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    • 1. 发明授权
    • Liquid ejection head utilizing deflection members
    • 液体喷射头利用偏转构件
    • US08191994B2
    • 2012-06-05
    • US13079418
    • 2011-04-04
    • Toru NakakuboTakahisa KatoHaruhito OnoSuguru Miyagawa
    • Toru NakakuboTakahisa KatoHaruhito OnoSuguru Miyagawa
    • B41J2/04
    • B41J2/175B41J2/085B41J2/09B41J2/18
    • Provided is a continuous-type charge deflection liquid ejection head that is suitable for higher-density and multiple nozzles. This liquid ejection head includes: an orifice plate having a plurality of nozzles arranged in a two-dimensional manner; a charging electrode plate having a charging electrode to charge ink droplets from each of the plurality of nozzles; and first and second deflection electrode plates each having a deflection electrode to deflect each of the ink droplets charged by the charging electrode, in which each of the charging member, the first deflection member, and the second deflection member has through-holes that ink droplets pass through, and the charging member, the first deflection member, and the second deflection member are laminated in this order in an ejecting direction of the ink droplets.
    • 提供适用于更高密度和多个喷嘴的连续型电荷偏转液体喷射头。 该液体喷射头包括:具有以二维方式布置的多个喷嘴的孔板; 充电电极板,具有用于对来自所述多个喷嘴中的每一个喷嘴的墨滴充电的充电电极; 以及第一和第二偏转电极板,每个偏转电极板具有偏转电极,以使由充电电极充电的每个墨滴偏转,其中充电部件,第一偏转部件和第二偏转部件中的每一个具有通孔, 并且充电构件,第一偏转构件和第二偏转构件按照墨滴的排出方向依次层叠。
    • 2. 发明申请
    • LIQUID EJECTION HEAD
    • 液体喷射头
    • US20110249063A1
    • 2011-10-13
    • US13079418
    • 2011-04-04
    • Toru NakakuboTakahisa KatoHaruhito OnoSuguru Miyagawa
    • Toru NakakuboTakahisa KatoHaruhito OnoSuguru Miyagawa
    • B41J2/04
    • B41J2/175B41J2/085B41J2/09B41J2/18
    • Provided is a continuous-type charge deflection liquid ejection head that is suitable for higher-density and multiple nozzles. This liquid ejection head includes: an orifice plate having a plurality of nozzles arranged in a two-dimensional manner; a charging electrode plate having a charging electrode to charge ink droplets from each of the plurality of nozzles; and first and second deflection electrode plates each having a deflection electrode to deflect each of the ink droplets charged by the charging electrode, in which each of the charging member, the first deflection member, and the second deflection member has through-holes that ink droplets pass through, and the charging member, the first deflection member, and the second deflection member are laminated in this order in an ejecting direction of the ink droplets.
    • 提供适用于更高密度和多个喷嘴的连续型电荷偏转液体喷射头。 该液体喷射头包括:具有以二维方式布置的多个喷嘴的孔板; 充电电极板,具有用于对来自所述多个喷嘴中的每一个喷嘴的墨滴充电的充电电极; 以及第一偏转电极板和第二偏转电极板,每个偏转电极板具有偏转电极,以使由充电电极充电的每个墨滴偏转,其中充电部件,第一偏转部件和第二偏转部件中的每一个具有通孔, 并且充电构件,第一偏转构件和第二偏转构件按照墨滴的排出方向依次层叠。
    • 3. 发明授权
    • Method of manufacturing oscillator device, and optical deflector and optical instrument with oscillator device
    • 制造振荡器装置的方法以及具有振荡器装置的光偏转器和光学仪器
    • US08472096B2
    • 2013-06-25
    • US12674325
    • 2008-11-13
    • Kazunari FujiiTakahisa KatoYoshio HottaSuguru MiyagawaTakahiro Akiyama
    • Kazunari FujiiTakahisa KatoYoshio HottaSuguru MiyagawaTakahiro Akiyama
    • G02B26/08
    • G02B26/0833Y10T29/49826
    • A method of manufacturing an oscillator device having first and second oscillators being driven at first and second driving resonance frequencies gf1 and gf2, the method including a first step for processing the two oscillators, wherein, when the two oscillators are going to be processed as oscillators having first and second resonance frequencies different from the two driving resonance frequencies with a certain dispersion range, the two oscillators are so processed that the first and second resonance frequencies different from the two driving resonance frequencies become equal to first and second resonance frequencies f1 and f2, respectively, which are included in adjustable resonance frequency ranges, respectively, and a second step for adjusting the first and second resonance frequencies f1 and f2 so that they become equal to the first and second driving resonance frequencies gf1 and gf2, respectively.
