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    • 11. 发明专利
    • PROTOCOLO DE SISTEMA INALAMBRICO PARA MONITOR TELEMETRICO.
    • ES2300328T3
    • 2008-06-16
    • ES01930556
    • 2001-04-17
    • MOTOROLA INC
    • KHAIR MOHAMMADNG RICHARDLOPEZ SALVADORGHAEM SANJAROLSON WILLIAM L
    • A61B5/00A61B5/04A61B5/0408A61B5/0476A61B5/0488A61N1/08H04B7/26
    • Un método para supervisión médica en un sistema inalámbrico, teniendo el sistema inalámbrico una unidad base (18) y al menos un sensor inalámbrico para conexión al cuerpo del paciente (12), incluyendo el método: dotar a dicho sensor inalámbrico de un conjunto transceptor (20) para transmitir y recibir comunicaciones inalámbricas con dicha unidad base (18); dotar a la unidad base (18) de un transceptor inalámbrico (54) para transmitir y recibir comunicaciones inalámbricas con dichos sensores, incluyendo dichas comunicaciones inalámbricas órdenes; y proporcionar un conjunto de instrucciones ejecutables en dicha unidad base (18) donde dicha unidad base (18) puede emitir dichas órdenes a dicho conjunto transceptor (20) en respuesta a la ejecución de dichas instrucciones, respondiendo dicho conjunto transceptor (20) a dichas órdenes según instrucciones almacenadas en dicho transceptor; donde dichas órdenes procedentes de dicha unidad base (18) y respuestas a dichas órdenes procedentes de dicho conjunto transceptor permiten que dicha unidad base (18) gestione y configure a distancia dicho conjunto transceptor (20) en tiempo real antes o durante un período de tiempo en el que dicho conjunto transceptor (20) está adquiriendo señales fisiológicas de dicho paciente (12) y transmitiendo datos correspondientes a dichas señales fisiológicas a dicha unidad base (18); donde dichas órdenes incluyen una asignación de un número de identificación de dicho transceptor inalámbrico y una asignación de una posición funcional de dichos sensores inalámbricos en dicho paciente (12).
    • 15. 发明专利
    • Improved RF tagging system with multiple decoding modalities
    • AU671230B2
    • 1996-08-15
    • AU6907694
    • 1994-05-09
    • MOTOROLA INC
    • LAURO GEORGE LGHAEM SANJARISTVAN RUDYARD L
    • G08B13/24G08B13/14G08B26/00G06F7/04
    • An RF tagging system includes an RF tag (10, 30) and an RF tag reader 80. The RF tag includes a plurality of RF resonant circuits. Each RF resonant circuit is resonant at a given RF frequency. A group of decoder RF resonant circuits (12, 32) have resonant frequencies defining one of a plurality of predetermined decoding modalities. A group of data RF resonant circuits (14, 34) have resonant frequencies corresponding to a predetermined identification code when the resonant frequencies of the data RF resonant circuits are decoded in accordance with the one decoding modality. The RF tag reader detects the resonant frequencies of the decoder RF resonant circuits and determines the one decoding modality. The RF tag reader is operative in each of the plurality of predetermined decoding modalities, detects the resonant frequencies of the group of data RF resonant circuits, and decodes the resonant frequencies of the group of data RF resonant circuits in accordance with the one decoding modality to provide the identification code. The decoder RF resonant circuits may also indicate the number of data RF resonant circuits on the RF tag. The RF tag reader determines the predetermined number from the decoder RF resonant circuits to confirm the accurate detection of the data RF resonant circuits. The RF tag reader, when selecting a decoding modality in accordance with the detected resonant frequencies of the decoder RF resonant circuits, determines various frequency bands and alters the RF tag reader frequency detection operation for accurate detection of the data RF resonant circuits.
    • 16. 发明专利
    • RF tagging system and RF tags and method
    • AU660246B2
    • 1995-06-15
    • AU5445694
    • 1993-10-20
    • MOTOROLA INC
    • GHAEM SANJARISTVAN RUDYARD LLAURO GEORGE L
    • G08B13/24G09F3/00H05K3/12H05K1/16
    • RF tagging system (10) has a plurality of resonant circuits (13) on a tag (12). When the tag (12) enters a detection zone (14), the system determines the resonant frequency of each of the resonant circuits (13) and produces a corresponding code. Preferably, resonant frequency detection is implemented by simultaneously radiating signals at each possible resonant frequencies for the tag circuits (13). The system is useful for coding any articles such as baggage or production inventory. Preferably, the radiated signals are phase shifted during the detection process, and signals received by receiver antennas, besides transmitter signals, may be monitored to improve the reliability of detecting the resonant circuits (13). Also, a preferred step adjustment configuration for capacitive metalizations (106, 110) of the resonant circuits is described. For radiating signals into the detection zone (14), focused beam antennas (201) may be used such that each resonant circuit location on the tag can be separately monitored. Also, an apparatus (300) for producing customized resonant circuit tags in accordance with a specified input code is described.
    • 20. 发明专利
    • AT391456T
    • 2008-04-15
    • AT01937300
    • 2001-05-10
    • MOTOROLA INC
    • KHAIR MOHAMMADLOPEZ SALVADORNG RICHARDGHAEM SANJAROLSON WILLIAM
    • A61B5/021A61B5/00A61B5/022A61B5/024
    • A blood pressure sensor includes a source of photo-radiation, such as an array of laser diodes. The sensor also includes a two-dimensional, flexible reflective surface. The reflective surface is nominally positioned relative to the radiation source such that the radiation travels in a direction normal to the reflective surface. The reflective surface is placed adjacent to the location on the patient where the blood pressure data is to be acquired. Radiation from the source is reflected off of the reflective surface onto a two-dimensional array of photo-detectors. Systolic and diastolic blood pressure fluctuations in the patient are translated into deflections of the patient's skin. These deflections cause corresponding deflections in the two dimensional reflective surface. The associated movement of said flexible reflective surface due to blood pulsation causes scattering patterns from said reflective surface to be detected by the two dimensional array of photo-detectors. The output from the array of photo-detectors is calibrated to blood pressure in mmHg during a calibration procedure to obtain a set of calibration relationships for one or more of the individual detectors. The calibration relationship are then used during acquisition of blood pressure data to arrive at blood pressure data.