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    • 41. 发明授权
    • Pressure display apparatus
    • 压力显示装置
    • US07792657B2
    • 2010-09-07
    • US11978651
    • 2007-10-30
    • Toshiaki KobayashiHideki MuramatsuHidebumi SekiHiroyuki Sakai
    • Toshiaki KobayashiHideki MuramatsuHidebumi SekiHiroyuki Sakai
    • G01N7/00A61B1/12
    • G01L19/02G01L27/005G01L27/007
    • A pressure display apparatus that includes a detected signal processor for processing a detected signal Si obtained from a pressure detector for detecting a pressure P, a pressure value display for displaying a detected pressure value Pd at least based on a processed signal Dd obtained from the detected signal processor, and a reference point adjuster for adjusting the display for a given reference pressure value Ps. The reference point adjuster has a reference pressure value setting function to set the reference pressure value Ps for a given magnitude, a deviation value setting capability for obtaining and setting a detected pressure value Pd corresponding to the reference pressure value Ps and the deviation value Ed of the reference pressure value Ps, and a correction capability for correcting at least the detected pressure value Pd regarding the pressure P and displayed on the display based on the deviation Ed.
    • 一种压力显示装置,包括用于处理从用于检测压力P的压力检测器获得的检测信号Si的检测信号处理器,至少基于从检测到的处理信号Dd显示检测到的压力值Pd的压力值显示 信号处理器和用于调整给定参考压力值Ps的显示的参考点调节器。 参考点调整器具有基准压力值设定功能,用于设定给定幅度的基准压力值Ps,用于获得和设定与基准压力值Ps相对应的检测压力值Pd和偏差值Ed的偏差值设定能力 参考压力值Ps,以及用于根据偏差Ed校正至少检测到的压力值Pd并显示在显示器上的校正能力。
    • 43. 发明申请
    • ANALYTICAL SAMPLE DRYING METHOD AND DRYING APPARATUS
    • 分析样品干燥方法和干燥装置
    • US20100031758A1
    • 2010-02-11
    • US12449869
    • 2008-02-29
    • Hiroyuki SakaiShintaro KomataniYoshihiro Yokota
    • Hiroyuki SakaiShintaro KomataniYoshihiro Yokota
    • G01N1/44G01N33/24
    • G01N1/40G01N1/4022G01N33/20G01N33/24
    • A soil for metal analysis having a high water content of 40% or more is dried up to 20% or less in water content within a short period of time.A filter paper 5 is laid over an inner bottom surface plate 2 of a nutsche 1. Powder of a super absorbent polymer 6 is uniformly spread (filled) on an upper surface thereof. Further, another filter paper 7 is laid thereon. A soil sample with a high water content is packed on an upper surface thereof, thereupon carrying out predrying to approximately 30% in water content. After that, the predried soil sample is added with ethanol, stirred and received in a receiving pan 38. The receiving pan 38 is arranged in a drying chamber 37. Water is supplied by a syringe 43 to a reaction vessel 42 having been filled with calcium oxide or barium oxide, thereby reacting calcium oxide or barium oxide with water. The receiving pan 38 is heated by a reaction heat generated at that moment, thereupon carrying out postdrying to make the water content 20% or less.
