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    • 63. 发明申请
    • ORGANIC THIN-FILM TRANSISTOR, METHOD OF MANUFACTURING SAME AND EQUIPMENT FOR MANUFACTURING SAME
    • 有机薄膜晶体管及其制造方法及其制造设备
    • US20070284571A1
    • 2007-12-13
    • US11748567
    • 2007-05-15
    • Akira DoiTomohiro InoueMasahiko AndoMasakazu Kishi
    • Akira DoiTomohiro InoueMasahiko AndoMasakazu Kishi
    • H01L29/08H01L35/24H01L51/00
    • H01L51/0004H01L51/0055H01L51/0545H01L51/105
    • An organic thin-film transistor (TFT) with a large carrier mobility includes a drain electrode, a source electrode, which are made of different materials, and a semiconductor layer formed on upper surface of a substrate. Equipment for manufacturing the organic TFT comprises a substrate mounting unit, a painting unit, a light irradiating unit, a sealed container for housing the above units, and a gas supplying unit of an antioxidant gas to the sealed container. The organic TFT to be manufactured is placed on the substrate mounting unit and a semiconductor layer is formed by using the painting unit. The painted semiconductor layer is dried with a light by using the light irradiating unit. When the light with substantially uniform wavelength is irradiated to the drain and the source electrodes, a temperature gradient is caused in the semiconductor layer. Accordingly, an organic TFT with a large carrier mobility can be manufactured.
    • 具有大载流子迁移率的有机薄膜晶体管(TFT)包括由不同材料制成的漏电极,源电极以及形成在衬底的上表面上的半导体层。 用于制造有机TFT的设备包括基板安装单元,涂装单元,光照射单元,用于容纳上述单元的密封容器,以及将抗氧化气体供给到密封容器的单元。 将要制造的有机TFT放置在基板安装单元上,并且通过使用该涂装单元形成半导体层。 通过使用光照射单元,用光来干燥涂漆的半导体层。 当具有基本均匀的波长的光被照射到漏极和源电极时,在半导体层中引起温度梯度。 因此,可以制造具有大载流子迁移率的有机TFT。
    • 64. 发明授权
    • Inkjet recording ink, recording process and recording apparatus
    • 喷墨记录油墨,记录处理和记录装置
    • US07284851B2
    • 2007-10-23
    • US11066224
    • 2005-02-28
    • Akiko BannaiKiyofumi NagaiAkihiko GotohMariko KojimaMichihiko NambaTomohiro Inoue
    • Akiko BannaiKiyofumi NagaiAkihiko GotohMariko KojimaMichihiko NambaTomohiro Inoue
    • G01D11/00
    • C09D11/32B41J2/14274B41J2/1612B41J2/1623B41J2/1626B41J2/1632C09D11/40
    • A recording ink including a colorant dispersible in water, a humectant, a surfactant, and a wetting agent, wherein the rate of viscosity increase associated with evaporation of moisture in the recording ink is 5.0 mPa·s/% or less while the evaporated moisture content is less than 30% by weight based on the whole weight of the recording ink, the rate of viscosity increase associated with evaporation of moisture exceeds 50 mPa·s/% while the evaporated moisture content is 30 to 45% by weight, and the average particle size of the colorant in the recording ink is less than five times the average particle size of the colorant in the initial recording ink, and is 0.8 μm or less, at the stage of the recording ink when the rate of viscosity increase amounts to 50 mPa·s/%, wherein the rate of viscosity increase associated with evaporation of moisture (mPa·s/%) is defined as the increment of viscosity (mPa·s) versus the increment of evaporated moisture content (%).
    • 包含分散在水中的着色剂,湿润剂,表面活性剂和润湿剂的记录油墨,其中与记录油墨中的水分蒸发相关的粘度增加速率为5.0mPa.s /%或更低,而蒸发的水分含量 基于记录油墨的全部重量,小于30重量%,与蒸发水分相关的粘度增加速率超过​​50mPa.s /%,而蒸发水分含量为30〜45重量%,平均 记录油墨中的着色剂的粒径小于初始记录油墨中着色剂的平均粒度的5倍,并且当粘度增加率达到50时在记录油墨阶段为0.8μm或更小 mPa.s /%,其中与水分蒸发相关的粘度增加速率(mPa.s /%)定义为粘度增加(mPa.s)相对于蒸发含水量(%)的增加。
    • 68. 发明授权
    • Self-diagnostic method for electrochemical gas sensor and gas detecting device
    • 电化学气体传感器和气体检测装置的自诊断方法
    • US07033482B2
    • 2006-04-25
    • US11025992
    • 2005-01-03
    • Tomohiro Inoue
    • Tomohiro Inoue
    • G01N27/404
    • C12P13/02G01N27/4163G01N27/4175
    • An electrochemical gas sensor is self-diagnosed on the basis of an output waveform that is generated when a power source of said gas sensor is turned on after said power source has been turned off for a short time and an output waveform that is generated when said power source is turned on after said power source has been turned off for a long time. In a normal gas sensor, when the power source is turned on after the power source has been turned off for the short time, a bottom will be generated in the potential of the sensing electrode side, and when the power source is turned on after the power source has been turned off for the long time, a peak will be generated in the potential of the sensing electrode side.A self-diagnosis of the electrochemical gas sensor can be done without pulse power source for self-diagnosis, and the dead time from self-diagnosis until start of detection can be shortened.
    • 电化学气体传感器是基于在所述电源已经短时间关闭之后所述气体传感器的电源被接通时产生的输出波形和当所述电源已经被关闭时产生的输出波形而被自诊断的 在所述电源长时间关闭之后,电源被接通。 在正常的气体传感器中,当在短时间内关闭电源之后电源被接通时,在感测电极侧的电位中将产生一个底部,并且当电源在 电源已经长时间关闭,感应电极侧的电位将产生峰值。 可以进行电化学气体传感器的自诊断,无需脉冲电源进行自我诊断,可以缩短自诊断到检测开始的死区时间。