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    • 1. 发明授权
    • Plasma processing method and apparatus
    • 等离子体处理方法和装置
    • US6031198A
    • 2000-02-29
    • US80922
    • 1998-05-19
    • Koichiro MoriyamaYukito AotaMasahiro KanaiHirokazu Otoshi
    • Koichiro MoriyamaYukito AotaMasahiro KanaiHirokazu Otoshi
    • H05H1/46C23C16/50C23C16/511C23F4/00H01J37/32H01L21/205H01L21/302H01L21/3065B23K9/00
    • H01J37/32165H01J37/32935H01J37/3299
    • A plasma processing method for processing a substrate includes a discharge beginning step of supplying a second high-frequency power into a processing chamber through an impedance matching circuit and then supplying a first high-frequency power larger than a power used in processing into the processing chamber to generate a plasma. An adjustment step of reducing the first high-frequency power to be close to the value used in processing, increasing the second high-frequency power to be close to the value in processing, and then adjusting the first high-frequency power to obtain a plasma strength of a predetermined value is part of the method. The plasma processing step of causing the impedance matching circuit to perform a matching operation and simultaneously adjusting the first high-frequency power to obtain a plasma strength of a desired value in processing is also part of the method. Plasma discharge can be automatically, smoothly begun with high reproducibility, and stable plasma discharge can be maintained. Even in the case of disappearance of discharge, plasma discharge can be quickly restarted.
    • 用于处理衬底的等离子体处理方法包括:放电开始步骤,通过阻抗匹配电路将第二高频电力提供到处理室,然后将大于处理中使用的功率的第一高频功率提供给处理室 以产生等离子体。 将第一高频功率降低到接近于处理中使用的值的调整步骤,将第二高频功率提高到接近处理值,然后调整第一高频功率以获得等离子体 预定值的强度是该方法的一部分。 等离子体处理步骤是使阻抗匹配电路执行匹配操作并且同时调节第一高频功率以获得处理中期望值的等离子体强度。 等离子体放电可以以高再现性自动平稳地开始,并且可以保持稳定的等离子体放电。 即使在放电消失的情况下,可以快速重新开始等离子体放电。
    • 4. 发明授权
    • Process and apparatus for the formation of a functional deposited film
on a cylindrical substrate by means of microwave plasma chemical vapor
deposition
    • 通过微波等离子体化学气相沉积在圆柱形基底上形成功能沉积膜的方法和装置
    • US5030476A
    • 1991-07-09
    • US526536
    • 1990-05-21
    • Ryuji OkamuraHirokazu OtoshiTetsuya Takei
    • Ryuji OkamuraHirokazu OtoshiTetsuya Takei
    • C23C16/50C23C16/46C23C16/511
    • C23C16/511C23C16/46
    • A process for forming a functional deposited film which is adapted for use in an apparatus which comprises a substantially enclosed reaction chamber, a plurality of cylindrical substrates arranged to surround a discharge space and a microwave introduction means provided at least at one end of each cylindrical substrate and wherein microwave energy is introduced so that a glow discharge plasma containing reactant gases derived from starting gases is formed in the discharge space thereby forming a deposited film on each cylindrical substrate is described. The process is characterized in that a temperature control means is provided in the inside of each of said plurality of cylindrical substrates and simultaneous with the introduction of a thermally conductive gas, the thermally conductive gas is exhausted from the one end of each cylindrical substrate in the vicinity of the microwave introduction means. The process enables the deposited film of good quality to be formed stably at high speed and the deposited film is useful as an element member for semiconductive devices, photosensitive devices for electrophotography, photovoltaic devices, other electronic elements and optical elements.
