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    • 3. 发明申请
    • METHOD FOR A BATTERY AND PASSIVE POWER SUPPLY TO AN RFID TAG AND A SWITCHING CIRCUIT FOR CARRYING OUT SAID METHOD
    • 电池和被动电源到RFID标签的方法和用于执行方法的切换电路
    • US20110241842A1
    • 2011-10-06
    • US13139552
    • 2009-12-16
    • Kosta KovacicAnton PletersekAndrej Vodopivec
    • Kosta KovacicAnton PletersekAndrej Vodopivec
    • H04Q5/22
    • G06K19/0723G06K19/0702G06K19/0707G06K19/0712G06K19/0717
    • A controlled switching circuit (csc) comprises two controlled switches (cs1, cs2) fabricated with PINTOS transistors and connected between its output terminal as well as a battery (b) or a rectifier rectifying voltage induced in an antenna. Conditions of the battery voltage and the rectified voltage with a time delay are checked. Only when the battery voltage gets unacceptable and the value of rectified voltage exceeded a preset value tag circuits are supplied by the rectified voltage induced in an antenna.The invention provides for an automatic selection of a way of supplying an RFID tag in a way that it is stably supplied by a battery as far as still possible, but just according to the invention this is rendered possible for a longer time due to a very low voltage drop across a controlled switching circuit, and that a supply by a radio-frequency radiation field is selected only when the battery gets depleted.
    • 受控切换电路(csc)包括用PINTOS晶体管制造并连接在其输出端子之间的两个受控开关(cs1,cs2)以及电池(b)或在天线中感应的整流整流电压。 检查电池电压的条件和时间延迟的整流电压。 只有当电池电压不可接受,并且整流电压的值超过预设值时,通过在天线中感应的整流电压来提供标签电路。 本发明提供一种以尽可能的方式自动选择以其由电池稳定供应的方式提供RFID标签的方式,但是根据本发明,这可以由于非常 只有当电池耗尽时才选择通过受控开关电路的低压降,并且仅通过射频辐射场供电。
    • 4. 发明授权
    • RFID label comprising an interface to external sensors
    • RFID标签包括与外部传感器的接口
    • US09239981B2
    • 2016-01-19
    • US13503005
    • 2010-10-13
    • Anton PletersekKosta KovacicAndrej Vodopivec
    • Anton PletersekKosta KovacicAndrej Vodopivec
    • H04Q5/22G08B1/08G08C19/16G06K19/07G06K19/077G01V15/00G06K7/00
    • G06K19/0723G01V15/00G06K7/0008G06K19/0717G06K19/077
    • A sensor-front-end processor (SFEP) predrives external sensors during a predominant part of time. In a low-consumption state it waits to receive a command (sc; st) to acquire and condition sensor signals. After receiving the command it drives the sensors, sets its own measuring range, acquires a coarse code (ccc, vcc) of a current and voltage sensor signal, conditions said signal and acquires a signal fine code (ccf, vcf). The command (sc) is generated in adjustable time intervals. The sensor-front-end processor acquires and conditions the signals from the sensors consecutively one after another. The command (st) is generated whenever a request (irq) to interrupt predriving one of the sensors was generated, i.e. whenever a level of the sensor signal or its relative change with respect to the previous measurement drops out from an interval for this sensor. The detected codes are stored in the memory.
