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    • 41. 发明授权
    • Poly(p-phenylene sulfide) film and process for production thereof
    • 聚(对苯硫醚)薄膜及其制备方法
    • US4629778A
    • 1986-12-16
    • US816312
    • 1986-01-06
    • Toshinori SugieFumihiro KobataTakashi Kawamura
    • Toshinori SugieFumihiro KobataTakashi Kawamura
    • C08G75/02C08J5/18C08G75/14
    • C08J5/18C08G75/0277C08J2381/02
    • A biaxially oriented crystalline poly(p-phenylene sulfide) film wherein said polymer contains at least 90 mole % of recurring units of the formula ##STR1## and has a melt viscosity of at least 0.12 dl/g and when said film is heat-treated at 270.degree. C. for 10 minutes under relaxation and then stretched at 23.degree. C. at a rate of 200%/min., its tensile strength, stress at 5% stretch and elongation show a percent retention of at least 60%, at least 80%, and 80 to 120%, respectively, based on these properties of the same film which has been stretched under said conditions without the heat-treatment; and a process for producing a crystalline poly(p-phenylene sulfide) film, which comprises heat-treating a biaxially oriented amorphous poly(p-phenylene sulfide) film at a temperature in the range of from 3.degree. C. above its melting point measured by a differential scanning calorimeter to 350.degree. C. at a constant length or under tension or in a moderate relaxed condition.
    • 一种双轴取向的结晶聚(对亚苯硫醚)膜,其中所述聚合物含有至少90摩尔%的式“IMAGE”的重复单元,并且具有至少0.12dl / g的熔融粘度,并且当所述膜被热处理 在270℃下放松10分钟,然后以200%/ min的速度在23℃下拉伸,其拉伸强度,拉伸强度和拉伸伸长率在5%时显示百分比保持率至少为60%,在 基于在没有热处理的条件下拉伸的相同膜的这些性质,分别为80%〜80%,80〜120% 以及一种生产结晶聚(对亚苯硫醚)膜的方法,其包括在测量的熔点以上3℃的温度范围内热处理双轴取向的无定形聚对苯硫醚膜 通过差示扫描量热计以恒定长度或在张力下或在适度的松弛条件下进行350℃。
    • 42. 发明授权
    • Distance estimation device, distance estimation method, integrated circuit, and computer program
    • 距离估计装置,距离估计方法,集成电路和计算机程序
    • US08705801B2
    • 2014-04-22
    • US13390849
    • 2011-06-17
    • Takashi KawamuraPongsak Lasang
    • Takashi KawamuraPongsak Lasang
    • G06K9/00
    • G02B7/38G01C3/06G01C3/32G06T7/571H04N5/23212
    • A distance estimation device (1x) prevents the variation in distance estimation accuracy that has been a problem in distance estimation performed using an all-in-focus image and an arbitrary-focal-depth image. The distance estimation device can estimate a focal distance of any subject with a high degree of accuracy, and includes: a first generation unit (10w) generating a first distance map indicating a focal depth determined from an all-in-focus image and a first focal-depth image; a second generation unit (11w) generating a second distance map indicating a focal depth determined from the all-in-focus image and a second focal-depth image; and a distance map synthesis unit (14) synthesizing the generated first distance map and the generated second distance map to generate a synthetic distance map.
    • 距离估计装置(1x)防止使用全焦点图像和任意焦点深度图像进行的距离估计中的问题的距离估计精度的变化。 距离估计装置可以高精度地估计任何被摄体的焦距,并且包括:第一生成单元(10w),生成表示从全焦点图像确定的焦点深度的第一距离图,以及第一 焦点深度图像; 产生指示从全焦点图像确定的焦点深度的第二距离图和第二焦深图像的第二生成单元(11w); 以及合成所生成的第一距离图和所生成的第二距离图以产生合成距离图的距离图合成单元(14)。
    • 43. 发明授权
    • Radiation power measuring method and radiation power measuring apparatus
    • 辐射功率测量方法和辐射功率测量仪
    • US08643553B2
    • 2014-02-04
    • US13213384
    • 2011-08-19
    • Tasuku TeshirogiShigenori MattoriTakashi KawamuraAya Yamamoto
    • Tasuku TeshirogiShigenori MattoriTakashi KawamuraAya Yamamoto
    • G01R29/10
    • G01R29/10
    • Provided is a technique capable of accurately calculating the radiation power of an object to be measured using a spheroidal coupler even when there is a non-negligible loss in a measurement system.A phase rotating unit including a variable phase shifter, a two-branch circuit, and a reflective element that is connected to one of the branched outputs of the two-branch circuit is inserted between a receiving antenna and a power measuring device. The maximum value and the minimum value of power measured by a power measuring device when the variable phase shifter changes a phase are calculated. An output reflection coefficient of a coupler is calculated from the ratio of the maximum value to the minimum value, and an input reflection coefficient of an object to be measured which is approximate to the output reflection coefficient is estimated. In addition, an input reflection coefficient of a reference antenna which is used instead of the object to be measured is estimated in the same way. The total radiated power of the object to be measured is calculated on the basis of the estimated input reflection coefficients and the reception power when the power measuring device directly measures the output of the receiving antenna.
