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    • 1. 发明申请
    • Dye Laser Medium, Dye Laser Device, and Laser Sensor
    • 染料激光介质,染料激光设备和激光传感器
    • US20080298422A1
    • 2008-12-04
    • US12087589
    • 2007-01-26
    • Tsuyoshi KawaiTakuya Nakashima
    • Tsuyoshi KawaiTakuya Nakashima
    • H01S3/20
    • H01S3/213C07D233/58G01N21/75H01S3/20
    • Although having been used for conventional dye laser solvents, organic solvents have a disadvantage of volatility and inflammability, which makes a dye laser device large and cumbersome. In the present invention, which has been developed to solve this problem, an ionic liquid is used as the dye laser solvent. An organic dye stably dissolves in an ionic liquid and the light-emitting property is almost comparable to the case where an organic solvent is used. Since ionic liquids do not have volatility and inflammability, the dye laser medium according to the present invention is extremely easy to handle. In addition, it also has a property that the photobleach is extremely low compared to conventional dye laser mediums using an organic solvent as the solvent thereof. It is easy to obtain a laser sensor for detecting a predetermined specimen with high sensitivity using the dye laser medium according to the present invention.
    • 虽然已经用于常规的染料激光溶剂,但有机溶剂具有挥发性和易燃性的缺点,这使得染料激光装置大而繁琐。 在为了解决这个问题而开发的本发明中,使用离子液体作为染料激光溶剂。 有机染料稳定地溶解在离子液体中,并且发光性能几乎与使用有机溶剂的情况相当。 由于离子液体不具有挥发性和易燃性,所以根据本发明的染料激光介质是非常容易处理的。 此外,与使用有机溶剂作为其溶剂的常规染料激光介质相比,它还具有光漂白剂非常低的性质。 使用根据本发明的染料激光介质,可以容易地获得用于以高灵敏度检测预定样本的激光传感器。
    • 7. 发明申请
    • BATTERY PACK
    • 电池组
    • US20120263991A1
    • 2012-10-18
    • US13515193
    • 2011-09-21
    • Hiroshi TemmyoTakuya NakashimaTakashi Nakagawa
    • Hiroshi TemmyoTakuya NakashimaTakashi Nakagawa
    • H01M2/02H01M2/14H01M10/50
    • H01M2/1077H01M2/1252H01M10/613H01M10/625H01M10/643H01M10/6555H01M10/6563
    • Each battery module 100 includes a holder 20 accommodating cells 10 and made of a thermal conductive material, and a rectangular solid case 30 accommodating the holder 20. The holder 20 includes containers 21, in each of which one of the cells 10 is accommodated. The case 30 has a first side surface 30a and a second side surface 30b, which are parallel to side surfaces of the containers 21 of the holder 20, and face each other. The battery pack 200 is formed by stacking the battery modules 100 in a direction that the first side surface 30a and the second side surface 30b overlap each other. Spacers 50a and 50b, each of which has a predetermined width, are provided between adjacent two of the battery modules 100, at both ends of the first and second side surfaces 30a and 30b of the case 30 in a width direction, along a direction perpendicular to the width direction. The spacers 50a and 50b form a gap 60, through which a cooling medium flows, between the first and second side surfaces 30a and 30b.
    • 每个电池模块100包括容纳电池10并由导热材料制成的保持器20和容纳保持器20的矩形固体外壳30.保持器20包括容纳在容器21中的容器21,每个电池单元10中的一个被容纳。 壳体30具有平行于保持器20的容器21的侧面的第一侧面30a和第二侧面30b,并且彼此面对。 电池组200通过在第一侧表面30a和第二侧表面30b彼此重叠的方向上堆叠电池模块100而形成。 在相邻的两个电池模块100之间,在宽度方向上的壳体30的第一和第二侧表面30a和30b的两端,沿着垂直方向的方向设置有具有预定宽度的间隔件50a和50b 到宽度方向。 间隔件50a和50b在第一和第二侧表面30a和30b之间形成间隙60,冷却介质通过该间隙流动。
    • 9. 发明申请
    • DETERIORATION DETERMINATION CIRCUIT, POWER SUPPLY APPARATUS, AND DETERIORATION DETERMINATION METHOD OF SECONDARY BATTERY
    • 检测确定电路,电源装置及二次电池的检测方法
    • US20100001693A1
    • 2010-01-07
    • US12493642
    • 2009-06-29
    • Takuma IIDAAkihiro TaniguchiTakuya Nakashima
    • Takuma IIDAAkihiro TaniguchiTakuya Nakashima
    • H02J7/00G01N27/416
    • G01R31/3679H01M10/345H01M10/425H01M10/4285H01M10/48
    • Provided is a deterioration determination circuit configuring by including: an SOC detection unit for detecting an SOC of a secondary battery; an internal resistance detection unit for detecting an internal resistance value of the secondary battery; a first determination unit for determining the status of deterioration of the secondary battery based on the internal resistance value detected by the internal resistance detection unit when the SOC detected by the SOC detection unit is within a range of a pre-set first range; a second determination unit for determining the status of deterioration of the secondary battery based on the internal resistance value detected by the internal resistance detection unit when the SOC detected by the SOC detection unit is within a range of a pre-set second range as a range of an SOC, in which a variation of the internal resistance of the second battery in relation to a variation of the SOC of the secondary battery is different from the first range; and a final determination unit for ultimately determining that the secondary battery is deteriorated when the first determination unit determines that the secondary battery is of the deteriorated status and the second determination unit additionally determines that the secondary battery is of the deteriorated status.
    • 提供一种劣化判定电路,其包括:SOC检测单元,用于检测二次电池的SOC; 内部电阻检测单元,用于检测二次电池的内部电阻值; 第一确定单元,用于当由SOC检测单元检测到的SOC在预定的第一范围的范围内时,基于由内部电阻检测单元检测的内部电阻值来确定二次电池的劣化状态; 第二确定单元,用于当由SOC检测单元检测到的SOC在预定的第二范围的范围内时,基于由内部电阻检测单元检测到的内部电阻值来确定二次电池的劣化状态, 其中第二电池的内部电阻相对于二次电池的SOC的变化的变化与第一范围不同; 以及最终确定单元,用于当所述第一确定单元确定所述二次电池处于劣化状态并且所述第二确定单元另外确定所述二次电池处于劣化状态时,最终确定所述二次电池劣化。