    • 将含水量高达40%以上的金属分析用土壤在短时间内干燥至含水量的20%以下。 将滤纸5放置在螺母1的内底板2上。超吸收性聚合物6的粉末在其上表面上均匀地铺展(填充)。 此外,在其上铺设另一个滤纸7。 具有高含水量的土壤样品被填充在其上表面上,然后预干燥约30%的含水量。 之后,将预干燥的土壤样品加入乙醇,搅拌并接收在接收盘38中。接收盘38布置在干燥室37中。水通过注射器43供应至填充有钙的反应容器42 氧化物或氧化钡,从而使氧化钙或氧化钡与水反应。 接收盘38被该时刻产生的反应热加热,进行后干燥,使含水率在20%以下。
    • 44. 发明申请
    • IMAGE PROCESSING APPARATUS AND IMAGE PROCESSING METHOD
    • 图像处理装置和图像处理方法
    • US20090231630A1
    • 2009-09-17
    • US12399237
    • 2009-03-06
    • Hiroyuki Sakai
    • Hiroyuki Sakai
    • H04N1/40
    • H04N1/387B41J11/0065H04N1/32144H04N2201/0082H04N2201/3245
    • An output image forming unit generates a print image based on an input image. A partial region image forming unit specifies an image region, which is not to be printed when the print image is printed on a print sheet, and generates region information indicating a region obtained by merging a region on the input image corresponding to the specified image region, and a surrounding region of this region on the input image. The partial region image forming unit generates embedded information including the region information. An additional information multiplexing unit embeds the embedded information in the print image, and outputs that print image to a printer.
    • 输出图像形成单元基于输入图像生成打印图像。 部分区域图像形成单元指定在打印图像被打印在打印纸上时不打印的图像区域,并且生成表示通过合并对应于指定图像区域的输入图像上的区域而获得的区域的区域信息 ,以及该区域的输入图像的周围区域。 部分区域图像形成单元生成包括区域信息的嵌入信息。 附加信息复用单元将嵌入的信息嵌入打印图像中,并将该打印图像输出到打印机。
    • 47. 发明授权
    • Gas concentration measuring apparatus
    • 气体浓度测定装置
    • US07416650B2
    • 2008-08-26
    • US10743409
    • 2003-12-23
    • Yoshikazu HatadaNoboru YamamotoHiroyuki Sakai
    • Yoshikazu HatadaNoboru YamamotoHiroyuki Sakai
    • G01N27/41
    • G01N27/4074
    • In a gas concentration measuring apparatus, a measurement substrate is provided. A conductive pattern portion is formed in the measurement substrate. The conductive pattern portion includes a signal input pattern constituting the signal processing circuit and electrically connected to the connection terminal, said signal input pattern having direct current impedance with respect to the connection terminal, said direct current impedance being 10 percent or less of the input impedance of the connection terminal; a different potential pattern having a potential difference of 2 V or over from a potential of the signal input pattern; and a guard pattern having a substantially constant potential and a potential difference of less than 0.5 V from the potential of the signal input pattern, said guard pattern being arranged on at least a portion of the measurement substrate, said at least portion of the measurement substrate being located between the signal input pattern and the different potential pattern.
    • 在气体浓度测定装置中,设置测定基板。 在测量基板中形成导电图形部分。 导体图形部分包括构成信号处理电路的信号输入图案,并且电连接到连接端子,所述信号输入图案相对于连接端子具有直流阻抗,所述直流阻抗为输入阻抗的10%或更小 的连接端子; 与信号输入图案的电位具有2V或更大的电位差的不同电位图案; 以及从信号输入图案的电位具有基本上恒定的电位和小于0.5V的电位差的保护图案,所述保护图案被布置在测量基板的至少一部分上,所述测量基板的至少一部分 位于信号输入图案和不同电位图案之间。
    • 48. 发明申请
    • Via hole machining for microwave monolithic integrated circuits
    • 微波单片集成电路的通孔加工
    • US20070026676A1
    • 2007-02-01
    • US11194419
    • 2005-08-01
    • Ming LiXinbing LiuHiroyuki SakaiMasaaki NishijimaDaisuke Ueda
    • Ming LiXinbing LiuHiroyuki SakaiMasaaki NishijimaDaisuke Ueda
    • H01L21/302
    • B23K26/0624B23K26/40B23K2103/50
    • A method for forming a via in a sapphire substrate with a laser machining system that includes an ultrafast pulsed laser source. The sapphire substrate is provided. Pulses of laser light are substantially focused to a beam spot on the first surface of the sapphire substrate such that each focused pulse of laser light ablates a volume of the sapphire substrate having a depth less than the substrate thickness. The beam spot of the focused laser light pulses is scanned over a via portion of the first surface of the sapphire substrate. The sapphire substrate is moved in a direction substantially normal to the first surface to control the volume of the sapphire substrate ablated by each pulse of laser light to be substantially constant. The pulsing and scanning steps are repeated until the via is formed extending from the first surface to the second surface of the sapphire substrate.
