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    • 1. 发明授权
    • Projector system
    • 投影仪系统
    • US5451103A
    • 1995-09-19
    • US222957
    • 1994-04-05
    • Masato HatanakaYuji NagataEiji Takahashi
    • Masato HatanakaYuji NagataEiji Takahashi
    • H04N9/31G03B21/28
    • H04N9/3105
    • A projector rear is simple in structure uses reflection type liquid crystal plates to project images on a screen. R light emitted by a light source is directed to a first liquid crystal plate via a first dichroic mirror. Light reflected from the first liquid crystal plate is reflected toward a projection axis by the first dichroic mirror. B light transmitted through the first dichroic mirror is reflected by a second dichroic mirror and impinges on a second liquid crystal plate. Light reflected by this second liquid crystal plate is again reflected toward the projection axis by the second dichroic mirror. G light is made to directly enter a third liquid crystal plate. G light reflected by the third liquid crystal plate travels along the projection axis. The angular positional relations among optical elements are so set that the angle of incidence to the normal to each dichroic mirror is close to the angle of reflection.
    • 投影机后部结构简单,使用反射型液晶板在屏幕上投影图像。 由光源发射的R光通过第一分色镜被引导到第一液晶板。 从第一液晶板反射的光被第一分色镜朝投影轴反射。 通过第一分色镜的B光被第二分色镜反射并撞击在第二液晶板上。 由第二液晶板反射的光再次通过第二分色镜朝投影轴反射。 G光直接进入第三液晶板。 由第三液晶板反射的G光沿投影轴行进。 光学元件之间的角位置关系被设定为使得与每个分色镜的法线的入射角接近于反射角。
    • 5. 发明授权
    • Titania fine-particle composite and compositions containing the titania fine-particle composite
    • 二氧化钛微粒复合材料和含有二氧化钛微粒复合材料的组合物
    • US08945520B2
    • 2015-02-03
    • US12989145
    • 2009-04-28
    • Eiji Takahashi
    • Eiji Takahashi
    • A61K8/29A61Q17/04C09C1/36A61K8/11A61K8/362A61K8/39A61K8/81B82Y30/00A61Q1/02
    • A61K8/8147A61K8/0241A61K8/11A61K8/29A61K8/345A61K8/362A61K8/39A61K8/8164A61K2800/412A61Q1/02A61Q17/04B82Y30/00C01P2002/82C01P2004/64C01P2006/22C09C1/3661C09C1/3669C09C1/3676C09C1/3692
    • Provided are a novel titania fine-particle composite which has high transparency, high stability, and high ultraviolet-absorbing power and excellent redispersibility, and skin-care external preparations which contain the titania fine-particle composite and exert high ultraviolet protective effect. The titania fine-particle composite can be produced by adding one or more selected from among carboxylic acids and carboxylic acid derivatives represented by general formula (1), and polymers containing the carboxylic acids or carboxylic acid derivatives as a constituent monomer to an aqueous acid dispersion of titania fine particles, and neutralizing the resulting dispersion with an alkali to form a titania fine-particle composite composed of titania fine particles functioning as cores and the carboxylic monomer or polymer deposited on the surface of the cores. In the titania fine-particle composite, titania fine particles functioning as cores have a high degree of crystallization and the intermolecular interaction between titania fine particles and the carboxylic monomer or polymer is strong. Therefore, the titania fine-particle composite can be uniformly dispersed in a dispersion medium to attain high transparency and high stability. Further, skin-care external preparations which exert high ultraviolet protective effect can be produced by adding the titania fine-particle composite.
    • 提供了具有高透明度,高稳定性,高紫外线吸收力和优异的再分散性的新型二氧化钛微粒复合体,以及含有二氧化钛微粒复合体并具有高紫外线保护作用的护肤外用剂。 二氧化钛微粒复合体可以通过将选自由通式(1)表示的羧酸和羧酸衍生物中的一种或多种,​​以及含有羧酸或羧酸衍生物作为构成单体的聚合物加入到酸性分散体 的二氧化钛细颗粒,并用碱中和所得分散体以形成由作为核心的二氧化钛细颗粒和沉积在芯的表面上的羧基单体或聚合物组成的二氧化钛微粒复合体。 在二氧化钛微粒复合体中,作为芯的二氧化钛微粒具有高结晶度,二氧化钛微粒与羧酸单体或聚合物之间的分子间相互作用强。 因此,可以将二氧化钛微粒复合体均匀地分散在分散介质中,以获得高透明性和高稳定性。 此外,通过添加二氧化钛微粒复合体可以制造出具有高紫外线保护作用的护肤外用制剂。
    • 6. 发明授权
    • High-molecular-weight copolymer
    • 高分子量共聚物
    • US08729187B2
    • 2014-05-20
    • US13384929
    • 2010-08-04
    • Eiji TakahashiShinji MarumoGou Mishima
    • Eiji TakahashiShinji MarumoGou Mishima
    • C08F257/02
    • C08F297/02C08F2/06C08F4/48C08F12/22C08F12/24C08F220/18
    • It is an object of the present invention to provide (1) a copolymer for a cured product that is satisfactory in properties, such as adhesion properties, as a chip stacking adhesive or the like. The present invention is a copolymer comprising repeating units represented by formula (I), formula (II), and formula (III), (wherein R1, R2, and R3 each independently represent a hydrogen atom or a methyl group, R4 represents an alkyl group or a cycloalkyl group, R5 represents a hydrogen atom or a C1 to C6 alkyl group, m, n, and k represent a molar ratio of the respective repeating units, m represents a positive number of 0 or more and less than 1, n and k each independently represent a positive number, and satisfy a relation of m+n+k=1), and having a weight-average molecular weight in the range of 50,000 to 200,000.
