Method for processing and treating a biological fluid with light
    101.
    发明授权
    Method for processing and treating a biological fluid with light 有权
    用光处理和处理生物液体的方法

    公开(公告)号:US07601298B2

    公开(公告)日:2009-10-13

    申请号:US11443927

    申请日:2006-05-31

    Abstract: Apparatus (10), systems and methods are disclosed for treating a biological fluid with light. A container (206) of biological fluid is introduced into a fluid treatment chamber (40) where it is contacted with light provided by one or more light sources (60, 70) in proximity to the fluid treatment chamber (40). A light sensing system (650) senses the intensity of illumination of the light. A radiometer (460) may be inserted into fluid treatment chamber (40) to calibrate the light sensing system (650). An electronic control system (600) utilizes an interface circuit board (606) to interface a computer circuit board (602) to a display panel (37), a user interface panel (39, 39a), a relay circuit board (640), light sensors 404 and various other sensors (649). A detector (385) senses agitating movement of a tray (90) that contains biological fluids. Methods include calibrating (781-785), sensing (770-773) and correcting (774-775) light intensity measurements, and determining the length of treatment (776) to reach a desired illumination dose. A radiometer (460) is equipped with a plurality of light sensors (469) disposed on both sides to measure light intensity in chamber (40) and to provide a reference for calibrating light sensing system (650).

    Abstract translation: 公开了用于用光处理生物流体的装置(10),系统和方法。 将生物流体的容器(206)引入到流体处理室(40)中,在该处理室(40)中,其与靠近流体处理室(40)的一个或多个光源(60,70)提供的光接触。 光感测系统(650)感测光的照明强度。 可以将辐射计(460)插入到流体处理室(40)中以校准光感测系统(650)。 电子控制系统(600)利用接口电路板(606)将计算机电路板(602)与显示面板(37),用户界面面板(39,39a),中继电路板(640), 光传感器404和各种其它传感器(649)。 检测器(385)感测包含生物流体的托盘(90)的搅动运动。 方法包括校准(781-785),感测(770-773)和校正(774-775)光强度测量,以及确定治疗长度(776)以达到期望的照射剂量。 辐射计(460)配备有设置在两侧的多个光传感器(469),以测量室(40)中的光强度并提供用于校准光感测系统(650)的参考。

    UV-C sensitive composition and dosimeter
    102.
    发明授权
    UV-C sensitive composition and dosimeter 失效
    UV-C敏感组合物和剂量计

    公开(公告)号:US07589331B2

    公开(公告)日:2009-09-15

    申请号:US11803303

    申请日:2007-05-14

    CPC classification number: G01J1/429 C08K5/0041 G01J1/50 C08L57/08

    Abstract: The invention is a UV sensitive composition that undergoes a color change upon exposure to a predetermined dosage of UV-C radiation. The UV-C sensitive composition comprises a halogenated polymer, such as polyvinylidene chloride, that produces an acid upon exposure to UV radiation, and a pH sensitive dye. Upon exposure to UV-C radiation, the halogenated polymer undergoes degradation and produces HCl. The pH sensitive dye changes color as a result in an increase in HCl in the system. The composition may also include an acid scavenging composition and/or a diluent to control the amount of HCl produced in the system. The amount of HCl liberated from UV-C exposure may be selectively controlled so that a color change may be produced at a desired UV-C dosage. In some embodiments, the composition may be used to indicate a UV-C dosage from about 100 to 1600 mJ/cm2.

    Abstract translation: 本发明是在暴露于预定剂量的UV-C辐射时经历变色的UV敏感组合物。 UV-C敏感组合物包含在暴露于UV辐射时产生酸的卤代聚合物,例如聚偏二氯乙烯和pH敏感染料。 当暴露于UV-C辐射时,卤化聚合物发生降解并产生HCl。 pH敏感染料会改变颜色,导致系统中HCl的增加。 组合物还可以包括酸清除组合物和/或稀释剂以控制系统中产生的HCl的量。 可以选择性地控制从UV-C曝光释放的HCl的量,使得可以在期望的UV-C剂量下产生颜色变化。 在一些实施方案中,组合物可用于表示约100至1600mJ / cm 2的UV-C剂量。

    ULTRAVIOLET SENSOR AND METHOD OF MANUFACTURING ULTRAVIOLET SENSOR
    103.
    发明申请
    ULTRAVIOLET SENSOR AND METHOD OF MANUFACTURING ULTRAVIOLET SENSOR 审中-公开
    ULTRAVIOLET传感器及其制造方法ULTRAVIOLET SENSOR

