Abstract: The present invention includes methods for the detection of neurotransmission or developmental disorders, including, but not limited to, myasthenia gravis that is seronegative for autoantibodies to the acetylcholine receptor (AChR) and/or muscle specific tyrosine kinase (MuSK), the method including detecting autoantibodies that bind to LRP4, or an epitope thereof. Also included are methods for the treatment of an individual suffering from a neurotransmission disorder, the method including detecting in a bodily fluid of the individual autoantibodies that bind to LRP4, or an epitope thereof, and administering to the patient an effective amount an immunosuppressant and/or another appropriate therapeutic modality. Also included are antibodies that bind to autoantibodies to LRP4 and kits for the detection of neurotransmission or developmental disorders.

Abstract: Systems and methods are provided for determining the age of cellular hemoglobin in individual red blood cells in a blood sample by determining the percentage of HbA1c. In embodiments, a method includes measuring side scatter and fluorescence of the individual red blood cells and identifying immature red blood cells and mature red blood cells from the side scatter and fluorescence measurement. In embodiments, data collected includes the exact number of red blood cells, the fraction limits in fluorescence and side scatter units, the mean value of each fraction in fluorescence and side scatter units, the mean FL1 values per fraction in arbitrary units and the mean side scatter values per fraction in arbitrary units. In embodiments, a method also includes deriving a HbA1c content from the measured mean fluorescence of the individual red blood cells and determining the percentage of HbA1c from the HbA1c content and the hemoglobin content of the red blood cells.

Abstract: The present invention relates to new probes and methods for determining the concentration of copper. In particular the present invention refers to a method for determining the concentration of “free” copper in a serum or blood sample with a high degree of sensitivity and accuracy.

Abstract: Provided are devices, systems and methods for evaluation of hemostasis. In some embodiments, an apparatus is disclosed comprising a housing; a plurality of test chambers located in the housing, the plurality of test chambers including chambers configured for measurements via a system that interrogates one or more viscoelastic properties of test samples in the test chambers, wherein the one or more viscoelastic properties is used to characterize dynamics of coagulation and/or fibrinolysis.

Abstract: A technique relates to a machine for sorting. A removable cartridge includes a nanofluidic module. The removable cartridge includes an input port and at least two output ports. The nanofluidic module is configured to sort a sample fluid. A holder is configured to receive the removable cartridge. A pressurization system is configured to couple to the input port of the removable cartridge. The pressurization system is configured to drive the sample fluid into the nanofluidic module for separation to the at least two output ports.

Abstract: The present disclosure relates to the estimation of a velocity of a first object using accelerometer signals, indicating an acceleration of the first object and/or a second object coupled to a first object. To this end, a characteristic frequency in the accelerometer signal spectrum may be determined, preferably by applying a parametric model or by performing a spectrum analysis, and used as a basis to estimate the velocity of the first object based on the determined characteristic frequency. The characteristic frequency may be determined by identifying the frequency having the maximum spectral amplitude or by identifying the fundamental frequency or a particular harmonic in the spectrum.

Abstract: A direction detecting device according to an exemplary embodiment of the present invention includes; a structure having at least two through-holes passing through an upper surface and a lower surface thereof; and at least two electrode units inserted into the at least two through-holes and each including a dielectric layer, a first electrode layer disposed on an upper surface of the dielectric layer and exposed at the upper surface of the structure, and a second electrode layer disposed on a lower surface of the dielectric layer and exposed at the lower surface of the structure.

Abstract: A microelectromechanical systems (MEMS) device, such as a single axis accelerometer, includes a movable mass suspended from a substrate. The movable mass has a first portion and a second portion. A first spring system interconnects the first portion of the movable mass with the second portion of the movable mass. A second spring system interconnects the first portion with an anchor system. The first spring system enables movement of the second portion of the movable mass in response to a shock event force imposed on the movable mass in a first direction that is orthogonal to a sense direction, wherein the first spring system inhibits movement of the first portion of the movable mass in the first direction in response to the shock event force. However, the first and second movable masses move together in response to an acceleration force in the sense direction.