    • 一种用于形成功能性沉积膜的方法,其适用于包括基本封闭的反应室的设备,布置成围绕放电空间的多个圆柱形基板和设置在每个圆柱形基板的至少一端的微波引入装置 并且其中引入微波能量,使得在放电空间中形成含有源自起始气体的反应气体的辉光放电等离子体,从而在每个圆柱形基板上形成沉积膜。 该方法的特征在于,在所述多个圆柱形基板的每一个的内部设置有温度控制装置,并且与引入导热气体同时,导热气体从每个圆柱形基板的一端排出 微波引入装置附近。 该方法能够以高速稳定地形成高质量的沉积膜,并且沉积膜可用作半导体器件的元件部件,电子照相用光敏器件,光电器件,其它电子元件和光学元件。
    • 5. 发明授权
    • Electrophotographic method using an amorphous silicon light receiving
member with a latent image support layer and a developed image support
layer and insulating toner having a volume average particle size of 4.5
to 9.0 micron
    • 使用具有潜像载体层和显影图像载体层的非晶硅光接收元件和体积平均粒度为4.5至9.0微米的绝缘调色剂的电子照相方法
    • US5358811A
    • 1994-10-25
    • US53822
    • 1993-04-29
    • Koji YamazakiToshimitsu KariyaTatsuyuki AoikeToshiyuki EharaTakehito YoshinoHirokazu Otoshi
    • Koji YamazakiToshimitsu KariyaTatsuyuki AoikeToshiyuki EharaTakehito YoshinoHirokazu Otoshi
    • G03G5/082G03G9/08G03G13/08G03G13/01
    • G03G13/08G03G5/08235G03G9/0819G03G9/0821
    • An electrophotographic image-forming and developing method using as light receiving member an amorphous silicon light receiving member which comprises a substrate and a light receiving layer disposed on said substrate, said light receiving layer comprising a first layer capable of exhibiting a photoconductivity, a second layer capable of supporting a latent image and a third layer capable of supporting a developed image being laminated in this order on said substrate, said first layer being formed of an amorphous material containing silicon atoms as a matrix, and at least one kind of atoms selected from the group consisting of hydrogen atoms and halogen atoms, said second layer being formed of an amorphous material containing silicon atoms as a matrix, carbon atoms, atoms of an element belonging to Group III of the Periodic Table, and at least one kind of atoms selected from the group consisting of hydrogen atoms and halogen atoms, and said third layer being formed of an amorphous material containing silicon atoms as a matrix, carbon atoms and at least one kind of atoms selected from the group consisting of hydrogen atoms and halogen atoms; and using as said toner a fine particle insulating toner having a volume average particle size in the range of 4.5 to 9 um and an apparent viscosity at 100.degree. C. in the range of 1.times.10.sup.4 to 2.times.10.sup.5 poise.
    • 一种电子照相图像形成和显影方法,其使用非晶硅光接收元件作为光接收元件,所述非晶硅光接收元件包括基板和设置在所述基板上的光接收层,所述光接收层包括能够呈现光电导性的第一层,第二层 能够支撑潜像和能够支持在所述基板上依次层叠的显影图像的第三层,所述第一层由含有硅原子作为基体的非晶质材料形成,以及至少一种选自 由氢原子和卤素原子组成的组,所述第二层由含有硅原子作为基体的非晶态材料形成,碳原子,属于周期表第III族的元素的原子,以及选出的至少一种原子 由氢原子和卤素原子组成的组,所述第三层由无定形配体形成 含有硅原子作为基体的碳原子和选自氢原子和卤素原子的至少一种原子; 并且使用体积平均粒度在4.5至9μm的细颗粒绝缘调色剂和在100℃下的表观粘度在1×10 4至2×105泊的范围内作为所述调色剂。
    • 9. 发明授权
    • Process and apparatus for microwave plasma chemical vapor deposition
    • 微波等离子体化学气相沉积的工艺和装置
    • US5439715A
    • 1995-08-08
    • US165868
    • 1993-12-14
    • Ryuji OkamuraHirokazu OtoshiTetsuya Takei
    • Ryuji OkamuraHirokazu OtoshiTetsuya Takei
    • C23C16/50C23C16/46C23C16/511B05D3/06
    • C23C16/511C23C16/46
    • A process for forming a functional deposited film which is adapted for use in an apparatus which comprises a substantially enclosed reaction chamber, a plurality of cylindrical substrates arranged to surround a discharge space and a microwave introduction means provided at least at one end of each cylindrical substrate and wherein microwave energy is introduced so that a glow discharge plasma containing reactant gases derived from starting gases is formed in the discharge space thereby forming a deposited film on each cylindrical substrate is described. The process is characterized in that a temperature control means is provided in the inside of each of said plurality of cylindrical substrates and simultaneous with the introduction of a thermally conductive gas, the thermally conductive gas is exhausted from the one end of each cylindrical substrate in the vicinity of the microwave introduction means. The process enables the deposited film of good quality to be formed stably at high speed and the deposited film is useful as an element member for semiconductive devices, photosensitive devices for electrophotography, photovoltaic devices, other electronic elements and optical elements.
