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    • 4. 发明申请
    • SINGLE-USE MICROFLUIDIC TEST CARTRIDGE FOR THE BIOASSAY OF ANALYTES
    • 一次性使用微生物测试仪器进行生物分析
    • US20120040470A1
    • 2012-02-16
    • US13263356
    • 2010-03-27
    • Ingmar DornAndreas Schade
    • Ingmar DornAndreas Schade
    • G01N21/75
    • B01L3/502B01L2200/16B01L2300/0816
    • A disposable test cassette for qualitative and/or quantitative analysis of analytes, having a structured body having introduced cavities connected to one another by channels, at least one inlet for introducing a sample fluid containing the analyte, at least one reagent chamber in which one or more reagents are stored and at least one detection chamber in which a signal for detection or quantitative analysis of the analyte is detected, wherein a floor or ceiling of the detection chamber is a signal transducer or a window for detection of a signal, fluid cannot be drawn by capillary forces into the reagent chamber or to the opening, and at least the reagents in the reagent chamber are stored in dry form. Also disclosed is an apparatus for bioassaying analytes including the test cassette, and also a method for operating this apparatus.
    • 一种用于对分析物进行定性和/或定量分析的一次性测试盒,其具有通过通道彼此连接的引入空腔的结构体,至少一个用于引入含有分析物的样品流体的入口,至少一个试剂室,其中一个或 存储更多的试剂和至少一个检测室,其中检测到用于分析物的检测或定量分析的信号,其中检测室的底板或天花板是用于检测信号的信号转换器或窗口,流体不能 通过毛细管拉入试剂室或开口,并且至少试剂室中的试剂以干燥形式储存。 还公开了用于生物分析包括测试盒的分析物的装置,以及用于操作该装置的方法。
    • 6. 发明申请
    • METHOD FOR TRACKING CONTAINERS USING A LOW-RATE WIRELESS PERSONAL AREA NETWORK SYSTEM
    • 使用低速无线个人网络系统跟踪集装箱的方法
    • US20090121929A1
    • 2009-05-14
    • US12103775
    • 2008-04-16
    • Carl BindingFrancois B. DolivoReto J. HermannDirk HusemannAndreas Schade
    • Carl BindingFrancois B. DolivoReto J. HermannDirk HusemannAndreas Schade
    • G01S5/02
    • G06Q10/08G06Q10/087G06Q20/203
    • A method for tracking a plurality of containers each joined to an electronic tracking device having routing capabilities and a WPAN-enabled radio receiver/transmitter configured to attempt to connect to a pre-configured WPAN upon being activated comprises activating the radio receiver/transmitter of each tracking device joined to a container being loaded onto a cargo vessel; receiving an indication from each tracking device that fails to connect to the WPAN; intermittently performing a network scan to locate each WPAN-connected tracking device; intermittently configuring the WPAN to include each WPAN-connected tracking device in a hybrid tree-mesh network topology; intermittently configuring routing information stored on each WPAN-connected tracking device to maintain mutual communication with each WPAN-connected tracking device and enable mutual communication between each WPAN-connected tracking device; receiving transport-related data from each WPAN-connected tracking device; transmitting the transport-related data to a control station through a LAN on the vessel; broadcasting a request to be routed between the WPAN-connected tracking devices in a depth-first traversal of the network topology that directs each WPAN-connected tracking device to enter a low-power mode when the depth-first traversal backtracks from the tracking device; and receiving an acknowledgment of the request communicated from each WPAN-connected tracking device when the tracking device enters the low-power mode.