Abstract: A microelectromechanical system (MEMS) accelerometer is described. The MEMS accelerometer is arranged to limit distortions in the detection signal caused by displacement of the anchor(s) connecting the MEMS accelerometer to the underlying substrate. The MEMS accelerometer may include masses arranged to move in opposite directions in response to an acceleration of the MEMS accelerometer, and to move in the same direction in response to displacement of the anchor(s). The masses may, for example, be hingedly coupled to a beam in a teeter-totter configuration. Motion of the masses in response to acceleration and anchor displacement may be detected using capacitive sensors.

Abstract: A cantilever system for use in an atomic force microscope (AFM) is disclosed. The cantilever system comprises a base cantilever portion and a paddle connected to the base cantilever portion with one end free to move relative to the base cantilever portion. The base cantilever portion has an effective bending stiffness, k1, and the paddle has an effective bending stiffness, k2. The ratio of the effective bending stiffness, k1, to the bending stiffness, k2, is at least greater than 4. Such a cantilever system provides a stable, i.e., invariant contact resonant frequency, independent of the changes in the local contact stiffness.

Abstract: The present invention provides a prober and a transfer unit being capable of improving throughput at each of the measurement units. The prober includes a transfer object housing that houses a plurality of transfer objects, the plurality of measurement units, the transfer unit that moves between the transfer object housing for housing the plurality of transfer objects and the plurality of measurement units to transfer the transfer objects into the transfer object housing or each of the measurement units, and a moving device. The transfer unit includes environment controller configured to control an environment in a casing, and air curtain formation means for causing the casing to be in a sealed or a substantially sealed state.

Abstract: A probe head is provided. The probe head includes a substrate, a plurality of probes, a post and a fastening sleeve. The probes are disposed on the substrate. The substrate is affixed to one end of the post. The fastening sleeve is affixed to the other end of the post.

Abstract: An adjustable clamping device for mechanical and electrical connection to sides of a conductor includes a first clamping member having a first base and a first arm, a second clamping member having a second base and a second arm, and a coupling member configured to adjustably couple the first clamping member with the second clamping member such that the first arm is spaced from the second arm by a desired distance. The coupling member is also configured to prevent decoupling of the first clamping member from the second clamping member.

Abstract: A dynamic measuring system is described that comprises a measuring device. The measuring system has an acquisition unit and a post processing unit that is configured to post process the digital signal. The post processing unit has at least one signal correction filter being configured to be operated in at least two different modes for processing the digital signal. The signal correction filter has at least a first signal correction filter setting being used in a first mode and a second signal correction filter setting being used in a second mode. In addition, the measuring system has a switching unit that is configured to select the first mode or the second mode, the switching unit being configured to be operated dynamically based on an event in the data signal. The signal correction filter comprises time variable coefficients. Further, a method for probing a dynamic data signal is also described.

Abstract: A voltage sensor and the method for compensating installation position variation thereof are disclosed. The voltage sensor may comprise a casing, two substrates, a plurality of voltage sensing units and an iterative operation unit. One side of the casing may include two grooves. The substrates may be respectively disposed in the grooves, and an accommodating space is formed between the substrates. The voltage sensing units may be disposed on the substrates to measure a plurality voltage parameters of a dual-wire power cable disposed in the accommodating space. The iterative operation unit can be disposed in the casing and connected to the voltage sensing units, wherein the iterative operation unit can perform an iterative operation process according to a compensation database and the voltage parameters for compensating the horizontal and vertical displacements occurring when installing the voltage sensor on the cable, and calculate the estimated input voltage of the cable.

Abstract: A voltage-current sensor enables more accurate measurement of the voltage, current, and phase of RF power that is delivered to high-temperature processing region. The sensor includes a planar body comprised of a non-organic, electrically insulative material, a measurement opening formed in the planar body, a voltage pickup disposed around the measurement opening, and a current pickup disposed around the measurement opening. Because of the planar configuration and material composition of the sensor, the sensor can be disposed proximate to or in contact with a high-temperature surface of a plasma processing chamber.

Abstract: A coreless current probe has a body defining an opening. A conductor carrying a current to be measured can be accommodated in the opening. At least three coreless single point magnetic field sensors are distributed in or on the body around the opening. The sensors are arranged so that the sum of the outputs each with appropriate weighting is zero in any homogenous field and with no enclosed current. The sensors outputs have differing weightings so as to maximize rejection by the probe of external magnetic fields.