    公开(公告)号:US20090184254A1

    公开(公告)日:2009-07-23

    申请号:US12343907

    申请日:2008-12-24

    Applicant: Noriyuki MIURA

    Inventor: Noriyuki MIURA

    CPC classification number: G01J1/429 H01L21/3185 H01L31/109

    Abstract: An ultraviolet sensor capable of separately detecting amount of ultraviolet irradiation of two wavelength range of a UV-A wave and a UV-B wave is provided. The ultraviolet sensor includes: a pair of photodiodes in which a high concentration P-type diffusion layer formed by diffusing a P-type impurity with a high concentration and a high concentration N-type diffusion layer formed by diffusing an N-type impurity with a high concentration, which are formed in a first silicon semiconductor layer on an insulation layer, are opposed to each other with a low concentration diffusion layer, which is formed in a second silicon semiconductor layer thinner than the first silicon semiconductor layer by diffusing one of the P-type impurity or the N-type impurity with a low concentration, interposed therebetween; an interlayer insulation film which is formed on the first and second silicon semiconductor layers; a filter film which is formed on the interlayer insulation layer of one of the photodiodes and formed of a silicon nitride film transmitting rays of a wavelength range of the UV-A wave or a longer wave; and a sealing layer which covers the interlayer insulation film of the other of the photodiodes and the filter film and transmits rays of the wavelength range of the UV-B wave or a longer wave.

    Abstract translation: 提供能够分别检测UV-A波和UV-B波的两个波长范围的紫外线照射量的紫外线传感器。 紫外线传感器包括:一对光电二极管,其中通过扩散具有高浓度的P型杂质形成的高浓度P型扩散层和通过使N型杂质扩散形成的高浓度N型扩散层 形成在绝缘层上的第一硅半导体层中的高浓度通过低浓度扩散层彼此相对,该低浓度扩散层通过使第一硅半导体层中的一个扩散而形成在比第一硅半导体层更薄的第二硅半导体层中 P型杂质或浓度低的N型杂质; 形成在第一和第二硅半导体层上的层间绝缘膜; 形成在一个光电二极管的层间绝缘层上并由氮化硅膜形成的滤光膜,该氮化硅膜透射UV-A波的波长范围的波长或较长的波; 以及密封层,其覆盖另一个光电二极管和滤光膜的层间绝缘膜,并透射UV-B波的波长范围的波长或较长的波。

    LIGHT INTENSITY MEASURING METHOD AND ELECTRONIC DEVICE
    104.
    发明申请
    LIGHT INTENSITY MEASURING METHOD AND ELECTRONIC DEVICE 失效
    光强度测量方法和电子设备

    公开(公告)号:US20090135423A1

    公开(公告)日:2009-05-28

    申请号:US11719217

    申请日:2005-11-07

    CPC classification number: G01J1/429 G01J1/0488 G01J1/50 G02B1/06 G02B26/005

    Abstract: The present invention discloses a method for measuring an intensity of a part of an electromagnetic spectral range, and an electronic device implementing the method. The method comprises the steps of providing an electronic device comprising an optical device (10) comprising at least a first liquid (A) and being placed in front of a sensor (120), the optical device (10) having a transmittance of the part of the electromagnetic spectral range depending on an orientation of at least the first liquid (A); measuring a first intensity of the electromagnetic (EM) spectral range; changing the orientation of at least the first liquid (A); measuring a second intensity of the electromagnetic spectral range; and calculating an intensity of the part of the electromagnetic spectral range from the difference between the first intensity and the second intensity. Consequently, an intensity for a part of the EM spectral range can be measured without the need for a sensor dedicated to this part of the EM spectral range. In particular, an optical element based on the electrowetting principle is used in a mobile phone to measure the intensity of UV radiation.

    Abstract translation: 本发明公开了一种用于测量电磁光谱范围的一部分的强度的方法和实现该方法的电子装置。 该方法包括以下步骤:提供包括至少包括第一液体(A)并被放置在传感器(120)前面的光学装置(10)的电子装置,所述光学装置(10)具有部分的透射率 的电磁光谱范围取决于至少第一液体(A)的取向; 测量电磁(EM)光谱范围的第一强度; 改变至少第一液体(A)的取向; 测量电磁光谱范围的第二强度; 以及从第一强度和第二强度之间的差计算电磁光谱范围的一部分的强度。 因此,可以测量EM光谱范围的一部分的强度,而不需要专用于EM光谱范围的这部分的传感器。 特别地,在移动电话中使用基于电润湿原理的光学元件来测量UV辐射的强度。

    DIAMOND ULTRAVIOLET SENSOR
    105.
    发明申请
    DIAMOND ULTRAVIOLET SENSOR 失效
    金刚石超声波传感器