    • 一种用于跟踪多个容器的方法,每个容器各自连接到具有路由功能的电子跟踪设备和被配置为在激活时尝试连接到预配置的WPAN的WPAN启用的无线电接收器/发射机包括:激活每个 跟踪装置连接到被装载到货物容器上的容器; 从每个跟踪装置接收不能连接到所述WPAN的指示; 间歇地执行网络扫描以定位每个WPAN连接的跟踪设备; 间歇地配置WPAN以将每个WPAN连接的跟踪设备包括在混合树网状网络拓扑中; 间歇地配置存储在每个WPAN连接的跟踪设备上的路由信息​​,以维持与每个WPAN连接的跟踪设备的相互通信,并且实现每个WPAN连接的跟踪设备之间的相互通信; 从每个WPAN连接的跟踪设备接收传输相关数据; 通过船上的LAN将运输相关数据传送到控制站; 在所述网络拓扑的深度优先穿越中广播要在所述WPAN连接的跟踪设备之间路由的请求,其在所述深度优先遍历从所述跟踪设备返回时引导每个WPAN连接的跟踪设备进入低功率模式; 以及当所述跟踪设备进入所述低功率模式时,接收从所述每个WPAN连接的跟踪设备传送的所述请求的确认。
    • 7. 发明申请
    • System and method for processing of markup language information
    • 用于处理标记语言信息的系统和方法
    • US20050114762A1
    • 2005-05-26
    • US10893692
    • 2004-07-17
    • Carl BindingReto HermannAndreas Schade
    • Carl BindingReto HermannAndreas Schade
    • G06F17/22G06F17/24
    • G06F17/2247
    • A system and method for processing of markup language information, such as extensible markup language (XML) based control information is disclosed. The system comprises a compression sender entity and a decompression receiver entity. The sender entity uses its internal, binary representation derived from textual XML-based protocol header and encodes the binary representation as a tag-length-value (TLV) binary value. The TLV binary value is embedded as encoded data in a specifically marked comment, which may be detected by the receiver entity. The receiver entity builds up an internal, binary data structure based on the encoded data representing the original XML data. The system avoids the usage of string data to represent a small set of well known strings and uses a more compact binary encoding which reduces space and time to process the data.
    • 公开了一种用于处理标记语言信息的系统和方法,例如基于可扩展标记语言(XML)的控制信息。 该系统包括压缩发送器实体和解压缩接收器实体。 发件人实体使用从基于XML的协议头文件导出的内部二进制表示,并将二进制表示形式编码为标签长度值(TLV)二进制值。 TLV二进制值作为编码数据嵌入特定标记的注释中,可由接收器实体检测。 接收器实体基于表示原始XML数据的编码数据构建内部二进制数据结构。 系统避免使用字符串数据来表示一小部分熟知的字符串,并使用更紧凑的二进制编码,减少处理数据的空间和时间。
    • 10. 发明授权
    • Masking background fluorescence and luminescence in the optical analysis of biomedical assays
    • US07615376B2
    • 2009-11-10
    • US12199317
    • 2008-08-27
    • Thomas KrahnWolfgang PaffhausenAndreas SchadeMartin BechemDelf Schmidt
    • Thomas KrahnWolfgang PaffhausenAndreas SchadeMartin BechemDelf Schmidt
    • G01N21/00C12Q1/02
    • G01N33/542G01N33/5005G01N33/5306G01N33/54393Y10S436/80Y10S436/805Y10S436/823Y10T436/13
    • In a process for the quantitative optical analysis of fluorescently labelled biological cells 5, a cell layer on a transparent support at the bottom 2 of a reaction vessel 1 is in contact with a solution 3 containing the fluorescent dye 4. The sensitivity of analytical detection can be considerably improved if to the fluorescent dye 4 already present in addition a masking dye 9, which absorbs the excitation light 6 for the fluorescent dye 4 and/or its emission light 7, is added to the solution 3 and/or if a separating layer 10 permeable to the solution and absorbing and/or reflecting the excitation light 6 or the emission light 7 is applied to the cell layer at the bottom 2. This process can also be used for improving the sensitivity in the quantitative optical analysis of a luminescent biological cell layer. The separating layer 10 must in this case be composed such that it has a high power of reflection for the luminescent light 11. Analogously, these process principles can also be used in receptor studies for the masking of the interfering background radiation in the quantitative optical analysis of fluorescently or luminescently labelled reaction components. In this case, a receptor layer 12 at the bottom 2 of a reaction vessel 1 is in contact with a solution (supernatant 3) in which a fluorescent or luminescent ligand 13 is dissolved. The sensitivity and accuracy of the analytical detection can be considerably improved here if a masking dye 9 which absorbs the excitation light 6 for the fluorescent dye and/or its emission light or (in the case of luminescent ligands) the luminescent light is added to the supernatant 3. Instead of the masking dye in the solution 3 or optionally as an additional measure, a separating layer 10 permeable to the solution 3 and absorbing and/or reflecting the excitation light 6 and/or the emission light or the luminescent light can be applied to the cell or receptor layer 12 at the bottom 2.