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    • 3. 发明授权
    • Nonvolatile memory
    • 非易失性存储器
    • US06507509B1
    • 2003-01-14
    • US09856913
    • 2001-08-17
    • Youichi OhtsukaJunichi SoneJaw-Shen TsaiTakanari YasuiYasunobu Nakamura
    • Youichi OhtsukaJunichi SoneJaw-Shen TsaiTakanari YasuiYasunobu Nakamura
    • G11C1122
    • B82Y10/00G11C11/22G11C11/5657H01L27/11502H01L29/7613H01L29/78391H01L29/7888
    • High device reliability, a reduction in power consumption, and a high operation speed are achieved. When a predetermined bias voltage is applied between a source 1 and a drain 2 to change a gate voltage, a current discretely flows between the source 1 and the drain 2 in accordance with quantized electrostatic energy levels in an island electrode 3. The switching ON/OFF of the current between the source 1 and the drain 2 in this case is enabled by applying ½-electron charge to a gate. When the gate voltage induces polarization in a ferroelectric layer 6, its electric field is applied to the island electrode 3. The current between the source 1 and the drain 2 in this case can be measured with high sensitivity. Charge holding is carried out by the polarization in the ferroelectric layer 6, and stored data can be held even if power supply is cut off.
    • 实现了高的设备可靠性,功耗的降低和高的运行速度。 当在源极1和漏极2之间施加预定的偏置电压以改变栅极电压时,根据岛状电极3中的量化的静电能量水平,电流离散地流过源极1和漏极2之间。开关导通/ 在这种情况下,源1和漏极2之间的电流的截止通过向栅极施加1/2电子电荷来实现。 当栅极电压在铁电层6中引起极化时,其电场被施加到岛状电极3.在这种情况下,源1和漏极2之间的电流可以高灵敏度地测量。 通过强电介质层6中的极化进行电荷保持,即使电源被切断,也可以保持存储的数据。
    • 5. 发明申请
    • Method of manufacturing micro tunnel-junction circuit and micro tunnel-junction circuit
    • 微隧道结电路和微隧道结电路的制造方法
    • US20090008789A1
    • 2009-01-08
    • US10567250
    • 2004-08-03
    • Michio WatanabeYasunobu Nakamura
    • Michio WatanabeYasunobu Nakamura
    • H01L23/48H01L21/00
    • H01L39/2493B82Y10/00H01L29/7613H01L39/221
    • A method of manufacturing a micro tunnel-junction circuit capable of remarkably relieving the limitation of a circuit pattern to be manufactured and remarkably relieving the limitation of a metallic material to be used. In the method, a three-layer structure is formed by laminating a first metal, an insulator, and a second metal on a substrate in this order, a narrow wall part is formed by cutting the three-layer structure in the depth direction by using a converging ion beam, at least one laterally passed through-hole is formed in the wall part by using the converging ion beam, and at least one recessed portion positioned adjacent to the hole is formed by cutting the upper surface of the wall part in the depth direction. The hole is a through-hole starting at the position of the head of the second metal to the position of the head of the substrate and the recessed part is formed to be recessed from the upper surface of the wall part into the first metal.
    • 一种制造微隧道结电路的方法,其能够显着地减轻要制造的电路图案的限制,并且显着地减轻了待使用的金属材料的限制。 在该方法中,通过在基板上依次层叠第一金属,绝缘体和第二金属,形成三层结构,通过使用在深度方向上切割三层结构而形成窄壁部 通过使用会聚离子束在壁部中形成会聚离子束,至少一个横向通过孔,并且通过切割位于邻近孔的壁部的上表面而形成至少一个与孔相邻的凹部 深度方向。 孔是从第二金属的头部的位置到基板的头部的位置的通孔,并且凹部形成为从壁部的上表面凹入第一金属。
    • 6. 发明授权
    • Flame-retardant and flame-retarding resin composition
    • 阻燃和阻燃树脂组合物
    • US06635697B2
    • 2003-10-21
    • US09768186
    • 2001-01-24
    • Tetsuo KuwakiYasunobu NakamuraYasuhiro Muneuchi
    • Tetsuo KuwakiYasunobu NakamuraYasuhiro Muneuchi
    • C08L53432
    • C08K5/3462C08K3/32C08K5/5205C08K5/523C08K2003/323
    • The present invention provides a flame-retardant which is not only excellent in flame-retarding property but also devoid of lowering moisture-resisting property specially in the course of molding of a resin so that the flame-retardant has little limitation for the molding method, the molding conditions and the intended use thereof. What is characterized is a flame-retardant comprising (a) an aliphatic amine salt of a phosphoric ester with 2-25 carbon atoms in the ester moiety thereof having a melting point of at least 100° C. but not more than a molding temperature of a thermoplastic resin and (b) a salt of phosphoric and/or polyphosphoric acid, the proportion of the component (a) to the component (b), i.e. (a)/(b) being 1/2-5/1 by weight ratio. In case a polyolefin resin is incorporated with this flame-retardant, the resultant resin composition achieves such an outstanding merits that the composition is not only excellent in flame-retarding property but also devoid of lowering moisture-resisting property especially in the course of molding of the resin composition so that the composition has little limitation for the molding method, the molding conditions and the intended use thereof.
    • 本发明提供一种阻燃性,其阻燃性优异,特别是在树脂成型过程中不具有降低耐湿性,阻燃剂对于成型方法几乎没有限制, 成型条件及其预期用途。 特征在于阻燃剂,其包含(a)在其酯部分中具有2-25个碳原子的磷酸酯的脂族胺盐,其熔点至少为100℃,但不超过 热塑性树脂和(b)磷酸和/或多磷酸的盐,组分(a)与组分(b)的比例,即(a)/(b)的重量比为1 / 2-5 / 1 比。 在聚烯烃树脂掺入该阻燃剂的情况下,所得到的树脂组合物具有这样的突出优点,即组合物不仅具有优异的阻燃性,而且不具有降低耐湿性,特别是在成型过程中 树脂组合物使得组合物对成型方法,成型条件及其预期用途几乎没有限制。
    • 8. 发明申请
    • POSITION DETECTION DEVICE
    • 位置检测装置
    • US20140048115A1
    • 2014-02-20
    • US14114508
    • 2012-04-19
    • Akihiro KiriharaHiroyuki EndohYasunobu Nakamura
    • Akihiro KiriharaHiroyuki EndohYasunobu Nakamura
    • H01L35/32
    • H01L35/32G06F3/041G06F3/046H01L27/16
    • A position detection device includes a thermoelectric conversion portion which includes a magnetic layer and a plurality of electrodes. The magnetic layer has magnetization. The plurality of electrodes are formed of a material having spin-orbit interaction, and are formed on the magnetic layer so as to extend in a direction which intersects with the magnetization direction of the magnetic layer. When an arbitrary location on the layer-surface of the magnetic layer is heated, the thermoelectric conversion portion modulates the effective temperature in the magnetic layer and induces a spin Seebeck effect. As a result, the thermoelectric conversion portion generates, from the plurality of electrodes, a voltage corresponding to the heated position as position information.
    • 位置检测装置包括具有磁性层和多个电极的热电转换部。 磁性层具有磁化强度。 多个电极由具有自旋轨道相互作用的材料形成,并且形成在磁性层上,以便沿与磁性层的磁化方向相交的方向延伸。 当磁性层的表面上的任意位置被加热时,热电转换部分调制磁性层中的有效温度并引起旋转塞贝克效应。 结果,热电转换部从多个电极产生与加热位置对应的电压作为位置信息。