Abstract: A ground and test (G&T) device includes a test device housing having load and line conductors and a plurality of upper terminals and plurality of lower terminals carried by the test device housing and configured to engage the load and line conductors when the test device housing in installed within the compartment of the switchgear frame. A lower ground bus bar is carried by the test device housing and a plurality of grounding bars selectively connect either the upper terminals to the lower ground bus bar or connect the lower terminals to the lower ground bus bar. A ground shoe assembly is connected to the lower ground bus bar and configured to engage a grounding circuit carried by the switchgear frame.

Abstract: A method is disclosed for locating an earth fault in a DC network, to which multiple load zones are connectable. Each load zone has two symmetrically earthed load zone lines. In an embodiment of the method, for each load zone line, a line voltage is continuously measured between a line potential, at which the load zone line lies, and an earth potential. In the event that an earth fault is detected at a main line of the DC network, the main lines are separated from both load zone lines of a load zone and the earth fault is assigned to this load zone, if a magnitude difference between the magnitudes of the line voltages of the two load zone lines of this load zone are not significantly reduced after separating the main lines from the load zone lines.

Abstract: A testing device for testing electronic devices includes a test controller and a wireless power transmission system. The test controller is configured to generate testing signals for transmission to at least one of the plurality of electronic devices and receive testing data, in response to the testing signals. The wireless power transmission system is configured to receive the testing signal from the test controller, generate a power signal and a first asynchronous serial data signal in accordance with a wireless power and data transfer protocol, the first asynchronous serial data signal based on the testing signals, decode the power signal to extract a second data signal compliant with the wireless power and data transfer protocol, and decode the second data signal compliant with the wireless power and data transfer protocol to extract a second asynchronous serial data signal, the second asynchronous serial data signal based on the testing data.

Abstract: A method is provided to increase processor frequency in an integrated circuit (IC). The method includes identifying a gate included in the IC, the gate having a gate threshold voltage and performing a plasma process to form an antenna signal path in signal communication with the gate. The method further comprises adjusting the plasma process or circuit design to increase plasma induced damage (PID) applied to the gate so as to alter the gate threshold voltage.

Abstract: In a method for operating an absolute measuring position detection system having a sensor arrangement (100) and a single-track magnetic code object (105) with non-repeating code regions, wherein the sensor arrangement (100) is formed by a substantially linear arrangement of a plurality of magnetic field sensors (110), it is provided in particular that the relative position of the sensor arrangement (100) with respect to the respective code object (105) is determined by searching for a partial pattern which is most similar to a currently sensor-detected partial pattern on the basis of available reference data containing magnetic curve progressions or magnetic patterns of magnetic field vector components detected by sensors for the entire code object (105) depending on the position on the code object (105).

Abstract: A device comprises at least one pair of excitation electrodes forming a capacitor; a floorplan (e.g., a ground plane); and an electronic circuit. The device comprises at least one control electrode arranged at a distance from the capacitor. A switching circuit, of the device, comprises a switch having an open state and a closed state. The switching circuit is designed to apply, to the control electrode, an electric potential common to the floorplan when the switch is in the closed state. The switching circuit is also designed to leave a floating electrical potential for the control electrode when the switch is in the open state. The electronic circuit is designed to measure the mutual capacitance between the pair of excitation electrodes when the switch is in the open state and when it is in the closed state.

Abstract: An integrated circuit device, a semiconductor substrate, and a test system including the integrated circuit device are disclosed. The integrated circuit device includes a power terminal configured to receive a source voltage, a power via connected to the power terminal and passing through at least one of a number of layers, a number of inductive vias arranged apart from the power via and passing through at least one of the number of layers, a number of wirings connected to ends of at least some of the number of inductive vias and configured to form a coil wound in toroidal form together with the number of inductive vias, around the power via, and a test terminal configured to output an induced voltage in the coil externally of the integrated circuit device, in response to the supply of the source voltage.