Abstract: The apparatus for detecting current includes: a charging stage having one end connected to a power source and another end connected to an inductor and configured to charge the inductor with a current; a discharging stage having one end connected to the inductor and another end connected to ground potential and configured to discharge the current charged in the inductor; and a detecting stage configured to detect a magnitude of a current flowing through the inductor based on a first output voltage output from a first output node of the charging stage when the inductor is charged by the charging stage or on a second output voltage output from a second output node of the discharging stage when the inductor is discharged by the discharging stage.

Abstract: A semiconductor device for monitoring a reverse voltage is provided. The semiconductor device includes an intellectual property having an input node and an output node; a passive component connected between the output node and a potential; a monitoring circuit connected to the input node and the output node and powered by a driving power, the monitoring circuit monitoring a difference between an input level at the input node and an output level at the output node to detect a reverse voltage across the intellectual property. The driving power is provided by the output node.

Abstract: An alternating current load detection circuit comprises a first resistor connected in parallel to a load circuit, a diode full bridge circuit connected in series to the load circuit, a filter capacitor connected in parallel to the diode full bridge circuit, a second resistor, and a photoelectric coupler connected in series to the diode full bridge circuit. The photoelectric coupler and the diode full bridge circuit are connected in parallel to the second resistor. The diode full bridge circuit includes a first diode, a second diode having a positive electrode electrically connected to a negative electrode of the first diode, a third diode having a negative electrode electrically connected to a positive electrode of the first diode, and a fourth diode having a positive electrode electrically connected to a negative electrode of the second diode and a negative electrode electrically connected to a positive electrode of the third diode.

Abstract: Cable assemblies react to electrical power. A visual indicator in a cable assembly changes color in response to the electrical power. The visual indicator, for example, may respond to heat or electromagnetic field in the cable assembly. In smart cables, a controller may activate the visual indicator in response to the electrical power applied to the cable.

Abstract: Disclosed is an electromagnetic wave reverberation chamber including a column-type mode stirrer including a plurality of plate-shaped electromagnetic wave reflectors connected by a metal column provided on a bottom of the electromagnetic wave reverberation chamber, a ceiling-type mode stirrer including a plurality of plate-shaped electromagnetic wave reflectors connected by a metal column provided on a wall surface of the electromagnetic wave reverberation chamber and disposed around a ceiling of the electromagnetic wave reverberation chamber, and a pyramidal mode stirrer including a plurality of pyramid-shaped electromagnetic wave reflectors and disposed on a wall surface of the electromagnetic wave reverberation chamber.

Abstract: An Electromagnetic Interference Pattern Recognition Tomography (EMIPRT) method for use in an image reconstruction system includes generating electromagnetic field data corresponding to an object in an imaging domain, via an electromagnetic tomography system, and using the generated electromagnetic field data, repeatedly, in recursive manner, forming an undisturbed electromagnetic interference image, forming a disturbed electromagnetic interface image based on the undisturbed electromagnetic interference image, recognizing electromagnetic interference patterns in the repeatedly formed disturbed electromagnetic interface images, and forming a superposition image by nullifying or diminishing the recognized electromagnetic interference patterns from the disturbed electromagnetic interface image.

Abstract: A high voltage conductor for transmitting high voltage is provided. The high voltage conductor includes a power wire, a fault detection unit, and a monitoring unit. The power wire is configured for transmission of electrical energy. The fault detection unit is configured for detecting an electromagnetic field emanated by the power wire, and the monitoring unit is configured for detection of degradation in an isolation of the high voltage conductor. The monitoring unit is connected to the fault detection unit and is configured to receive an electrical signal induced in the fault detection unit, which electrical signal is induced as a result of a degradation of the isolation of the high voltage conductor. Thus, degradation of the isolation of the high voltage conductor may be recognized at an early stage.

Abstract: A method estimates a system value which indicates a state of an electrical distribution system. The method includes the steps of measuring one or more electrical quantities at a plurality of system nodes and providing measurement values, and generating the system value based on the measurement values as well as on weighting coefficients that define or reflect the timely change rate of the measurement values and/or the transmission rate of the measurement values.

Abstract: In order to identify an arc occurrence position in a DC power source, this arc occurrence position detection device (15) is provided with an arc detection unit (31) which detects occurrence of arc in a solar battery string (11), a disconnection position detection unit (32) which detects a disconnection position in the solar battery string (11), and a main control unit (33) which, when the arc has occurred, outputs the disconnection position detected by the disconnection position detection unit (32) as the arc occurrence position.