    • 提供了一种即使在测量系统中存在不可忽视的损耗的情况下,也能够使用球状耦合器精确地计算待测物体的辐射功率的技术。 包括可变移相器,双分支电路和连接到双分支电路的一个分支输出的反射元件的相位旋转单元插入在接收天线和功率测量装置之间。 计算当可变移相器改变相位时由功率测量装置测量的功率的最大值和最小值。 从最大值与最小值的比值计算耦合器的输出反射系数,并且估计近似于输出反射系数的被测量对象的输入反射系数。 此外,以相同的方式估计用于代替被测量物体的参考天线的输入反射系数。 基于估计的输入反射系数和功率测量装置直接测量接收天线的输出的接收功率,计算被测量物体的总辐射功率。
    • 44. 发明申请
    • IMAGING DEVICE, SEMICONDUCTOR INTEGRATED CIRCUIT, AND IMAGING METHOD
    • 成像装置,半导体集成电路和成像方法
    • US20130314586A1
    • 2013-11-28
    • US13983381
    • 2012-03-01
    • Takeshi ShimamotoYoshiaki SugitaniTakashi Kawamura
    • Takeshi ShimamotoYoshiaki SugitaniTakashi Kawamura
    • H04N5/232
    • H04N5/23212G02B7/38H04N5/2353
    • An image-capturing device disclosed in the present application includes: an image-capturing element including a plurality of photoelectric conversion elements arranged in two dimensions, wherein the plurality of photoelectric conversion elements are exposed through successive scanning and electrical signals are read out from the plurality of photoelectric conversion elements through successive scanning, thereby generating an image signal; a lens optical system including a focus lens for collecting light toward the image-capturing element; a driving section for driving one of the image-capturing element and the focus lens so as to change a distance between the image-capturing element and the focus lens; a displacement control section for outputting a command to the driving section so as to control displacement of the image-capturing element or the focus lens to be driven based on a predetermined displacement pattern; and a synchronizing section for controlling the displacement control section based on exposure timing of the image-capturing element, wherein: the predetermined displacement pattern represents a reciprocal displacement of the image-capturing element or the focus lens to be driven over an entire section between a first focus position of the focus lens or the image-capturing element at which focus is at a first object distance in an image-capturing scene and a second focus position of the focus lens or the image-capturing element at which focus is at a second object distance in the image-capturing scene; and the image-capturing element or the focus lens to be driven is reciprocally displaced an integer number of times within an exposure time for one image of the image-capturing scene for each of the plurality of photoelectric conversion elements.
    • 在本申请中公开的图像捕获装置包括:图像捕获元件,包括以二维排列的多个光电转换元件,其中多个光电转换元件通过连续扫描而被曝光,并且从多个像素中读出电信号 的光电转换元件,从而产生图像信号; 透镜光学系统,包括用于向所述图像拍摄元件收集光的聚焦透镜; 用于驱动图像拍摄元件和聚焦透镜中的一个以便改变图像拍摄元件和聚焦透镜之间的距离的驱动部分; 位移控制部分,用于向驱动部分输出命令,以便基于预定的位移模式来控制要被驱动的图像拍摄元件或聚焦透镜的位移; 以及同步部分,用于基于所述图像拍摄元件的曝光定时来控制所述位移控制部分,其中:所述预定位移图案表示所述图像拍摄元件或所述聚焦透镜的往复位移, 在图像拍摄场景中的焦点处于第一物体距离处的聚焦透镜或图像拍摄元件的第一对焦位置和聚焦透镜或焦点在第二位置的图像捕获元件的第二聚焦位置 图像拍摄场景中的物体距离; 并且要驱动的图像拍摄元件或聚焦透镜在多个光电转换元件中的每一个的图像拍摄场景的一个图像的曝光时间内相对位移一整次。
    • 45. 发明授权
    • Wearable device
    • 穿戴式装置
    • US08581700B2
    • 2013-11-12
    • US12279011
    • 2007-02-21
    • Takashi KawamuraMasayuki MisakiRyouichi KawanishiMasaki Yamauchi
    • Takashi KawamuraMasayuki MisakiRyouichi KawanishiMasaki Yamauchi
    • H04Q5/22
    • H04N7/185H04L67/18H04N21/41407H04N21/42203H04N21/4223H04N21/4622H04N21/4788H04W4/02H04W4/023
    • A wearable device is worn by a person participating in an event in which a plurality of other people are participating and wearing other wearable devices. The wearable device includes a request unit for transmitting a request signal to other wearable devices that are in a predetermined range, and receiving a response to the request signal from each of the other wearable devices, and a communication unit for determining, with use of the received responses, one or more of the other wearable devices to be a communication partner, and performing data communication with the determined one or more other wearable devices. The data received in the communication is data collected by the one or more other wearable devices determined to be communication partners, and the data is used as a profile component when creating a profile of the event.
