会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 1. 发明申请
    • Apparatus, method, and program for estimation of biological electromagnetic compatibility
    • 用于估计生物电磁兼容性的装置,方法和程序
    • US20050021321A1
    • 2005-01-27
    • US10760376
    • 2004-01-21
    • Shoji MochizukiSouichi WatanabeYukio YamanakaMaso TakiHiroshi Shirai
    • Shoji MochizukiSouichi WatanabeYukio YamanakaMaso TakiHiroshi Shirai
    • G01N22/00G06G7/48G06G7/58H05K9/00
    • H05K9/0069G16H50/50
    • In an apparatus, a method, and a program for estimation of biological electromagnetic compatibility, model data of a scattering body and an electromagnetic wave radiation source, data for prescribing a range to which an MoM including the electromagnetic wave radiation source is applied and a range to which a scattered field type FDTD method including the scattering body and the range to which the MoM is applied, and the like are previously prepared. The distribution of a current distributed by a voltage fed to the electromagnetic wave radiation source is determined by the MoM, incident electromagnetic fields incident on the respective grids in the scattering body are determined using the resultant distribution of the current, an electromagnetic field scattered from the scattering body is determined from the resultant incident electromagnetic field by the scattered field type FDTD method, electromotive forces induced in the respective segments of the electromagnetic wave radiation source are determined from the resultant scattered electromagnetic field, and further the distribution of the current is determined again in consideration of the induced electromotive forces. The above processing steps are repeated until the electromagnetic fields incident on the respective grids in the scattering body, and the like are converged. With the above operation, the biological electromagnetic compatibility can be estimated by executing calculations simply without depending on the distance between the electromagnetic wave radiation source and the scattering body.
    • 在用于估计生物电磁兼容性的装置,方法和程序,散射体和电磁波辐射源的模型数据,用于规定包括电磁波辐射源的MoM的范围的数据和范围 预先制备了包括散射体和施加MoM的范围的散射场型FDTD方法等。 由馈送到电磁波辐射源的电压分布的电流的分布由MoM确定,散射体中入射到各个栅格上的入射电磁场使用电流的分布,从 通过散射场型FDTD方法从所得到的入射电磁场确定散射体,从所得到的散射电磁场确定在电磁波辐射源的各个段中感应的电动势,并且再次确定电流的分布 考虑感应电动势。 重复上述处理步骤,直到入射到散射体中的各个栅格的电磁场等收敛。 通过上述操作,可以简单地执行计算来估计生物电磁兼容性,而不依赖于电磁波辐射源和散射体之间的距离。
    • 3. 发明申请
    • Electrical connector
    • 电连接器
    • US20060003607A1
    • 2006-01-05
    • US11218877
    • 2005-09-02
    • Hiroshi ShiraiShinichi Hashimoto
    • Hiroshi ShiraiShinichi Hashimoto
    • H01R12/00
    • H05K7/1069H01R12/714H01R13/24
    • The electrical connector of the present invention has an insulative housing having a first face across from a first electrical circuit and a second face across from a second electrical circuit. A plurality of contacts are mounted in the insulative housing, each of which contacts a contact point of the first electrical circuit at the first face, and contacts a contact point of the second electrical circuit at the second face, thereby interconnecting the first and second circuits. Each of the contacts has one portion of the contact supported by the insulative housing so as to be capable of pivoting in response to the displacement of the first contact portion and the second contact portion.
    • 本发明的电连接器具有绝缘壳体,其具有与第一电路相对的第一面和跨越第二电路的第二面。 多个触点安装在绝缘壳体中,每个触点接触第一面处的第一电路的接触点,并且在第二面处接触第二电路的接触点,从而将第一和第二电路 。 每个触点具有由绝缘壳体支撑的触点的一部分,以便能够响应于第一接触部分和第二接触部分的位移而枢转。
    • 4. 发明授权
    • LGA socket contact
    • LGA插座触点
    • US06976888B2
    • 2005-12-20
    • US10662006
    • 2003-09-12
    • Hiroshi ShiraiShinichi HashimotoHidenori Taguchi
    • Hiroshi ShiraiShinichi HashimotoHidenori Taguchi
    • H01R33/76H01R4/48H01R13/24H05K7/10
    • H01R13/2442H01R12/52H01R12/714H05K7/1069
    • A land grid array socket contact has a resilient contact that extends parallel to a base plate and is attached to at least one side walls of the base plate by a curved section angled approximately 180 degrees from the at least one side wall. The resilient contact has a free end for contacting a contact pad. A board terminal extends from a lower end of the base plate for connection to a circuit board. In another embodiment, the land grid array socket contact has a resilient contact extending from an upper end of a base plate. The resilient contact has an elongated slit substantially in a center of the resilient contact with respect to a direction of width and a free end for contacting a contact pad. A board terminal extends from a lower end of the base plate for connection to a circuit board.
    • 平面栅格阵列插座接触件具有平行于基板延伸的弹性接触件,并且通过与所述至少一个侧壁成大约180度的弯曲部分附接到所述基板的至少一个侧壁。 弹性接触件具有用于接触接触垫的自由端。 板端子从基板的下端延伸以连接到电路板。 在另一个实施例中,焊盘格栅阵列插座接触件具有从基板的上端延伸的弹性接触。 弹性接触件具有相对于宽度方向基本上位于弹性接触件的中心的细长狭缝和用于接触接触垫的自由端。 板端子从基板的下端延伸以连接到电路板。
    • 5. 发明授权
    • Wafer defect measuring method and apparatus
    • 晶圆缺陷测量方法和装置
    • US06734960B1
    • 2004-05-11
    • US09589087
    • 2000-06-08
    • Hiroyuki GotoHiroyuki SaitoMakiko FujinamiHiroshi Shirai
    • Hiroyuki GotoHiroyuki SaitoMakiko FujinamiHiroshi Shirai
    • G01N2100
    • C30B29/06G01N21/95G01N21/956G01N25/00H01L22/12
    • The depth and a relative dimensional factor of a defect present in the interior of a silicon wafer are measured, and the number of such defects is calculated. A laser beam having a larger energy than the band gap of silicon is radiated obliquely to the semiconductor wafer and a scattered beam from a defect present in a subsurface layer of the wafer is detected by an image pick-up device. The temperature of the wafer is changed to at least two temperatures of T1 and T2 or to any one of plural temperatures by means of a heater and the intensity of a scattered beam is measured. It is taken into account that the light absorbance of silicon and the penetration depth of light in silicon vary depending on temperature, to determine the depth and a relative dimensional factor of an internal defect which causes scattering of light, as well as the number of such crystal defects.
    • 测量存在于硅晶片内部的缺陷的深度和相对尺寸因子,并计算出这些缺陷的数量。 具有比硅的带隙大的能量的激光束被倾斜地辐射到半导体晶片,并且由图像拾取装置检测来自晶片的地下层中存在的缺陷的散射光束。 通过加热器将晶片的温度改变为T1和T2的至少两个温度或多个温度中的任何一个,并测量散射光束的强度。 考虑到硅的吸光度和硅中的光的穿透深度根据温度而变化,以确定导致光散射的内部缺陷的深度和相对尺寸因子,以及其数量 晶体缺陷。