    • 传感器前端处理器(SFEP)在主要部分时间内预先占用外部传感器。 在低消耗状态下,它等待接收命令(sc; st)来获取和调节传感器信号。 收到命令后,驱动传感器,设置自己的测量范围,获取电流和电压传感器信号的粗略代码(ccc,vcc),对所述信号进行条件并获取信号精密代码(ccf,vcf)。 命令(sc)以可调整的时间间隔生成。 传感器前端处理器一个接一个地连续地从传感器获取和调节信号。 每当产生一个中断传感器之一的请求(irq)时,即每当传感器信号的电平或其相对于先前测量的相对变化从该传感器的间隔中消失时,就产生命令(st)。 检测到的代码存储在存储器中。
    • 5. 发明申请
    • RFID Label Comprising an Interface to External Sensors
    • RFID标签包含与外部传感器的接口
    • US20120206240A1
    • 2012-08-16
    • US13503005
    • 2010-10-13
    • Anton PletersekKosta KovacicAndrej Vodopivec
    • Anton PletersekKosta KovacicAndrej Vodopivec
    • G06K7/01
    • G06K19/0723G01V15/00G06K7/0008G06K19/0717G06K19/077
    • A sensor-front-end processor (SFEP) predrives external sensors during a predominant part of time. In a low-consumption state it waits to receive a command (sc; st) to acquire and condition sensor signals. After receiving the command it drives the sensors, sets its own measuring range, acquires a coarse code (ccc, vcc) of a current and voltage sensor signal, conditions said signal and acquires a signal fine code (ccf, vcf). The command (sc) is generated in adjustable time intervals. The sensor-front-end processor acquires and conditions the signals from the sensors consecutively one after another. The command (st) is generated whenever a request (irq) to interrupt predriving one of the sensors was generated, i.e. whenever a level of the sensor signal or its relative change with respect to the previous measurement drops out from an interval for this sensor. The detected codes are stored in the memory.
    • 传感器前端处理器(SFEP)在主要部分时间内预先占用外部传感器。 在低消耗状态下,它等待接收命令(sc; st)来获取和调节传感器信号。 收到命令后,驱动传感器,设置自己的测量范围,获取电流和电压传感器信号的粗略代码(ccc,vcc),对所述信号进行条件并获取信号精密代码(ccf,vcf)。 命令(sc)以可调整的时间间隔生成。 传感器前端处理器一个接一个地连续地从传感器获取和调节信号。 每当产生一个中断传感器之一的请求(irq)时,即每当传感器信号的电平或其相对于先前测量的相对变化从该传感器的间隔中消失时,就产生命令(st)。 检测到的代码存储在存储器中。
    • 6. 发明授权
    • Method for a battery and passive power supply to an RFID tag and a switching circuit for carrying out said method
    • 用于电池的方法和用于RFID标签的无源电力以及用于执行所述方法的切换电路
    • US09239980B2
    • 2016-01-19
    • US13139552
    • 2009-12-16
    • Kosta KovacicAnton PletersekAndrej Vodopivec
    • Kosta KovacicAnton PletersekAndrej Vodopivec
    • H04Q5/22G06K19/07
    • G06K19/0723G06K19/0702G06K19/0707G06K19/0712G06K19/0717
    • A controlled switching circuit (csc) comprises two controlled switches (cs1, cs2) fabricated with PINTOS transistors and connected between its output terminal as well as a battery (b) or a rectifier rectifying voltage induced in an antenna. Conditions of the battery voltage and the rectified voltage with a time delay are checked. Only when the battery voltage gets unacceptable and the value of rectified voltage exceeded a preset value tag circuits are supplied by the rectified voltage induced in an antenna.The invention provides for an automatic selection of a way of supplying an RFID tag in a way that it is stably supplied by a battery as far as still possible, but just according to the invention this is rendered possible for a longer time due to a very low voltage drop across a controlled switching circuit, and that a supply by a radio-frequency radiation field is selected only when the battery gets depleted.