Abstract: An apparatus for detecting quality of an indoor power distribution line including a power input module, a switch circuit, a load circuit and a detecting module is provided. The power input module receives an AC power through an indoor power distribution line. The switch circuit is controlled by the detecting module to transmit the AC power to the load circuit. When the switch circuit is on, the detecting module detects a voltage and a current of the load circuit to respectively serve as a first voltage value and a first current value. When the switch circuit is off, the detecting module detects a voltage of the AC power to serve as a second voltage value. The detecting module determines the quality of the indoor power distribution line based on a measurement resistance thereof obtained according to the first voltage value, the first current value and the second voltage value.

Abstract: An adaptor plug assembly includes an adaptor plug and a mobile device which has a receiving unit. The adaptor plug includes a housing having a first connection end from which two terminals extends, and a second connection end in which three receptacle holes are defined. The two terminals are connected to the second connection end. A coil is mounted to one of the two terminals and electrically connected to a micro controller which includes a calculating unit, a transforming unit and a wire-less transmitting unit. The transforming unit receives current inducted by the coil and transforms the current into a first signal which is sent to and calculated by the calculating unit to be a second signal which is transmitted by the wire-less transmitting unit to the receiving unit of the mobile device. A power unit is installed in the housing provides power to the micro controller.

Abstract: A current conduction element includes an electrical, conductor and an insulation of the electrical conductor. The insulation includes a light waveguiding unit. Furthermore, a system and method for insulation monitoring are described.

Abstract: An apparatus for predicting a future state of an electronic component is provided. The apparatus includes a measuring unit configured to measure a waveform of a signal related to the electronic component. Further, the apparatus includes a processing unit configured to calculate a predicted value of a characteristic of the electronic component based on a reliability model of the electronic component using the waveform of the signal.

Abstract: A method for determining a two-dimensional spectrum of a specified carrier having a specified mobility and density in a material of an electronic device, the method including performing a magnetic field-dependent Hall measurement on the material of the electronic device; determining, using the magnetic field-dependent Hall measurement, a probability density function of a conductance of the material of the electronic device, wherein the probability density function describes a spectrum of a plurality of m-carriers, wherein the plurality of m-carriers includes the specified carrier having the specified mobility and density; and determining an electrical transport of a plurality of electrons and holes inside the material of the electronic device by observing a variation of the probability density function with any of the specified mobility and density of the specified carrier.

Abstract: The invention is directed to systems and methods for detecting occurrence of at least one event in a household environment. In one embodiment, the method includes receiving energy profile data determined for the household environment. The method may further include analyzing the energy profile data to obtain operation parameters for appliances being used in the household environment. The method may further include comparing the operation parameters with steady state parameters for each of the appliance based one or more deviation rules. The method may further include detecting occurrence of the at least one event in the household environment based on the comparing.

Abstract: Computer implemented methods of designing integrated circuits and computing systems are provided. A computer implemented method of designing an integrated circuit according to the inventive concepts may be performed by a processor and may include performing a placement and routing (P&R) operation for standard cells defining the integrated circuit, extracting characteristic values from a result of the P&R operation, generating a physical-aware annotation file by determining a plurality of representative characteristic values that respectively correspond to a plurality of groups based on the extracted characteristic values, and performing a physical-aware synthesis operation to generate a netlist from input data for the integrated circuit, based on the generated physical-aware annotation file.

Abstract: The Configurable Vertical Integration [CVI] invention pertains to methods and apparatus for the enhancement of yields of 3D or stacked integrated circuits and herein referred to as a CVI Integrated Circuit [CVI IC]. The CVI methods require no testing of circuit layer components prior to their fabrication as part of a 3D integrated circuit. The CVI invention uses active circuitry to configure the CVI IC as a means to isolate or prevent the use of defective circuitry. CVI circuit configuration method can be predominately described as a large grain method.