Abstract: A circuit for sensing the driving current of a motor, the circuit comprising: a driver configured to generate a driving current for each phase of a multiple-phase motor, the instantaneous sum of all the driving currents being zero; a current sensor for each phase of the multiple-phase motor, each current sensor configured to measure the driving current of that phase and comprising a plurality of current sensor elements arranged with respect to each other such that each current sensor element has the same magnitude of driving current systematic error due to magnetic fields external to the driving current to be measured; and a controller configured to, for each phase of the multiple-phase motor, generate an estimate of the driving current of that phase to be the measured driving current of that phase minus 1/n of the total of the measured driving currents for all phases, n being the number of phases of the multiple-phase motor.

Abstract: An electronic circuit triage device diagnoses functionality of various electronic circuits of an electronic device. The electronic circuit triage device detects whether an electronic circuit is functioning properly by measuring a magnetic field pattern associated with the electronic circuit and comparing the magnetic field pattern to an expected magnetic field pattern. A magnetic sensor array includes non-packaged magnetic sensors disposed on a substrate. The non-packaged magnetic sensors can include bare dice, in one embodiment. In another embodiment, the magnetic sensors are formed directly on the substrate, such as by printing conductive traces on the substrate. In another embodiment, a magnetic sensor array includes a magnetic field converter configured to launch received magnetic fields along an axis corresponding to a magnetic sensor maximum sensitivity.

Abstract: An integrated circuit (IC) comprising: a margin measurement circuit configured to monitor multiple data paths of the IC and to output, at different times, different ranges of remaining margins of the multiple data paths; a workload sensor configured to output a value representing aggregate operational stress experienced by the IC over a period of time ending at each of the different times; and a processor configured to: (i) compute, based on the value output by said workload sensor, an upper bound and a lower bound of change of the remaining margin of the IC, and (ii) compute upper and lower bounds of a current remaining margin of the IC, based on (a) the upper and lower bounds of change, and (b) a remaining margin indicated by a border between two adjacent ranges outputted by the margin measurement circuit.

Abstract: A chip crack detection apparatus includes a function circuit and a die crack detection module surrounding the function circuit. The die crack detection module includes a front-end-of-line device layer, a laminated structure on the front-end-of-line device layer that includes a conducting wire in the laminated structure, a detection interface, and a capacitor at the front-end-of-line device layer. A first end of the conducting wire is configured to connect to a positive electrode of a power supply. A second end of the conducting wire is configured to connect to a negative electrode of the power supply. The capacitor is connected in parallel between the first end and the second end of the conducting wire. The detection interface is coupled with the conducting wire between the first end and the second end of the conducting wire. The detection interface is configured to detect whether a die crack occurs in the chip.

Abstract: A new load-pull tuner system using two-probe waveguide slide screw tuners of which the probes share the same waveguide section; they are inserted diametrically at fixed depth facing each other into slots on opposite broad walls of the waveguide. An adjustable broadband attenuator made using a resistive septum is inserted between the test port and the tuning probes. The tuner does not have cumbersome adjustable vertical axes controlling the penetration of the probes and its low profile is optimized for on-wafer operations. The carriages holding the probes are moved along the waveguide using electric stepper motors or linear actuators.

Abstract: A connecting device for electrically connecting signal contact portions of an electrical device under test includes a lower modular unit and an upper modular unit. The lower modular unit includes a port substrate and a plurality of lower connecting terminals electrically connected with the port substrate. The upper modular unit is disposed above the lower modular unit and includes a plurality of upper connecting terminals movable relative to an upper wall. The upper connecting terminals are movable as a result of a downward pressing of the electrical device to the upper modular unit to project outwardly of the upper wall and to electrically connect with the signal contact portions. The upper connecting terminals are electrically connected with the lower connecting terminals.

