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    • 6. 发明授权
    • Electrostatic beam deflection scanner and beam deflection scanning method
    • 静电束偏转扫描仪和光束偏转扫描方法
    • US07687782B2
    • 2010-03-30
    • US11806127
    • 2007-05-30
    • Mitsukuni TsukiharaMitsuaki KabasawaYoshitaka AmanoHiroshi Matsushita
    • Mitsukuni TsukiharaMitsuaki KabasawaYoshitaka AmanoHiroshi Matsushita
    • G21K1/087H01J3/18
    • H01J37/153H01J37/1477H01J37/3171H01J2237/30477
    • A beam deflection scanner performs reciprocating deflection scanning with an ion beam or a charged particle beam to thereby periodically change a beam trajectory and comprises a pair of scanning electrodes installed so as to be opposed to each other with the beam trajectory interposed therebetween and a pair of correction electrodes installed in a direction perpendicular to an opposing direction of the pair of scanning electrodes, with the beam trajectory interposed therebetween, and extending along a beam traveling axis. Positive and negative potentials are alternately applied to the pair of scanning electrodes, while a correction voltage is constantly applied to the pair of correction electrodes. A correction electric field produced by the pair of correction electrodes is exerted on the ion beam or the charged particle beam passing between the pair of scanning electrodes at the time of switching between the positive and negative potentials.
    • 光束偏转扫描器用离子束或带电粒子束进行往复偏转扫描,从而周期性地改变光束轨迹,并且包括一对扫描电极,其被安装成彼此相对,并且光束轨迹插入其间, 校正电极,其安装在垂直于该对扫描电极的相反方向的方向上,其中光束轨迹插入其间,并且沿着光束移动轴线延伸。 正电位和负电位交替施加到该对扫描电极,同时校正电压不断地施加到该对校正电极。 在正电位和负电位之间切换时,由一对校正电极产生的校正电场施加在通过该对扫描电极的离子束或带电粒子束之间。
    • 7. 发明申请
    • Electrostatic beam deflection scanner and beam deflection scanning method
    • 静电束偏转扫描仪和光束偏转扫描方法
    • US20080067404A1
    • 2008-03-20
    • US11806127
    • 2007-05-30
    • Mitsukuni TsukiharaMitsuaki KabasawaYoshitaka AmanoHiroshi Matsushita
    • Mitsukuni TsukiharaMitsuaki KabasawaYoshitaka AmanoHiroshi Matsushita
    • H01J3/14
    • H01J37/153H01J37/1477H01J37/3171H01J2237/30477
    • A beam deflection scanner performs reciprocating deflection scanning with an ion beam or a charged particle beam to thereby periodically change a beam trajectory and comprises a pair of scanning electrodes installed so as to be opposed to each other with the beam trajectory interposed therebetween and a pair of correction electrodes installed in a direction perpendicular to an opposing direction of the pair of scanning electrodes, with the beam trajectory interposed therebetween, and extending along a beam traveling axis. Positive and negative potentials are alternately applied to the pair of scanning electrodes, while a correction voltage is constantly applied to the pair of correction electrodes. A correction electric field produced by the pair of correction electrodes is exerted on the ion beam or the charged particle beam passing between the pair of scanning electrodes at the time of switching between the positive and negative potentials.
    • 光束偏转扫描器用离子束或带电粒子束进行往复偏转扫描,从而周期性地改变光束轨迹,并且包括一对扫描电极,其被安装成彼此相对,并且光束轨迹插入其间, 校正电极,其安装在垂直于该对扫描电极的相反方向的方向上,其中光束轨迹插入其间,并且沿着光束移动轴线延伸。 正电位和负电位交替施加到该对扫描电极,同时校正电压不断地施加到该对校正电极。 在正电位和负电位之间切换时,由一对校正电极产生的校正电场施加在通过该对扫描电极的离子束或带电粒子束之间。
    • 9. 发明授权
    • Ion implanter and method for controlling the same
    • 离子注入机及其控制方法
    • US06984833B2
    • 2006-01-10
    • US10864343
    • 2004-06-10
    • Makoto SanoMichiro SugitaniMitsuaki KabasawaMitsukuni Tsukihara
    • Makoto SanoMichiro SugitaniMitsuaki KabasawaMitsukuni Tsukihara
    • H01J37/304H01J37/317
    • H01J37/304H01J37/3171H01J2237/31703
    • The present invention is applied to an ion implanter provided with a vacuum pressure compensation mechanism. The pressure compensation mechanism samples measured beam currents and vacuum pressures in the vicinity of wafers in preliminary implantation and stores function parameters in a memory unit which are obtained by calculating parameters of a predetermined function by fitting the relationship between the measured beam currents and the vacuum pressures. In actual implantation, the pressure compensation mechanism corrects the measured beam current using the function parameters stored as a function of the vacuum pressure, and based on the corrected beam current, the dosage control is performed. In the present invention, an actual beam loss is compensated for based on the estimation from a pressure in the vicinity of the wafers in a region downstream of a mass analysis slit.
    • 本发明适用于设置有真空压力补偿机构的离子注入机。 压力补偿机构对初步注入中的晶片附近的测量束电流和真空压力进行采样,并将功能参数存储在存储器单元中,该功能参数通过计算测量的光束电流和真空压力之间的关系来计算预定功能的参数而获得 。 在实际植入中,压力补偿机构使用作为真空压力的函数存储的功能参数来校正测量的束电流,并且基于校正的束电流,执行剂量控制。 在本发明中,基于从质量分析狭缝下游的区域中的晶片附近的压力的估计来补偿实际的光束损失。