Abstract: A turret handler is provided. The turret handler is adapted to test an electronic element. The electronic element includes an element body and a plurality of leads. The turret handler includes a nozzle, a stage, a test block, and an abutting unit. The nozzle is adapted to hold the element body to move the electronic element. The test block is disposed on the stage. The nozzle moves the electronic element to the test block. The test block includes a coupling unit and an initiative portion. The coupling unit includes a coupling portion, a pressing portion, and an elastic structure. The elastic structure is connected to the pressing portion. The initiative portion is connected to the elastic structure.

Abstract: An integrated circuit chip includes at least two integrated circuits, at least three scan chains, and a multiplexor circuitry. Each integrated circuit includes an integrated circuit input port and an integrated circuit output port. The scan chains and the integrated circuits are coupled by default with a series chain having integrated circuits and scan chains alternating each other. The series chain starts with an initial scan chain and ends with the end scan chain. Each scan chain except the initial one includes a first scan chain input port coupled by default with the integrated circuit output port of the respective adjacent integrated circuit. Each scan chain except the end one includes a first scan chain output port coupled by default with the integrated circuit input port of the respective adjacent integrated circuit.

Abstract: Circuits and methods for loopback testing are provided. A die incorporates a receiver (RX) to each transmitter (TX) as well as a TX to each RX. This architecture is applied to each bit so, e.g., a die that transmits or receives 32 data bits during operation would have 32 transceivers (one for each bit). Focusing on one of the transceivers, a loopback architecture includes a TX data path and an RX data path that are coupled to each other through an external contact, such as a via at the transceiver. The die further includes a transmit clock tree feeding the TX data path and a receive clock tree feeding the RX data path. The transmit clock tree feeds the receive clock tree through a conductive clock node that is exposed on a surface of the die. Some systems further include a variable delay in the clock path.

Abstract: A self-test controller includes a memory configured to store a test patterns, configuration registers, and a memory data component. The test patterns are encoded in the memory using various techniques in order to save storage space. By using the configuration parameters, the memory data component is configured to decode the test patterns and perform multiple built-in self-test on a multitude of test cores. The described techniques allow for built-in self-test to be performed dynamically while utilizing less space in the memory.

Abstract: The present invention provides a diagnosis system for vehicular DC charging relay, the system comprises a controller, two resistor clusters R1 and R2, and a switch S, wherein, two resistor clusters R1 and R2 are bridging in a serially connected way in between the DC charging high voltage cables of the vehicle, the resistor cluster R1 consists of two serially connected sub-resistors, and the controller is able to measure a voltage V1 at a common terminal of the two serially connected sub-resistors via a first voltage detection port, the resistor cluster R2 consists of two serially connected sub-resistors, and the controller is able to measure a voltage V2 at a common terminal of the two serially connected sub-resistors via a second voltage detection port, the controller is able to execute a diagnosis operation, and the diagnosis operation is based on the measurements of the voltages V1 and V2.

Abstract: A machine control system and a method of detecting a current sensor malfunction include obtaining a first current signal from a first current sensor corresponding with a first phase of a multi-phase machine, obtaining a second current signal from a second current sensor corresponding with a second phase of the multi-phase machine, and obtaining a position signal indicating an angular position of a rotor of the multi-phase machine corresponding with values of the first current signal and the second current signal. A determination is made of whether the current sensor malfunction occurred in the first current sensor or the second current sensor based only on the values of the first current signal and the second current signal at four of the angular positions of the rotor.

Abstract: The present disclosure relates to systems and methods for attenuation correction. The system includes a coil module, which includes a flexible coil and a supporter. The supporter may be configured to hold the flexible coil. The flexible coil may be deformed to form a receiving space.

Abstract: A semiconductor device including: lines connected to lines between respective neighboring battery cells of plural battery cells connected in series; at each of the battery cells, a voltage detection portion that detects a battery voltage value of the battery cell based on a voltage provided by the lines connected to the high potential side of the battery cell and to the low potential side of the battery cell; and at each of the lines, a regulation portion that regulates current to make a first current and a second current cancel out, the first current being caused to flow in a first direction in the resistor element by the battery cell at the high potential side of the line, and the second current being caused to flow in a second direction in the resistor element by the battery cell at the low potential side of the line.

