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    • 3. 发明申请
    • Method for Displaying Bioinformation Using Millimeter-Wave Band Electromagnetic Wave, Device for Acquiring and Displaying Bioinformation
    • 使用毫米波波段电磁波显示生物信息的方法,用于获取和显示生物信息的装置
    • US20070230767A1
    • 2007-10-04
    • US11628731
    • 2005-07-11
    • Seiichi IwamatsuTomohiro MaruiNobuaki KawaguchiMakoto Shinozaki
    • Seiichi IwamatsuTomohiro MaruiNobuaki KawaguchiMakoto Shinozaki
    • G06K9/00
    • A61B5/05A61B5/0507
    • A method and device for extracting medically effective information by applying a millimeter-wave band electromagnetic wave to an organism and analyzing transmission, reflection and spontaneous radiation signals. The method and display comprise an acquiring step or means in which a database is so prepared in advance that from the transmission, reflection, and spontaneous electromagnetic wave data measured in a state that an organism is irradiated with an electromagnetic wave having wavelength components the wavelengths of which are 6 to 14 mm and a state that the organism is not irradiated, electromagnetic characteristics at the organism surface and in the organism is categorized and organized by actual condition of the organism constituent element, and the actual condition information on the organism constituent element of the subject is acquired according to the database information from the transmission, reflection, and spontaneous electromagnetic wave data measured in a state that the organism, the subject, is irradiated with a similar electromagnetic wave and a state that the organism is not irradiated; a step of associating the position information on the measurement portion of the subject with three-dimensional meridians and meridian points; and an image displaying step.
    • 一种通过将毫米波段电磁波应用于生物体并分析透射,反射和自发辐射信号来提取医学有效信息的方法和装置。 该方法和显示器包括获取步骤或装置,其中数据库预先如此准备:从在发射,反射和自发电磁波数据中测量的状态下,生物被辐射的波长成分的波长成分的电磁波照射 其为6〜14mm,生物体不被照射的状态,生物体表面和生物体的电磁特性根据生物构成要素的实际条件分类和组织,并且关于生物体构成元素的实际条件信息 根据来自发射,反射和自发电磁波数据的数据库信息获取对象,该数据信息在生物体,受试者用相似的电磁波照射的状态和生物体未照射的状态下测量; 将被检体的测定部位的位置信息与三维子午线和子午点相关联的步骤; 和图像显示步骤。
    • 4. 发明申请
    • Apparatus for carrying out chemical process using set of solvents undergoing reversible change between mutual dissolution and separation depending on temperature
    • 使用一系列溶剂进行化学处理的装置,这些溶剂根据温度在相互溶解和分离之间经历可逆的变化
    • US20060104869A1
    • 2006-05-18
    • US10525467
    • 2003-08-29
    • Kazuhiro ChibaTomohiro Marui
    • Kazuhiro ChibaTomohiro Marui
    • B01J19/00
    • B01J19/0013C07K1/02C07K1/30
    • (Problems) A reaction container (apparatus) with a high efficiency, which can overcome problems of common chemically processing apparatuses using a solvent set where the compatible state and the separated state are reversibly changeable depending on a temperature, i.e. problems of the apparatus disclosed in Japanese Patent Application 2002-198242, namely the separation over time and spatial separation between compatible state and separated state. (Means for Solving the Problems) A temperature distribution is formed inside a reaction container, such that the temperature of one (optional) partial region inside the reaction container is the temperature for making first and second solvent solutions at a compatible state or a higher temperature, while the temperature of the other partial region is the temperature for making the solutions at a separated state or a lower temperature. Additionally, a reaction-promoting energy such as light and electricity is fed to the part at the compatible state.
