles being directly adjacent to each other in the second direction, and the third and fourth nozzles being directly adjacent to each other in the first direction, a difference between a first timing at which the drive signal is applied to the first actuator and a second timing at which the drive signal is applied to the second actuator is an odd number multiple of a half of an inherent vibration cycle of the liquid discharge apparatus, and a difference between the first timing and a third timing at which the drive signal is applied to the third actuator is an odd number multiple of half of the inherent vibration cycle, wherein the array of nozzles further includes a fourth nozzle, the second and fourth nozzles being directly adjacent to each other in the second direction, and the third and fourth nozzles being directly adjacent to each other in the first direction, the plurality of actuators further includes a fourth actuator corresponding to the fourth nozzle, the drive controller is further configured to apply the drive signal to the fourth actuator during the drive cycle, characterised in that a difference between the second timing and a fourth timing at which the drive signal is applied to the fourth actuator is an odd number multiple of half of the inherent vibration cycle, and a difference between the third timing and the fourth timing is an odd number multiple of half of the inherent vibration cycle.