31results about "Digital function type" patented technology

A capacitive sensing array device of an electronic apparatus includes sensing electrodes, a shielding conductor layer, a coupling signal source, a constant voltage source and switch modules. The coupling signal source provides a coupling signal coupled to an object. The constant voltage source provides a constant voltage to the shielding conductor layer to form a stable vertical parasitic capacitor between the shielding conductor layer and each sensing electrode. Each switch module is electrically connected to the constant voltage source via the corresponding sensing electrode. When one sensing electrode is selected to perform sensing, the corresponding switch module is configured as an open-circuited state such that the selected sensing electrode is disconnected from the constant voltage source, while the other sensing electrodes are electrically connected to the constant voltage source to form a stable horizontal parasitic capacitor between the selected sensing electrode and the other sensing electrodes.

A capacitance based tactile array sensor is disclosed that provides for close resolution of sensing pixels by using insulated conductors as electrodes, and allows for eliminating the need for a joint or connection interface near periphery of the sensor array. Optional aspects of the invention include provision for allowing use of stretchable conductors, reduction of the burden of number of connections at one layer of conductors in the sensor, providing for differential sensing resolutions at different areas of sensing, and modularity in configuration allowing replacement of a defective sensor pixel in the array. The tactile array sensor may be integrated with surface of a robotic hand's finger, palm, or any other surface of a device that requires multi-point sensing of external contacts. The capacitance information is processed for useful display or control of systems based on the contact feedback.

The present invention relates to an electronic sensor unit, particularly an electronic sensor unit with a lighting device for marking a target region (Y) in order to identify a detection region (X) of said sensor unit. Corresponding sensor units according to the prior art consist of a plurality of individual components, the assembly of which is laborious and error-prone. The electronic motor vehicle sensor unit (1) according to the invention comprises a housing (2), a control and evaluation device (3) arranged in the housing (2), and at least one capacitive sensor electrode (4a, 4b) with a detection region (X, X'), wherein the capacitive sensor electrode (4a, 4b) is coupled to the control and evaluation device (3) and is arranged in the housing (2). The sensor unit further comprises a lighting device (5a) with an illuminant (5c) that can emit an optical signal, wherein the lighting device (5a) is coupled to the control and evaluation device (3), and a target region (Y) identifying the detection region (X) can be marked outside the housing with the lighting device (5a). The housing (2), the control and evaluation device (3), the at least one capacitive sensor electrode (4a, 4b) and the lighting device (5a) form an integrated assembly.

The invention discloses a direct-current level detection circuit between high-speed signal line ports, a system comprising the circuit and a manufacturing method and an application method thereof. Each port corresponding to a high-speed signal line contains a resistor, and resistance value of one resistor is higher than that of the other one. The resistor having a lower resistance value is connected to the ground. The resistor having a larger resistance value is connected to a direct-current voltage source, a lowpass filter and a signal detection port, and therefore, both ports of the high-speed signal line are in a connected state. Change of the level state will be detected by the signal detection ports. Detection of the high-speed signal line in a connected state is realized in the circuit, which does not affect transmission of high-speed signal and is suitable for various circuits, particularly for pluggable modules and corresponding slots. Therefore, multiplex functions of the signal ports are realized by the circuit, accuracy degree of module installation is increased, and compatibility of pluggable modules is improved.

A device with at least one channel for measuring high dynamic range, radio frequency (RF) power levels over broad-ranging duty cycles includes a power sensor circuit comprising at least one logarithmic amplifier; at least one directional RF coupler electrically connected to the at least one power sensor; at least one RF attenuator electrically connected to the at least one RF coupler; and at least one sampling circuit electrically connected to the at least one RF attenuator and the at least one RF coupler. The at least one sampling circuit performs analog-to-digital conversion of electrical signals received to provide digitals signals for measuring the RF power level in the at least one channel.