    • (问题)具有高效率的反应容器(装置)能够克服使用溶剂组的常见化学处理装置的问题,其中兼容状态和分离状态根据温度而可逆地改变,即所公开的装置的问题 日本专利申请2002-198242,即随时间的分离和相容状态与分离状态之间的空间分离。 (解决问题的手段)在反应容器内形成温度分布,使得反应容器内的一个(任选的)部分区域的温度是使第一和第二溶剂溶液处于相容状态或更高温度的温度 而另一部分区域的温度是使溶液处于分离状态或较低温度的温度。 此外,在兼容状态下将诸如光和电的反应促进能量供给到该部件。
    • 6. 发明授权
    • Surface condition measurement apparatus
    • 表面状态测量装置
    • US5314249A
    • 1994-05-24
    • US976414
    • 1992-11-13
    • Tomohiro MaruiKazuo Arai
    • Tomohiro MaruiKazuo Arai
    • G01J5/00G01J5/60G01J5/02
    • G01J5/60G01J2005/0074
    • Radiated light with a specified wavelength from a material is detected and a first parameter corresponding to the emissivity ratio is obtained from the plurality of detection signals. Since the emissivity takes on different values according to the condition of the surface of the material, the first parameter changes depending on the surface condition of the material. There is a correlation between a physical value indicating a condition of the material surface and the first parameter. The correlation remains equivalent even if a second parameter corresponding to the physical value is used instead of the physical value itself (for example, an optical physical value such as reflectivity and absorptivity, the thickness of a film formed on the material surface, the surface roughness, and the degree of galvannealing). As an example of the parameter corresponding to the physical value, there is the logarithmic ratio between emissivities (ln .epsilon..sub.a /ln .epsilon..sub.b) corresponding to the temperature in the vicinity of the surface. Therefore, a second parameter can be obtained on the basis of the correlation and a physical value can be obtained. When the emissivity or logarithmic emissivity ratio is used as the second parameter, the temperature in the vicinity of the material surface can be obtained from the second parameter and the plurality of detection signals.
    • 检测到来自材料的指定波长的辐射光,并从多个检测信号获得与发射率相对应的第一参数。 由于发射率根据材料表面的状况而具有不同的值,所以第一参数根据材料的表面状况而变化。 指示材料表面的状态的物理值与第一参数之间存在相关性。 即使使用与物理值对应的第二参数来代替物理值本身(例如,诸如反射率和吸收率的光学物理值,在材料表面上形成的膜的厚度,表面粗糙度 ,以及合金化退火的程度)。 作为对应于物理值的参数的示例,存在对应于表面附近的温度的发射率(lnεa / lnεb)之间的对数比。 因此,可以基于相关性获得第二参数并且可以获得物理值。 当使用发射率或对数发射率作为第二参数时,材料表面附近的温度可以从第二参数和多个检测信号获得。
    • 7. 发明授权
    • Apparatus and method for the generation and utilization of a spiral gas
stream in a pipeline
    • 在管道中产生和利用螺旋气流的装置和方法
    • US4762148A
    • 1988-08-09
    • US45187
    • 1987-05-01
    • Tomohiro MaruiMasaaki TakaradaYoshiaki ShimuraMinoru MitaKiyoshi Horii
    • Tomohiro MaruiMasaaki TakaradaYoshiaki ShimuraMinoru MitaKiyoshi Horii
    • B65G53/52B65G53/58F15D1/00F15C1/16F16L55/10
    • F15D1/0015B65G53/526B65G53/58Y10S423/09Y10T137/2087
    • A spiral gas stream is generated in a pipeline when a uniform flow of gas flowing in a cylinder having inner diameter larger than that of the pipeline is introduced through a funnelform reducer into the inlet of the pipeline and bringing the mean gas stream velocity in the pipeline faster than 20 meter per second. The uniform flow of gas is formed in the cylinder easily when outside low pressure gas is fed into the cylinder through a feed gas inlet pipe installed diagonally at the side of the cylinder apart from the bottom plate so as to make the flow line of the feed gas to cross the axis of the cylinder and inclined toward the bottom plate. When solid particles are introduced into the spiral gas stream zone, they are transported to the outlet of the pipeline. As the compressed gas layer is formed along the inside wall of the pipeline by the spiral motion of gas stream, solid particles don't contact directly with the inside wall of the pipeline and don't hurt it. As the center part of the cross section of the pipeline becomes very low pressure, especially along the axis of the pipeline, solid particles containing or accompanying volatile matters are desiccated or concentrated as a result of the evaporation of volatile matters while being transported in the pipeline. Solid particles deposited on the bottom of water can be dredged and dehydrated by the spiral gas stream transportation system. When solid particles transported by spiral gas stream in two or more pipelines are arranged to collide with mutually, pulverized fine solid particles are recovered. A chemical reaction which can not or hardly to proceed at normal temperature and pressure is promoted in a spiral gas stream zone.