    公开(公告)号:US20090134403A1

    公开(公告)日:2009-05-28

    申请号:US11720159

    申请日:2005-11-22

    Abstract: In a conventional ultraviolet sensing device using a diamond semiconductor in a light-receiving unit, an Au-based electrode material is used for both a rectifier electrode and an ohmic electrode. However, the Au-based electrode material has fatal defects, such as poor adhesion to diamond, low mechanical strength, and furthermore poor thermal stability.While avoiding complication of the device structure and exploiting the characteristics of a photoconductive sensing device, by using a carbide compound (TiC, ZrC, HfC, VC, NbC, TaC, CrC, MoC, and WC) of a high melting metal having a high mechanical strength for a rectifier electrode and/or a ohmic electrode, there is provided an extremely heat-stable diamond ultraviolet sensor having a light-receiving sensitivity to ultraviolet light having a wavelength of 260 nm or less.

    Abstract translation: 在光接收单元中使用金刚石半导体的常规紫外线感测装置中,Au基电极材料用于整流电极和欧姆电极。 然而,Au系电极材料具有致密缺陷,例如对金刚石的粘附性差,机械强度低,而且热稳定性差。 通过使用高熔点金属的碳化物(TiC,ZrC,HfC,VC,NbC,TaC,CrC,MoC和WC),避免了器件结构的复杂化和利用光电传感器件的特性。 对于整流电极和/或欧姆电极的机械强度,提供了具有260nm以下的波长的紫外线的受光灵敏度的极热稳定的金刚石紫外线传感器。

    Nuclear radiation detection system
    106.
    发明授权
    Nuclear radiation detection system 失效
    核辐射检测系统

    公开(公告)号:US07525099B2

    公开(公告)日:2009-04-28

    申请号:US11699335

    申请日:2007-01-30

    CPC classification number: G01J1/429 G01J1/0488

    Abstract: A nuclear radiation detection system using narrowband UV crystal filters is disclosed. Since the photons produced during the decay of β- and γ-radiation can be detected in the spectral range of about 200-350 nm (the ultraviolet range), UV filter based photo sensors are utilized for detection. The nuclear radiation detection system comprises an optical assembly capable of focusing on a source of radiation, a UV filter assembly having a narrowband UV crystal filter and positioned to receive light transmitted through the optical assembly, and a light detector positioned to receive light transmitted through the UV filter assembly. The narrowband UV crystal filter is fabricated from crystals selected from the group consisting of nickel fluorosilicate, nickel fluoroborate, and potassium nickel sulfate. The nickel fluorosilicate, nickel fluoroborate, and potassium nickel sulfate may be doped to achieve even narrower band filter. The radiation detection system can be used to monitor contamination in a nuclear plant or a nuclear waste dump site. It may also be used for surveillance of contamination in case of a nuclear accident.

    Abstract translation: 公开了使用窄带UV晶体滤波器的核辐射检测系统。 由于可以在大约200-350nm(紫外范围)的光谱范围内检测在β辐射和γ射线衰变期间产生的光子,所以使用基于UV滤光片的光电传感器进行检测。 核辐射检测系统包括能够聚焦在辐射源上的光学组件,具有窄带UV晶体滤波器并被定位成接收透过光学组件的光的UV滤光器组件,以及定位成接收透过光学组件的光的光检测器 紫外线过滤器总成。 窄带UV晶体滤波器由选自氟硅酸镍,氟硼酸镍和硫酸镍镍的晶体制成。 可以掺杂氟硅酸镍,氟硼酸镍和硫酸镍钾以实现更窄的带过滤器。 辐射检测系统可用于监测核电厂或核废料堆场的污染。 也可用于在发生核事故时监视污染。

    Multidirectional ultraviolet sensor
    107.
    发明授权
    Multidirectional ultraviolet sensor 有权
    多向紫外线传感器

    公开(公告)号:US07514693B2

    公开(公告)日:2009-04-07

    申请号:US11808281

    申请日:2007-06-08

    CPC classification number: G01J1/429

    Abstract: A multidirectional ultraviolet sensor includes a substrate and a UV-sensitive layer. The UV-sensitive layer contains nano-sized or micro-sized particles of a UV-sensitive material, which is attached to a top surface of the substrate by sintering process to enable sensing of ultraviolet light incident on the ultraviolet sensor from various directions. The UV-sensitive layer is in contact with a first and a second electrode layer, which are arranged at the top surface or the bottom surface the UV-sensitive layer in the same horizontal plane, or respectively at two opposite sides of the UV-sensitive layer. Since an impedance value of the UV-sensitive layer changes in response to an intensity of incident ultraviolet light, the intensity of the incident ultraviolet light is measured by detecting the impedance of the UV-sensitive layer.