    • 本发明的目的是提供(1)作为芯片堆叠粘合剂等具有令人满意的固化产物等粘合性能的共聚物。 本发明是包含由式(I),式(II)和式(III)表示的重复单元的共聚物,其中R 1,R 2和R 3各自独立地表示氢原子或甲基,R 4表示烷基 基团或环烷基,R5表示氢原子或C1〜C6烷基,m,n和k表示各重复单元的摩尔比,m表示0以上且小于1的正数,n k分别独立地表示正数,满足m + n + k = 1的关系),重均分子量在50,000〜200,000的范围内。
    • 7. 发明申请
    • TIRE SHAPE TESTING DEVICE AND TIRE SHAPE TESTING METHOD
    • 轮胎形状测试装置和轮胎形状测试方法
    • US20140002641A1
    • 2014-01-02
    • US14005251
    • 2012-03-07
    • Eiji TakahashiToshiyuki Tsuji
    • Eiji TakahashiToshiyuki Tsuji
    • G01M17/02H04N5/225
    • H04N5/2256G01B11/25G01M17/027
    • In order to enable the shape of the surface of a tire including the shoulder sections thereof to be detected, a tire shape testing device comprises: a first linear light application means (10) for applying linear light to the tread section (8) of the tire; a second linear light application means (12) for applying linear light to the sidewall sections (7) of the tire; a third linear light application means (13) for applying linear light to the shoulder sections (9) and to regions outside the shoulder sections (9); and image capturing means (16) for capturing the images of the linear light applied by the first linear light application means (10), the second light application means, and the third linear light applications means (13) and reflected by the surface of the tire.
    • 为了能够检测包括其肩部的轮胎的表面的形状,轮胎形状测试装置包括:第一线性光施加装置(10),用于将线性光施加到胎面部分(8) 胎; 第二线性光施加装置(12),用于向轮胎的侧壁部分(7)施加线性光; 第三线性光施加装置(13),用于向所述肩部(9)和所述肩部(9)外部的区域施加线性光; 以及用于捕获由第一线性光施加装置(10),第二光施加装置和第三线性光应用装置(13)施加的线性光的图像的图像捕获装置(16),并且被第 胎。
    • 10. 发明申请
    • TIRE SHAPE INSPECTION METHOD AND TIRE SHAPE INSPECTION DEVICE
    • 轮胎形状检查方法和轮胎形状检查装置
    • US20110069323A1
    • 2011-03-24
    • US12737009
    • 2009-06-03
    • Eiji TakahashiNaokazu Sakoda
    • Eiji TakahashiNaokazu Sakoda
    • G01B11/24
    • G01B11/25G06T7/0004G06T7/521G06T2207/10028
    • Disclosed is a tire shape inspection method that can reliably and without misidentification perform accurate shape defect inspection in a short period of time by excluding measurement values in a range in which embossed marks are formed from distribution information for surface height measurement values on the sidewall surface of a tire. In the method, a processor automatically detects the positions of the embossed marks based on sample surface shape information obtained from a sample of the tire, and automatically sets coordinate information for a mask range surrounding the area where said marks are present (S2-S15). The processor also causes a surface shape image based on the sample surface shape information and a mask range image based on the coordinate information for the mask range to be displayed superimposed on a display means, and changes the coordinate information for the mask range according to an operating input (S16). The processor also corrects deviation in the coordinate system between the surface height distribution information obtained from the tire undergoing inspection and the coordinate information for the mask range after changing, and excludes measurement values in the mask range from shape defect inspection processing.
    • 公开了一种轮胎形状检查方法,其能够可靠且无误差地在短时间内进行精确的形状缺陷检查,通过将形成有压纹标记的范围内的测量值排除在侧壁表面的表面高度测量值的分布信息 轮胎 在该方法中,处理器根据从轮胎样本获取的样本表面形状信息,自动检测压花标记的位置,并且自动设置围绕存在所述标记的区域的掩模范围的坐标信息(S2-S15) 。 处理器还基于样本表面形状信息和基于要在显示装置上重叠显示的掩模范围的坐标信息的掩模范围图像引起表面形状图像,并且根据显示装置改变掩模范围的坐标信息 操作输入(S16)。 处理器还校正从进行检查的轮胎获得的表面高度分布信息和改变后的掩模范围的坐标信息之间的坐标系中的偏差,并且从形状缺陷检查处理中排除掩模范围内的测量值。