    • 当在具有大于管道内径的内径的气缸中流动的气体的均匀流动通过漏斗形减速器引入到管道的入口并使平均气流速度在管线中时,在管道中产生螺旋气流 速度超过20米/秒。 当外部低压气体通过沿着与底板分离的圆柱体侧对角地设置的进料气体入口管被供给到气缸中时,容易形成气体的均匀流动,以使进料的流动线 气体穿过气缸的轴线并向底板倾斜。 当固体颗粒被引入螺旋气流区时,它们被运送到管道的出口。 由于通过气流的螺旋运动沿着管道的内壁形成压缩气体层,固体颗粒不直接与管道的内壁接触,并且不会伤害它。 由于管道的横截面的中心部分变得非常低的压力,特别是沿着管道的轴线,由于在管道中运输时挥发物质的蒸发,含有或伴随挥发物质的固体颗粒被干燥或浓缩 。 沉积在水底部的固体颗粒可以通过螺旋气流输送系统进行疏浚和脱水。 当通过螺旋气流在两条或更多条管道中输送的固体颗粒被布置为相互碰撞时,回收粉碎的细固体颗粒。 在常压和高温下不能或几乎不能进行的化学反应在螺旋气流区促进。
    • 9. 发明授权
    • System and method for determining routes between circuit blocks of a
programmable logic device by determining a load pin which is closest to
the center of gravity of a plurality of load pins
    • 用于通过确定最接近多个负载引脚的重心的负载引脚来确定可编程逻辑器件的电路块之间的路径的系统和方法
    • US5309372A
    • 1994-05-03
    • US552517
    • 1990-07-16
    • Tomohiro MaruiHideyo Funatsu
    • Tomohiro MaruiHideyo Funatsu
    • G06F17/50G06F15/60
    • G06F17/5077
    • A system and method for automatically and optimally determining a route to be wired in a Programmable Logic Device (PLD) are disclosed in which a plurality of load pins to be wired with a source pin are selected sequentially according to a shortest length of distance from the source pin to the respective load pins, a plurality of switching stations present midway through each route of paths are selected on the basis of coordinates of a center of gravity derived from the coordinates of the unwired load pins and distances to the respective load pins to be wired sequentially, and, thus, a line network constituted by the routes of the first and second paths is formed. Furthermore, the route is corrected by searching out any of problematic switching stations through which the path cannot be formed from among the switching stations present along the route so as to bypass the problematic switching station. If this correction proves impossible, a second correction is sought by searching the problematic switching station itself so as to bypass a wired path present within the problematic switching station. If this correction also fails, a third mode of correction is implemented in which a switching station adjacent the problematic switching station is utilized.
    • 公开了一种用于自动和最佳地确定可编程逻辑器件(PLD)中布线的路由的系统和方法,其中,根据与源引脚的距离的最短距离,顺序地选择要与源引脚布线的多个负载引脚 源极引脚连接到相应的负载引脚,基于从未装载负载引脚的坐标和到相应负载引脚的距离导出的重心坐标来选择通过每个路径路径中途的多个切换站 因此,形成由第一和第二路径的路线构成的线路网络。 此外,通过沿着路线存在的切换站中搜索不能形成路径的任何有问题的切换站,以绕过有问题的交换站来校正路由。 如果这种校正证明是不可能的,则通过搜索有问题的交换台本身以绕过存在于有问题的交换站内的有线路径来寻求第二校正。 如果该校正也失败,则实施第三种校正模式,其中利用与有问题的切换站相邻的切换站。