    • 一种制造具有第一和第二驱动谐振频率gf1和gf2的第一和第二振荡器的振荡器装置的方法,该方法包括用于处理两个振荡器的第一步骤,其中当两个振荡器将被作为振荡器处理时 具有与具有一定色散范围的两个驱动谐振频率不同的第一和第二谐振频率,两个振荡器被如此处理,使得与两个驱动谐振频率不同的第一和第二谐振频率变得等于第一和第二谐振频率f1和f2 分别包括在可调节的共振频率范围内,第二步骤用于分别调整第一和第二共振频率f1和f2使得它们分别等于第一和第二驱动谐振频率gf1和gf2。
    • 7. 发明授权
    • Method of manufacturing oscillator device, and optical deflector and optical instrument with oscillator device based on it
    • 制造振荡器装置的方法,以及基于此的振荡器装置的光偏转器和光学仪器
    • US08305674B2
    • 2012-11-06
    • US12673694
    • 2008-10-28
    • Suguru MiyagawaTakahiro AkiyamaKazutoshi TorashimaTakahisa KatoKazunari Fujii
    • Suguru MiyagawaTakahiro AkiyamaKazutoshi TorashimaTakahisa KatoKazunari Fujii
    • G02B26/10
    • G02B26/105G02B26/085H04N1/1135Y10T29/49774
    • A method of manufacturing an oscillator device having an oscillator supported relative to a fixed member by a torsion spring for oscillation around a torsion axis and arranged to be driven at a resonance frequency, which method includes a first step for determining an assumed value of an inertia moment weight of the oscillator, a second step for measuring the resonance frequency, a third step for calculating a spring constant of the torsion spring, from the assumed value of the inertia moment weight and the measured resonance frequency obtained at said first and second steps, a fourth step for calculating an adjustment amount for the inertia moment of the oscillator or for the spring constant of the torsion spring, based on the spring constant calculated at said third step and a target resonance frequency determined with respect to the resonance frequency of the oscillator, so as to adjust the resonance frequency to the target resonance frequency, and a fifth step for adjusting the resonance frequency of the oscillator to the target resonance frequency based on the calculated adjustment amount.
    • 一种制造振荡器装置的方法,该振荡器装置具有通过用于围绕扭转轴线摆动并被以共振频率驱动的扭转弹簧相对于固定构件支撑的振荡器的方法,该方法包括用于确定惯性的假定值的第一步骤 振荡器的力矩,用于测量共振频率的第二步骤,用于计算扭簧的弹簧常数的第三步骤,根据在所述第一和第二步骤获得的惯性力矩的假定值和测得的共振频率, 基于在所述第三步骤计算的弹簧常数和相对于振荡器的共振频率确定的目标共振频率,计算用于振荡器的惯性矩或扭簧的弹簧常数的调节量的第四步骤 ,以便将谐振频率调节到目标谐振频率,以及用于调整res的第五步骤 基于计算出的调整量,振荡器的频率与目标谐振频率成正比。
    • 8. 发明申请
    • METHOD OF MANUFACTURING OSCILLATOR DEVICE, AND OPTICAL DEFLECTOR AND OPTICAL INSTRUMENT WITH OSCILLATOR DEVICE BASED ON IT
    • 振荡器器件的制造方法以及基于IT的振荡器器件的光学偏置器和光学仪器
    • US20110019256A1
    • 2011-01-27
    • US12673694
    • 2008-10-28
    • Suguru MiyagawaTakahiro AkiyamaKazutoshi TorashimaTakahisa KatoKazunari Fujii
    • Suguru MiyagawaTakahiro AkiyamaKazutoshi TorashimaTakahisa KatoKazunari Fujii
    • G02B26/08B23Q17/00
    • G02B26/105G02B26/085H04N1/1135Y10T29/49774
    • A method of manufacturing an oscillator device having an oscillator supported relative to a fixed member by a torsion spring for oscillation around a torsion axis and arranged to be driven at a resonance frequency, which method includes a first step for determining an assumed value of an inertia moment weight of the oscillator, a second step for measuring the resonance frequency, a third step for calculating a spring constant of the torsion spring, from the assumed value of the inertia moment weight and the measured resonance frequency obtained at said first and second steps, a fourth step for calculating an adjustment amount for the inertia moment of the oscillator or for the spring constant of the torsion spring, based on the spring constant calculated at said third step and a target resonance frequency determined with respect to the resonance frequency of the oscillator, so as to adjust the resonance frequency to the target resonance frequency, and a fifth step for adjusting the resonance frequency of the oscillator to the target resonance frequency based on the calculated adjustment amount.
    • 一种制造振荡器装置的方法,该振荡器装置具有通过用于围绕扭转轴线摆动并被以共振频率驱动的扭转弹簧相对于固定构件支撑的振荡器的方法,该方法包括用于确定惯性的假定值的第一步骤 振荡器的力矩,用于测量共振频率的第二步骤,用于计算扭簧的弹簧常数的第三步骤,根据在所述第一和第二步骤获得的惯性力矩的假定值和测得的共振频率, 基于在所述第三步骤计算的弹簧常数和相对于振荡器的共振频率确定的目标共振频率,计算用于振荡器的惯性矩或扭簧的弹簧常数的调节量的第四步骤 ,以便将谐振频率调节到目标谐振频率,以及用于调整res的第五步骤 基于计算出的调整量,振荡器的频率与目标谐振频率成正比。