The present invention provides an LCD detecting system including timing control (TCON) IC. The TCON IC includes a process unit to receive lock signal, a detecting control unit connected with the process unit, and a point-to-point transmission unit connected with the detecting control unit. The detecting control unit detects mode of the point-to-point transmission unit and sends a control signal to the process unit based on a detecting result. The TCON IC transmits timing control signal based on the control signal received by the process unit and starts to transmit normal RGB data. Priority of the control signal transmitted by the detecting control unit is higher than that of the lock signal. The present invention also provides an LCD detecting method. The present invention can increase the speed of detecting and time to market, enhance competitiveness, increase the speed of manufacturing analysis, saves working time and productivity, and reduces cost.

Techniques for evaluating a second version of software. Embodiments selectively route incoming requests to software instances within a plurality of baseline instances and a plurality of canary instances, where the baseline instances run a first software version and the canary instances run the second software version. The software instances are monitored to collect performance data for a plurality of performance metrics. Embodiments calculate aggregate baseline performance metrics, where each of the aggregate baseline performance metrics is calculated based on the collected performance data for the plurality of baseline instances. For each of the performance metrics and canary instances, embodiments calculate a relative performance value that measures the collected performance data for the respective canary instance and for the respective performance metric, relative to the corresponding aggregate baseline performance metric. A final measure of performance is calculated for the second version of software, based on the relative performance values.

The invention discloses a high-dimensional static voltage stability boundary calculation method based on a multidimensional holomorphic embedding method, which belongs to the field of power system analysis. First, the multidimensional holomorphic embedding method containing multiple physical mapping factors is used to solve the power system power flow equation, thereby obtaining The analytical expression of the multivariable power series form of the node voltage; then based on the multidimensional Cauchy-Hadama theorem, the analytical expression of the high-dimensional static voltage stability boundary is derived, and the high-dimensional static voltage stability boundary is calculated. The invention uses a multidimensional holomorphic embedding method containing multiple physical mapping factors and combines the multidimensional Cauchy-Hadama theorem to quickly and accurately calculate the high-dimensional static voltage stability boundary in an analytical form.

The invention relates to gas-discharge electrical instrumentation technology. The device for measuring electromagnetic field intensity comprises a measuring instrument for recording the glow of a gas discharge and a gas-discharge chamber that is formed between electrodes 1 and 2 separated by a dielectric 3. The electrode 1 is cylindrical, while the electrode 2 is in the form of a disk. The electrodes 1 and 2 are coupled to an electrical voltage source, wherein a capacitive element in the form of a pair comprising an antenna 5 and a connection to ground 6 is incorporated into the line coupling the cylindrical electrode 1 to the electrical voltage source. A capacitor 7 with variable capacitance is incorporated into the line coupling the cylindrical electrode 1 to the antenna 5. The technical result consists in providing the possibility of detecting a useful signal in a wide frequency range.

The invention relates to a position sensor (100) for detecting the position of a position transmitter, wherein the position sensor (100) can be connected with a first electrical signal source for emitting a first electrical signal with a first frequency and for A second electrical signal source emitting a second electrical signal with a second frequency is connected, the position sensor having: a primary coil (101) for generating an alternating magnetic field with a first frequency; a first secondary coil (103) and the second secondary coil (105), wherein the first secondary coil (103) and the second secondary coil (105) can be magnetically coupled to the primary coil (101) via position transmitters respectively, and wherein the alternating The magnetic field can induce a third electrical signal in the first secondary coil (103) and a fourth electrical signal in the second secondary coil (105); the frequency converter (101) is used to convert the third electrical signal into a first intermediate frequency signal and for converting a fourth electrical signal into a second intermediate frequency signal, wherein a frequency converter (107) is connectable to a second electrical signal source; and a Goetzel filter bank (109) for The demodulation of the first intermediate frequency signal to obtain the first demodulated signal is used for the demodulation of the second intermediate frequency signal to obtain the second demodulated signal.

To provide a magnetic sensor circuit which does not output spike-like voltage errors to a signal processing circuit. A magnetic sensor circuit is provided which is configured so as to output an output signal to a signal processing circuit through a plurality of hall elements driven by a first switch circuit and a second switch circuit controlled by a second control circuit and in which the first switch circuit controls timings at which spikes occur in the output signal of each of the hall elements in such a manner that the timings are not the same, and the second switch circuit selects and outputs an output signal having a period of a timing free of the occurrence of a spike.