Abstract: There is described a dissociating module for monitoring an object and managing electric input into and output from the object, the object being a battery or a load. The dissociating module is for use with at least one other dissociating module. The dissociating module comprises: measuring devices for taking measurements of the object; a microcontroller operatively connected to the measuring devices for receiving the measurements of the objects, and for operative connection to a microcontroller of the at least one other dissociating module for receiving information therefrom; and switches, operatively connected to the microcontroller. The microcontroller, based on at least one of the measurements of the object received and the information received from the at least one other dissociating module, controls opening and closing of the switches for controlling electrical current in the dissociating module.

Abstract: The present invention provides an insulation resistance measurement method capable of accurately measuring an insulation resistance even though insulation breakdown occurs in both ends of a battery by improving an insulation resistance measurement algorithm in spite of utilizing an existing insulation resistance measurement circuit as it is in measuring insulation breakdown of the battery.

Abstract: There is provided a battery comprising an electrochemical unit comprising at least one electrochemical cell. The at least one electrochemical cell comprises a cell anode, a cell cathode and an electrolyte in contact with said cell anode and cell cathode. The electrochemical unit further comprises a first contact electrode mounted on a surface of the electrochemical unit. The battery further comprises a second contact electrode positioned adjacent to the electrochemical unit, whereby the first and second contact electrodes face each other to allow a contact resistance between the first contact electrode and second contact electrode to be measured.

Abstract: A power supply device includes a voltage adjusting unit, an A/D converter, a determination unit, and a supply unit configured to supply a voltage. The A/D converter includes an A/D conversion circuit, and a selector that connects any one of a plurality of input ports to the A/D conversion circuit. The input ports include load ports, a first diagnostic port, and a second diagnostic port, the supply unit supplies a first voltage value to the first diagnostic port and supplies a second voltage value to the second diagnostic port, and the determination unit determines abnormality of the A/D converter on the basis of conversion results by the A/D conversion circuit when the first diagnostic port and the A/D conversion circuit are connected together and conversion results by the A/D conversion circuit when the second diagnostic port and the A/D conversion circuit are connected together.

Abstract: A magnetic sensor apparatus includes: a first magnetic detection element unit, which outputs a first sensor signal, and a second magnetic detection element unit, which outputs a second sensor signal, based on change in an external magnetic field; a first operation processing unit, which calculates a predetermined physical quantity based on the first sensor signal; a second operation processing unit, which calculates a predetermined physical quantity based on the second sensor signal; and a sealing unit, which seals at least the first magnetic detection element unit and the second magnetic detection element unit as a single body.

Abstract: A reduced-cost apparatus for calibrating the sensitivity and orthogonality of a triaxial magnetometer, and a method for adjusting the distance between the two coils of a Helmholtz coil and other related parameters are described herein. A method can include positioning a calibrated magnetometer within a mounting fixture between two coils of a Helmholtz coil, the two coils arranged in mutually parallel planes and separated by the radius of the Helmholtz coil, the mounting fixture mounted such that a position of the mounting fixture is adjustable along an axis orthogonal to the mutually parallel planes; adjusting the position of the mounting fixture over at least some of the positions and measuring the magnetic field at each position to generate a set of magnetic field measurements associated with the positions; and adjusting the first distance based on the first set of magnetic field measurements. Additional apparatuses, systems, and methods are disclosed.

Abstract: A charge-carrier Hall-effect sensor comprising: a semiconductor or a semimetal layer; a pair of electric current contacts in electrical contact with the semiconductor or semimetal layer and separated in a first longitudinal direction along a first electric current channel; a pair of voltage contacts in electrical contact with the semiconductor or semimetal layer and separated in a second transverse direction, orthogonal to the first direction, and positioned on either side of the electric current channel; an electrically insulating layer underlying the semiconductor or the semimetal layer; and a ferromagnetic layer underlying the electrically insulating layer comprising at least one region having a magnetic moment with a component perpendicular to a plane comprising the pair of electric current contacts and the pair of voltage contacts.

Abstract: According to one embodiment, a sensor includes a first film, a first sensor portion, a driving portion, and a processor. The first sensor portion is provided at the first film. The first sensor portion includes a first magnetic layer, a second magnetic layer, and a first intermediate layer. The second magnetic layer is provided between the first film and the first magnetic layer. The first intermediate layer is provided between the first magnetic layer and the second magnetic layer. The driving portion causes the first film to deform at a first frequency. The processor outputs a third signal based on a first signal and a second signal. The first signal relates to the first frequency. The second signal is output from the first sensor portion.