    • 受控切换电路(csc)包括用PINTOS晶体管制造并连接在其输出端子之间的两个受控开关(cs1,cs2)以及电池(b)或在天线中感应的整流整流电压。 检查电池电压的条件和时间延迟的整流电压。 只有当电池电压不可接受,并且整流电压的值超过预设值时,通过在天线中感应的整流电压来提供标签电路。 本发明提供一种以尽可能的方式自动选择以其由电池稳定供应的方式提供RFID标签的方式,但是根据本发明,这可以由于非常 只有当电池耗尽时才选择通过受控开关电路的低压降,并且仅通过射频辐射场供电。
    • 9. 发明申请
    • Voltage Comparator
    • 电压比较器
    • US20080204083A1
    • 2008-08-28
    • US11667405
    • 2005-11-09
    • Vinko KuncAndrej Vodopivec
    • Vinko KuncAndrej Vodopivec
    • H03K5/24
    • H03K5/2481
    • Output currents from differentially connected transistors (t1, t2) in a voltage comparator are subtracted from each other and the current difference is converted into voltage, which is amplified and conducted to a gate terminal (gtst) of a switching transistor (t7) at the input of an output stage. A source of a limiting transistor (t8′), whose gate is connected to a terminal (vsn) of the low supply voltage through two series-connected and diode-connected transistors (t8″, t8′″) is connected to the gate terminal (gtst). The voltage at the gate terminal (gtst) when the switching transistor (t7) is quiescent is equal to a value between eight and nine tenths of the switching voltage Vsw at the gate of said transistor, at which voltage said transistor triggers a switching in the output stage. Said transistors are of the same type with a similar geometry and they operate in similar current conditions.The voltage comparator of the invention achieves a fast response to an input voltage change at one direction of the sign reversal of the difference of the input voltages. It is robust and reliable with regard to temperature variations and any change in the technological layout.
    • 将电压比较器中差分连接的晶体管(t 1,t 2)的输出电流相互减去,并将电流差转换为电压,该电压被放大并传导到开关晶体管的栅极端子(gtst) )在输出级的输入端。 通过两个串联和二极管连接的晶体管(t 8“,t 8”“),其栅极连接到低电源电压的端子(vsn)的限制晶体管(t 8')的源极是 连接到门终端(gtst)。 当开关晶体管(t 7)静止时,栅极端子处的电压(gtst)等于所述晶体管的栅极处的开关电压Vsw的八到九分之一的值, 输出阶段。 所述晶体管具有相似的几何形状的类型,并且它们在类似的电流条件下工作。 本发明的电压比较器实现对输入电压差的符号反转的一个方向上的输入电压变化的快速响应。 对于温度变化和技术布局的任何变化,它是可靠和可靠的。
    • 10. 发明授权
    • Isolation interface with capacitive barrier and method for transmitting a signal by means of such isolation interface
    • 具有电容性屏障的隔离接口和通过这种隔离接口发送信号的方法
    • US06819169B1
    • 2004-11-16
    • US10626862
    • 2003-07-25
    • Vinko KuncAndrej Vodopivec
    • Vinko KuncAndrej Vodopivec
    • G06G712
    • H04L25/0266H04L25/085H04L25/4902
    • A transmission of a signal through an isolation interface with a capacitive barrier is performed so that in an input circuit of the interface by integrating with an appropriate time constant the slope rates of the edges of signal replicas U1o± of the transmitted input signal Ui are adjusted and that the said signal replicas are differentiated either in an appropriate differentiating unit, whereat the time constants of these differentiating units are shorter than the rising and falling-off times of the signal replicas and are advantageously in the order of magnitude of 1 nanosecond or below. Therefore, in a circuit on the output side of the capacitive barrier no amplifier in front of voltage comparators is needed, which makes it possible that the pulse width is maintained extremely precisely. The data transmission is immune from the fast variation in the order of magnitude of 10 kV/&mgr;s of the potential difference between the voltage supplying sources for the input and the output circuits. By the invention a digital data transmission up to the frequency of 100 MHz is rendered possible.
    • 执行通过具有电容性屏障的隔离接口的信号的传输,使得在接口的输入电路中通过与适当的时间常数进行积分,调整发射的输入信号Ui的信号副本U1o±的边沿的斜率 并且所述信号副本在适当的微分单元中被区分,其中这些微分单元的时间常数比信号副本的上升和下降时间短,并且有利地在1纳秒或更低的量级 。 因此,在电容性屏障的输出侧的电路中,不需要在电压比较器前面的放大器,这使得脉冲宽度可以保持非常精确。 数据传输免受输入和输出电路的电压源之间的电位差10千伏/立方米的快速变化。 通过本发明,可以实现高达100MHz频率的数字数据传输。