    • 一种在具有包括超快脉冲激光源的激光加工系统的蓝宝石衬底中形成通孔的方法。 提供蓝宝石衬底。 激光的脉冲基本上聚焦到蓝宝石衬底的第一表面上的束斑上,使得每个聚焦的激光脉冲消除了具有小于衬底厚度的深度的蓝宝石衬底的体积。 聚焦激光脉冲的束斑在蓝宝石衬底的第一表面的通孔部分上扫描。 蓝宝石衬底沿着基本上垂直于第一表面的方向移动,以控制由每个激光脉冲消融的蓝宝石衬底的体积基本恒定。 重复脉冲和扫描步骤,直到形成从蓝宝石衬底的第一表面延伸到第二表面的通孔。
    • 50. 发明授权
    • Method of manufacturing glass optical elements
    • 制造玻璃光学元件的方法
    • US07140205B2
    • 2006-11-28
    • US10387454
    • 2003-03-14
    • Yasuhiro FujiwaraZou XueluHiroyuki SakaiShinichiro Hirota
    • Yasuhiro FujiwaraZou XueluHiroyuki SakaiShinichiro Hirota
    • C03B11/02
    • C03C3/062C03B11/08C03B11/086C03B11/122C03B2215/24C03B2215/48C03B2215/73C03C3/16C03C17/22C03C2217/282
    • Disclosed is a method of manufacturing ultraprecise lenses, including aspherical lenses, not requiring grinding or polishing after press molding. The method comprises heating a glass material to a temperature corresponding to a glass viscosity of from 105 to 109 dPaS so that the glass material is softened, and press molding the glass material with the pressing molds which are heated to a temperature corresponding to a glass viscosity of from 108 to 1012 dPaS. Provided that the glass material is not heated to a temperature as high as that corresponding to a glass viscosity of 105 dPaS when the pressing mold is heated to a temperature corresponding to a glass viscosity of 108 and that the glass material is not heated to a temperature as low as that corresponding to a glass viscosity of 109 dPaS when the pressing mold is heated to a temperature corresponding to a glass viscosity of 1012 dPaS. The glass material to be molded comprises at least one selected from the group consisting of Nb2O3, WO3, and TiO2 and has a refractive index nd of greater than or equal to 1.65, an Abbè number (ν d) of less than or equal to 35, and a sag point (Ts) of less than or equal to 570° C. Each of the pressing molds comprises a film comprising carbon on a molding surface.
    • 公开了一种制造超精密透镜的方法,包括非压缩成型后不需要研磨或抛光的非球面透镜。 该方法包括将玻璃材料加热到相当于玻璃粘度为10〜10Pa·s的温度,使得玻璃材料软化,并将玻璃压制成型 将加压模具的材料加热至对应于玻璃粘度为10 8至10 12 dPaS的温度。 假设当加压模具被加热到对应于玻璃粘度10℃的温度时,玻璃材料不被加热到与玻璃粘度为10Pa·dPa·s相当的温度, 8,并且当加压模具被加热到对应于玻璃粘度的温度时,玻璃材料不被加热到与玻璃粘度为10dPa·sPaS对应的温度低的温度 10Pa·dPa·s。 要成型的玻璃材料包括选自Nb 2 O 3 3,WO 3和TiO 2的至少一种, 2,折射率nd大于或等于1.65,Abbè数(nu d)小于或等于35,下垂点(Ts)小于或等于570℃ 每个压模包括在成型表面上包含碳的膜。