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    • 4. 发明授权
    • Optical measurement method and device
    • 光学测量方法和装置
    • US07408635B2
    • 2008-08-05
    • US10570367
    • 2004-09-03
    • Vladimir PobortchiToshihiko KanayamaTetsuya Tada
    • Vladimir PobortchiToshihiko KanayamaTetsuya Tada
    • G01J3/44G01N21/65
    • G01Q60/22G01N21/658G01N2021/656
    • An optical measurement of a crystalline sample to be measured. The sample is irradiated with an exciting light from the polarization direction in which the Raman scattering is prohibited by the selection rule. When a metal probe is brought to proximity to the sample to be measured, the selection rule is eased locally only in the proximity portion near the probe end in order that Raman scattering becomes active. Thus, a Raman signal only from the proximity portion near the probe end is detected. An optical measurement apparatus having an optical arrangement for measuring a signal light re-emitted from a sample to be measured when the sample is irradiated with an exciting light is provided. The optical measurement apparatus comprises a means for limiting the polarization state of the exciting light or signal light and a means for bringing a metal probe near the sample to be measured. The optical measurement apparatus is used to measure the signal light obtained by locally easing the limitation on the polarization state by bringing the metal probe near the sample. Therefore, Raman scattering light from silicon or the like can be measured with high space-resolution exceeding the light diffraction limit.
    • 要测量的结晶样品的光学测量。 用选择规则禁止拉曼散射的偏振方向的激发光照射样品。 当使金属探针靠近待测样品时,选择规则仅在探针端附近的靠近部分缓和,以使拉曼散射成为活跃状态。 因此,仅从探测端附近的靠近部分检测拉曼信号。 提供一种具有光学装置的光学测量装置,用于当用激发光照射样品时,测量从待测样品重新发射的信号光。 光学测量装置包括用于限制激发光或信号光的偏振状态的装置和用于使金属探针靠近待测样品的装置。 光学测量装置用于通过使金属探针靠近样品来测量通过局部减轻极化状态限制而获得的信号光。 因此,可以以超过光衍射极限的高空间分辨率来测量来自硅等的拉曼散射光。
    • 6. 发明授权
    • Microsize driving device and method for preparation thereof
    • 微型驱动装置及其制备方法
    • US07052653B2
    • 2006-05-30
    • US09748161
    • 2000-12-27
    • Yuichi HiratsukaTaro UyedaTetsuya TadaToshihiko Kanayama
    • Yuichi HiratsukaTaro UyedaTetsuya TadaToshihiko Kanayama
    • B01J10/00B01J10/02B01J12/00B01J12/02B01J14/00
    • B82Y5/00B01L3/50273B01L2200/0668B01L2400/086
    • Disclosed is a microsize driving device in which falling of track proteins from an arrangement of motor protein molecules arranged on a linear track groove provided on a substrate is suppressed and utilization of kinetic energy of track proteins as a driving energy is made possible by controlling the moving direction to a single direction. Namely, provided is a microsize driving device which comprises a substrate, an arrangement of motor protein molecules such as, for example, kinesin molecules deposited on the bottom of a linear track groove provided thereon and track proteins such as, for example, microtubules disposed thereon and is characterized in that the said linear track groove has side surfaces shaped in such a structure as to permit a linear movement of the track proteins moving in a certain specific direction but to inhibit the track proteins moving in the reverse direction thereto causing reversion for the movement in the above mentioned specific direction.
    • 公开了一种微尺寸驱动装置,其中抑制了布置在设置在基板上的线性轨道槽上的运动蛋白分子的布置的轨迹蛋白质的下降,并且通过控制移动的轨迹蛋白质的运动能量作为驱动能量成为可能 方向到单一方向。 即,提供了一种微尺寸驱动装置,其包括基底,运动蛋白分子的布置,例如沉积在其上设置的线性轨道凹槽的底部上的驱动蛋白分子,以及轨道蛋白,例如其上设置的微管 并且其特征在于,所述线性轨道凹槽具有成形为这样的结构的侧表面,以允许沿特定方向移动的轨道蛋白质的线性运动,但是阻止轨迹蛋白沿相反方向移动,从而导致 运动在上述具体方向。
    • 8. 发明授权
    • Method for fine patterning of a polymeric film
    • 聚合物膜精细图案化的方法
    • US5647999A
    • 1997-07-15
    • US618606
    • 1996-03-20
    • Tetsuya TadaToshihiko Kanayama
    • Tetsuya TadaToshihiko Kanayama
    • H01L21/302C23F1/00G03F7/00H01L21/3065B44C1/22H01L21/00
    • G03F7/0002B82Y10/00B82Y40/00Y10S438/947Y10S977/857
    • A unique method is proposed for fine patterning of a polymeric resin film on a substrate surface or fine patterning of the substrate surface with the patterned resin film as the resist. The method comprises the steps of: (a) forming a thin film of the resin on the substrate surface; (b) pressing the resin film pattern-wise under a pressure in a specified range by using, for example, a fine needle tip so as to enhance adhesion of the resin molecules to the substrate surface; and (c) dissolving away the resin film with an organic solvent selectively in the areas where the pressure is not applied in step (c) leaving the resin in a pattern-wise area after application of the pressure. The fineness of this patterning can be extremely high to be in the molecular size order.
    • 提出了用于在基板表面上精细图案化聚合物树脂膜或用图案化树脂膜作为抗蚀剂的基板表面的精细图案化的独特方法。 该方法包括以下步骤:(a)在衬底表面上形成树脂薄膜; (b)通过使用例如细针尖在特定范围内的压力下以图案方式压制树脂膜,以增强树脂分子与基材表面的粘合性; 和(c)在施加压力之后,将有机溶剂选择性地溶解在步骤(c)中没有施加压力的区域中,使树脂留在图案区域中。 该图案化的细度可以非常高以分子大小顺序。
    • 10. 发明授权
    • Dopant material, dopant material manufacturing method, and semiconductor device using the same
    • 掺杂剂材料,掺杂剂材料制造方法和使用其的半导体器件
    • US07687801B2
    • 2010-03-30
    • US11325547
    • 2006-01-05
    • Hidefumi HiuraTetsuya TadaToshihiko Kanayama
    • Hidefumi HiuraTetsuya TadaToshihiko Kanayama
    • H01L35/24
    • H01L51/002B82Y10/00C01B25/42H01L51/0048
    • It is to provide a thermodynamically and chemically stable dopant material which can achieve controls of the pn conduction types, carrier density, and threshold value of gate voltage, and a manufacturing method thereof. Further, it is to provide an actually operable semiconductor device such as a transistor with an excellent high-speed operability and high-integration characteristic. Provided is a dopant material obtained by depositing, on a carbon nanotube, a donor with a smaller ionization potential than an intrinsic work function of the carbon nanotube or an acceptor with a larger electron affinity than the intrinsic work function of the carbon nanotube. The ionization potential of the donor in vacuum is desired to be 6.4 eV or less, and the electron affinity of the acceptor in vacuum to be 2.3 eV or more.
    • 提供一种能够实现pn导电类型,载流子浓度和栅极电压阈值的控制的热力学和化学稳定的掺杂剂材料及其制造方法。 此外,提供具有优异的高速可操作性和高集成度特性的诸如晶体管的实际可操作的半导体器件。 提供了通过在碳纳米管上沉积具有比碳纳米管的固有功函数更小的电子给电子或具有比碳纳米管的固有功函数更大的电子亲和力的受主的给体获得的掺杂剂材料。 供体在真空中的电离电位希望为6.4eV或更低,并且受体在真空中的电子亲和力为2.3eV以上。