    • 参与其中多个其他人参与并穿着其他可穿戴装置的事件的人佩戴穿戴装置。 可穿戴装置包括:请求单元,用于将请求信号发送到处于预定范围的其他可穿戴设备,并且从其他可穿戴设备中接收对请求信号的响应;以及通信单元,用于通过使用 接收到的响应,一个或多个其他可穿戴设备成为通信伙伴,以及与所确定的一个或多个其他可穿戴设备进行数据通信。 在通信中接收的数据是被确定为通信伙伴的一个或多个其他可穿戴设备收集的数据,并且当创建事件的简档时,该数据被用作简档组件。
    • 46. 发明授权
    • Imaging apparatus and method of controlling the apparatus
    • 成像装置及其控制方法
    • US08412036B2
    • 2013-04-02
    • US13147886
    • 2010-12-03
    • Takashi Kawamura
    • Takashi Kawamura
    • G03B13/36
    • G02B7/08G02B7/28G03B13/36H04N5/23212
    • An imaging apparatus (1000) includes: an imaging device (110), a lens (120), an initial focal point detecting unit (130) detecting a positional relationship between the imaging device (110) and the lens (120) to specify an initial focal point which is a focal point found when an exposure start instruction is received from a user; a shift pattern determining unit (140) determining a shift pattern of the focal point, such that the focal point in an exposure time moves from the initial focal Point, passes through both of a nearest end and a farthest end of a predetermined range of focus at least once, and returns to the initial focal point, the initial focal point being specified by the positional relationship between the imaging device (110) and the lens (120); and a shift control unit (150) moving one of the imaging device (110) and the lens (120) based on the shift pattern, such that the focal point moves from the initial focal point as soon as exposure starts, and arrives at the initial focal point again as soon as the exposure ends.
    • 成像装置(1000)包括:成像装置(110),透镜(120),初步焦点检测单元(130),其检测成像装置(110)和透镜(120)之间的位置关系,以指定 初始焦点,其是从用户接收到曝光开始指令时发现的焦点; 移位模式确定单元(140)确定焦点的移动模式,使得曝光时间中的焦点从初始焦点移动,穿过预定焦距范围的最近端和最远端 至少一次,并返回到初始焦点,初始焦点由成像装置(110)和透镜(120)之间的位置关系指定; 以及基于移动模式移动成像装置(110)和透镜(120)中的一个的移位控制单元(150),使得一旦曝光开始,焦点从初始焦点移动,并到达 一旦曝光结束,再次启动焦点。
    • 48. 发明授权
    • Howling detection device and method
    • 啸叫检测装置及方法
    • US07912230B2
    • 2011-03-22
    • US11579133
    • 2005-06-15
    • Takashi KawamuraTakeo Kanamori
    • Takashi KawamuraTakeo Kanamori
    • H04B15/00H04R27/00
    • H04R3/005H04R3/02
    • A howling detection device detects a dominance ratio, which indicates a risk of howling to occur when a mixed signal obtained by mixing a plurality of sound signals collected by a plurality of microphones is outputted by a speaker. The howling detection device detects levels of the plurality of sound signals, compares, in a same time domain, the mixed signal with a signal regarding a sound to be outputted by the speaker as a noise reference signal, detects a time period, as a word ending section, during which the mixed signal is inputted after the noise reference signal falls, and calculates a dominance ratio by extracting only a level of the plurality of sound signals corresponding to the word ending section and determining a ratio of each of the extracted levels of each of the sound signals to a sum of the extracted levels of the plurality of sound signals.
    • 当通过由扬声器输出通过混合由多个麦克风采集的多个声音信号而获得的混合信号时,啸叫检测装置检测优势比,其表示啸叫发生的风险。 啸声检测装置检测多个声音信号的电平,将混合信号与由扬声器输出的声音相关的信号作为噪声参考信号进行比较,将时间段作为一个字 结束部分,其中混合信号在噪声参考信号下降之后被输入,并且通过仅提取对应于字结束部分的多个声音信号的电平来计算优势比,并且确定每个提取电平的比率 声音信号中的每一个与所提取的多个声音信号的电平之和。