    Abstract translation: 多向紫外线传感器包括基底和UV敏感层。 紫外线敏感层包含紫外线敏感材料的纳米尺寸或微尺寸的颗粒,其通过烧结过程附着到基板的顶表面,以便能够感测从各个方向入射到紫外线传感器上的紫外光。 UV敏感层与第一和第二电极层接触,第一和第二电极层在顶表面或底表面上布置在相同水平面中的UV敏感层,或者分别在UV敏感层的两个相对侧 层。 由于紫外线敏感层的阻抗值响应于入射紫外光的强度而变化,所以通过检测紫外线敏感层的阻抗来测量入射紫外光的强度。

    Insulator for tube having conductive case
    108.
    发明授权
    Insulator for tube having conductive case 有权
    具有导电壳体的管绝缘子

    公开(公告)号:US07456412B2

    公开(公告)日:2008-11-25

    申请号:US11786178

    申请日:2007-04-11

    CPC classification number: H01J47/02 G01J1/429 G01J5/0044

    Abstract: One embodiment includes an electromagnetic sensor which includes a header, an anode connected to a first terminal extending through the header, the anode in electrical isolation from the header, a cathode connected to a second terminal extending through the header, the cathode in electrical isolation from the header, a conductive case including a window transparent to electromagnetic energy, the conductive case enclosing the anode and the cathode and hermetically sealed to the header and an insulative sleeve disposed between the anode and the case and between the cathode and the conductive case.

    Abstract translation: 一个实施例包括电磁传感器,其包括集管,连接到延伸穿过集管的第一端子的阳极,与集管电隔离的阳极,连接到延伸穿过集管的第二端子的阴极, 所述集管,包括对电磁能透明的窗口的导电壳体,所述导电壳体包围所述阳极和所述阴极并气密地密封到所述集管以及设置在所述阳极和所述壳体之间以及所述阴极和所述导电壳体之间的绝缘套筒。

    Device for the uv treatment of flowing fluids
    109.
    发明授权
    Device for the uv treatment of flowing fluids 有权
    用于uv处理流体的装置

    公开(公告)号:US07427763B2

    公开(公告)日:2008-09-23

    申请号:US10567834

    申请日:2004-08-12

    Abstract: A method of operating a UV disinfection device provided with at least one UV emitter, including supplying the emitter with an operating voltage for a firing and continuous operation thereof, modulating the operating voltage, an operating current, or an electrical power of the UV emitter, detecting the UV radiation emitted by the emitter with a UV sensor that is adapted to temporally resolve the modulation, evaluating the signal recorded by the UV sensor, and checking whether the modulation in the signal given off by the sensor corresponds to a desired value.

    Abstract translation: 一种操作设置有至少一个UV发射器的UV消毒装置的方法,包括向发射器提供用于其点火和连续操作的工作电压,调制UV发射器的工作电压,工作电流或电功率, 用适于暂时解析调制的UV传感器来检测由发射器发射的UV辐射,评估由UV传感器记录的信号,以及检查由传感器发出的信号中的调制是否对应于期望值。

    Multidirectional ultraviolet sensor
    110.
    发明申请
    Multidirectional ultraviolet sensor 有权
    多向紫外线传感器

    公开(公告)号:US20080128632A1

    公开(公告)日:2008-06-05

    申请号:US11808281

    申请日:2007-06-08

    CPC classification number: G01J1/429

    Abstract: A multidirectional ultraviolet sensor includes a substrate and a UV-sensitive layer. The UV-sensitive layer contains nano-sized or micro-sized particles of a UV-sensitive material, which is attached to a top surface of the substrate by sintering process to enable sensing of ultraviolet light incident on the ultraviolet sensor from various directions. The UV-sensitive layer is in contact with a first and a second electrode layer, which are arranged at the top surface or the bottom surface the UV-sensitive layer in the same horizontal plane, or respectively at two opposite sides of the UV-sensitive layer. Since an impedance value of the UV-sensitive layer changes in response to an intensity of incident ultraviolet light, the intensity of the incident ultraviolet light is measured by detecting the impedance of the UV-sensitive layer.

    Abstract translation: 多向紫外线传感器包括基底和UV敏感层。 紫外线敏感层包含紫外线敏感材料的纳米尺寸或微尺寸的颗粒,其通过烧结过程附着到基板的顶表面,以便能够感测从各个方向入射到紫外线传感器上的紫外光。 UV敏感层与第一和第二电极层接触,第一和第二电极层在顶表面或底表面上布置在相同水平面中的UV敏感层,或者分别在UV敏感层的两个相对侧 层。 由于紫外线敏感层的阻抗值响应于入射紫外光的强度而变化,所以通过检测紫外线敏感层的阻抗来测量入射紫外光的强度。

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