Abstract: A flame ionization detector includes a burner to combust an oxygen-containing sample gas in a gas flame in the presence of air and while supplying a hydrogen-containing combustion gas. A measurement device measures an ion current from the gas flame to an electrode, and a temperature sensor measures a temperature of the gas flame. An evaluation device evaluates the measured ion current and compensates during evaluation of the measured ion current for a cross-sensitivity of the ion current to oxygen in the sample gas using the measured temperature of the gas flame.

Abstract: Test structures on a wafer are provided. A plurality of cells are arranged in rows and columns of a test array. First and second output pads are formed on opposite sides of the test array. A first output pad is coupled to the cells in one half of the rows of the test array. A second output pad is coupled to the cells in the other half of the rows of the test array. Each first input pad is coupled to the cells in respective column of the test array. Each second input pad is coupled to the cells in respective row of the test array. When a first voltage is applied to one of the first input pads and a second voltage is applied to one of the second input pads, current flowing through the turned-on cell is measured through the first or second output pad.

Abstract: A system has a measuring device adapted to provide a readout indicating a physiological condition of a subject, a machine readable optical code on or closely proximate the measuring device, an imaging apparatus associated with a specific subject, the imaging apparatus having an Internet connection, an image recognition module adapted to process image features to identify the measuring device, and to process the readout portion of the image to determine the physiological condition, and an internet-connected server coupled to a data repository, the Internet-connected server executing coded instructions on a processor. The physiological measuring device is engaged, providing the readout of the physiological condition of the subject, an image of the measuring device including the readout and the machine-readable optical code is captured by the imaging apparatus, and the image is transmitted to the Internet connected server.

Abstract: A failure detection system for an energy network includes a radio frequency (RF) receiver adapted to be coupled with or in close proximity to the energy network, the RF receiver providing an amplitude modulated RF signal; an RF amplifier receiving the amplitude modulated RF signal and providing an amplified signal; an envelope detector receiving the amplitude modulated RF signal and providing a demodulated envelope signal; an optional algorithm implementation system receiving the demodulated envelope signal, where the optional algorithm implementation system processes the demodulated envelope signal by one or more of a Fast Fourier transform (FFT) trigger system and a phase-locked loop (PLL) trigger system; and a signature output that is the overall output signal of the failure detection system, wherein the signature output is adapted to indicate whether the energy network is experiencing partial discharge.

Abstract: A test-and-measurement probe (200) for a test-and-measurement instrument (101), the test-and-measurement probe having a probe head (103) and a touchscreen user interface (250). The probe head is configured to obtain a signal from a device under test. The touchscreen user interface is configured to visually convey test-and-measurement information to a user and to accept user touch input. In embodiments, the touchscreen user interface is removably connected to a compbox (105) of the test-and-measurement probe, through a wired connection or wirelessly.

Abstract: A fault identification apparatus includes a detector and a plug interface connected with the detector, where the plug interface includes a first measuring terminal and a second measuring terminal; when fault identification is performed for a PSU in a communication apparatus under test, the first measuring terminal is connected with a first end of the PSU, and the second measuring terminal is connected with a second end of the PSU; and the detector obtains a voltage value between the first measuring terminal and the second measuring terminal to determines whether a failure occurs to the PSU based on the voltage value.

Abstract: Systems, devices, and associated methods are provided for testing and tuning radiofrequency (RF) modules. An example system includes a test station including an imaging device, a measurement device, and a robotic arm. The system may include a rotary stage coupled with the robotic arm, measurement probes disposed in the rotary stage and operably coupled with the measurement device, and tuning tips disposed in the rotary stage. The system may include a galvo scanner and laser to remove conductive material. In operation, the test station may perform a testing procedure on an RF module where the measurement probes generate testing data indicative of testing parameters. The test station may perform a tuning procedure on the RF module where a tuning tip or the laser modifies the RF module based on the testing parameters. The testing and tuning may be performed by a user, semi-autonomously, or autonomously.