    • 一种用于形成功能性沉积膜的方法,其适用于包括基本封闭的反应室的设备,布置成围绕放电空间的多个圆柱形基板和设置在每个圆柱形基板的至少一端的微波引入装置 并且其中引入微波能量,使得在放电空间中形成含有源自起始气体的反应气体的辉光放电等离子体,从而在每个圆柱形基板上形成沉积膜。 该方法的特征在于,在所述多个圆柱形基板的每一个的内部设置有温度控制装置,并且与引入导热气体同时,导热气体从每个圆柱形基板的一端排出 微波引入装置附近。 该方法能够以高速稳定地形成高质量的沉积膜,并且沉积膜可用作半导体器件的元件部件,电子照相用光敏器件,光电器件,其它电子元件和光学元件。
    • 10. 发明授权
    • Electrophotographic image-forming method wherein an amorphous silicon
light receiving member with a latent image support layer and a
developed image support layer and fine particle insulating toner are
used
    • 使用具有最小影像支持层和发展中的图像支持层和细颗粒绝缘墨粉的非晶硅光接收器的电子成像方法
    • US5087542A
    • 1992-02-11
    • US455227
    • 1989-12-21
    • Koji YamazakiToshimitsu KariyaTatsuyuki AoikeToshiyuki EharaTakehito YoshinoHirokazu Otoshi
    • Koji YamazakiToshimitsu KariyaTatsuyuki AoikeToshiyuki EharaTakehito YoshinoHirokazu Otoshi
    • G03G5/082G03G9/08G03G21/20
    • G03G5/08235G03G21/206G03G9/0819
    • In an electrophotographic image-forming method to be practiced in an electrophotographic image-forming system including a halogen lamp light source, an optical system, a cylindrical photosensitive member, a main corona charger, an electrostatic latent image-forming mechanism, a development mechanism containing magnetic toner, a transfer sheet feeding mechanism, a transfer charger, a separating charger, a transfer sheet conveying mechanism, a cleaning mechanism and a charge-removing light source which is capable of adjusting an image-forming process speed, the improvement comprises: using an amorphous silicon light receiving member which comprises a substrate and a light receiving layer disposed on said substrate, said light receiving layer comprising a first layer capable of exhibiting a photoconductivity, a second layer capable of supporting a latent image and a third layer capable of supporting a developed image being laminated in this order on said substrate, said first layer being formed of an amorphous material containing silicon atoms as a matrix, and at least one kind of atoms selected from the group consisting of hydrogen atoms and halogen atoms, said second layer being formed of an amorphous material containing silicon atoms as a matrix, carbon atoms, atoms of an element belonging to Group III of the Periodic Table, and at least one kind of atoms selected from the group consisting of hydrogen atoms and halogen atoms, and said third layer being formed of an amorphous material containing silicon atoms as a matrix, carbon atoms and at least one kind of atoms selected from the group consisting of hydrogen atoms and halogen atoms; and using a fine particle insulating toner having a volume average particle size in the range of 4.5 to 9 .mu.m.
    • 在包括卤素灯光源,光学系统,圆柱形感光部件,主电晕充电器,静电潜像形成机构的电子照相图像形成系统中实施的电子照相成像方法中,包含 磁性调色剂,转印纸供给机构,转印充电器,分离充电器,转印纸传送机构,清洁机构和能够调整图像形成处理速度的电荷去除光源,其改进包括:使用 一种非晶硅光接收元件,包括基片和设置在所述基底上的光接收层,所述光接收层包括能够呈现光电导性的第一层,能够支持潜像的第二层和能够支撑潜像的第三层 显影图像依次层叠在所述基板上,所述第一层为 由含有硅原子作为基质的非晶质材料和选自氢原子和卤素原子的至少一种原子形成,所述第二层由含有硅原子作为基体的无定形材料形成,碳原子, 属于周期表第III族元素的原子和选自氢原子和卤素原子的至少一种原子,所述第三层由含有硅原子作为基体的无定形材料形成,碳 原子和选自氢原子和卤素原子的至少一种原子; 并使用体积平均粒径在4.5〜9μm的微粒绝缘调色剂。