A method for driving a liquid droplet ejection head including a nozzle for ejecting a liquid droplet, a pressure generation chamber (A) capable of storing liquid therein and communicating with the nozzle , and a pressure application unit that changes an internal pressure by increasing or reducing a volume in the pressure generation chamber (A), the method comprising: a first step (P1) of increasing the volume of the pressure generation chamber (A) by the pressure application unit; a second step (P2) of reducing the volume of the pressure generation chamber (A) by the pressure application unit and ejecting liquid in the pressure generation chamber (A) from the nozzle after the first step (P1); and a third step (P3) of increasing the volume of the pressure generation chamber (A) by the pressure application unit after a lapse of 0.4 to 1.55 AL (AL is 1/2 of an acoustic resonance period of the pressure generation chamber (A)) from the second step (P2); and a fourth step of reducing the volume of the pressure generation chamber (A) by the pressure application unit after a lapse of 2.75 to 3.25 AL from the second step (P2) to cancel vibration in the pressure generation chamber (A); and a fifth step of increasing the volume of the pressure generation chamber (A) by the pressure application unit to cancel the vibration in the pressure generation chamber (A) after a lapse of 0.75 to 1.25 AL from the fourth step a nozzle for ejecting a liquid droplet, a pressure generation chamber (A) capable of storing liquid therein and communicating with the nozzle , and a pressure application unit that changes an internal pressure by increasing or reducing a volume in the pressure generation chamber (A), the method comprising: a first step (P1) of increasing the volume of the pressure generation chamber (A) by the pressure application unit; a second step (P2) of reducing the volume of the pressure generation chamber (A) by the pressure application unit and ejecting liquid in the pressure generation chamber (A) from the nozzle after the first step (P1); and a third step (P3) of increasing the volume of the pressure generation chamber (A) by the pressure application unit after a lapse of 0.4 to 1.55 AL (AL is 1/2 of an acoustic resonance period of the pressure generation chamber (A)) from the second step (P2); and a fourth step of reducing the volume of the pressure generation chamber (A) by the pressure application unit after a lapse of 2.75 to 3.25 AL from the second step (P2) to cancel vibration in the pressure generation chamber (A); and a fifth step of increasing the volume of the pressure generation chamber (A) by the pressure application unit to cancel the vibration in the pressure generation chamber (A) after a lapse of 0.75 to 1.25 AL from the fourth step a first step (P1) of increasing the volume of the pressure generation chamber (A) by the pressure application unit; a second step (P2) of reducing the volume of the pressure generation chamber (A) by the pressure application unit and ejecting liquid in the pressure generation chamber (A) from the nozzle after the first step (P1); and a third step (P3) of increasing the volume of the pressure generation chamber (A) by the pressure application unit after a lapse of 0.4 to 1.55 AL (AL is 1/2 of an acoustic resonance period of the pressure generation chamber (A)) from the second step (P2); and a fourth step of reducing the volume of the pressure generation chamber (A) by the pressure application unit after a lapse of 2.75 to 3.25 AL from the second step (P2) to cancel vibration in the pressure generation chamber (A); and a fifth step of increasing the volume of the pressure generation chamber (A) by the pressure application unit to cancel the vibration in the pressure generation chamber (A) after a lapse of 0.75 to 1.25 AL from the fourth step <EOS>